AvNAC030, a NAC Domain Transcription Factor, Enhances Salt Stress Tolerance in Kiwifruit

Ming Li; Zhiyong Wu; Hong Gu; Dawei Cheng; Xizhi Guo; Lan Li; Caiyun Shi; Guoyi Xu; Shichao Gu; Muhammad Abid; Yunpeng Zhong; Xiujuan Qi; Jinyong Chen

doi:10.3390/ijms222111897

. 2021 Nov 2;22(21):11897. doi: 10.3390/ijms222111897

AvNAC030, a NAC Domain Transcription Factor, Enhances Salt Stress Tolerance in Kiwifruit

Ming Li ^1,^*, Zhiyong Wu ¹, Hong Gu ¹, Dawei Cheng ¹, Xizhi Guo ¹, Lan Li ¹, Caiyun Shi ¹, Guoyi Xu ¹, Shichao Gu ¹, Muhammad Abid ^1,^2,^*, Yunpeng Zhong ¹, Xiujuan Qi ¹, Jinyong Chen ¹

Editor: Ioannis-Dimosthenis Adamakis

PMCID: PMC8585034 PMID: 34769325

Abstract

Kiwifruit (Actinidia chinensis Planch) is suitable for neutral acid soil. However, soil salinization is increasing in kiwifruit production areas, which has adverse effects on the growth and development of plants, leading to declining yields and quality. Therefore, analyzing the salt tolerance regulation mechanism can provide a theoretical basis for the industrial application and germplasm improvement of kiwifruit. We identified 120 NAC members and divided them into 13 subfamilies according to phylogenetic analysis. Subsequently, we conducted a comprehensive and systematic analysis based on the conserved motifs, key amino acid residues in the NAC domain, expression patterns, and protein interaction network predictions and screened the candidate gene AvNAC030. In order to study its function, we adopted the method of heterologous expression in Arabidopsis. Compared with the control, the overexpression plants had higher osmotic adjustment ability and improved antioxidant defense mechanism. These results suggest that AvNAC030 plays a positive role in the salt tolerance regulation mechanism in kiwifruit.

Keywords: kiwifruit, salt tolerance, oxidative stress, ROS, NAC

1. Introduction

Soil salinization can destroy the ionic and osmotic balance of plant cells, inhibit their growth and development, and reduce the yield and quality of crops, making soil salinization a worldwide problem that restricts the healthy and sustainable development of modern agriculture [1]. In arid agricultural areas, soil salinization is becoming more and more serious due to the lack of rainfall, strong light, and other factors that will lead to the accumulation of soluble salt in the soil on the surface, coupled with improper irrigation and excessive fertilization [2]. For these reasons, over 800 million hectares of land around the world are affected by salt, more than 6% of the world’s total land area [3]. At present, 45 million hectares (19.5%) of 230 million hectares of arable land in the world are affected by soil salinization, and, due to climatic factors and unreasonable irrigation, this number is increasing year by year [4,5,6]. Therefore, soil salinization has become one of the main limiting factors restricting the development of agriculture worldwide [7]. The soil replacement method, trenching and salt drainage, chemical reagent improvement, water and fertilizer regulation, and other measures are common soil improvement methods, but these methods are time-consuming, laborious, and easily lead to soil hardening. Cultivating salt-tolerant crops, as well as the selection of salt-tolerant rootstocks of fruit trees, without excluding the chance to enhance the suitable native wild species, are the most economical, effective, safe, and environmentally friendly methods [8,9]. As one of the four most successful artificially domesticated and cultivated trees in the 20th century, kiwifruit (Actinidia chinensis Planch) has a unique flavor and is rich in vitamin C, which is the antiviral vitamin par excellence and used as a cure for COVID-19. Kiwifruit has the effect of clearing the intestine and strengthening the stomach, and is increasingly favored by consumers [10]. Huang et al. believed that Actinidia Lindl. has a total of 75 taxa, consisting of 54 species and 21 varieties, which are mainly distributed in China and neighboring countries [11]. Although more than 100 varieties (or strains) have been selected from wild or seeding populations and cross breeding through breeding programs in countries such as China, New Zealand, Italy, and Chile, little research has been conducted on assessing rootstock resistance, especially salt tolerance [12,13]. Kiwifruit is a fleshy root that prefers neutral and acidic soil [14]. Its roots are mostly distributed in the upper soil about 40 cm beneath the surface. This depth is also the area of salt accumulation and deposition [15]. Some major varieties of kiwifruit are sensitive to salt, which seriously affects the fruit yield and quality. The problem of soil salinization in some kiwifruit production areas is becoming increasingly prominent, and salt stress has become the main obstacle to the sustainable development of the kiwifruit industry.

The growth limit salinity of kiwifruit is low. When the soil salinity concentration reaches 0.14%, it will cause salt damage to the plant and interfere with the normal growth and development of the plant. When the salt concentration reaches 0.54%, the kiwifruit yield will decrease sharply and the salinity may even lead to the death of the plant [16]. Salt damage in plants can be attributed to ion stress, osmotic stress, and oxidative stress [17]. After Na⁺ enters the cell, it accelerates the degradation of metabolism-related enzymes in the cytoplasm, reduces the K⁺/Na⁺ ratio, destroys the resting potential of the cell membrane, and leads to metabolic disorder and ion toxicity [18]. The increase in Na⁺ and Cl⁻ content in soil affects the absorption of Fe²⁺ by the roots and leads to leaf yellowing, which is particularly serious in kiwifruit. In addition, the absorption of Ca²⁺, K⁺, HPO₄²⁻, and NO³⁻ is also affected, resulting in plant ion imbalance. The lack of mineral nutrients obstructs the formation and transport of photosynthates, thus reducing the content of ATP and nutrients, resulting in nutrient deficiency and ion stress. [19]. In salinized soil, the water potential of plant root cells is higher than the external environment, the water potential difference cannot be used to absorb water, and the water absorption amount is lower than the transpiration amount, leading to physiological drought. In severe cases, the water in the plant penetrates outward and causes dehydration, resulting in osmotic stress [20]. After salt stress, photosynthesis is inhibited, a large number of electrons are accumulated, and the content of reactive oxygen species (ROS) increases rapidly, resulting in the degradation of enzymes, nucleic acids, and other macromolecular substances. In addition, ROS can destroy the structure of chloroplasts, mitochondria, and the cell membrane, resulting in oxidative stress [21]. After salt damage, kiwifruit morphology is mainly characterized by the inhibition of plant growth, the decline of organic matter accumulation, an insufficient supply of nutrients, and short branches and internodes [22]. The plant may stop growing or even die in serious cases.

During the long-term evolution of plants, a set of resistance mechanisms against salt stress have been developed [23]. These mechanisms are mainly divided into salt avoidance mechanisms and salt tolerance mechanisms, among which salt tolerance mechanisms are divided into ion balance and regionalization, osmotic adjustment, and antioxidant defense mechanisms [24]. After sensing the external stress, the plasma membrane will trigger the transmission of calcium signals, an SOS pathway, and hormones so as to activate the response mechanism [25]. Transcription factors are the key factors linking salt stress response signals with plant salt tolerance regulatory networks and can precisely regulate downstream target genes [26]. Under salt stress, transcription factors can simultaneously regulate multiple downstream stress-responsive genes, activate the salt-tolerant response of plants, and reduce or eliminate the damage caused by salt stress [23]. At present, the reported transcription factor families related to the mechanism of plant salt tolerance include NAC, MYB, WRKY, bZIP, AP2/ERF, and bHLH [27]. Among them, NAC transcription factors play a key role in regulating the response mechanism of plants to salt stress [28]. Under salt stress, plants can regulate cell osmotic pressure by accumulating osmotic regulators, stabilizing protein and membrane structures, and eliminating ROS through oxidative defense mechanisms to reduce the damage caused by oxidative stress [29]. Wang et al. found that rice plants overexpressing ThNAC13 improved salt tolerance by accumulating osmotic regulatory substances and scavenging ROS [30]. After overexpression of OoNAC72 in Arabidopsis thaliana, Guan et al. found that transgenic plants carry out osmotic regulation and remove ROS after salt stress so as to reduce peroxidation damage [31]. Li et al. used gene editing combined with genetic transformation and other molecular biology techniques and found that GmNAC06 could reduce the content of ROS in plants through the accumulation of osmotic mediating substances, thereby increasing the salt tolerance of plants [32].

We screened Actinidia valvata germplasm material ZMH (Zhenmu, Hunan) with strong salt tolerance and rootstock application prospects in the early stage [33]. We used this as a material to screen 120 AvNAC genes based on conserved domains. Then, we conducted a systematic and comprehensive analysis of the NAC family, including systematic evolutionary relationships, conservative motifs, protein network interaction prediction, and key amino acid residue distribution, and combined this data with sequencing results to screen candidate genes [34,35,36,37,38,39]. Subsequently, we verified the function of the AvNAC030 gene by heterologous expression in Arabidopsis. The phenotypic analysis, molecular experiments, and physiological parameters showed that AvNAC030 increased plant salt tolerance. The above results have important theoretical and practical significance for further understanding the molecular mechanism of salt tolerance in kiwifruit and accelerating the cultivation of salt-tolerant rootstocks and varieties.

2. Results

2.1. Phylogenetic Analysis of the NAC Family in Kiwifruit

NAC (NAM, ATAF1,2, and CUC2) protein, as a plant-specific transcription factor, is widely distributed in terrestrial plants [40]. The diversity of NAC family members indicates the diversity of their functions, which are related to plant growth and development and stress responses [41]. Family members with close relatives may have similar functions, so phylogenetic analysis is of guiding significance for gene function prediction [42]. Taking the Arabidopsis NAC family as a reference, we used the nomenclature protocol to construct an unrooted phylogenetic tree of 120 NAC members of kiwifruit according to the multiple sequence alignments of conserved domains (Figure 1) [43,44]. On the basis of Heim’s method, we made a few appropriate adjustments (Table 1). For example, the NAC2 subfamily was divided into the VII a and VII b subfamilies. The TERN subfamily and ONAC022 subfamily were merged into the IX subfamily and formed a sister subfamily. Subfamily NAP and subfamily AtNAC3 in subfamily X are also sister subfamilies, implying their co-evolution [45,46]. Finally, according to 105 NAC members of Arabidopsis, the kiwifruit NAC family was divided into 13 subfamilies. Subfamily II has no AvNAC members, which may be the result of long-term evolution. AtNAC097 could not be classified in any of these 14 subfamilies and was therefore classified as an orphan [47]. The number of members in different subfamilies varies greatly. Subfamily VII b and IX, with the largest number of family members, both contain 22 AvNACs, while the subfamilies V and XII, with the smallest number, contain 2 AvNACs. These results provide evidence for the evolutionary relationship of the kiwifruit NAC family.

Phylogenetic analysis of the NAC transcription factors of kiwifruit and *Arabidopsis*.

Table 1.

Subfamily classification adjustment.

Family Number	Family Name
I	ANAC001
II	ANAC063
III	ONAC003
IV	SENU5
V	OsNAC8
VI	TIP
VII a	NAC2
VIII	ANAC011
VII b	NAC2
IX	TERN, ONAC022
X	NAP, AtNAC3
XI	ATAF
XII	OsNAC7
XIII	NAC1, NAM

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2.2. The Motif Analysis of the NAC Family in Kiwifruit

Motifs play an important role in the interaction of different modules in the signal transduction and transcription complex [48,49]. We analyzed the sequence, length, distribution, and frequency of 20 conserved motifs of 120 VvNAC genes (Figure 2 and Table 2). Motif1, motif2, motif3, motif4, and motif5, which occur frequently, are mainly distributed at the N-terminal region of the NAC domain, indicating that these conservative motifs play an important role in the function of VvNAC [50]. Some less frequent motifs only appear in a specific subfamily. Motif6 appears only in subfamily III. Motif9, motif11, motif12, motif16, motif19, and motif20 also only appear in specific subfamilies, which may be related to the specific functions of these subfamilies. Therefore, both the number and type of motifs in different subfamilies are quite different. The average number of motifs in each subfamily is 3 to 7, and the types are 5 to 11. Each type of motif appears only once in each gene. However, the occurrence times of each motif are different. Motif3 appears 98 times, and motif13 and motif20 appear only 6 times. There are also great differences in the motif types of each gene. Some genes have 10 types, and some have only one type.

The conservative motif analysis of the NAC family in kiwifruit. The rectangles of different colors represent different conservative motifs, and black lines represent the non-conserved sequences.

Table 2.

Normal expression sequences of 20 motifs identified. Sites represent the time of motif appeared.

Motif	Sequences	Sites	Length (aa)
Motif1	G[FY][RK]F[HRSL]PT[DE][EKQ][EQ]L[VIL][QVGDIN][YHQ]YL[KRCM][RSN][KR][IAV][CSNY][GSD][KDL][PER][FLI][RAP][VFL] [ED][VI][IV][SARP][EDV][VIT][DE][VLI][YCN][KH][SQF][ED]P[WLE]	80	41
Motif2	[GRN][DE][LKDR][EQ][WYR][YF]FF[SC][PLT][RKVL][DE][RKA]KY[PGQ][NT]G[SQVA]R[TLPS]NR[AV][TA][EGRK][RSTK]G[YF] WK[AT]TG[KAR]D[RK][TPKS][IV][RFV][SHC]	68	41
Motif3	[FYV][YH][RKSGENA][GV][RK][AG]P[KR]G[EKQTI][RK]T[ND]W[VI][MI][HQ][EQ]Y[RHT][LIA]	98	21
Motif4	[GKQSP][PKVTS][AGST][QLKA][DEG][ASD][FWYR][VAL][LVI][CY][RK][IVL][FIY][QKRL][KS][SKHN][GDERA][SLE][GKSIA] [PKVE][KNPE]	68	21
Motif5	[SGTPN][KQARVE][VTLA][IVTK]G[MCVI][KR][KT][TIA][LM][VD]	91	11
Motif6	H[PM][FL]IDEFIPT[VI][DKG][EGR][DE][DE]GICYTHP[QE][NKY]LPG[VA][KTR][QRT]DG[SLN][VS][SKYV]HFFH[RI][API][IS] [KNM]AY[NTA]TG[TQ]R	10	50
Motif7	[DQP][YRG][GY][AL][PQ][FI][IRKV][EPD]E[ED][WT][DNEA][DNE][DE][DVEA][SLCPNE][IVMLTF][VSMILCY][VIRDG][PGNQ][GDS]	25	21
Motif8	[VMTN][ER][IPAFH][SPA][NLK][LC][EGD][SD][LV][EVD][PKQ][KTN][EDFV][NSG][RSH][PK][NSEGA][KPTNI][VLA][KTE][AS] [IF][DTS][ESKDA][DNAT][FMNI][LQ][ESD][KE][PKSF]V[PT][PE]	20	33
Motif9	[MS]WYL[LI]RS[DE][HN][KN]KNSEHGFW[TR]ARG[DE][AG][SI]EIFM	10	29
Motif10	VN[AG]DD[SA][QK]VEGN[DE][FYL]EQD[TI]HS[HT]N[MK][AS][AP]L[YRC][QL][TA]EL[PQ][NI][GVLF][CSL][QNE][NTL][IVF] [PH][FL][FV][CFA]	8	41
Motif11	MAPRPRDSIGLYW[AT]D[EA][EA]IIMSLE[RGE]MEKGSP[IN]P[VE]NVSVDVNPYQ[YC]KP[LI][NY]L[PR]	7	50
Motif12	[QN][FD][QP][NY]GTNES[GVI]S[YSE]QN[ML][AS]VEI[EV]E[LYP]NYLN[IT][MV][NDS][FNI][LF]DKE[TI]GSCS[ED]SDADV [AT]QAQ[IVF]	7	50
Motif13	YLKFI[NS]NLENEILNVSMERETLKIE[VL]MRAQAMIN[VMI]LQ[SL]RI[DE][LV][LV]N[KR][ED]NE[DE][LR]	6	50
Motif14	RE[TR][SP][GE][YD][AC]P[FL]P[CG][TI][VA][DN][AP]E[PT][IL]S[VL]VPNK[KR][ST][RK][HN][DE][DN]PNSSNANGSEDS[TN]TT	7	45
Motif15	[AN][EA][KI][RLQ]S[KT][TAK][SMA][DR][SNK][CWR][LN][EA][EG]TS[DNI][ST][TIH][FND][IVA]A[TD][DS][AS][GRS][YSG][EH] [KS][AT][IF]P[PRV][DGRE][EYRK][KEA][KLN][ESFA][VET][AMY][GLN]	12	41
Motif16	[KTN][IEQ][HCQD][GDS][DLM][DQTK][FGK][GEC][DEG][VT]RWHKTG[RK]T[KR][PC]V	11	21
Motif17	[EMD][WA][PVFL][GMS][LV]P[AYRT]G[VF][KRT]F[DNS]P[STKE]D[QVH]E[LI][IML][EYW][HLI]L[LEYA][AR]K[VAC][EGNRH] [AVGI][GNK]	10	29
Motif18	[SVFYM][TSYNF][QSWTY][QSE][DQRE][NQIHE][SVGH][KSQNVA][SQCE][TVSED][DTSPH][KPSI][FTWR][ENAS][DHSNG] [EGDA][LF][PFGEA][DNQ][SGNEA][LTNFA][DAVH][LVYF][LMIQG][IRTQE][ADPN][LNYEA][VGML][ADT][APKV][VISNF] [STN][QPNAE][DQSA][NSEP][KVQHF][TGVSA][PNYAQ][DQNE][PATLM][NPF][RVQN][KTFSQ][ELPMD][SKTEM][QVME] [LAIDF][HASCM][CSFPL][ILSF]	19	50
Motif19	PN[QL]QAP[DY][CG][ND]GKIFSPVH[VRK]QMQ[TM]EL[GA][SY]	7	26
Motif20	NVG[DG]CTGSNDIHPSVVPKSG[SN]TSGQGCMS	6	29

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2.3. Analysis of Conserved Amino Acid Residues in the NAC Domain of Kiwifruit

A typical NAC protein consists of a conserved N-terminal NAC region (about 150 amino acids) and a diverse C-terminal transcriptional regulatory region [51,52]. The NAC domain with DNA binding ability in NAC transcription factors can be divided into five subdomains. The highly conserved positively charged C and D subdomains are responsible for binding to DNA. Nuclear localization signals (NLSs) present in C and D subdomains may be related to nuclear localization in transcription factors and the recognition of specific cis-acting elements on promoters. A subdomain is involved in the formation of functional dimers. B and E subdomains are not conservative and are responsible for the functional diversity of NAC genes [53]. In order to better understand the functions of the kiwifruit NAC family, we conducted multiple sequence array analysis of its 120 members (Figure 3A). Subsequently, we compiled statistics on the percentage of conserved amino acids in the five subdomains based on the previous report, and the results showed that there were 14 sites in which the consistency rate exceeded 75%. Among them, the D subdomain with DNA binding ability and containing NLSs contained the most sites, with eight sites. The A subdomain contained three sites, and the C subdomain contained two sites. The non-conserved B domain contained only one site, and the E domain had no sites.

The sequence analysis of five subdomains in kiwifruit. (A) Sequence logo of five subdomains in kiwifruit. (B) The conserved amino acid distribution in five subdomains in kiwifruit. The histogram shows the percentage of amino acids at this position.

2.4. The Expression Level of the AvNAC Family under Salt Stress

It was previously reported that members of the NAC family could improve the salt tolerance of plants [54]. The expression pattern of genes is related to their function [55]. In order to study the function of the NAC family in kiwifruit under salt stress, we used the salt-tolerant resource ZMH as a material to analyze the expression patterns of NAC family members after 0 (I), 6 (II), 24 (III), and 72 (IV) hours of salt stress (Figure 4). The fragments per kilobase per million (FPKM) values were used to estimate the expression characterization of the NAC family for screening the candidate genes associated with salt tolerance. The results showed that the expression of AvNAC030 and AvNAC031 of subfamily IV, AvNAC037 of subfamily VII a, AvNAC060 of subfamily IX, and AvNAC098 of subfamily XII increased significantly after salt stress.

The heatmap of the NAC family at different time points after salt treatment.

2.5. The Interaction Network Analysis of Candidate Genes

The prediction of gene interaction networks can help researchers understand gene functions quickly and effectively [56]. Therefore, we used STRING to predict the candidate gene interaction network based on the AvNAC orthologs in Arabidopsis (Figure 5). The expression of AvNAC030 (NAC019 in Arabidopsis) was induced by salt stress, and its interaction gene RHA2A was able to respond positively to salt stress and osmotic stress, while ZFHD1 was regulated by salt stress. AvNAC031 (NAC041 in Arabidopsis) is the transcription activator of the mannan synthase CSLA9. It can recognize and bind to the DNA-specific sequence of the CSLA9 promoter. AvNAC037 (NAC100 in Arabidopsis) can bind to the promoter regions of genes involved in chlorophyll catabolic processes. AvNAC060 (NAC070 in Arabidopsis) can control the cell wall maturation processes that are required to detach root cap layers from the root. AvNAC098 (NST1 in Arabidopsis) is a transcription activator of genes involved in the biosynthesis of secondary walls. Together with NST2 and NST3, AvNAC098 is required for the secondary cell wall thickening of sclerenchymatous fibers, secondary xylem (tracheary elements), and of the anther endocethium, which is necessary for anther dehiscence. It may also regulate the secondary cell wall lignification of other tissues. Based on the above results, it is speculated that AvNAC030 may be involved in the regulation mechanism of salt tolerance in kiwifruit.

The interaction network analysis for *AvNAC030*, *AvNAC031*, *AvNAC037*, *AvNAC060*, and *AvNAC098*. Note: *AvNAC* genes are shown in brackets.

2.6. Subcellular Localization of AvNAC030

We fused the green fluorescent protein (GFP) to the C-terminus of AvNAC030 with a mutation in the stop codon, and used the CaMV35S constitutive promoter to drive it to determine its subcellular location. Subsequently, 35S::AvNAC030:GFP fusion protein and control 35S::GFP were transferred into Arabidopsis protoplasts by a PEG-mediated method (Figure 6). AtBZR2 was fused to mCherry as a nuclear marker. The Arabidopsis protoplasts with 35S::GFP plasmid displayed fluorescence throughout the cells. In contrast, the Arabidopsis protoplasts with 35S::AvNAC030:GFP plasmid was detected only in the nucleus. This result suggests that AvNAC030 may encode a nuclear localized protein.

Subcellular localization of *AvNAC030.* (A) The vector control (*35S::GFP*) and fusion protein construct *35S::AvNAC030:GFP* were introduced into the *Arabidopsis* protoplast. (B) CDS and peptide sequence of *VvSAUR041*.

2.7. The Effects of Overexpression of AvNAC030 in Arabidopsis

Four-week-old homozygous T₃-generation Arabidopsis were used to study the function of AvNAC030 in response to salt stress in a substrate treated with 250 mM NaCl solution. The phenotype of overexpression (OE) plants was significantly superior to that of Vector control (VC) plants, although both OE and VC plants were damaged to varying degrees after salt treatment (Figure 7A). OE plants also had a higher survival rate after 4 weeks of salt treatment (Figure 7B). Subsequently, we determined the content of flavonoids with ROS scavenging abilities, and the results showed that the accumulation of total flavonoids in OE plants after salt treatment was significantly higher than that of VC plants (Figure 7C) [57]. At the same time, the leaves of OE plants suffered less damage than VC plants after salt stress, and the results of Fv/Fm images and Fv/Fm values were consistent with this phenotype (Figure 7D,E). Therefore, OE plants were considered to be more salt-tolerant than VC plants.

Phenotypic and physiological indexes of vector control (VC) and overexpression (OE) *Arabidopsis* under normal and stress conditions. (A) The phenotypic of VC and OE *Arabidopsis* under normal and stress conditions. (B) The survival rate of VC and OE *Arabidopsis* after salt stress. (C) The total flavonoid contents of VC and OE *Arabidopsis* under normal and stress conditions. (D) The Fv/Fm images of VC and OE *Arabidopsis* under normal and stress conditions. (E) The Fv/Fm value of VC and OE *Arabidopsis* under normal and stress conditions. Different letters represent significant difgerences (p < 0.05).

2.8. The Effects of AvNAC030 Overexpression on ROS Scavenging in Arabidopsis

ROS can reflect the degree of salt damage to plants, usually in the form of H₂O₂ and O²⁻, which can be directly reflected by the color after 3,3′-diaminobenzidine (DAB) and nitro blue tetrazolium (NBT) staining [58]. Therefore, in order to understand the ability of AvNAC030 to scavenge ROS, the OE and VC Arabidopsis before and two days after treatment were histochemically stained with DAB and NBT. DAB and NBT staining revealed no significant difference between OE and VC Arabidopsis before treatment. After salt treatment, OE plants showed the lowest levels of brown precipitate and blue spots compared with VC plants (Figure 8A,B). Subsequently, the content of H₂O₂ and O²⁻ was detected, and the results were consistent with the results of the dyeing tests (Figure 8D,E). We then observed the cell death of OE and VC plants through trypan blue staining, and the cell death was related to the degree of damage caused by ROS (Figure 8C). These results indicate that overexpression of AvNAC030 can effectively eliminate ROS and reduce the damage to plants caused by salt stress.

Reactive oxygen species (ROS) scavenging ability and cell death of vector control (VC) and overexpression (OE) *Arabidopsis* under normal and stress conditions. (A) 3,3′-diaminobenzidine (DAB) staining. (B) Nitro blue tetrazolium (NBT) staining. (C) Trypan blue staining. (D) H₂O₂ content. (E) O²⁻ content. Different letters represent significant difgerences (p < 0.05).

2.9. The Physiological Effects of AvNAC030 Overexpression in Arabidopsis

In order to study the function of AvNAC030 after salt stress, we used OE and VC plants before and two days after salt treatment as materials to detect the indexes related to the ability to scavenge ROS and regulate osmoregulation substances. The results showed that the electrolyte leakage (EL) and malondialdehyde (MDA) values of OE plants were significantly lower than that those of VC plants after two days of salt stress, indicating that the cell membrane integrity was better preserved by OE plants following salt stress (Figure 9A,B). We then tested the multifunctional osmolytes and found that the proline content of OE plants was significantly higher than that of VC plants after salt treatment (Figure 9D). Similarly, the activity of SOD (superoxide dismutase), POD (peroxidase), and CAT (catalase) in OE plants was significantly higher than that in VC plants after salt stress (Figure 9D–E). These results indicated that overexpression of AvNAC030 could effectively improve the salt tolerance of plants.

Antioxidant and osmotic indices of vector control (VC) and overexpression (OE) *Arabidopsis* under normal and stress conditions. (A) Electrolytic leakage. (B) Malondialdehyde (MDA) content. (C) Proline content. (D) Superoxide dismutase (SOD) activity. (E) Peroxidase (POD) activity. (F) Catalase (CAT) activity. Different letters represent significant difgerences (p < 0.05).

2.10. The Expression Analysis of Genes Involved in Salt Tolerance

To further investigate the molecular mechanism of AvNAC030 after salt stress, we measured the relative expression levels of marker genes related to salt stress. The results showed that after salt treatment, the expression levels of AtMYB111, AtOZF1 (Oxidation-related Zinc Finger 1), AtGSTU5 (Glutathione S-transferase class tau 5), and AtP5CS1 (delta1-pyrroline-5-carboxylate synthase 1) in OE plants were significantly higher than those in VC and WT (Wild type) plants. These results suggest that AvNAC030 may increase the salt tolerance of plants by regulating these salt stress-related genes (Figure 10).

The relative expression levels of salt stress-related genes. (A) The relative expression levels of *AtMYB111*. (B) The relative expression levels of *AtOZF1.* (C) The relative expression levels of *AtGSTU5*. (D) The relative expression levels of *AtP5CS1*. Different letters represent significant difgerences (p < 0.05).

3. Discussion

Kiwifruit has the effects of promoting digestion, lowering cholesterol, lowering blood lipids, enhancing immunity, preventing cancer, and being anticancer. It is known as the king of fruits and the king of vitamin C [59]. Although it is an emerging fruit tree, it has been developed rapidly in recent years. However, there are some restrictions in the process of industrial development. Kiwifruit is suitable for neutral acid soil, but soil salinization is increasing in kiwifruit production areas. It has adverse effects on the growth and development of plants, leading to the decline in yield and quality. Therefore, it is urgent to study its salt tolerance response mechanism and adaptation strategy, so as to provide a theoretical basis for the breeding of new kiwifruit varieties and the cultivation of resistant materials. In the preliminary study, the A. valvata germplasm material ZMH with strong salt tolerance was selected [34]. The root system of the material is well developed and has good compatibility as a rootstock for grafting the valvata Dunn, A. chinensis Planchon, A. deliciosa (Chev.) C. F. Liang & A. R. Ferguson, A. arguta (Siebold & Zucc.) Planch. ex Miq. Therefore, ZMH is a promising resource of resistant rootstocks, as well as a high-quality material for mining salt tolerance genes and studying the mechanism of salt tolerance regulation.

Taking ZMH as the research material, after removing the pseudogenes, we finally obtained 120 NAC family members. Then, we conducted a phylogenetic analysis and divided them into 13 subfamilies. The results were similar to those of Arabidopsis [44]. It has been reported that NAC genes in the same subgroup may have similar functions, such as specific resistance to stresses or plant specificity [60]. Liu et al. found that ATAF1 in the Arabidopsis ATAF subfamily significantly improved the salt tolerance of transgenic rice [61]. Al-Abdallat et al. improved the salt tolerance of tomato by overexpressing two ATNAC3-related genes [62]. In addition to ATAF, the ATNAC3 subfamily and SENU5 subfamily have also been reported to respond to salt stress or improve plant salt tolerance [63]. HaNAC-1 in the SENU5 subfamily from sunflower was observed to be upregulated in seedling roots and shoots in response to salinity stress [64]. CarNAC1 from the SENU5 subfamily was strongly induced by salt stress [65]. BnNAC5 from the SENU5 subfamily of Brassica napus is involved in response to high-salinity stress [66]. Dong et al. found that overexpression of ClNAC9 in the SENU5 subfamily increased the saline resistance of transgenic Arabidopsis [67,68]. Liu et al. found that the Chrysanthemum lavandulifolium (Fisch. Ex Trautv.) Makino gene ClNAC9 in the SENU5 subfamily positively regulated saline stress in transgenic chrysanthemum grandiflora Hook [69]. Wang et al. found that overexpressing the NAC transcription factor LpNAC13 of the SENU5 subfamily from Lilium pumilum Redouté in tobacco positively regulated the salt response [70]. According to the phylogenetic relationship, AvNAC030 belongs to the SENU5 subfamily (Figure 1). The results of motif analysis provide further evidence for this phylogenetic relationship (Figure 2). Interestingly, most of the conserved motifs are at the N-terminus of the NAC domain, which is consistent with the previous description, indicating that these motifs are necessary for the function of NAC [71]. The results of conserved amino acid residues show that the C and D subdomains are relatively conserved, indicating that the NAC family has retained its basic functions during long-term evolution. The variability of the B and E subdomains illustrates their importance in functional diversity (Figure 3). The analyses of the expression pattern and interaction network show that AvNAC030 responds to salt stress (Figure 4 and Figure 5). These results suggest that AvNAC030 plays a key role in the regulation mechanism of salt tolerance.

The result of subcellular localization show that AvNAC030 may function as a transcription factor (Figure 6). To understand the regulatory mechanism of AvNAC030, we also used transgenic Arabidopsis to study its function after salt stress. We found that after salt treatment, OE significantly reduced the damage caused by salt stress compared with VC plants (Figure 7D,E). Therefore, the survival rate of OE plants was higher than that of VC plants (Figure 7A,B). ROS usually exists in the form of H₂O₂ and O²⁻, and can be rapidly produced in plants when exposed to adverse environmental conditions such as high salinity, drought, or extreme temperatures [72]. Excessive ROS leads to oxidative damage of cell components such as proteins, lipids, and DNA. Plants maintain the balance between ROS production and removal to ensure ROS homeostasis, thereby reducing the effects of oxidative stress [73]. Flavonoids, as non-enzymatic antioxidants, have been widely reported to reduce ROS damage in plant cells under biotic and abiotic stress [74]. After being exposed to salt stress, OE plants accumulated more flavonoids than VC plants. We then tested their ability to eliminate H₂O₂ and O²⁻. The ROS scavenging ability of OE plants was superior to that of VC plants, and more living cells were retained (Figure 8). The results were consistent with the phenotype. MDA, as a decomposition product of polyunsaturated fatty acids, has a positive correlation with the accumulation of ROS [75]. The results showed that after being exposed to salt stress, the cell membrane of VC plants was damaged by salt to a higher degree, resulting in more soluble leakage, and therefore had a higher EL value and MDA content (Figure 9A,B). Proline plays an important role in scavenging hydroxyl radicals. In addition, it stabilizes the subcellular structure and protects cellular macromolecules against damage by adjusting the intracellular osmotic potential [76]. SOD can catalyze the conversion of superoxide anions into H₂O₂ and O₂, and is an important material for scavenging free radicals in plants, while POD and CAT are enzymes for scavenging H₂O₂. SOD, POD, and CAT maintain the steady level of free radical content in plants through synergistic action, and prevent the changes in plant physiology and biochemistry caused by free radicals [77]. The results of determining proline content and SOD, POD, and CAT activities showed that OE plants had a stronger ability to scavenge ROS than VC plants under salt stress (Figure 9C–F). AtMYB111 improves ROS scavenging efficiency by regulating the synthesis of flavonoids [25]. AtOZF1 plays a role in regulating oxidative stress response in Arabidopsis [78]. AtGSTU5 is used as a marker of oxidative stress [79]. AtP5CS1 is a proline synthesis marker gene [80]. The results show that AvNAC030 might enhance the salt tolerance of plants by regulating these stress-related genes after salt stress (Figure 10). These results suggest that AvNAC030 can increase the salt tolerance of plants by improving the efficiency of ROS removal and maintaining the intracellular and extracellular osmotic balance to protect the integrity of the membrane (Figure 11).

The hypothesis of the regulatory network of the AvNAC030 involved in salt stress responses.

4. Materials and Methods

4.1. Sequence Retrieval and Identification of A. valvata NAC Genes

The NAC sequences of Arabidopsis were obtained from TAIR (https://www.arabidopsis.org/, accessed on 6 May 2020). The NAC sequences of kiwifruit were retrieved from the full-length transcriptomic data of ZMH (unpublished). We removed repetitive sequences and incomplete sequences. The retrieved NACs were screened by analyzing the conserved domain using the conserved domains database (https://www.ncbi.nlm.nih.gov/Structure/cdd/wrpsb.cgi, accessed on 8 June 2020). The obtained sequences containing the conserved NAC domain (PF02365) were detected again by the Pfam database (http://pfam.xfam.org/, accessed on 8 June 2020). The details of the NAC family were obtained by the ExPASy Proteomics server (http://web.expasy.org/compute_pi/, accessed on 12 June 2020) (Table 3). Nucleotide and amino acid sequences based on the full-length transcriptome data are presented in Table A1 (Appendix A).

Table 3.

Details of the VvSAUR family. Mw, molecular weight; PI, isoelectric point.

Gene ID	Gene Symbol	ORF Length (bp)	No. of aa	Mw	PI	Group
R_transcript_18612	AvNAC001	723	240	27,212.06	9.75	I
R_transcript_34811	AvNAC002	192	63	7188.37	6.9	I
R_transcript_33699	AvNAC003	1554	517	58,292.66	5.05	VI
R_transcript_37169	AvNAC004	1062	353	40,182.48	4.75	VI
R_transcript_40690	AvNAC005	1623	540	60,232.03	4.8	VI
R_transcript_52636	AvNAC006	768	255	29,280.8	5.48	VI
R_transcript_59072	AvNAC007	867	288	33,147.17	8.47	VI
R_transcript_63416	AvNAC008	1605	534	59,209.84	4.7	VI
R_transcript_66645	AvNAC009	1422	473	53,702.72	5.07	VI
R_transcript_69568	AvNAC010	1236	411	46,871.81	4.9	VI
R_transcript_71270	AvNAC011	522	173	20,016.13	9.97	VI
R_transcript_79093	AvNAC012	1716	571	64,058.05	4.93	VI
R_transcript_8696	AvNAC013	480	159	18,788.47	9.66	VI
R_transcript_9544	AvNAC014	948	315	35,366.8	5.25	VI
R_transcript_99187	AvNAC015	1047	348	39,632.89	4.75	III
R_transcript_46831	AvNAC016	840	279	32,147.09	5.65	IX
R_transcript_25400	AvNAC017	966	321	35,794.65	8.74	X
R_transcript_18707	AvNAC018	930	309	34,897.28	7.73	X
R_transcript_44451	AvNAC019	756	251	28,292.87	7.13	VII b
R_transcript_13572	AvNAC020	1641	546	60,679.5	4.67	VII b
R_transcript_33721	AvNAC021	801	266	30,395.54	5.72	VII b
R_transcript_44030	AvNAC022	222	73	8480.77	6.56	IX
R_transcript_62201	AvNAC023	465	154	18,056.56	9.45	VII b
R_transcript_66399	AvNAC024	282	93	10,565.43	8.01	VII b
R_transcript_81784	AvNAC025	177	58	6986.9	8.11	IX
R_transcript_86796	AvNAC026	387	128	14,679.38	4.72	IX
R_transcript_92715	AvNAC027	327	108	12,554.41	7.92	VII b
R_transcript_86654	AvNAC028	1137	378	42,536.75	5.67	III
R_transcript_80114	AvNAC029	846	161	18,976.48	9.35	XIII
R_transcript_71454	AvNAC030	747	248	28,221.73	9.18	IV
R_transcript_78474	AvNAC031	270	89	10,261.05	7.7	IV
R_transcript_35688	AvNAC032	1014	337	39,025.5	5.05	XII
R_transcript_40217	AvNAC033	717	238	27,446.92	7.07	XI
R_transcript_50816	AvNAC034	777	258	29,314.12	8.43	XI
R_transcript_52293	AvNAC035	303	100	11,324.11	10.76	XI
R_transcript_83913	AvNAC036	1158	385	43,238.02	6.12	IX
R_transcript_27414	AvNAC037	762	253	28,895.91	8.72	VII a
R_transcript_38643	AvNAC038	876	291	33,401.71	6.56	I
R_transcript_67877	AvNAC039	354	117	13,809.75	9.51	VII b
R_transcript_65045	AvNAC040	216	71	8213.49	4.86	IX
R_transcript_75291	AvNAC041	864	287	33,087.95	6.47	IX
R_transcript_94887	AvNAC042	153	50	5808.92	9.69	IX
R_transcript_61978	AvNAC043	849	282	32,403.68	8.7	X
R_transcript_17613	AvNAC044	453	150	17,230.56	8.98	V
R_transcript_19469	AvNAC045	1068	355	40,547.75	8.04	V
R_transcript_22363	AvNAC046	195	64	7366.41	4.47	IX
R_transcript_30245	AvNAC047	219	72	8494.58	4.64	IX
R_transcript_50769	AvNAC048	294	97	11,033.81	4.78	IX
R_transcript_78204	AvNAC049	558	185	21,592.1	9.25	XIII
R_transcript_98040	AvNAC050	261	86	9774.18	4.9	IX
R_transcript_38748	AvNAC051	951	316	36,191.6	8.06	VIII
R_transcript_28167	AvNAC052	1017	338	37,889.53	5.96	III
R_transcript_31813	AvNAC053	1290	429	48,120.63	4.89	III
R_transcript_40244	AvNAC054	576	191	21,494.66	9.18	III
R_transcript_62357	AvNAC055	627	208	23,465.75	7.73	III
R_transcript_99111	AvNAC056	1056	351	39,828.16	4.84	III
R_transcript_18002	AvNAC057	180	59	6981.22	10.21	IX
R_transcript_19545	AvNAC058	747	248	28,318.85	8.97	IV
R_transcript_46194	AvNAC059	513	170	19,518.45	9.56	IV
R_transcript_95592	AvNAC060	414	137	15,709.54	8.81	IX
R_transcript_53223	AvNAC061	738	245	27,771.36	9.62	IV
R_transcript_54724	AvNAC062	285	94	10,901.71	9.17	IX
R_transcript_56133	AvNAC063	1704	567	62,826.9	5.04	VII b
R_transcript_90698	AvNAC064	1359	452	50,328.74	4.7	VII b
R_transcript_19894	AvNAC065	897	298	34,337.97	6.26	XI
R_transcript_56139	AvNAC066	549	182	20,833.91	9.94	XI
R_transcript_27385	AvNAC067	903	300	33,847.25	6.33	I
R_transcript_9009	AvNAC068	252	83	9368.84	5.57	IX
R_transcript_9620	AvNAC069	855	284	32,050.91	4.94	IX
R_transcript_16576	AvNAC070	1086	361	40,769.42	5.32	VII b
R_transcript_16797	AvNAC071	1179	392	44,361.79	5.5	VII b
R_transcript_16893	AvNAC072	1203	400	45,569.26	5.72	VII b
R_transcript_37237	AvNAC073	561	186	21,404.4	9.64	VII b
R_transcript_56738	AvNAC074	825	274	30,781.31	4.7	IX
R_transcript_69341	AvNAC075	1074	357	40,361.19	5.65	VII b
R_transcript_13655	AvNAC076	966	321	36,708.61	4.62	VII b
R_transcript_15641	AvNAC077	237	78	8818.97	7.93	IX
R_transcript_80139	AvNAC078	495	164	18,695.36	9.69	VII b
R_transcript_82604	AvNAC079	366	121	13,582.7	5.58	VII b
R_transcript_94099	AvNAC080	819	272	30,604.57	6.79	VII b
R_transcript_95060	AvNAC081	1212	403	45,245.69	5.46	VII b
R_transcript_100635	AvNAC082	399	132	14,534.98	4.95	VII b
R_transcript_54585	AvNAC083	1053	350	38,925.86	8.52	XIII
R_transcript_86053	AvNAC084	1068	355	39,869.89	8.72	XIII
R_transcript_90949	AvNAC085	1065	354	39,261.19	8.52	XIII
R_transcript_96411	AvNAC086	468	155	17,988.47	9.44	XIII
R_transcript_42641	AvNAC087	1362	453	50,691.58	6.44	III
R_transcript_50235	AvNAC088	1395	464	51,813.64	6.45	III
R_transcript_94297	AvNAC089	1386	461	51,455.33	6.49	III
R_transcript_73092	AvNAC090	303	100	11,338.9	7.87	IX
R_transcript_92394	AvNAC091	933	310	34,580.16	5.19	III
R_transcript_12933	AvNAC092	459	152	17,906.55	9.26	VIII
R_transcript_63861	AvNAC093	1092	363	40,740.4	4.93	VIII
R_transcript_85819	AvNAC094	1026	341	38,403.75	5.09	VIII
R_transcript_58057	AvNAC095	315	104	12,205.08	10.04	VII b
R_transcript_79749	AvNAC096	1644	547	61,366.06	4.59	VII b
R_transcript_14929	AvNAC097	1065	354	39,261.19	8.52	XIII
R_transcript_101459	AvNAC098	1110	369	42,049.87	6.14	XII
R_transcript_39496	AvNAC099	858	285	33,460.35	6.47	IX
R_transcript_95695	AvNAC100	1167	388	43,858.11	6.52	XIII
R_transcript_13398	AvNAC101	1794	597	66,986.19	4.94	VII a
R_transcript_95502	AvNAC102	1743	580	64,771.09	4.8	VII a
R_transcript_100431	AvNAC103	1410	469	53,408.4	4.68	VII a
R_transcript_68016	AvNAC104	171	56	6527.51	4.97	XI
R_transcript_15938	AvNAC105	1104	367	40,122.95	6.27	I
R_transcript_24316	AvNAC106	1128	375	41,234.35	5.86	I
R_transcript_30973	AvNAC107	948	315	34,509.58	6.54	I
R_transcript_31867	AvNAC108	318	105	12,183.73	5.06	I
R_transcript_41086	AvNAC109	1095	364	40,848.7	8.11	I
R_transcript_46223	AvNAC110	555	184	20,798.46	6.08	I
R_transcript_65760	AvNAC111	972	323	35,335.58	6.54	I
R_transcript_98265	AvNAC112	1215	404	44,680.32	5.57	I
R_transcript_98456	AvNAC113	270	89	10,625.08	9.06	I
R_transcript_100689	AvNAC114	426	141	16,454.73	6.29	I
R_transcript_19510	AvNAC115	873	290	32,994.47	7.65	XI
R_transcript_88888	AvNAC116	525	174	19,880.98	9.73	XI
R_transcript_27781	AvNAC117	462	153	17,111.21	8.93	IX
R_transcript_33085	AvNAC118	222	73	8541.94	5.28	VII a
R_transcript_34849	AvNAC119	525	174	20,351.13	9.31	VII a
R_transcript_47733	AvNAC120	330	109	12,696.51	9.51	VII a

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4.2. Bioinformatic Analysis of the NAC Family in Kiwifruit

We used Clustal Omega (http://www.ebi.ac.uk/Tools/msa/clustalo/, accessed on 10 July 2020) for phylogenetic analysis, which was then presented with the Interactive Tree of Life (iTOL) (https://itol.embl.de/itol.cgi, accessed on 12 July 2020). The numbers were bootstrap values based on 1000 iterations. Only bootstrap values larger than 50% support were displayed. We identified the conserved motifs with MEME (http://meme-suite.org/index.html, accessed on 16 July 2020) and retained e-values < 1 × 10⁻²⁰ for analysis. We performed multiple sequence alignments of AvNACs using CLUSTALW (https://myhits.sib.swiss/cgi-bin/clustalw, accessed on 18 July 2020) with default parameters. The heatmap of the NAC family was generated with TBtools (https://github.com/CJ-Chen/TBtools/releases, accessed on 21 July 2020) based on the ZMH RNA-seq data (unpublished). The prediction of the gene interaction network was completed by STRING (https://string-db.org/cgi/input.pl, accessed on 26 July 2020) with option value > 0.700.

4.3. The Sample Collection

The ZMH from A. valvata was grown in a greenhouse at the Zhengzhou Fruit Research Institute, Chinese Academy of Agricultural Sciences, Zhengzhou, Henan Province, China (34°43′ N, 113°39′ E, altitude 111 m). When the height of the tissue culture seedlings reached 40 cm, they were treated with 0.4% NaCl solution. Samples were taken for sequencing after treatment at 0 (I), 12 (II), 24 (III), and 72 (IV) h. Each sample had three biological replicates and each replicate included roots from three plants.

4.4. Subcellular Localization

The open reading frame (ORF) of AvNAC030 with a mutational stop codon was cloned between the Xba I and Sal I sites of the pB221-GFP vector with the T4 DNA ligase (Thermo Scientific, Waltham, MA, USA) and a pair of primers (Table 4). Protoplasts were prepared from rosette leaves of 4-week-old A. Arabidopsis seedlings, and the recombinant and control plasmids were transformed into Arabidopsis protoplasts by using PEG (polyethylene glycol) 4000 mediated transformation [81]. The N-terminal of AtBZR2 (AT1G19350.3) contained an NLS, so we fused it with mCherry to label the nuclear of protoplast. [82]. After 18 h, the GFP fluorescence was observed under a laser scanning confocal microscope (Olympus FV1000 viewer, Tokyo, Japan).

Table 4.

List of primers used for RT-qPCR and the construction of recombinant plasmids.

Gene Name	Gene Identifier	Forward Primer (5′-3′)	Reverse Primer (5′-3′)	The Purpose
AvNAC030	R_transcript_71454	ATGGAGAAGCTCAACTTTGTT	CTAAGGTTTTCTTCGAAAAGA	Obtain ORF
AvNAC030-pB221-GFP	R_transcript_71454	TCTAGAATGGAGAAGCTCAACTTTGTT	GTCGACCTAAGGTTTTCTTCGAAAAGA	Subcellular localization
AvNAC030-3301	R_transcript_71454	CCATGGATGGAGAAGCTCAACTTTGTT	AGATCTCTAAGGTTTTCTTCGAAAAGA	Expression vector construction
AtMYB111	At5g49330	GAACAAGGAAGCGAGACAAAG	TCCCAATCAAGCAACTCCTC	RT-qPCR
AtOZF1	At2g19810	TTCTGAAGATCTAACGGTGTC	CGGGATGAGCGTAAGGACACT	RT-qPCR
AtGSTU5	At2g29450	ATGGCTGAGAAAGAAGAAGTGAAGC	TTAAGAAGATCTCACTCTCTCTGCC	RT-qPCR
AtP5CS1	AT2G39800	TAGCACCCGAAGAGCCCCAT	TTTCAGTTCCAACGCCAGTAGA	RT-qPCR
AtUBQ3	AT5G03240	CGGAAAGACCATTACTCTGGA	CAAGTGTGCGACCATCCTCAA	RT-qPCR

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4.5. The Transformation of Arabidopsis and Stress Treatments

The RNA was extracted using TIANGEN RNAprep Pure Plant Kit (Tiangen Biotech, Beijing, China). We used DNase I (Thermo Scientific, Waltham, MA, USA) to remove genomic DNA from total RNA and a RevertAid First Strand cDNA Synthesis Kit (Thermo Scientific, Waltham, MA, USA) to synthesize the first-strand complementary DNA (cDNA) according to the manufacturer’s instructions. The full-length ORF of AvNAC030 was obtained by the primers (Table 4) and Pfu DNA polymerase (TransGen Biotech, Beijing, China). The products were purified and integrated into the blunt vector (pEASY-Blunt Simple Cloning Kit, Beijing, China) for sequencing, and then was cloned between the Nco I and Bgl II sites of the pCAMBIA3301 vector with the T4 DNA ligase and a pair of primers (Table 4). The floral dip method was used for genetic transformation, and phosphinothricin resistance was used to detect positive plants. The homozygous T₃ generation was germinated in soil chambers in a greenhouse at 22 °C with 16 h light/8 h dark cycle and 70% relative humidity, and the four-week-old potted Arabidopsis plants were subjected to 250 mM NaCl treatment for functional verification.

4.6. Histochemical and Physiological Analysis

Total flavonoid content was measured as described previously by Jia [83]. For chlorophyll fluorescence measurements, the images were obtained by IMAGING-PAM chlorophyll fluorometer (Walz, Effeltrich, Germany), and the maximum quantum efficiency of photosystem II (Fv/Fm) was measured with Imaging WinGegE software [84]. H₂O₂ and O₂⁻ were stained with DAB (Solarbio, Beijing, China) and NBT (Beijing Biodee Biotechnology, Beijing, China). The programmed cell death was detected by 0.4% trypan blue solution (MYM Biological Technology Company Limited, Chicago, IL, USA). The H₂O₂ and O₂⁻ content was measured as described previously by Liu and Elstner [85,86]. EL was measured as described previously by Ben-Amor [87]. MDA, proline, SOD, POD, and CAT activity were detected using corresponding test kits (Nanjing Jiancheng Bioengineering Institute, Nanjing, China) [88].

4.7. RT-qPCR Analysis

qRT-PCR was performed in the presence of SYBR green qPCR Master Mix (Fermentas, Ontario, Lithuania) and the amplification was performed in the Eco Real-Time PCR system (Illumina, San Diego, CA, USA). All reactions were performed in triplicate. The primers were designed using Oligo 7.0 and are listed in Table 4.

4.8. Statistical Analysis

All experiments were replicated independently at least three times, and data are shown as the mean ± SD of three independent experiments. Data were subjected to analysis of variance (ANOVA) using the Statistical Analysis System (SPSS version 22.0) software. The differences between the means were compared using the Tukey’s test (p < 0.05).

5. Conclusions

Using ZMH as the material, we performed high-throughput sequencing at the four time points after its salt treatment. We then analyzed the members of the NAC family based on the sequencing results and bioinformatics analysis. According to the results, we speculate that AvNAC030 may play a positive role in the mechanism of salt tolerance. Finally, we used Arabidopsis genetic transformation technology and combined it with phenotype, physiology and molecular biology to analyze the function of AvNAC030 under salt stress. In this way, we can fully explore the original data and combine bioinformatics analysis with molecular biology experiments more efficiently to study the function of the NAC family.

Appendix A

Table A1.

The nucleotide and amino acid sequences of the AvNAC family.

>AvNAC001 | Symbols: R_transcript_18612 | NAC domain containing protein

ATGGAGAATCCAAACTTTGGTAGAAATGGAGGAATCAAATTTCCCATTGGTTTTCGATTCCTCCCAACTGATGAAGAGCTGGTGGTTCACTACCTAAAGAGAAAGGCCCACTCTCTTCCACTGCCTGCCTTAATCATTCCTGAGCTTCATGTTTTCCACACCAATCCTTGGGACTTGCCAGGTGATTTGAGGGAGAAGAGGTATTTCTTCAGCAAAAGAAAATGGAATCTGAACAAATGCCAACGAATCCGTACTGGTTCTGGCTACTGGAAGACTATTGGTAAAGAAAAACATATTGTGGGGAGCAACAAAAGAGCTGTTGGAGTGAGAAAAACACTGGTTTTCTATGGAGGGAAGCCTCTCCATGGATTGAGAACGAATTGGGTGATGCATCAATACGGCCTTTTGGGCTCTGAAACCACGACTCCCAACACAACCCAGAAAATCATGGGAGAAGAATGGGTTGTGTGTTGCATCTATCAGAGGAGAAGGAAATCTAGAAAAGCTGGGGTCCAACATGCCTTTTCAAATGGCAACAAAATTAGGAATGTGGGGAATGTTATGGCTTGTATTTTGGACATCAGCAGTGACTCAGGCCATCCTCAAGCATCCTCCGATTCATGCTTAAGCTCAAGTGAGATCACTGCAGAGGTCTCTTCCAGAGAATCAGATCATGAGGAAGCAACCAGTGCCTACATTCGTTTCTCTACACATCTTGCATGA

>AvNAC002 | Symbols: R_transcript_34811 | NAC domain containing protein

ATGGAGAATCCAAACTTTGGTAGAAATGGAGGAATCAAATTTCCCATTGGTTTTCGATTCCTCCCAACTGATGAAGAGCTGGTGGTTCACTACCTAAAGAGAAAGGCCCACTCTCTTCCACTGCCTGCCTTAATCATTCCTGAGCTTCATGTTTTCCACACCAATCCTTGGGACTTGCCAGGTTCGTTATAA

>AvNAC003 | Symbols: R_transcript_33699 | NAC domain containing protein

ATGGCGGTCTTGCCCTTGAAATCACTGCCGGTAGGGTACCGATTTCGACCCACGGACGAAGAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGATGAGGAGGCTGTCAGGGTTATTCGTGAGGTCGATGTTTGTAAACAAGAACCTTGGGATTTGCCTGATAAGTCTCTGATAGAGACGAACGATGACGAGTGGTTCTTCTTCTGTCCGAAGGATCGGAAATATCAGAACGGACAGCGATTGAACAGAGCGACGGAACGTGGGTACTGGAAGGCGACGGGTAAGGATAGGACAATCAGGTCTGTTAGGGGAACCAAAGTTATCGGCATGAAGAAGACTTTGGTCTTCTATAATGGTCGTGCTCCCAGAGGGAAGAGGACTAATTGGGTGATCCATGAGTACCGTGCAACCACTGAGGATCTTGATGGCACGAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAATTAATCAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGAAGAGAACACTGAAGTTTCGAACTGTGATGACGTTGAGCAAACTTTTTCTTCTCCTGAAACAGTTAAATCAATTACCGAGGATATGCAATCGGAGCCAGTAACTCCCGTGACGAGCATCCAAGCTGAAAAGCTATCTACTACCAGTGATAGTTGCCTAGCTGAAACTTCTGATACTACCTTTATTGCTGATGATGCCGGATACGAATCGACTTTCCCGCCGGATTATGAGCTAGAAGAAATGTTGAGACAGTTTTGTGACCCGAATCAGCAAGCACCAGATTGCAATGGCAAAATCTTTTCCCCAGTGCACGTGCAGATGCAGACGGAGCTTGGATCTTCATATGACTTGCATAACTCTTTTGCTAATGACATGGGGAATGAACACAAGGGGTTGCAGTTTCAGAATGGCACAAATGAATCTGGCAGTTACCAGAATATGGCTGTCGAAATTGAGGAACTTAATTATCTTAATATTATGAACTTCTTAGATAAGGAGACTGGATCATGCAGTGAGTCAGATGCAGATGTGGCTCAGGCACAGATCACTGAGATGGAGGCTCCTGTATTCAAGTCATTGTCTGCAAGAGGTTATACTACTTCTGACATTAGCAACGAGGATCACTCCAGAAATTCAGCATTTGGGCAAAACAACCATCTTATACAGCCTGCACTTGCTGTTTCTTCTGCTAGCAACCAATCCTATGATTTGTTCAATAGTCCTGAAGAAATACACTTTATTAACAACGATGTTGGCGATGCTGATAGTTTTGGAACTGGAACTGGAACTGGAACTGGAATCAGAATCAGGATTCGCCAACGTGATAATCAACCAAGTGCTGAAAATTCCTGGCTGCAGGGAACTGCCCCAAGAAGGATTCGATTGCAGAAGAAAATTCAGGTTGGTTCAGTTTTCTGCGGCAGTTTTAGCTGCAAAGAAGAAAACCACGAAGCAAAACCAATCGTGGCCAAGGTGAGAAGTTCAACTGTGAAGCTTATGTACAGATTTGATATTGTGCCTGTTGTGTTTGTGAACTCCTTTTAA

>AvNAC004 | Symbols: R_transcript_37169 | NAC domain containing protein

>AvNAC005 | Symbols: R_transcript_40690 | NAC domain containing protein

ATGGCGGTCTTGTCCTTGAAATCGCTTCCGGTAGGGTTCCGATTTTGCCCCACTGACAAACAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGATGAGGACGCCGTCAGGGTTATTCGTGAGGTCGACGTTTGTAAACAAGAACCCTGGGATTTGCCTGCTATGTCTCTGATAGAGACCAACGATGACGAGTGGTTCTTCTTTTGTCCGAAAGATCGGAAGTATCAGAACGGACAGCGATTGAACAGAGCGACGAAACGTGGGTACTGGAAGGCGACGGGTAGGGATAGGACGATCAGGTCTGTTACGGGAACCACTGTTATCGGCATGAAGAAGACTTTGGTCTTCTATAAAGGGCGTGCTCCCAAAGGGACGAGGACTAATTGGGTGATCCACGAGTACCGTGCAACCACTAAGGATCTTGATGGCACTAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAGTTATTTAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGAAGAGAACACTGAAGCTTCGAACTGTGAGAAGTTGAGAAAACTGTTTCTTCTCCTGGCACAGCTGAAAAGCTATCTCCTACCGGCGAGAGTTGCGTAGCTGAAACTTCTGATACTCCTTTGCCTATTGAATGGCCCAATAGCTTTATTGCTGATGATGCAGGATACAAATCGATTGCCCTGTTGGATTTTGAGCGAGAAGAAATGTTGGAAGATTTTTACCCAAATCTGCAAGCACCATATGGCGATGGCAAAATCTTTTCGCCAGTGCACAGGCAGATGCAGATGGAGCTTGCTTATGACTTGCATTACCCTTTTGCTAATGACATGGGGAATGAACATGAGGTGGTGCAGTTTCCGTATGGCACAAATGAATCTGTCAGTGAACAGAATTTGTCTGTTGAAATTGAGGAATATAATTATCTAAATACTATGGACAACTTCGATAAAGAGATTGGATCATGCAGTGACTCAGATGCAGATGTGGCTCAGGCACAGATCACTGAGATGGAGGCTCCTGCACTTGCTGTTTCTTCTGCCAGCAACCAGTCCTATGATTTGTTCAATAGTCCTGAAGAAATAATCAGTAATAACAACAATGTTGGCGATGCTGATGGTTCTGGATCTGGAATCAGAATCAGGACTCGCCAACGTGATAATCGACCAAGTGCTGACAATTCCTGTCTGCAGGGAACTGCCCCAAGAAGGATTCGATTACAGATGCATATTCAGGGTGGTTCAGTTGGCTGCAACAGTTTTAGAGAATTTAGCTGCGAAGAAGAAAGCCCTGTAGCAAAACCATTTGTGGCTAAGGCTGAAGAAGCTGAAGACTTGGATGCTGCTACGGTTGGTGCTTCTGAAAGCATAGATGAGACCCAGGATCTATCCCTTTCCAAGTTCAGTAATGGTACAGAAGTCGTGCAAGAACCGAGTTTGAAGATGGAATCAACAAGTTATTCTCCGTCAGGCGGTGACAAAGAGTTTCCCTCTGCTTACTTGAAGGCTGCTCCTGCCTGGTCCCGGATTTCCTCATATATACATATGCTTGGGGGTTTTGTGGTTGTAGGTTTGTCCGTCCTGTTCGTGGGCATATATATGGTGGAGATGCATTAA

>AvNAC006 | Symbols: R_transcript_52636 | NAC domain containing protein

>AvNAC007 | Symbols: R_transcript_59072 | NAC domain containing protein

>AvNAC008 | Symbols: R_transcript_63416 | NAC domain containing protein

ATGGCGATCTTGACCTTGAAATCGCTTCCGGTAGGGTACCGATTTCGCCCCACTGACAAAGAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGACGAGGACGCCGTCAGGGTTATTCGTGAGGTCGACGTTTGTAAAAAAGAACCCTGGGATTTGCCTGATATGTCTCTGATAGAGACAAACGATGACGAGTGGTTCTTCTTTTGTCCGAAAGATCGGAAGTATCAGAACGGACAGCGATTGAACAGAGCGACGAAACATGGGTACTGGAAGGCGACGGGTAGGGATAGGACGATCATGTCTGTGAGGGGAACCACTGTTATCGGCATGAAGAAGACTTTGGTCTTCCATAAAGGGCGTGCTCCCAAAGGGACAAGGACTAATTGGGTGATCCACGAGTACCGTGCAACCACTGAGGATCTTGATGGCACTAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAGTTAATCAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGATGAGAACACTGAAGCTTCGAACTGTGATGAAGTTGAGCAAACTGTTTCTTCTCCTGGCACAGCTGAAAAGCTATCTCCTGCCGGTGAGAGTTGCGTAGCTGAAACTTCTGATACTCCTTTACCTAGTGAATGGCTCAATAGCCTTATAGCTGATGATGTCATGTCGAATTTTGAGCTAGAAGATTTTTACCCAAATCTGCAAGCACCAGATGGCGATGGCAAAATCTTTTCCCCAGTGCACGTGCAGATGCAGATGGAGCTTGCATCATCATATGACTTGCATTACCCTTTTGCTAATGACATGGGGAATGAAGACGAGGTGGTGCAGTTTCCTTATGGCACAAATGAATCTATCAGTTCCCAGAATTTGGCTGTCGAAATTGTGGAACCTAATTATCTAAATACTGTGGACAACTTCGATAAGGAGACTGGATCATGCAGTGACTCAGATGCAGATGTGGCTCAGGCACAGATCACTTTGATGGAGGCTCCTGCACTTGCTGTTTCTTCTGCTAGCAACCAGTCCTATGATTTGTTCAATAGTCCTGAAGAAATAATCAGTAATAACAACAATGTTGGCAATGCTGATAGTTCTGGATCTGGAATCAGAATCAGGACTCGCCAACGTGATAATCAACCAAGTGCTGACAATTCCCGGCTCCAGGGAACTGCCCCAAGAAGGATTCGATTACAGATGAAAATTCAGGGTAGTTCAGTTCGCTGCAACAGTTTTAGAGAATTTAGCTGCGAAGAAGAAAACCCCGTAGCAAAACCATTTGTGGCTAAGGCTGAAGAAGCTGAAGATGTGGATGTTGCTACTGCTACGGTTGGTGCTTCTGAAAGCATAGATGAGACCCAGGATCTATCCCTTTCCAAGTTCAGTAATGATACAGAAGTCGCGCAAGAACCGAGTTTGAAGATGGAATCAACAAGTTATTCTCCGTTAGGCGGTGACAAAGAGTTTCCCTCTGCTTCCTTGAAGGCTGCTCCTGCATGGTCCTGTATTACCTCATATATACATATGCTTGGGGGTCTTGTGGTTGTAGGTTTGTCCGTCCTGTTCGTGGGCATATATATGGTGGAGATGAATTAA

>AvNAC009 | Symbols: R_transcript_66645 | NAC domain containing protein

ATGGCGGTCTTGCCCTTGAAATCACTGCCGGTAGGGTACCGATTTCGACCCACGGACGAAGAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGATGAGGAGGCTGTCAGGGTTATTCGTGAGGTCGATGTTTGTAAACAAGAACCTTGGGATTTGCCTGATAAGTCTCTGATAGAGACGAACGATGACGAGTGGTTCTTCTTCTGTCCGAAGGATCGGAAATATCAGAACGGACAGCGATTGAACAGAGCGACGGAACGTGGGTACTGGAAGGCGACGGGTAAGGATAGGACAATCAGGTCTGTTAGGGGAACCAAAGTTATCGGCATGAAGAAGACTTTGGTCTTCTATAATGGTCGTGCTCCCAGAGGGAAGAGGACTAATTGGGTGATCCATGAGTACCGTGCAACCACTGAGGATCTTGATGGCACGAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAATTAATCAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGAAGAGAACACTGAAGTTTCGAACTGTGATGACGTTGAGCAAACTTTTTCTTCTCCTGAAACAGTTAAATCAATTACCGAGGATATGCAATCGGAGCCAGTAACTCCCGTGACGAGCATCCAAGCTGAAAAGCTATCTACTACCAGTGATAGTTGCCTAGCTGAAACTTCTGATACTACCTTTATTGCTGATGATGCCGGATACGAATCGACTTTCCCGCCGGATTATGAGCTAGAAGAAATGTTGAGACAGTTTTGTGACCCGAATCAGCAAGCACCAGATTGCAATGGCAAAATCTTTTCCCCAGTGCACGTGCAGATGCAGACGGAGCTTGGATCTTCATATGACTTGCATAACTCTTTTGCTAATGACATGGGGAATGAACACAAGGGGTTGCAGTTTCAGAATGGCACAAATGAATCTGGCAGTTACCAGAATATGGCTGTCGAAATTGAGGAACTTAATTATCTTAATATTATGAACTTCTTAGATAAGGAGACTGGATCATGCAGTGAGTCAGATGCAGATGTGGCTCAGGCACAGATCACTGAGATGGAGGCTCCTGTATTCAAGTCATTGTCTGCAAGAGGTTATACTACTTCTGACATTAGCAACGAGGATCACTCCAGAAATTCAGCATTTGGGCAAAACAACCATCTTATACAGCCTGCACTTGCTGTTTCTTCTGCTAGCAACCAATCCTATGATTTGTTCAATAGTCCTGAAGAAATACACTTTATTAACAACGTGATAATCAACCAAGTGCTGAAAATTCCTGGCTGCAGGGAACTGCCCCAAGAAGGATTCGATTGCAGAAGAAAATTCAGGTTGGTTCAGTTTTCTGCGGCAGTTTTAGCTGCAAAGAAGAAAACCACGAAGCAAAACCAATCGTGGCCAAGGCTGAAGGAGTAG

>AvNAC010 | Symbols: R_transcript_69568 | NAC domain containing protein

ATGGCGGTCTTACCCTTGAAATCACTGCCGGTTGGGTACCGATTTCGGCCCACGGACGAAGAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGATGAGGACGCCGTCAGTGTTATTCGTGAGGTCGATGTTTGTAAACAAGAACCCTGGGATTTGCCTGATATGTCTCTGATAGAGACGAACGATGACGAGTGGTTCTTCTTCTGTCCGAAGGATCGGAAATATCAGAACGGACAGCGATTGAACAGAGCAACGGAACGTGGGTATTGGAAGGCGACGGGTAAGGATAGGACAATCAAGTCTGTTAGGGGAACCAAAGTTATCGGCATGAAGAAGACTTTGGTCTTCTATAATGGTCGTGCTCCCAAAGGGAAGAGGACTAATTGGGTGATCCATGAGTACCGTGCAACCACTGAGGATCTTGATGGCACGAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAATTAATCAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGAAGAGAACAATGAAGCTTCGAACTGTGATGACGTTGAGCCAACTGTTTCTTCTCCTGGAACAGTTAAATCAATTACCGAGGATATGCAATCGGAGCCAGTAACTCCTGTGATGAGCATCCAAGCTGAAAAGCAATCTACTACCAGTGATAGTTGCCTAGCTGAAACATCTGATACTACCTTTATTGCTGATGATGCAGGATACGAATCGACTTTCCCGCCGGATTATGAGCTAGAAGAAATGTTGAGACAGTTTTGTGACCCGAATCAGCAAGCACCAGATTGCAATGGCAAAATCTTTTCCCCAGTGCACAAGCAGATGCAGATGGAGCTTGGATCTTCATATGACTCTTTTGCTAATGACATGTGGAATGATCAGTATGGCACAAATGAATCTGGCAGTTACCAGAATATGGCTGTCGAAATTGAGGAACTAAATTATCTTAATATTATGAGCATATTGGATAAGGAGACTGGATCATGCAGTGAGTCAGATGCAGATGTGACTCAGGCACAGTTTATGGACAATTTTAGCAGATCACTGAGATGGAGGCTCCTGTATTCAAGTCATTGTCTGCAAGAGGTTATACTGCTACTGACATTAGCCACCAGGATCACTCCAGAAATTCAGCATTTGTGCAAAACAAGCATCTTATACAGCCTGCACTTGCTGTTTCTTCTGCTAGCAACCAATCCTATGATTTGTTCAATAGTCCTGAAGAAATAA

>AvNAC011 | Symbols: R_transcript_71270 | NAC domain containing protein

>AvNAC012 | Symbols: R_transcript_79093 | NAC domain containing protein

ATGGCGGTCTTGCCCTTGAAATCACTGCCGGTAGGGTACCGATTTCGACCCACGGACGAAGAACTCATCAATCACTACCTCCGATCGAAGATCAACGGCGATGAGGAGGCTGTCAGGGTTATTCGTGAGGTCGATGTTTGTAAACAAGAACCTTGGGATTTGCCTGATAAGTCTCTGATAGAGACGAACGATGACGAGTGGTTCTTCTTCTGTCCGAAGGATCGGAAATATCAGAACGGACAGCGATTGAACAGAGCGACGGAACGTGGGTACTGGAAGGCGACGGGTAAGGATAGGACAATCAGGTCTGTTAGGGGAACCAAAGTTATCGGCATGAAGAAGACTTTGGTCTTCTATAATGGTCGTGCTCCCAGAGGGAAGAGGACTAATTGGGTGATCCATGAGTACCGTGCAACCACTGAGGATCTTGATGGCACGAAACCAGGACAGGGTTCCTTTGTCCTCTGTAAATTAATCAGGAAGCATGATGAGAAGGTAGAGGAAAAGCAGGAAGAGAACACTGAAGTTTCGAACTGTGATGACGTTGAGCAAACTTTTTCTTCTCCTGAAACAGTTAAATCAATTACCGAGGATATGCAATCGGAGCCAGTAACTCCCGTGACGAGCATCCAAGCTGAAAAGCTATCTACTACCAGTGATAGTTGCCTAGCTGAAACTTCTGATACTACCTTTATTGCTGATGATGCCGGATACGAATCGACTTTCCCGCCGGATTATGAGCTAGAAGAAATGTTGAGACAGTTTTGTGACCCGAATCAGCAAGCACCAGATTGCAATGGCAAAATCTTTTCCCCAGTGCACGTGCAGATGCAGACGGAGCTTGGATCTTCATATGACTTGCATAACTCTTTTGCTAATGACATGGGGAATGAACACAAGGGGTTGCAGTTTCAGAATGGCACAAATGAATCTGGCAGTTACCAGAATATGGCTGTCGAAATTGAGGAACTTAATTATCTTAATATTATGAACTTCTTAGATAAGGAGACTGGATCATGCAGTGAGTCAGATGCAGATGTGGCTCAGGCACAGATCACTGAGATGGAGGCTCCTGTATTCAAGTCATTGTCTGCAAGAGGTTATACTACTTCTGACATTAGCAACGAGGATCACTCCAGAAATTCAGCATTTGGGCAAAACAACCATCTTATACAGCCTGCACTTGCTGTTTCTTCTGCTAGCAACCAATCCTATGATTTGTTCAATAGTCCTGAAGAAATACACTTTATTAACAACGATGTTGGCGATGCTGATAGTTTTGGAACTGGAACTGGAACTGGAACTGGAATCAGAATCAGGATTCGCCAACGTGATAATCAACCAAGTGCTGAAAATTCCTGGCTGCAGGGAACTGCCCCAAGAAGGATTCGATTGCAGAAGAAAATTCAGGTTGGTTCAGTTTTCTGCGGCAGTTTTAGCTGCAAAGAAGAAAACCACGAAGCAAAACCAATCGTGGCCAAGGCTGAAGGAGTAGATGTTACAACGTTTGGTACTTTTGAAAGCATCGATGAGACTGAGGATATATCCCTTTCCAAGTTCAGCCATGGTACAGAAGTCGCGCAAGAACCGAGCTTGAAGGTGGAATCATCAGATTATTCTCGGATTTCCTCCCATATGCATATGCTTGGGGTACTTGTGGTTGTAGGTTTGTCCGTCTGTGTGGGCCTATATATATGGAGATGCATTAAGTTTTGA

>AvNAC013 | Symbols: R_transcript_8696 | NAC domain containing protein

>AvNAC014 | Symbols: R_transcript_9544 | NAC domain containing protein

ATGGCAATCTTGGCCTTGGACTCTCTGCCGGTAGGGTACCGATTTCGTCCGACGGAGGAAGAACTCGTCAATTACTTCCTGCGCTTGAAAATCAACGGGGATGAGGACGAAGTCAGTAATATTCGAGTCGTTGATCTCTGTAAACAGGAGCCCTGGGATTTGCCTGATAAGTCGCTGATAGAGACGAATGATGATGAATGGATTTTCTTCTGTCCCATAGATCGGAAGTACAAAATCGGTAGGAGAAAAAATAGAGCAACGGCCGCTGGGTATTGGAAGGCGACTGGTAAGGATAGGTCGATCAAGTCTGTTAAGGAAAGGGCTGTGATTGGCTCAAAGAAGACTTTGGTCTTCTATACCGGGCGTGCTCCAAATGGAAAAAATACTAACTGGGTAATTCATGAGTACTGTGGACCTACTAAGGAGCTTGACGGCACCAAATCGGAACAGGGTTCGTTCGTCCTGTGTAAGCTTATAAAGAAGCATAATAAGAAGCTGGATGGAAAACAAGATGAGAATGCTGAACATTCAAATTGCTATGACGTTGAAGGGGATGTTTCTTCTCCTGCCATAGTTAGATCATTTTCTGACGTTATACAATCAGAGCTAGTGACTCCTATGATGACTGCCCAAAATGAAATGCTAACTTTTAGCAGTGAGAGTTGCCTTGGTGAACATTCAAATTGTGATAACGTTGAAGCGAATGTTTCTTCTCCTGCCATAGTTAGATCATTTTCTGAGGTTATACAATCAGAGCTGGTTACTGCTATGGTGACTGTGCAAAATGAAATTCTACCTTTTAGCAGTGAGAATTGGCTTGGTGAAAATTGTACCAGTACAACTCTTGATGCTCCTTTACGTACTGAATCGCCCAACAATGGCTGTATTGCTCATGATACAGGAGATAAATCCACTGTACAGACGGATTGGATATACAAGAAATGTTGA

>AvNAC015 | Symbols: R_transcript_99187 | NAC domain containing protein

ATGGAACCCCATCCTTTTATTGATGAGTTCATTCCAACTGTTAAAGAAGATGATGGAATTTGTTATACCCATCCTCAGTATTTGCCAGGTGTTCGGCAAGATGGAAACGTTTCTCATTTCTTTCATAGAGCAATCATGGCTTATAATACTGGAACTCGAAAGCGTCGAAAGATACAGGGTGATGATTTTGGTGATGTTCGTTGGCACAAGACAGGTAGGACCAAACCAGTTATCTTGGATGGGGCTCAGCAAGGGTGTAAGAAGATTATGGTTCTTTACGTAAGCCCAATCAAGGGCGGGAAAGCAGAGAAAACGAATTGGGTGATGCACCAATATCACCTCGGCACTGGGGAAGATGAAAAAGAGGGGGAGTTTGTTATCTCGAAGGTTTTTTATCAGCAACAAGTCAAGCAGACCGACAAATGTGAACAAGATTTGCCTGAAGGTACTGATGTCATTATTCCAATAGTAGATCCAGTCACTCCAAAATCTGTGACTCCTGAACCACCTCGTACTGAAAGGCAATTCTCTAGTTTTGACCCAGGACAAGAGTCAACTATTTTTTTCACAGATCCATCGTCCCAGCATCGCGCTCATGAGATGGAGCACGTGGAAGATAAGACGGAAGCTCCATACAATAAACCCAATTATCAAGACTCCCTACTGGCAGAAAATCTTGCTGATCCAATGGCAGATGATAATGATAATCAGATGGGGGAAGACTCGAAATGGTGGGACAGTGAGTCACAGTATCTGTTAAATTCACAACAACTTGTCGAAGGTTTGTCTTTGTGTGATGAGCTTCTCCAGAGCCAGTCCCCAAATAGAGATGGGGCCGAAAATGGAGAATCGAAGGGAAAGCCACGACTTTCTGATTATGCTCACTTAGGACCCGAGTTTTTAAAGAAGGATTTAGAGGAGTGCCAAGATTTGGTCCTTGACCCAGAAAACCTTGAACTTGATGCACCTCCTGATTTCCGGTTGAGCCAGCTTGAGTTCGGATCGCAGGAGAGTTTTCTTGCTTGGGGGTGGAGGCAAGGTGGTTGA

>AvNAC016 | Symbols: R_transcript_46831 | NAC domain containing protein

ATGGAGAGATCAGAGATGGAGGTAGGGAAGATGAATATTTCAAGTAGTAAAAGTAGGGATAATGATGTTATGCTTCCCGGTTTTCGGTTTCATCCAACAGACGAAGAGCTTGTTGGGTTTTATCTGCGACGAAAGGTGGAGAAGAAATCTCTCACTATCGAGCTCATCCAACAGGTTGACATCTACAAGTTTGATCCATGGGATCTTCCTAGGGGAGACAAGCTGATGGAGAGGTACTTCTTCTGCATAAGAGGAAGAAAATATAGGAACAGCGTAAGGCCTAACAGAGTGACAGGATCTGGATTTTGGAAGGCAACAGGCATTGACAAGCCCATCTACTCTGTAGATGGTGGTGGAGCAACCATCGGCCTTAAGAAATCGTTAGTATACTACCGTGGAAGTGCTGGAAAAGGCACCAAAACTGAATGGATGATGCACGAGTTTCGCCTTCCACCCTCCCCTAATAATAACCAACATATTACTGGCACTGCTGCTAGAAACATCAGTACTGATCAAGAAGCTGAAGTTTGGACTCTCTGCCGGATATTCAAAAGAAATGCAACTTACAAGATGCAGAAGACGTACATACCGCACGAGGAGGAGGAGGAGGAGACTGCCACTGCTACCAAACAAAGCAGCTTGGAATCTGATATTACTCATGAACATGAAAGAAATGATCCGTTGGCTGTGGATCAGAACAAGAATGAAGAAGCTCCATTAATACCACCACCACCATACTCTGCCTTAATTTGGGATGATGACTTCTTCAGAGACGGGAATTGGGAAGACCTAACATCAGTTGTTGAGTTGGCTATTGATCCATCTAATCAATCTTTATGA

>AvNAC017 | Symbols: R_transcript_25400 | NAC domain containing protein

ATGGAGAGCACGGATTCGTCGACGGGGTCTCTACAGCCGATCCTACCGCCGGGGTTCCGGTTCCACCCCACAGATGAAGAGCTGGTGGTTCACTACCTCAAGAAGAAGGCCGCCTCCGCCCCTCTCCCAGTCTCTATCATAGCCGAAGTTGATCTCTACAAGTTTGATCCATGGGAGCTCCCAGCCAAGGCCACGTTTGGGGAACAAGAGTGGTACTTCTTCAGTCCGAGGGACCGGAAATACCCAAACGGGGCGAGACCTAACAGGGCGGCAACTTCCGGGTACTGGAAAGCGACAGGAACTGACAAGCCGGTGCTGAGCTCCGGTGGGAGCCAGAAAGTTGGTGTGAAGAAAGCCCTGGTTTTCTATGGAGGAAAGCCTCCAAAAGGGGTTAAAACAAATTGGATCATGCATGAGTATCGCCTAGTTGAAAACAAACTCAATTCAAAGCCACCAGGTTGTGATGCCGCCAACAAGAAAGCCTCCCTCAGGCTTGATGATTGGGTTTTATGTCGAATCTACAAGAAGAGCAACCCCCCAAGACCAATGGACCATGAAAGGGATAATACCATGGGTGACATGCTTGCAAGAATGCCACCTGCTTCAATACCATTATGCCAACAAACCCCAAAACTTCCCCAAGAAAAGGCCACAAGCTATGGTTCATTCCTTGGAAATGAGCACACCCTGTTTGATGAAATGCTCGGGCATGATAACGCATATCTCTCTCATTTGGCCTCAAAGCCACAGCTTCCGATGAAACGAGCACTCCCTTCGGTATATTGGGTCGATGACGTCGGTGAAGCTGGGTCTTCGTCGTCCAAGAGGCTAATCCATTTGGATGGTAATGAGGGGAGCACATCGAAGACAGATGAGACCAATTCTATGGCCACTCTGCTCAGCAGCCTCAACCAGCTCCCACAAACACCGTCGATGATGGACGACGTCTTTCGATGGTACTCCTAG

>AvNAC018 | Symbols: R_transcript_18707 | NAC domain containing protein

ATGGGAGTTCCTGAGACCGACCCGCTTTCCCAGCTGTGCTTGCCTCCTGGTTTCCGGTTTTACCCGACCGATGAAGAGCTTCTGGTTCAGTATCTGTGCAGGAAAGTAGCAGGGCACGACTTCTCTTTGCAAATAATTGGAGAGATTGATTTGTACAAATTCGACCCATGGATCTTACCCAGTAAGGCCATATTTGGGGAGAAAGAGTGGTATTTCTTCAGCCCAAGAGACAGGAAGTACCCAAACGGGTCTCGGCCGAATCGTGTCGCCGGTTCCGGGTACTGGAAGGCCACGGGTACCGATAAGATCATAACTACAGAGGGACGAAGGGTCGGTATCAAGAAAGCTCTGGTTTTCTATGTGGGCAAAGCTCCCAAAGGAACAAAGACGAATTGGATCATGCACGAGTATAGGCTCTCTGAGCCTACAAGAAAAAATGGAAGCACAAGGTTGGATGATTGGGTTCTATGTCGCATCTACAAAAAGAATTCAAGCAGCCAAAAACCAATATCCGGTGTTAATCCGAGCATAGAACACAGCCACGGCTCGTCCTCATCGTCCTCATCCCAATTCGACGACATGATAGAATCCTTGCCGGAGATCAACGATCAATTATTCAATTTGCCTCGAATGAACTCTCTAAGAACTATTCAACACCATGATGAGAAGCTCAACATTCAAAACCTCACTTCTGGGAATTTCGACTGGGCCAGCCTTGCCGGAGCCTCGTTGCCGGAGCTAGTCCCCGGCAGCCAATCCCAAGGGCACGTCAGCAATCACAACATTAAGTATAATGACGTTTATGTCCCTTCCATGTCAATGGACGAGGAGGTTCAGAGTGGAATCAGAGCCCAGCGAGGCGAAAACCAAGGGTTGTTTCAGCAAAACCCGACCGGATTCACTCAGGGCTTTTTTTTGCTAACTCCATAG

>AvNAC019 | Symbols: R_transcript_44451 | NAC domain containing protein

ATGGCTCACAGTTTGGGGGAAATAGCTCCGCCGCCGGCTTCCGGGACGTCGCTAGCGCCGGGGTTTCGGTTCCACCCAACGGACGAGGAATTGGTGCAGTACTATCTCAAGCGCAAGGCTTGTGGTAAGCCCTTTCGCTTCGAAGCCGTATCCGAAATCGATGTCTACAAATCAGAGCCTTGGGAGCTTTCAGGCCATTCAAGGCTGAAGAGCCGAGACCTAGAGTGGTACTTCTTTAGCCCTGTGGATAGGAAGTATGGTAATGGATCTCGGTTGAATCGTGCCACTGGGAAAGGGTACTGGAAGGCCACTGGAAAGGATCGGCACGTGCGTCATAAGGGTCAGACAATCGGGATGAAAAAGACGCTTGTGTTTCATAGTGGGCGAGCTCCAGACGGCAAGCGAACCAATTGGGTAATGCACGAGTACAGGCTTGTTGATGGAGCAGCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGGGGATAGGTATGCTCCATTCATTGAGGAGGAATGGGATAATGATGCATCACTGGTGGTGCCGGGAGAAGATGCTGGGGATGAGATAGTAAATGGTGATGATGCACAAGTTGAAGGAAATGAGCTTGAACAGGATATTCATTCCACCAACAAATCTCCTCTGCGTCTAGCTGAGCTTCAAATCTTTCTCAATTTGTTCCATTTGTTTGCAAGAGGGAAAGGTCTGAAGATTGTCCTTTACCAGGGATAAGGGAAAGGTCTGAAGATTGTCCTTTACCAGGGATAA

>AvNAC020 | Symbols: R_transcript_13572 | NAC domain containing protein

ATGGCTCTGGATCAGGCTTCGCTGGCTCCTGGGTTTCGGTTCCACCCGACCGATGAAGAACTGGTGGTTTACTACCTGAAGCGCAAAATCTCCGGCAAACCCTTCCGTTTCGACGCCATCGCCGAAATCGACGTCTACAAGTCCGAACCCTTGGACCTCCCAGATAAATCAAGGCTGAAGAGCAAAGACTTGGAGTGGTACTTTTTCAGTTTACTAGATAAGAAGTATGGGAATGGCTCAAGAACAAATAGGGCTACTGAAAGAGGATACTGGAAGACTACCGGGAAGGATAGACCTGTCTTCCACAAGGCCCAGACAGTGGGCATGAAGAAAACGCTTGTTTATCATAGTGGTCGGGCTCCACGGGGTGAGAGGACTAATTGGGTGATGCATGAGTACAGACTTGTTGATGAACAACTGGAGAAATCTGGGAAGTTTCAGGATGCATTTGTCTTGTGCAGAATATTTCAGAAGAGTGGTTCGGGTCCAAAGAATGGGGAGCAGTATGGAGCTCCATTTATTGAGGAGGAATGGGAGGAGGATGAGCTGGTTATGGTACCTGGCAAGGAGGCTGTTGTGGAAGTGGCTGTTGATGCTGATACTGATGCTGCCTATCTTAATGGAAATGACATTGATCAGATTTTTGGTGTAAACATTCCATTAGAAGATGCTCCACCTCCTTTCAGCTTCTATTATGGAAATGATAGCAGTAATGTCCAGAAGCATGTGGACTTTGTTGACGGAGCTCAAAAACTTTTGGTCCCTGACAGGGAAAGTTACTATAGCCCGGAGCAACCTTCTGACATGAAGTTACTCGATTTTCCAGTGCAAAATCATATGGATACAACTCCATTGAAGGATGAATATACTGGTGAATCAAGCAATACTGCCAATTATGTGGATGCAGATTACTTGCTTGACGAGCCATTCTTTGATGCTACCAATGACTTTTCATTTGATTTTGAGGAATTTCTGGAAACTAATGACCTATCAAACCCGATTGAAGTAGATCTTTCTGGTTTTGACGCGCTTCATGAGCACTTTACATTCTGTGATCCAGAGGCCTTTGATGCTTCAATGATGACGGGAATTGAGCGCATTGAAACCGAGCAAGCCTTAGTCCAGAAGCCTGTTAGTGATGGAGCCCAACAAGAGAGTATTGGAAGTCAACAACAGCTCTCACAAGGACGTGATAATGATCTTGCATCCTCTGCAAATCAAAAGCCTGGAAACTCCGGATCAGGTACGCAGTCCTCAGCTGTCAAGAAGGCAATTTGTATGCTTGGCGACATCGATGCCCCTCCTGCGTTTGCTTCGGAGTTCCCAGAAAAAGGTGCAGCTCTTCTGCTGAATTCTGCTTCTCATTCTTCAAATCCGGTCCACACCACAGCTGGTATGATCCACCTAGGAGACATGGCCATGAGTGGCAATGGGATATACTGGTCTCTTGAGAAGCATCCAGATTACAATATCCTCTCTCTTGCTCTACCGCAAAATGATACGAATTCTGCCAGCTTGGAGCGAATAGGCAAGGCGGGCTCCGTAATGGGATGGGGCTGCTTGTACCTGTTTTTTGTGTGGGCCCTGATCCTATCGGCAAGCTGCAAAATTGGGTCCTAC

TACTCAGGCAAGGCTGCTTGA

>AvNAC021 | Symbols: R_transcript_33721 | NAC domain containing protein

ATGGCTCTGGATCAGGCTTCGCTGGCTCCTGGGTTTCGGTTCCACCCGACCGATGAAGAACTGGTGGTTTACTACCTGAAGCGCAAAATCTCTGGCAAATCCTTCCGCTTCGACGCCATCGCCGAAATCGATGTCTATAAGTCCGAACCTTTGGACCTCCCAGATAAATCAAGGCTGAAGAGCAAAGACTTGGAGTGGTACTTTTTCAGTTTACTAGATAAGAAGTATGGGAATGGCTCAAGAACAAATAGGGCTACTGAAAGAGGATATTGGAAGACTACCGGGAAGGATAGACCTGTCTTCCACAAGGCCCAGAAAGTGGGCATGAAGAAAACGCTTGTTTATCACAGTGGTCGGGCTCCACGGGGTGAGAGGACTAATTGGGTGATGCATGAGTACAGACTCATTGATGAACAACTGGAGAAATCTGGGAATTTTCAGGATGCATTTGTCTTGTGCAGAATATTTCAGAAGAGTGGTTCGGGTCCAAAGAATGGGGAGCAGTATGGAGCTCCATTTATTGAGGAGGAATGGGAGGAGGATGAGCTGGTTATGGTTCCTGGCCAGGAGGCTGCTGTGGAAGTGGCTGTTGATGCTGACACTGCCTACCTTAATGGAAATGACATCGATCAGATTTTTGGTGTAAACATTCCATCAGAAGATATTCCACCTCCTTTCACTTCTATTATGGAAATGATAGCAGTAATGTCCAGAAGCATGTGGACTTTGTTGACGGAGCTCAAAAACTTTTGGTCCCTGGCAGGGAAAGTTACTATAGCCCGGAGCAACCTACTGACATGA

>AvNAC022 | Symbols: R_transcript_44030 | NAC domain containing protein

>AvNAC023 | Symbols: R_transcript_62201 | NAC domain containing protein

>AvNAC024 | Symbols: R_transcript_66399 | NAC domain containing protein

ATGGCTCTGGATCAGGCTTCGCTGGCTCCTGGGTTTCGGTTCCACCCGACCGATGAAGAACTGGTGGTTTACTACCTGAAGCGCAAAATCTCCGGCAAACCCTTCCGTTTCGACGCCATCGCCGAAATCGACGTCTACAAGTCCGAACCCTTGGACCTCCCAGGTCTCTCTCTCTCTCTCTCTCTCTCTCTCAATTTGTGGTTCAATTCAATTGATTTGGTTTTGGTTTTGTTCTCCGTTTCGCCCAAAAGAAAGATTCCAATAATTTGGAGCGTGAAGTGA

>AvNAC025 | Symbols: R_transcript_81784 | NAC domain containing protein

ATGAAGAAAACACTTGTTTATCACAGTGGTCGGGCTCCACGGGGTGAGAGGACTAATTGGGTGATGCATGAATACAGACTCATTGATGAACAGCTGGAGAAATCTGGGAATTTTCAGGTGAGCATTGTAGAATTTTCCAGGTATGATAAGGATAATTGGATTAGTCTTTTAAATTGA

>AvNAC026 | Symbols: R_transcript_86796 | NAC domain containing protein

ATGAAGAAAACGCTTGTTTATCATAGTGGTCGGGCTCCACGGGGTGAGAGAACTAATTGGGTGATGCATGAGTACAGACTTGTTGATGAACAACTGGAGAAATCTGGGAAATTTCAGGATGCATTTGTCTTGTGCAGAATATTTCAGAAGAGTGGTTCGGGTCCAAAGAATGGGGAGCAGTATGGAGCTCCATTTATTGAGGAGGAATGGGAGGAGGATGAGCTGGTTATGGTACCTGGCAAGGAGGCTGTTGTGGAAGTGGCTGTTGATGCTGATACTGATGCTGCCTATCTTAATGGAAATGACATTGATCAGGTTAGTGATCAATTTCAGTACACCCACAATCTATTTAACAAACTATACTCTCTCTGGCTCTCAGCATTGTGA

>AvNAC027 | Symbols: R_transcript_92715 | NAC domain containing protein

>AvNAC028 | Symbols: R_transcript_86654 | NAC domain containing protein

ATGTCAAGGAGTTGGATCATCGACTACAAAGGAATTGCAACAAAAGTGAAGTGTGCTGGTCTATCTCCTGCATACCAAATCAAAGACTGTGGAGCAACTCGTAAATGCCCCAAATGCCACTACCTCATCGATAATAGTGATGTGATGCATGAATGGCCTGGATTGCCTACTGGTGTGAAGTTTGATCCATCTGACGTAGAGCTCTTAGAACATTTAGCTGCTAAATGCAGAGTGGGAAATTCAAAACCACATATGTTTATTGATGAGTTCATTCCAACAGTTGACAGAGAAGAAGGAATCTGCTATACCCATCCAGAAAATCTTCCCGGTGCAAAAACGGATGGAAGTAGTGTCCATTTCTTTCATAGGATTATCAATGCATATGCCACCGGTCAACGGAAACGCCGCAGAATTCATAATCAAGATAGTATGAAAAAGGAAGGTGTCCGTTGGCACAAGACAGGTAAGACCAAGTGTGTGACGGAAAATGGAGTGCAGAAGGGCTATAAGAAGATAATGGTTCTTTATAGAACTTCAAAGAAGGGTTCCAAGCCCGATAAGGCTAACTGGGTAATCCACCAATACCATCTGGGGACTGCTGAAGATGAAATAGGACAGTTTGTAGTTTCAAAAATATTATATCAGCTGCAGAAGCAAAGTGACAATACTGATAGTTCTCGTGTTATGGAAGATTCTGATTTGCGTACTATTCAAACTGTTCCGCAGACTCCAAAGACTAATACTCCTAATCCACCTCGGCCACGGAAATCCTTTTTGTGTGATGACGTCACAGATGATTATCTGATTCTACCCGAGTCATCAGCACAGGAAGAAAAGGAGACCCACACTTGGTTGGCTGGTGAATCACAAGCTGTCGATGGGAATGGTGATGATCCATTGTTATGCGATGAGAAATTGAATTCCTATGTTGATCTCGATGATTTAGGACTAAACGACGGTCCTTCCAATGACTTTTCTCGTCTCACACCTGATGTTCCTGGAGTAGATAGAATTAATCCACCTTGTGGAAACGCGAATCTTGAGAATCTAGAACTGGATGCTCCACTTGACTTCCAACTCACTGATTCGTACTTTGGTTCTCAAGACAGCATTTATGGTTGGCTAGACTGCTTATAG

>AvNAC029 | Symbols: R_transcript_80114 | NAC domain containing protein

ATGGAGGAAAATAATAATAATAATCTTCCTCCAGGGTTCAGGTTTCATCCAACGGATGAAGAACTCATAACCTACTATCTCTCTCACAAAGTCTCTGATTTTAGCTTCACCTCAAGGGCAATTGCAGATGTTGATCTCAACAAGTGTGAGCCTTGGGACCTTCCAGCCAAAGCATCCATGGGAGATAAGGAATGGTACTTCTTTAACTTGAGAGACCGGAAATATCCAACTGGCATGAGAACCAACCGAGCTACCGAAGCAGGCTACTGGAAAACAACCGGCAAGGACAAAGAGATCTTCCGAGGTGACGTCTTAGTTGGAATGAAGAAAACACTTGTATTCTACCGAGGTAGAGCTCCCAAAGGCGAAAAAACCAATTGGGTCATGCATGAATACAGGCTAGAAGCCAAGCTCTCTTTCAAACCAACAAAGGTATATAAACATATAACTTCATGCACACACTCTTCAAACGATAGATACCGGTAA

>AvNAC030 | Symbols: R_transcript_71454 | NAC domain containing protein

ATGGAGAAGCTCAACTTTGTTAAGAACGGTGTGCTAAAATTGCCTCCCGGGTTCCGGTTCCACCCCACCGACGAAGAGCTAGTGGATCAGTACTTGATGCGAAAGGCGTATTCGTGTCCTTTGCCGGCCTCAATCATACCCGAGGTCGACGTTTGCAAATCTGACCCCTGGGACTTGCCAGGGGACTCGGAGCAGGAGAGGTACTTTTTTAGTACTAGGGAAGCCAAGTACCCGAACGGAAACCGGTCGAACAGAGCAACCGGTTCCGGGTACTGGAAGGCGACAGGAATAGACAAGAAAATCGCGACTTCCAGGGGCAACCAAGTGGTGGGGATGAAGAAAACTCTGGTTTTTTACAGGGGAAAACCTCCACACGGGTCTAGGACCGACTGGATCATGCACGAGTACCGCCTTGTTGATGCCGAACCACCGAAAAAGAACACAACCCAGAGTTTCGCAGAGAATTGGGTTATATGCCGGATTTTTTTGAAAAAGAGAAGTACTAAGAATGAGGATGATCAAGAGAACACAAAGCCTCGCAATTGTGACAAAGTTAAGGTTTTGGGGAACAGTACTAGGCCTGTGTTTTATGATTTTATGGCTAAGGAAAGGGCTGATTTGAATCTTGCCCCGGCCTCGTCGTCTTCAGGTTCGAGCGGGGTCACGGAGGTCTTCTCGCACGAAGCCGACGACCGCCAAGAAAGTAGTAGTTGCAATAGCTTCTCCTCTTTTCGAAGAAAACCTTAG

>AvNAC031 | Symbols: R_transcript_78474 | NAC domain containing protein

ATGGAGAAGCTCAACTTTGTTAAGAATGGTGTGCTAAAATTGCCTCCCGGGTTCCGGTTCCACCCCACCGACGAAGAGCTAGTGGATCAGTACTTGATGCGAAAGGCGTATTCGTGCCCTTTGCCGGCCTCAATCATACCCGAGGTCGACGTTTGCAAATCCGATCCGTGGGACTTGCCAGGTAAGTTTTTGGAAACATGGGGGGGTATACAAAGTGGTAATTGTGTCTTTTTTTTGAAACAAATGTTAAGGAATCTCGTCTTTCGATAA

>AvNAC032 | Symbols: R_transcript_35688 | NAC domain containing protein

ATGGACACCATGGAATCGTGCGTTCCACCTGGATTCCGATTTCATCCGACGGATGAGGAGCTTGTAGGGTACTATCTAAAGAAGAAGGTTGCATCGCAGAAGATTGATCTCGATGTTATTAGAGACATTGATCTCTACAGGATTGAACCTTGGGATATCCAAGAGAGATGCCGAATTGGTTACGAAGAGCAAAACGAGTGGTATTTCTTCAGCCACAAGGATAAGAAATATCCGACGGGGACGAGGACCAACAGAGCGACTATGGCGGGGTTTTGGAAGGCGACGGGACGGGACAAGGCGGTGTATGATAAGTCAAAACTCATCGGCATGAGAAAAACCCTAGTCTTCTACAAAGGCCGGGCACCAAACGGGCAGAAGACTGACTGGATCATGCATGAGTACAGGCTTGAATCTGAAGAAAATGGTCCTCCACAGGAAGAAGGTTGGGTGGTTTGCCGAGCATTCAAGAAGCGAACAACAGGCCAAAACAAGAGCATTGAAGCATGGGACTCAACCTACTTCTATGATGAACCGAGCGGAGTGAGCTCAGTCTTGGATCCGAGCGAATACATTTCAAGGCAGCCCCAAAACTTCTTATCCCACAATTTACTATGCAAGCAAGAGATAGAAGCAGAAAATTTGAATTTCTTTCACTCTGACCAATTTGTAGAGCTTCCTCAGCTAGAGAGCCCCTCTATGCCACAAATAAAGAGGCCAAGCTCATCAATATCATTGATTTCAGAAAATAATGAGGAAGATGAGCAAATAAGAGGGTTGAGTAATAACCAAAAAGTGACTGATTGGAGGGCTCTTGATAAGTTTGTTGCTTCTCAGTTGAGCCAAGAGGACAAATTTGTTGAGAGTGATAATGTTGAGACAAGCTTTGGAGCGCATAGTAATTCGGATATGGCGTTGCTATTTTTGCAGAGTGATAGGGAAGAAGCTAACAAGTTGAATGGGTTCTTGAGTTCCAGCTCGGAGTGTGATATTGGGATTTGCATATTTGATAAATAA

>AvNAC033 | Symbols: R_transcript_40217 | NAC domain containing protein

ATGGCTTTGTACGGTACGAAGGAGTGGTACTTTTTTTCCCCGAGGGACAGGAAGTACCCCAACGGTTCTCGGCCGAACCGAGCTGCGGGGACCGGGTACTGGAAGGCAACCGGAGCAGACAAGCCGATCGGGCTGCCAAAGGCTGTCGGAATCAAGAAGGCTCTGGTTTTCTATGCCGGAAAAGCCCCCAGAGGGATCAAGACCAACTGGATTATGCACGAGTACCGCCTGGCCAACGTGGACAGATCCGCTGGCAAGAAGCATAACTTGAGGCTTGATGATTGGGTTTTATGTCGCATATACAACAAGAAGGGCAAAATCGAGAAGCACAATAACACAGTCGGTCAACAACCCGAAATATTCCCCGAATCGGAGGATCGAAAACCCGAGATTTTATCGGGTATGCCCCTGCCAACACTGCCATCGTACCACCAAGCAATGGGGAATGATTGGTCACATTTTGAGACGTCGGATTCGATGCCACGATTGCACACGGACTCGAGTGGGTCCGAGCACGTGGCATCCCCCGAGGTCACGTGGGAGAGGGAGGTCCAGAGCGAGCCCAAATGGAACAACGGCTTGGAAAACGCCTTCGATTTTCAGTTTAATTACATGGATGCCTTTTCGGAGGATCCTTTTGCCCAACAACCGTTTCAGCAGGATATGATGCTCTCCCCCTTGCAGGACATGTTCACGTACATGGAGAAGCCATTCTAG

>AvNAC034 | Symbols: R_transcript_50816 | NAC domain containing protein

ATGTCCCCATTATTGCCGAGATCGATCTCTACAAGTTTGACCCATGGCAATTACCAGCTATGGCTTTGTACGGTACGAAGGAGTGGTACTTTTTTTCCCCGAGGGACAGGAAGTACCCCCAACGGTTCTCGGCCGAACCGAGCTGCGGGGACCGGGTACTGGAAGGCAACCGGAGCAGACAAGCCGATCGGGCTGCCAAAGGCTGTCGGAATCAAGAAGGCTCTGGTTTTCTATGCCGGAAAAGCCCCCAGAGGGATCAAGACCAACTGGATTATGCACGAGTACCGCCTGGCCAACGTGGACAGATCCGCTGGCAAGAAGCATACCTTGAGGCTTGATGATTGGGTTTTATGTCGCATATACAACAAGAAGGGCAAAATCGAGAAGCACAATAACACAGTCGGTCAACAACTCGAAATATTCCCCGAATCGGAGGATCGAAAACCCGAGATTTTATCGGGTATGCCCCTGCCACCACTGCCATCGTACCACCAAGCAATGGGGAATGATTGGTCACATTTTGAGACGTCGGATTCGATGCCACGATTGCACACGGACTCGAGTGGGTCCGAGCACGTGGCATCCCCCGAGGTCACGTGGGAGAGGGAGGTCCAGAGCGAGCCCAAATGGAACAACGGCCTGGAAAACGCCTTCGATTTTCAGTTTAATTACATGGATGCCTTTTCGGAGGATCCTTTTGCCCAACAACCGTTTCAGCAGGATATGATGCTCTCCCCCTTGCAGGACATGTTCACGTACATGGAGAAGCCATTCTAG

>AvNAC035 | Symbols: R_transcript_52293 | NAC domain containing protein

>AvNAC036 | Symbols: R_transcript_83913 | NAC domain containing protein

ATGGATGAGAAGAGTGATGCAGATAAGATAGATGACATCATGTTGCCGGGATTTAGATTTCATCCGACGGATGAAGAACTTGTTGGGTTCTACTTGAAGAAAAAGATTCAGAAGCACTCGCTTCCAATCGAACTGATTAAGCAAGTGGATATATACAAATACGATCCATGGGATCTTCCAAAGCTGGCGCCAACAGGGGAGAAAGAGTGGTACTTTTACTGCCCAAGGGACCGTAAATACAGGAACAGTGTACGACCAAACCGAGTAACGGGAGCTGGGTTTTGGAAGGCCACTGGAACGGACCGACCAATTTACTCCTCTGATGGCACCAAGTGCATCGGTTTGAAGAAGTCCCTGGTGTTCTACAGGGGCAGAGCAGCCAAAGGATTTAAAACTGACTGGATGATGCACGAGTTCCGATTACCTTCTATCTCTGACTCTTCAGCACCTAAGAAGTTTTTGGATAAAAATCTTCCTGCAAATGAAGCATGGGCAATTTGTAGGATATTCAAGAAAACTAACTCTATGGCACAGAGAGCTCTTTCTCATTCTTGGGTATCTCCGGTACCCAAAACTACAGCATTCGACATATTCCACATCGGTGCACAGTCTACTCATTTCAGTTCGGAGACCATCTCTTGCACGACCGAAACTGGAAGTTTTTCTGCTCTCGATATCCCCTCTGATAAACCCATGAATCCAGTAACTTGCAAGCCGTCTCCTTTTTCCATTCCGAACAAAGATCTTTCCACCGGATACACGTTATCACCTCTTGAAATGCCAGGACCCACCACCATAAACACACTTGACGTTGCTTCTGTCCTTTTCAATCTCTCCCCCACCCTAATCGAGGACGCCAGCAGGGCCTCGCAGGGTATTGACTTTGAAGAGCCGCAACAGCCGTTCAATGTTTTCTCACTCGGTTCACCGCAAGACATGCAAGGAGGCACCAGAGAGGACGACATGGGATTGAGGAAATACGCGAGTGCAGCCCCTGCTAGCGATGAGTGGGGAAACATTCAATCCATTGTATTTCCGTTTAGTTTGTCCTCAGACCTGCCTGATCCATGGAAGCCCAATCTGCCGTGGGACTCTCCCCCCTGTCCTCGTGAGATTTCAACTACTTACCCTGAGTCAATTGTATACTGCCTCAATTGA

>AvNAC037 | Symbols: R_transcript_27414 | NAC domain containing protein

ATGGTACTTTTTCTGTGTCAGAGACAGAAGTACCCAACCGGTTTGAGGACAAACAGGGCCACGGAAGCCGGTTACTGGAAGGCGACAGGGAAAGACAGGGAGATTTACCGAGGGAAAGTGCTCGTCGGAATGAAGAAAACTTTAGTTTTCTACAAAGGGAGGGCTCCAAAAGGAGAAAAAACCAACTGGGTCATGCATGAATATAGGTTAGAGGGCAAGTTCTCTCTCCAAAACATGCCCAAAACAGCCAAGAATGAGTGGGTGATTTATAGGGTATTTCATAAGAGTTCAGATGGTAAGAAGATACATATTTCTGGATTAATGCAGTCAAAAATTCCGCCTGTAATGGACTGCTCGGTTTCAGCTCATGTGCCATCCTGCTTCTCCGATCCAACAGAGGAGAAACCCCCCCGAAACGACATCGTTGATAGCCTAAAACGTCCTCTACTAGCCTCTTCCTCTCCTTCAAAGGCTTCCTATTTCTCTCCCCATCCAATTCCTTTCCCAGACTCGCTCTTTTCCACCCAATTTCTGCCAAACATTGGAAATTTGCAATACCCAGATTTTCCGGACCAGTCCATACTGGGGCTTCTGCTTGAGAACAATGAAATGGACATGAAAAGATATTTGAAATCGGAATTTTCACCGGTGAGTACCGATATTTCGTCTTATCACGAAGTGGGTCAGAGGAATTATGAGGATCAGGAGGATCCGATCAATTCGGGTGGGCCAGTGGACACTGATTGTCTCTGGAATTACTGA

>AvNAC038 | Symbols: R_transcript_38643 | NAC domain containing protein

ATGGAAGAAACAGAGAATGCTGATAGGATGGCTTTCATGGTTCCTTACGGTTTTAGATTCAATCCCAAGGATCAAGAAATCATTTATCTTCTGCTGAGAAAGGCGAATGGAAACCATCTTCCGGTGGATGAGGGTTTGATACAAGAGCTTGACCTCTTTGGGAAAGAGGAACCATGGGAGATTTTTGGCCAAGGGAAGGAGAAAACACGCTACTTTTTTACGAGATTGAAGAAGAAAAGTAAGCGTAATGGATGCAACTTTGTTCGAACAACTGGCAAAGGGACGTGGAAGGGCCAAGACGGACGTGGATGTAACCCGATTATGGACCACAAAGGAAGTATTATTGGATTTAAGAAAAATTTGGTTTATAAGGGTAAAGGGACGAACACCAATGGGAGATGGCTGATGAAGGAGTACCATCTCGATGGTATTTCGTTAGAACCCCAACCAAAGTTCAATGATTACGTCCTGTGTAGAATAAGAAAGAAAGATGATGGAAGAACACAAGAGAAACAGAACGATAAAGCCGTTATCCATCAAGTTGCAAATGTGGGTTTCAAGGCCGAGGCAAGTTCGCCAATGGAATCAAACATGCCTTATCTAATTGACTATGAACTGCCTAATCTTAGTGTACCAGCAGATGCAGCTAGAATGGTGGAGTCAATTGCTCAAGATTGGATGACAGAATACAGCTACTTCAACAGCAAAGAGTCAAAGATTGACAGAGGAGACCAGCTGGACCGTTTGAGCACTGAGCATTTTGTACCTGAAGGAGTTTCCACAAGTTTTACGCAAGATAATGAAGCTGAATTTTGGAGAGTATTCTCTCCAATTTTAAAGAGTTTTTCGGATGAGGGTTTTGGTGGCGGGTTGTAG

>AvNAC039 | Symbols: R_transcript_67877 | NAC domain containing protein

ATGGAAGAAACAGAGAATGCTGATAGGATGGCTTTCATGGTTCCTTACGGTTTTAGATTCAATCCCAAGGATCAAGAAATCATTTATCTTCTGCTGAGAAAGGCGAATGGAAACCCTCTTCCGGTGGACAAGGGTTTGATCCAAGAGCGTGACCTCTTTGGAAAAGAGGAACCATGGGAGATTTTTGGCCAAGGGACGGAGAAAACACGCTACTTTTTTACGAGATTGAAGAAGAAAAGTAAGCGTAATGGATGCAACTTTGTCCGAACTACTGGAAAAGGTACGTGGAAGGGCCAAGATGGACGTGGATGTAACCCCGATTATGGACCACAAAGGAAGTATTATTGGATTTAA

>AvNAC040 | Symbols: R_transcript_65045 | NAC domain containing protein

ATGGAGGAATCAACATCATCTGAGCTTCAACTGCCTGGATTCAGGTTTCATCCAACGGAGGAAGAGCTTCTCGAATTCTACCTTAAAAACATGGTTTACGGGAAAATATTGCACCTTGATGTGATTGGATTCATCAACATCTACCTCCACGATCCTGTGAACTTGCCTGGTATGCATGCATTAATGAATGGTCTTTCCTTGCAATTTTTTAGCTAG

>AvNAC041 | Symbols: R_transcript_75291 | NAC domain containing protein

ATGGAGGAATCAACATCATCCAATCTTCAACTGCCCGGATTCCGGTTTCATCCGACGGAGGAAGAGCTTCTGGAATTCTACCTTAAAAACATGGTTTTCGGGAAAAAACTGCACCTTGATGTGATTGGTTTCATCAACATCTACCACCATGATCCTGTGGAATTGCCTGGGCTGGCCAAGATTGGGGAGAGGGAGTGGTACTTCTTTGTGCCAAGGGACAGAAAACATGGCAGTGGAGGGAGGCCAAACCGGACCACTGAAACCGGGTTTTGGAAGGCAACAGGTTCAGACCGCAAGATACTGAGCCTATCCGACCCGAAGAAGATCATAGGACTTAAAAAGACCCTTGTGTTCTACAAGGGCAGAGCACCCCGTGGTTGCAAAACTGATTGGGTCATGAATGAGTATCGTTTGCCCGATTCTTGCCCCTCTCCAAAGGACATCGTGTTGTGTAAGATATATAGGAAAGCAACTTCCTTGAAGGTGTTGGAAGAGAGGGCAGCCATGGAAGAAGAAATGAAAACAAGTCATGCATTCCAACCTTCACCTCCACTGACACCCCCAATGGACACAATCTCCTACAACAATTCCCATGAAGAGTACTCGACGGCACCCATGGCCGCGCAACACATGGTCTTTAAGAAAGAAGAAGAGGACATGTTACTAATAGCTGAAAAATGGTATGAAGAAGCAACAGAGAATAAAGGAACCACTAGTTCTATAATTTTACCACCAGGGAAAGAGAAGCCAGAGCTCCAAATGCCCAAGTTGAGTATGGACTGGACCCAAGACTCCTTTTGGACACAGCTAAGGAGCCCATGGCTTGACAATCTTACCCCCTTGGCTAGTTTACTCAATTTCTGA

>AvNAC042 | Symbols: R_transcript_94887 | NAC domain containing protein

ATGGGACTTAAAAAGACCCTTGTGTTCTACAAGGGTCGAGCACCCCGTGGTTGCAAAACTGATTGGGTCATGAATGAGTATCGTTTGCCCGATTATTGCCCTATCCAAAGGACATCGTGTTGTGTAAGATCTATAGGAAAGCAACTTCCTTGA

>AvNAC043 | Symbols: R_transcript_61978 | NAC domain containing protein

ATGGTGGGAAAGAACAGCTCAGACCTCCCTCCTGGTTTCAGATTCCACCCAACTGATGAGGAACTAATCATGTATTATCTCCGAAACCAGGCCACCTCTAGGCCGTGCCCGGTTTCAATCATCCCAGAAGTTGATATCTACAAATTTGATCCTTGGGAATTACCCGAGAAAGCAGAATTTGGAGAAAATGAGTGGTACTTTTTTACGCCGCGCGACCGGAAGTACCCGAATGGAGTGAGACCCAATAGGGCAGCTGTGTCTGGCTATTGGAAGGCCACAGGGACAGACAAGGCCATTTACAGTGGATCAAAGTATGTGGGTGTCAAGAAGGCTCTTGTTTTTTACAAGGGGAAGCCACCAAAGGGTATTAAGACAGATTGGATTATGCATGAATACAGATTACGTGATTCAATTAGACAAACTAACAACCAATCTGGGTCTATGAGGTTGGATGATTGGGTCCTGTGTAGGATCTACAAAAAGAAAAGTACCATTGGAAGGGTTTTGGATCCAAAAGTTGAAGATTTGGGTGTCCAAATAGTGGCTACAAATGATGCTAGTGACTCTCAAATGCTCAAAATTCCAAGGATTTACTCACTTTCTCATCTATGGCAATTGGATTGCTTGGGCTCACTTCCTCAGCTTTTAAATGAAAATTCATACCACCCAAACACTGATTACCAGCCCACAATGGGCAATGCTGGGAACTGCTCCGGTGGGACCGAGAAATTTCAATTTGGTGATCAATTCCCATACCAATACATGGATTCAGTGAAGTTCCAAGCTAGCCATAGTAATCATGCAGTAAACCAGCCAATTTTTGTGAATCCAGTGTTCCAGTTTCAGTGA

>AvNAC044 | Symbols: R_transcript_17613 | NAC domain containing protein

ATGGCTGAGATGTCTGGAGAGACGAAGAAATCAATTGAGGCGTCGTCGATGTTCCCAGGGTTTAGGTTCTCGCCGACAGACGAAGAGTTGATTTCATACTACCTGAAGAAGAAGATCGAGGGCTCCGACAAGTGCGTCGAGGTGATTTCGGAGGTCGAGATCAACAAATACGAGCCCTGGGACTTGCCAGCCAAATCTGTCGTTCAATCAGAGAGCGAGTGGTTCTTCTTCTCTTCTCGTGGAAGGAAGTACCCAAATGGCTCACAGAGCAAGAGGGCAACTGAATCTGGCTATTGGAAAGCCACAGGGAAAGAGCGAAAGGTAAAGTCTAGTTCTAATATGATTGGCACAAAAAGGACTTTGGTGTTCCACATAGGTCGTGCACCAAAAGGGGAGAGGACAGAATGGATAATGCACGAGTATTGTATGAGTGACAAATCTCAGGTGATTTAG

>AvNAC045 | Symbols: R_transcript_19469 | NAC domain containing protein

ATGGCTGAGATGTCTGTAGAGACGCAGAAATCCATTGAGGCGTCGTCGATGTTTCCAGGGTTTAGGTTCTCGCCGAATGACGAACAGTTGATTTCGTACTACCTGAAGAAGAAGCTTGAGGGCTCCGAAAAGTGCGTCGAGGTGATTTCAGAGGTCGAGATTAACAAATACGAGCCCTGGGACTTGCCAGCCAAATCTGTCGTTCAATCAGAGAGTGAGTGGTTCTTCTTCTCCTCTCGTGGAAGGAAGTATCCAAATGGCTCACAGAGCAAGAGGGCAACTGAATCTGGCTATTGGAAAGCCACAGGGAAAGAGCGAAATGTAAGGTCTGGTTGTAATGTGATTGGCACAAAAAGGACTTTGGTGTTCCACACAGGTCGTGCACCAAAAGGGGAGAGGACAGAATGGATAATGCACAAGTATTGTATGATTGACAAATCTCAGGATTCTATGGTTGTTTGTCGCCTTAGGAAGAACGCTGAGTTTCGATTGAATGATAGTCCGAGACAGGGTTCTTCAAGTCGAAGGCATGAGAATACTAGCAATTTAGCAGCTGAGGATAGCAGTCGTAATTCTCATTTAGTTGAGCAACAGAGTGGAACTGGATCTGACTCTGATCAAAGAGAGAGAAACGAGTTTTGTCAGACCAGTTCTAGCCACCAGGGCTGTGATGATGAAGATTGTTATGCGGAGATATTAAAAGATGATATTGTCGACCTTGGCCAATCTTTATTGCCTCCAGAGGATGAGAGGAAATCTCAGGACCCAGTGGAAGCAATCCCGTTACGTGACGTTCCTTTACAAGGTACAGCAGATCGAAGAATCCGATTGAGGAAGCCCAAGACAGAAAAATTGGAGGTTGAAATTTTCAATAAGAACGCTACTGAGAAATCCGCAAGTCCAAATGCAGACCGGTCACCAAACTATTTGGACTTATTTTCAAACGGGAGAATCAATCGTCTCTCCATGTCGATGTTGTTACTTATCTTGATTCTACTGGTTTTGTTTGTGTGTTTGTTGAGAGCACCTTGGCATGTGAAAAGGTTTGCACTTGTTTCTTTGTTTTGA

>AvNAC046 | Symbols: R_transcript_22363 | NAC domain containing protein

ATGGCTGAGATGTCTGTAGAGACGCAGAAATCAATTGAGTTGTCGTCGATGTTTCCAGGTTTTAAGTTCTCGCCGACGGACGAAGAGTTGATTTCGTACTACCTGAAGAAGAAGCTCGAGGGCTCCGAAAAGTGCGTCGAGGTGATTTCGGAGGTCGAGATTAACAAGTACGAGCCCTGGGACTTGCCAGGTTAG

>AvNAC047 | Symbols: R_transcript_30245 | NAC domain containing protein

ATGGCTGAGATGTCTGGAGAGACGCAGAAATCAATTGAGGCGTCGTCGATGTTTCCAGGGTTTAGGTTCTCTCCGACGGACGAAGAGTTGATTTCGTACTACCTGAAGAAGAAGATCGAGGGCTCCGACAAGTGCGTCGATGTGATTTCGGAGGTCGAGATCAACAAATACGAGCCCTGGGACTTGCCAGATCTATGGATCCATGAGCGTTACCGATGA

>AvNAC048 | Symbols: R_transcript_50769 | NAC domain containing protein

ATGGCTGAGATGTCTGTAGAGACGCAGAAATCAATTGAGTTGTCGTCGATGTTTCCAGGTTTTAAGTTCTCGCCGACGGACGAAGAGTTGATTTCGTACTACCTGAAGAAGAAGCTCGAGGGCTCCGAAAAGTGCGTCGAGGTGATTTCGGAGGTCGAGATTAACAAGTACGAGCCCTGGGGACTTGCCAGTTTTTGTTTGCCTCAGGCTTTGCGGATGATTTGGAAGATTGGTTTTGGGGGTTCACTGCTCGAGTGGTGGTCGAATGGTCAAATGCTGCTCGTAGGATCTTAG

>AvNAC049 | Symbols: R_transcript_78204 | NAC domain containing protein

ATGGAAAATTTATCTGGAATTGGAAAGGAGGAGGATCAGATGGAATTGCCACCGGGATTTCGATTCCACCCGACGGACGAAGAATTGATCACTCACTACTTGTCCAAGAAAGTTGTTGATAGCAATTTCTCTGCTAGAGTTATAGGAGATGTGGATTTGAACAAGGTTGAGCCTTGGGATTTACCATGGAAAGCGAAAATGGGGGAAAAGGAGTGGTACTTTTTCTGTGTGAAGGACAAAAAATACCCAACTGGTTTGAGAACAAACAGGGCTACTGCAGCCGGTTACTGGAAAGCCACGGGAAAAGATAAAGAAATTTTCCGTGGAAAATCGCTCGTTGGAATGAAGAAAACCCTAGTTTTCTACAAGGGGAGAGCTCCAAAAGGTGAGAAAACAAATTGGGTCATGCATGAGTACAGATTAGAGGGAAAATTCTTTCTCCAAAACCTCCCCAAAACAGCCAAGGTAATTGAATTCCTCTCCCCTGTTTTCCTCTATTTTCCCCCTGTTTTTAGGGTCTTTATGGAATTTGTTTCCCTCAATTTTCTTGCAGAATGA

>AvNAC050 | Symbols: R_transcript_98040 | NAC domain containing protein

>AvNAC051 | Symbols: R_transcript_38748 | NAC domain containing protein

ATGGGATCGTTGCCGCCGGGGTTTCGATTCCACCCAACTGATGAGGAGTTGGTTGGTTACTACTTGAAGAGAAAAGTTGAAGGGCTTGAGATTGAACTTGAAGTCATTCCTGTGATTGATTTGTACAAATTTGATCCTTGGGAATTGCCAGATAAATCATTCCTTCCCAAACGGGACATGGAGTGGTACTTCTTCTGTCCCCGGGATAGGAAATACCCTAATGGATCACGCACAAACCGTGCTACCAGAGCTGGCTACTGGAAAGCAACCGGTAAAGACCGGAAAATTGTTTGTCAGTCTGCTGTGACCAGTTATCGTAAGACTCTAGTCTTCTACCGTGGACGGGCCCCATTGGGGGATCGAACAGACTGGGTAATGCACGAGTATCGCCTCTCTGATGATTTTTCTCACGGATCACCAAGTTTTCAGGGAGGGTTTGCTTTGTGCCACGTCATTAAAAAGAACGACCAAAGGCAGAAAATGAACTATGTTCGTGGAGAACTAAAAGCTAAACAGGTCGGAAAGAGTTCAAATAACGGGAATTTCACCTCATCAAGAATTTTGAGTGAGCCTGTGACGAAATCCAAGGACACAACCTTTCAAGCCATTGGTGAAAACGATTCCTGTTCGATGGGATTCGATCCCAGTAGCCCCTGGGTGTCACCTGATTTAATACTTGATACTTCAAAGGAGTGCCCACAAGGACAAGGTGTTTCTGGATACTTCCCGCGATATAAGTTTCCAAATTCAGTGACTCAGTGGCAGACATATAGTCATTACGAAATCTCACCCGGTTCGTCCTACTCAAATTTGAGCAAGGAAGTTGAACTCGGTGATGAACCTAGTCGATTCAGTTGCACATCACCTTACTTTGGACTACAAACTACATGGGTTTTTGGAAATGAGGATATGCCTTGTGAAGGTCATGACCAGACCAGACCAATTCTCTAA

>AvNAC052 | Symbols: R_transcript_28167 | NAC domain containing protein

ATGTCTGGACAATCATGGCTGGTTGACAAGAGTAGAATTGCAACAAAAATCAAGTGTGCATCAGGCTCGTGTGATCTTGAAAGTGTCAACTGGAAAAGCAACCCAAGTAGAGCTTGCCCTAACTGCCAACAAATTATTGACAACAGTGATGTAAGTCTGGAGTGGCCAGGATTACCTAGAGGTGTGAAATTCGATCCATCTGATCAAGAGATCATGTGGCATTTACTTGCAAAAGTTGGCGTAGGGAACATGAAACCCCACCCCTTTATTGACGAGTTCATTCCAACTGTGGATGAAGATGACGGAATTTGTTATACCCATCCTCAAAATTTGCCAGGTGTTAAGCAAGACGGGAGTGTTTCTCACTTCTTTCATATAGCAATCAAAGCATACAATACTGGAACGCGGAAGCGTCGTAAGATACACGGTGATGATTTCGGCGATGTTCGATGGCACAAGACTGGCAGGACCAAACCTGTTCTCTTGGATGGGGTCCAAACGGGGTGTAAGAAGATTATGGTGCTTTATGTGAGCCCAGTACGGGGCGGGAAAGCCGAGAAAACCAATTGGGTGATGCACCAGTATCACTTGGGCACCGGAGAAGATGAAAAGGAGGGGCAGTATGTTGTCTCCAAGGTGTTTTATCAGCAACAACAAGGCAAGCAGACTGATAAATTCGAACACGATTTACCTGATGGCACTGATGTCATGATTGCAAATGTAGATCCGGTCACTCCGCAATCCGTGACTCCTGATCCACCTCGTACGGAAAAACAATTGTGTTGCATCGATCCCAGTGTCCTGCTTCAGCATCATGAGACAGGGCATGTTGAAGACAAGGTAGAAGCAGCATTTGAAGAACCAAATCGTCAAGACTCCCTGATGGTGGAAAATCACACAGGTCTAGCGGCAGACAATAACAATAATCAGACGGGGGAAGAACCGAAATGGTGGGGACAGCGAGTCTCAGAATCTTTTAGATTCGCAACAGCTTGTGGAAGGGTTGTCTCTGTGTGA

>AvNAC053 | Symbols: R_transcript_31813 | NAC domain containing protein

ATGGCTGGACAATCATGGCTGGTTGACAAGAGTAGAATTGCAACAAAAATCAAGTGTGCATCAGGCTCGTGTGATCTTGAAAGTGTCAACTGGAAAAGCAACCCAAGTAGAGCTTGCCCTAACTGCCAACAAATTATTGACAACAGTGATGTAAGTCTGGAGTGGCCAGGATTACCTAGAGGTGTGAAATTCGATCCATCTGATCAAGAGATCATGTGGCATTTACTTGCAAAAGTTGGCGTAGGGAACATGAAACCCCACCCCTTTATTGACGAGTTCATTCCAACTGTGGATGAAGATGACGGAATTTGTTATACCCATCCTCAAAATTTGCCAGGTGTTAAGCAAGACGGGAGTGTTTCTCACTTCTTTCATATAGCAATCAAAGCATACAATACTGGAACGCGGAAGCGTCGTAAGATACACGGTGATGATTTCGGCGATGTTCGATGGCACAAGACTGGCAGGACCAAACCTGTTCTCTTGGATGGGGTCCAAACGGGGTGTAAGAAGATTATGGTGCTTTATGTGAGCCCAGTACGGGGCGGGAAAGCCGAGAAAACCAATTGGGTGATGCACCAGTATCACTTGGGCACCGGAGAAGATGAAAAGGAGGGGCAGTATGTTGTCTCCAAGGTGTTTTATCAACAACAACAAGGCAAGCAGACTGATAAATTCGAACACGATTTACCTGATGGCACTGATGTCATGATTGCAAACGTAGATCCGGTCACTCCGCAATCCGTGACTCCTGATCCACCTCGTACAGAAAAACAATTGTGTTGCATCGATCCCAGTGTCCTGCTTCAGCATCATGAGACAGGGCATGTTGAAGACAAGGTAGAAGCAGCATTTGAAGAACCAAATCGTCAAGACTCCCTGATGGTGGAAAATCACACAGGTCTAGCGGCAGACAATAACAATAATCAGACGGGGGAAGAACCGAAATGGTGGGACAGCGAGTCTCAGAATCTTTTAGATTCGCAACAGCTTGTGGAAGGGTTGTCTCTGTGTGATGAACTTCTCCAGAGCCAGTCCCCTGGGATGGATGGAAATGAGAATGGAGAATTGGAAAGAAAGCCCTGCCTTTCTGATTACGCCCACTTGGGACGCGAAAATTTAAAGAAGGATTTAGAGGCGTGCCAAGATTTGGTCCTTGATCTGGCAAACATAGAACTCGATACGCCTCCTGATTTCCGGCTTAGCCAGCTTGAGTTTGAATCACAGGACAGTTTCCTTGCTTGGGGTGGGAGCAAGCCTGTTGACCAAGCGTGGTTCGAAACATCCTAA

>AvNAC054 | Symbols: R_transcript_40244 | NAC domain containing protein

ATGGCTGGACAATCATGGTTGGTTGACAAGAATAGAATTGCAACAAAAATCAAGTGTGCTTCAGGCTCGTGTGGAAGTGTCAACTGGAAAAGCAACCCAAGTAGAGCTTGCCCTAACTGCCAACATATTATTGACAACAGTGATGTGAGTCACGAATGGCCAGGATTACCCAGAGGTGTGAAATTCGATCCATCTGATCAAGAGATCATGTGGCACCTACTTGCAAAAGTTGGCATCGGGAATATGAAACCCCATCCTTTTATTGATGAGTTCATTCCAACTGTGGATGAAGATGACGGAATTTGTTATACCCATCCTCAGAATTTGCCAGGTGTTAAGCAAGACGGAAGTGTTTATCACTTCTTTCATAGAGCAATCAAGGCTTATAATACGGGAACTCGGAAGCGTCGAAAGATACACGGCGATGATTTCTGCGATGTGCGTTGGCACAAGACTGGCAGGACCAAACCTGTTATCTTGGACGGGGTCGTAACAGGGTGTAAGAAGATTATGGTGCTTTATGTGAGCCTAGTCCGGGGTGGGAAAGCGGAGAAAACCAATTGGGCGATGCACTAG

>AvNAC055 | Symbols: R_transcript_62357 | NAC domain containing protein

ATGTGGCATTTACTTGCAAAAGTTGGCGTAGGGAACATGAAACCCCACCCCTTTATTGACGAGTTCATTCCAACTGTGGATGAAGATGACGGAATTTGTTATACCCATCCTCAAAATTTGCCAGGTGTTAAGCAAGACGGGAGTGTTTCTCACTTCTTTCATATAGCAATCAAAGCATACAATACTGGAACGCGGAAGCGTCGTAAGATACACGGTGATGATTTCGGCGATGTTCGATGGCACAAGACTGGCAGGACCAAACCTGTTCTCTTGGATGGGGTCCAAACGGGGTGTAAGAAGATTATGGTGCTTTATGTGAGCCCAGTACGGGGCGGGAAAGCCGAGAAAACCAATTGGGTGATGCACCAGTATCACTTGGGCACCGGAGAAGATGAAAAGGAGGGGCAGTATGTTGTCTCCAAGGTGTTTTATCAGCAACAACAAGGCAAGCAGACTGATAAATTCGAACACGATTTACCTGATGGCACTGATGTCATGATTGCAAATGTAGATCCGGTCACTCCGCAATCCGTGACTCCTGATCCACCTCGTACGGAAAAACAATTGTGTTGCATCGATCCCAGTGTCCTGGTAAAAAGAACTTCTTCCTTGGTATCCTGGCTATGA

>AvNAC056 | Symbols: R_transcript_99111 | NAC domain containing protein

ATGTGGCATTTACTTGCAAAAGTCAGCTTAGGGAACATGAAACCCCATCCTTTTATTGACGAGTTCATTCCAACTGTGGATGAAGATGACGGAATTTGTTATACCCATCCTCAAAATTTGCCAGGCGTTAAGCAAGACGGGAGTGTTTCTCACTTCTTTCATAGAGCAATCAAAGCTTACAATACTGGAACGCGGAAGCGTCGAAAGATACACGGTGATGATTTCGGCGATGTTCGTTGGCACAAGACTGGCAGGACCAAACCTGTTCTCTTGGATGGGGTCCAAACGGGGTGTAAGAAGATTATGGTGCTTTATGTGAGCCCGGTACGGGGCGGGAAAGCCGAGAAAACCAATTGGGTGATGCACCAGTATCACTTGGGCACCGGAGAAGATGAAAAGGAGGGGCAGTATGTTGTCTCCAAGGTGTTTTATCAGCAACAACAAGGCAAGCAGACTGATAAATTCGAACACGATTTACCTGACGGCACTGATGTCATGATTGCAAACGTAGATCCAGTCACTCCGCAATCCGTGACTCCTGATCCACCTCGTACGGAAAAACAACTGTTTTGCATCGATCCCAATGTTCTGCTTCAGCATCATGAGATAGGGCATGTTGAAGACGAGGTAGAAGCAGCATTTGAAGAACCAAATCATCAAGACTCCCTGATGGTGGAAAATCACACAGATCTAGCGGCAGACAATAACGATAATCAGACGGGGGAAGAACCGAAATGGTGGGACAGCGAGTCTCAGAATCTTTTAGATTCGCAACAGCTTGTGGAAGGGTTGTCTCTGTGCGATGAACTTCTCCGGAGCCAGTCCCCTGGTAGGGACGGAAATGAGAATGGAGAATTGGAAAGAAGGCCCTGCCTTTCTGATTATGCCCACTTAGGACGTGAAAATTTAAAGAAGGATTTAGAGGCGTGCCAAGATTTGGTCCTTGATCCGGAAAACATAGAACTTGATACGCCTCCTGATTTCCGGCTTAGCCAGCTTGAGTTTGAATCACAGGACAGTTTCCTTGCTTGGGGTGGGACCAAGCCAGTTGACTAA

>AvNAC057 | Symbols: R_transcript_18002 | NAC domain containing protein

ATGAAGAAAACTCTGGTTTTTTACAGGGGGAAGCCTCCACATGGGTCTAGGACTGACTGGATCATGCACGAGTACCGCCTTGTCGATGGCGAACCACCGAAAACGAACACAACCCAGGTG

>AvNAC058 | Symbols: R_transcript_19545 | NAC domain containing protein

ATGGAGAAGCTCAACTTTGTTAAGAATGGTGTGTTAAGATTGCCTCCCGGGTTCCGGTTCCACCCCACCGACGAGGAGCTCGTGGATCAGTACTTGAAGCGAAAGATGTATTCGTGCCCTTTGCCGGCCTCAATCATCCCCGAGGTCGACGTTTGCAAATCCGACCCCTGGGACTTGCCAGGGGACTCGGAGGAGGAGAGGTACTTTTTTAGTACTAAGGAAGCCAAATACCCGAACGGGAACCGGTCGAATAGAGCGACGGGTTCCGGATACTGGAAGGCCACAGGAATAGACAAGAAAATCGCTACTTCTAGGGGCAATCAAGTGGTGGGGATGAAGAAAACTCTGGTTTTTTACAGGGGGAAGCCTCCACATGGGTCTAGGACTGACTGGATCATGCACGAGTACCGCCTTGTCGATGGCGAACCACCGAAAAAGAACACAACCCAGAGTTTGGCGGAGAATTGGGTTATATGCCGAATTTTTTTGAAGAAGAGAAGTACTAGGAATGAGGAGGACCATGAGAACACAAAGCCTCACAATTGTGACAAAGTTAAGATCTTGGGGAACACGACCAGGCCGGTGTTCTATGATTTTATGGCGAAGGACAGGGCTGATTTGAACCTTGCCCCGGCCTCGTCGTCTTCAGGTTCGAGCGGGGTCACGGAGGTCTTCTCGCACGAACCCGACGAACGCGAAGAAAGCAGTAGTTGCAATAGCTTCTCCTCTTTTCGAAGAAAACCTTAG

>AvNAC059 | Symbols: R_transcript_46194 | NAC domain containing protein

ATGGAGAAGCTCAACTTTGTTAAGAATGGTGTGCTAAGATTGCCTCCCGGGTTCCGGTTCCACCCTACCGACGAGGAGCTCGTGGATCAGTACTTGAAGCGAAAGGTGTATTCGTGCCCTTTGCCGGCCTCAATCATCCCCGAGGTCGACGTTTGCAAATCCGACCCCTGGGACTTGCCAGGGGACTCGGAGGAGGAGAGGTACTTTTTTAGTACTAAGGAAGCCAAGTACCCTAACGGGAACCGGTCGAATAGGGCGACGGGTTCCGGGTACTGGAAGGCGACAGGAATAGACAAGAAAATCGTGACTTCTAGGGGCAGCAAAGTGGTGGGGATGAAGAAAACTCTGGTTTTTTACAGGGGGAAGCCTCCACATGGGTCTAGGACTGACTGGATCATGCACGAGTACCGCCTTGTCGATGGCGAACCACCGAAAACGAACACAACCCAGGTGCGAATTTCGAATTTTCCCATTCATCTACAAATGAAGAAGCTGTTTGGGATTCAAATTTAA

>AvNAC060 | Symbols: R_transcript_95592 | NAC domain containing protein

ATGAAGAAAACTCTGGTTTTTTACAGGGGGAAGCCTCCACATGGGTCTAGGACTGACTGGATCATGCACGAGTACCGCCTTGTCGATGGCGAACCACCGAAAACGAACACAACCCAGAGTTTGGCGGAGAATTGGGTTATATGCCGAATATTTTTGAAGAAGAGAAGTACTAGGAATGAGGAGGATCATGAGAACACAAAGCCTCACAATTGTGACAAAGTTAAGATCTTGGGGAACACGACCAGGCCTGTGTTTTATGATTTTATGGCGAAGGACAGAGCTGATTTGAACCTTGCCCCGGCCTCTTCGTCTTCAGGTTCGAGCGGGGTCACGGAGGTCTTCTCGCACGAACCCGACGACCGCGAAGAAAGCAGTAGTTGCAATAGCTTCTCCTCTTTTCGAAGAAAACCTTAG

>AvNAC061 | Symbols: R_transcript_53223 | NAC domain containing protein

ATGGAGAAGCTCAACGTTGCGAAGAATGGTGCCATAAGATTGCCCCCTGGGTTCCGATTCCACCCCACGGATGAAGAACTCGTTGTTCAATATTTGAAGCGCAAGGCATTTTCTTGCCCCCTGCCGGCTTCAATCATCCCAGAGTTCGATGTTTGCAAATCTGACCCTTGGGACTTGCCTGGTGATTCGGCGCAAGAGAGGTACTTCTTTAGCACAAGGGAAGCTAAGTACCCAAATGGGAACAGGTCGAACAGAGCTACTGGTTCCGGCTATTGGAAGGCCACTGGAATTGACAAGCAAATTGTAACAAGTAGGAGCAACCAAGTTGCGGGGATGAAGAAAACTCTGGTTTTTTACAGAGGAAAGCCTCCACGTGGTTCTAGGACTGATTGGATCATGCACGAATATCGCCTTGTTGGTGCTGTAACTGAGAAAAATAACTCAACCCAAACTACTATGGAGAATTGGGTTCTTTGCCGCATATTTTTGAAGAAAAGAAGCACTAAAAATGACCAGGAGATAACACAATTGAACAATTGCGACACGGTTAAGACTGCGAGGAAAACAAGGCCTGTTTTCTTCAATTTCTTGGCGAAGAACAAGACTGATTTGAATCTTACCCCTGCTTCCTCCTCTTCGGGTTCAAGCGTGGTCACACAAGTCTCTTTTCATGAATCAGATGATCATGAAGAAAGCAGCAGTTGCAATAATTTATCATCCTTTAAAAGAAAACCTTAG

>AvNAC062 | Symbols: R_transcript_54724 | NAC domain containing protein

ATGGAGAAGTTCAACGTTGTGAAGAATAGTGTCATAAGATTGCCCCCTGGGTTCCGATTCCACCCCACGGATGAAGAACTCGTTGTTCAATATTTGAAGCGCAAGGCATTTTCTTACCCCCTGCCGGCTTCAATCATCCCAGAGTTCGATGTTTGCAAATCTGACCCTTGGGACTTGCCTGGTAAATTAGTTGCCAATTCTGAGTGCTTTCAAACTTACTTCAAAAAATTTCCTACATACCCAGAAAAAAAAATATCAAGAATTTCAAACAGCATTGGAATGTGA

>AvNAC063 | Symbols: R_transcript_56133 | NAC domain containing protein

ATGGCAAGACCATCCGTCCCTCCAGGATTTCGCTTCCATCCTACTGATGTTGAGCTGGTTAAGTACTACCTCAAAAGGAAGGTTATGGGGAAAGGGTTCCTATTTGAAGCCATTTCAGAGCTGAATATCTATAAGTTCTCTCCAAGTGATCTTCCAGATAAATCTTGCTTGAAAAGTAGAGATCGTGAATGGTACTTCTTTTGCCCAACTGCGAGAAAATATTCAAGTGGGGCTAGAACAAATCGTTCTACTGAAAGTGGGTATTGGAAATCCACTGGAAAGACTAGGTCTGTTTTATACAATGAACAACATGTGGGTTCGGTGAAAACTTTGGTTTACCATACAGGTCATTCATCGAAAGGGCAAAGAACAGATTGGGTTATGCATGAGTATAAGATTCAAGAGAAGGAGTTGGCAGATGCTGGAGTCCCTCAGGATGCATATGTGCTTTGCAAAATCTTCCAGAAGAGTGGCCCTGGCCCCAAAGCTAATGCTCAATATGGAGCACCATTTAAAGAAGAAGATTGGGATGATGATGCAGAGTTCTATGGTCAATCTCTGCAATCTAATAGTCTTCCATCACCCTCGTTGCCTTACGACAAAGAGAATTCTGTTGGAACAAGCATGTTTATTCCTGGAAGCATGGGTTGTTTGTCTTTATTTATGCCTGGTCCGTCAAACATCCTGCCTTCCATGGATGTAGTGCCTCAGCCTGGTCCAGAAAATGATGACTACATTTCTTTGTTGGACATCGACAACGACAAGGGACATGGGTCTTCTCTTCCTGATTATACTGTCAGTAATAAGGTGATGGAGAAATTCAGTCAGGTTAACAATAACGGAGTCTTAACTGGTTTGGATGGAATATATGATAACTTGGGGGACTTGGATAACTGGCACGGGCTGGGTGGAGGTGGATTCAACTTCTCCGGCAATCAGGCATCTGAATATGGTGCGATACCCTTTTCTGGAGGCCATAATGAAGGATTTGTGGAGCTCAATGACCTTGACGGAACTATCAAATCCACTGATTCTAGACCATTTATCACTGATAATTTATATATACCTGGCAATGATAATTACATGGAACAAGACTGCTTCCCCGCTGATTCTTTTAGTACTGTTCAGCCTGTATCTGCCATAACCCAGTTGCCTCTGCAGCCAGAAGGATCTAATGGGCGCAATGATCATTTTTTTGCATTCCAGGAGATGGGCGATGCGGAGAGTGCAAATCTGGGATTCACCACTTCTGGAATTCAGAATTTACCTTCCTTGGAGCAACCAGAAGAGGGAACTAGACAAGCTGCGCAAGACCAGAATAGAGGAGTGCAGCAAAGAAACCCTTACTCAAGACTCCAACGGTTGTTGGAGTCCATCCCCGTTCATAACCCATCAGCTGCGGAGCTATTTGCTCCTGCCATTGAAGCTGAGAGATGCAACGAAACTATTGTGTTTTCCCCTTGTGGTGGCTCCTCCTTCCATGTCAAGGCCGAGGTGACTTGTAGGGGTGGTGTGTGCACTAAGGACGCTTTGTCTGAGAACTTGGGGGAGTCTCTTTATTCCTATAGTGAGTTCAACCCCTATCTGACGTGGAAAAAGTGGTTAAATGTGGATCTCGCTTGCGTTTTTCTTTGGTTTGGGTCTTTTTAGGTATAATCATTTCTAAATTTGGCCGGCATGCTTGGAATTTTGTTAATTCATAA

>AvNAC064 | Symbols: R_transcript_90698 | NAC domain containing protein

ATGGCAAGACCATCCCTCCCTCCAGGATTTCGCTTCCATCCGACTCATGTTGAGCTGGTTAAGTACTACCTCAAAAGGAAGGTTATGGGGAAAGGGTTCCCATTTGAAGCCATTTCAGAGCTCAATATCTATAACTACTCTCCATGGGATCTTCCAGATAAATCTTGCTTGAAAAGTAAAGATCTTGAATGGTACTTCTTTTGTCCAGCGGCTAGAAAATATTCAAGTGGGGATAGATCAAAACGTTCTACTGAAATTGGGTATTGGAAATCCACTGGAAAAGATAGGTCTGTTTTATATAATGAACAAACTGTGGGTTCGGTGAAAACTTTGGTTTTCCACATAGGTCCACCGAAAGGGAAAAGAACAGATTGGGTTATGCATGAGTATAAGATTAAAGAGAAGGATTTGGCAGATGCTGGAGTCCCTCAGGATGCATATGTGCTCTGCAAAATCTTCCAGAAGAGCGGCGCTGGCCCCAAAGCTAATGCTCAATATGGAGCACCATTTAAAGAGGAAGATTGGGATGATGATGAAGAGTTCTGTGATCAATCTCTGCAATCTAATAGTCTTCCATCACCTGCGTTGCCTCACGACAAGTTTATTCCTGGAAGCATGGTTTGTGCGCCTTTATCTATGCCTGGTCCGTCAAACATCATGTCTTCCATTGATGTAGTGCCTCAGCCTGGTCCAGAAAATGAAGACTACATTACTTTGTGGGACATCGACAAGGAATATGGTTCTTCTCTTCCTGATCATACTGGCAATAATGAGGTGGTGGAGAATTTCAGCCAGGTTAACAATAACGGAGGCTTAACTGGTTTGGATGGAAATGGCATATATGATAACTTGGGGGACTTGGATAACTTGCGAGGGATGGATGGAAGTGGATTCAACTTCTCCAGCAATCAGAAAACTGAATATAGCGCGATGCTCTTTTCTGGAGTCAATAATGAAGGATTTGTGGAGCTCAATGACCTTGACGGAACTGTCAAATCCGCTAATTCTAGACAATTTATCCCTGATAATATATATGTACCTGACAATGATAATTACATGGAACAAGACTGCTTCCCTGCTGATTCTTTTAGTACTGTTCTGCCTGTATCTGCCATAAACCAGTTGCCTCTGCAGCCAGAAGGATCTAATGGGCACTATGACCATTTTTTTGCATTCCAGGAGATGGGCGATGCGGATAGTGCAAATATGGGATTCACTGCCACTTCTGGCATTCAGAATTTACCGCCCTTGGAGCAACCAGAAGAGGGAACTAGACAAGCTGCACAAGCCCAGAACAGAGGTAGATTCATTCTCTCCCGTGACAATGTTGGATCCAGTTTCACAAACTGGGAATTTTGA

>AvNAC065 | Symbols: R_transcript_19894 | NAC domain containing protein

ATGACGAGTCAGCTGGAGTTGCCGGCGGGATTCAGATTTCATCCGACGGATGAGGAGCTCGTGATCCACTACCTGTGCCGTAAGTGCGCGTCGCAGCCTATTTCTGTCCCCATTATTGCCGAGGTCGATCTCTACAAATTTGACCCATGGCAATTACCAGGTATGGCCTTGTACGGAGAGAAGGAGTGGTACTTTTTTTCCCCGAGGGACAGGAAGTACCCGAATGGTTCGCGGCCGAACCGGGCAGCGAGGACAGGGTATTGGAAGGCGACCGGGGCTGACAAGCCGATCGGGCGTTCGAAGGCTGTCGGAATCAAGAAGGCTCTGGTTTTCTACGCCGGAAAAGCCCCCAGTGGGGTTAAGACCAATTGGATTATGCACGAGTACCGCCTGGCCAACGTGGACAGGTCCGCTGGCAAGAAGAATAACTTGAGGCTTGATGATTGGGTTTTATGTCGCATATACAACAAAAAGGGCACAATCGAGAAGCACAATATCACGGTGGGTCCAAAACTCGAACAATTCCCCGAATTTGAGGATCGAAAACCCGAGATTTTATCAGGGTACACCGCCATGCCTCCACCACCGCCGCCATCATCGTACCACCGAGCAATGGGGAATGATTTGTTACATTTTGAGCCGTCGGACTCGTTGCCATGGATGCACACAGACTCGAGTGGGTCCGAGCACGTGGCATCCCCCGAGGTCACGTGGGAGAGGGAGGTCCAGAGCGAGCCCAAATGGAGTAACGGCTTGGAAAACTCCTTCGATTTTCAGTTGAATTACATGGATGCCTTTTCGGATGACCCTTTTACCCCTCAAATGCAACAGTTTCAGCAGGACATCATGCTCTCCCCCTTGCAGGACATGTTCATGTACATGGACAAGCCATTCTAG

>AvNAC066 | Symbols: R_transcript_56139 | NAC domain containing protein

ATGAAGAGTCAGTTGGAGTTGCCGGCGGGATTCAGATTTCATCCGACGGATGAGGAGCTCGTGATCCACTACCTGTGCCGTAAGTGCGCGTCGCAGCCTATTTCTGTCCCCATTATTGCCGAGGTCGATCTCTACAAATTTGACCCATGGCAATTACCAGGTATGGCCTTGTACGGAGAGAAGGAGTGGTACTTTTTTTCCCCGAGGGACAGGAAGTACCCGAATGGTTCGCGGCCGAACCGGGCAGCGAGGACAGGGTATTGGAAGGCGACCGGGGCTGACAAGCCGATCGGGCGTTCGAAGGCTGTCGGAATCAAGAAGGCTCTGGTTTTCTACGCCGGAAAAGCCCCCAGCGGGGTTAAGACCAATTGGATTATGCACGAGTACCGCCTGGCCAACGTGGACAGGTCCGCTGGCAAGAAGAATAACTTGAGGGTAAGGATCCATTCTCGTGTTCGGGTTAAAATTACCATTATATCCTCGTCGAATGATCAACACAACACCCATTCTTTTGAAAAATTAGAAAAAGCTTCCCATAATTATGCTTGA

>AvNAC067 | Symbols: R_transcript_27385 | NAC domain containing protein

ATGGCTTTACCGGTTCCGTCAGTTCCGTCTCTAGTTCAAGCATCTCATCAGATGGCTTTATCGGTTCCCTATGGATTTACATTCAGTCCTGAAGATCATGAACTCATTTATATTCTATACAGAAAGGTCCATGGAAACAGTCTTCCAGTTGATGAGGGTTTGATTGAAGAACGTGAACTCTTTGGAAAAGAGGAACCGTGGGAAATTTCTGGTCGAGGGACGGAGAAGACACGCTATTTTTTTGTGAAACTAAAGAAGAAAGGAAAGAGTGCCGGTGGTTCAAACTTTGTTCGAACCGTTGGCAAAGGTATGTGGAAAGGCCAAGATGGACAGATCCTTATTAAGGACCAGCAAGGAAGGACGATTGGATTTAAGAAGAATTTGGTTTATAAGGGTAAAGGGCAGAACACGAATGGGAGATGGCTCATGAAGGAGTATCATCTCCATGGTGTTTCGTTACAACCACTGCCAAAATTGAATGATTACGTCCTGTGTCGAATAAAGAAAAAGGATGATGGGAAAAAACAGAACGTGCATTTCGACACGGAGGCACGTTCTCGTTGTCACAGTATTGGAGGAAACCAGGATGGGGAGAATTTCGGCTCTGTGATTTGTGAAGAAAATTCAATCCTTGGGAGAAAACGTCCGAGGATTGAATATATGACTGATTATGAGCTGCCCAATCTGAGTGTAGCAGATGCAACTATCACGGCGGAGTCAATTGACAAAGAAAGAGACCAACATATGGACCATTCAGGGGCTGAGAATTGCGTACCGGCTTTGTCTGAAGGAATTTCTAAAAGTTTTATGCAAGATGATGACGACGCTGAAATTTTTAGAGGTCTCAGTCCAATTGTTGAGAAATTTTATGATGAGGGTTTTGGGAGGGAGGTTGTGGACTAA

>AvNAC068 | Symbols: R_transcript_9009 | NAC domain containing protein

>AvNAC069 | Symbols: R_transcript_9620 | NAC domain containing protein

ATGAAGAAAACCCTAGTGTTTCATAGTGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGCTGGGGTAACACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTCTAGGACCACCAAATGCGGATCGATATGCTCCATTTATCGAGGAGGAATGGAATGATGATGTGTCGATGGTGATTCCTGGTGAAGAAGAGCCTGTAAATGCTGATGATTCACAAGTGGAAGGGAATGACTATGAGCAGGATACTCATTCCCACAACATGGCAGCTCTGTGTCAAACTGAGCTTCCAAATGTTTGTCAAAACATTCCCTTTTTTTTCAAGAGGGAAAGGCCAGGTTATGCTCCTTTCCCGTGTACAGTTGATGCTGAGCCCATCTCTGTGGTTCCAAATAAAAAATCTAGGCATGACAATCCAAACTCCAGCAATGCAAATGGTTCAGAGGACTCAACTACAACAACTCACGATCTTTGCACAACAAATACGTCCTCTGCACTCGTCGAAATACCATTATTAGAGTCTCTCGATCCCAAAGAAAATCGCCCAAATAAACTGACGGCATTTGATTCGACTAATCTTGAGAAATCTGTGCCTCCCGGGTACTTGAAATTCATCAACAATCTGGAAAACGAGATCCTTAATGTTTCTATGGAGAGGGAGACGCTGAAGATCGAAGTGATGAGGGCACAAGCCATGATTAACATGCTTCAATTGCGCATTGATCTTCTGAACAAGGAAAATGAGGACCGACCTGAAAAGGGTCTGTTGAGAAGTTTATCTACCTTTGGCGCTCGCGTAATATGA

>AvNAC070 | Symbols: R_transcript_16576 | NAC domain containing protein

ATGGCCCACGAATTGGCGGCAATTGTCCCTTCGCCGCCGCCGACGTCGCTGGCGCCGGGGTTCCGGTTCCACCCGACGGACGAGGAGCTGGTGCAGTACTACCTCAAGCGCAAGGCCCGTGCAAAGCCCTTCCGATTCGAATCCGTCTTGGAAATCGATGTCTACAAATCTGAGCCCTGGGAGCTTGCTTGTCATTCAAGGCTTAAGAGCCGAGACCTAGAGTATTACTTCTTTAGCCCTGTAGATAGAAAGTATGGGAATGGATCTCGGTTGAATCGAGCCACTGGAAAAGGGTATTGGAAGGCCACTGGAAAGGATCGGTCAGTACGTCACAAGGGCCAGACAATTGGGATGAAGAAAACCCTTGTGTTTCATGGGGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGATGGGGTATCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGCGGATCGATATGCTCCATTTATTGAGGAGGAATGGAATGATGATGTGCCGATTGTGATTCCTGGAGAAGAAGAGCCTGGATATGAGATGGTAAATGCTGATGATTCACAGGTGGAAGGGAATGACTTCGAGCAGGATACTCATTCCCACAATATGGCAGCTCTGTATCAAACTGAGCTTCCAAATGGCTGTCAAAACATTCCCTTCTTTTGCAAGAGGGAAACGTCAGGTTATGCTCCTTTCCCGTGTACAGTTGATGCAGAACCCATCTCTGTGGTTCCGAATAAAAAATCTAGGCATGACGATCCGAACTCTAGTAATGCAAATGGTTCAGAGGATTCAACTACAACTCATGATCTTTGCACAACAAATATGTCCTCTGCACTTGTTGAAATCCCTTTATTAGAGTCTCTCGATCCCAAAGAAAATCATCCGAATAAACTGACGGCATTTGATTCGGCTATTCTTGAGAAATCTGTGCCTCCGGGGTACTTGAAGTTCATCAACAATCTGGAAAAGCGAGATCCTCAATGTTTCTATGGAGAGGGAGACGCTGAAGATTGA

>AvNAC071 | Symbols: R_transcript_16797 | NAC domain containing protein

ATGGCCCACGAATTGGCGGCAATTGTCCCTTCGCCGCCGCCGACGTCGCTGGCGCCGGGGTTCCGGTTCCACCCGACGGACGAGGAGCTGGTGCAGTACTACCTCAAGCGCAAGGCCTGTGCGAAGCCCTTCCGATTCGAAGCCGTTTTGGAAATCGATGTCTACAAATCTGAGCCCTGGGAGCTTGCTTGTCATTCAAGGCTTAAGAGCCGAGACCTAGAGTATTACTTCTTTAGCCCTGTAGATAGAAAGTATGGGAATGGATCTCGGTTGAATCGAGCCACTGGAAAAGGGTATTGGAAGGCCACTGGAAAGGATCGGTCAGTACGTCACAAGGGCCAGACAATTGGGATGAAGAAAACCCTTGTGTTTCATGGGGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGATGGGGTATCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGCGGATCGATATGCTCCATTTATTGAGGAGGAATGGAATGATGATGTGCCAATGGTGATTCCTGGAGAAGAAGAGCCTGGATATGAGATGGTAAATGCTGATGATTCAAAAGTGGAAGGGAATGACTTTGAGCAGGATACTCATTCCCACAACATGGCAGCTCTGTATCAAACTGAGCTTCCAAATGGTTGTCAAAACGTTCCCTTCTTTTGCAAGAGGGAAACGTCAGGTTATGCTCCTTTCCCATGTACAGTTGATGCAGAACCCATCTCTGTGGTTCCGAATAAAAAATCTAGGCATGAGGATCCGAACTCCAGTAATGCAAATGGTTCAGAGGACTCAACTACGACAACTCATGATCTTTGCACAACAAATACGTCCTCTGCACTTGTCGAAATCCCTTTATTAGAGTCTCTCGATCCCAAAGAAAATCATCCGAATAAACTGACTGCATTTGATTCGGCTAATCTTGAGAAATTTGTGCCTCCAGGGTACTTGAAGTTCATCAACAATCTGGAAAACGAGATCCTCAATGTTTCTATGGAGAGGGAGACGCTGAAGATCGAAGTGATGAGGGCCCAGGCCATGATTAATGTTCTTCAATCGCGCATTGAGCTTCTGAACAAGGAAAATGAGGACCTGAAAAGGGCCGGTTGA

>AvNAC072 | Symbols: R_transcript_16893 | NAC domain containing protein

ATGGCCCACGAATTGGTGAAAATTGTCCCGCCGCCGCCGACGTCGCTGGCGCCGGGGTTCCGCTTCTATCCGACGGACGAGGAGCTGGTGCAGTACTACCTCAAGCGCAAGGCCTATGCGAAGCCCTTCCGATTCGAAGCCGTATCGGAAATCGATGTCTACAAATCTGAGCCCTGGGAGCTTGCTTGTCATTCAAGGCTGAATAGCCGAGACCTGGAGTATTACTTCTTTAGCCCTGTAGATAGAAAGTATGGGAATGGATCTCGGTTGAATCGAGCCACTGGTAAAGGGTATTGGAAGGCCACTGGAAAGGATAGGTCAGTACGTCACAAGGACCAGACAATTGGGATGAAGAAAACCCTAGTGTTTCATAGTGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGCTGGGGTAACACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTCTAGGACCACCAAATGCGGATCGATATGCTCCATTTATCGAGGAGGAATGGAATGATGATGTGTCGATGGTGATTCCTGGTGAAGAAGAGCCTGTAAATGCTGATGATTCACAAGTGGAAGGGAATGACTATGAGCAGGATACTCATTCCCACAACATGGCAGCTCTGTGTCAAACTGAGCTTCCAAATGTTTGTCAAAACATTCCCTTTTTTTTCAAGAGGGAAAGGCCAGGTTATGCTCCTTTCCCGTGTACAGTTGATGCTGAGCCCATCTCTGTGGTTCCAAATAAAAAATCTAGGCATGACAATCCAAACTCCAGCAATGCAAATGGTTCAGAGGACTCAACTACAACAACTCACGATCTTTGCACAACAAATACGTCCTCTGCACTCGTCGAAATACCATTATTAGAGTCTCTCGATCCCAAAGAAAATCGCCCAAATAAACTGACGGCATTTGATTCGACTAATCTTGAGAAATCTGTGCCTCCCGGGTACTTGAAATTCATCAACAATCTGGAAAACGAGATCCTTAATGTTTCTATGGAGAGGGAGACGCTGAAGATCGAAGTGATGAGGGCACAAGCCATGATTAACATGCTTCAATTGCGCATTGATCTTCTGAATAAGGAAAATGAGGACCGACCTGAAAAGGGTCTGTTGAGAAGTTTATCTACCTTTGGCGCTCGCGTAATATGA

>AvNAC073 | Symbols: R_transcript_37237 | NAC domain containing protein

ATGGCCCACGAATTGGTGAAAATTGTCCCGCCGCCGCCGACGTCGCTGGCGCCGGGGTTCCGCTTCCATCCGACGGACGAGGAGCTGGTGCAGTACTACCTCAAGCGCAAGGCCTATGCGAAGCCCTTCCGATTCGAAGCCGTATCGGAAATCGATGTCTACAAATCTGAGCCCTGGGAGCTTGCTTGTCATTCAAGGCTGAATAGCCGAGACCTGGAGTATTACTTCTTTAGCCCTGTAGATAGAAAGTATGGGAATGGATCTCGGTTGAATCGAGCCACTGGTAAAGGGTATTGGAAGGCCACTGGAAAGGATAGGTCAGTACGTCACAAGGACCAGACAATTGGGATGAAGAAAACCCTAGTGTTTCATAGTGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGCTGGGGGTAACACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTCTAGGACCACCAAATGCGGATCGATATGCTCCATTTATCGAGGAGGAATGGAATGA

>AvNAC074 | Symbols: R_transcript_56738 | NAC domain containing protein

ATGAAGAAAACCCTTGTGTTTCATGGGGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGATGGGGTATCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGCGGATCGATATGCTCCATTTATTGAGGAGGAATGGAATGATGATGTGCCGATTGTGATTCCTGGAGAAGAAGAGCCTGGATATGAGATGGTAAATGCTGATGATTCACAGGTGGAAGGGAATGACTTCGAGCAGGATACTCATTCCCACAATATGGCAGCTCTGTATCAAACTGAGCTTCCAAATGGCTGTCAAAACATTCCCTTCTTTTGCAAGAGGGAAACGTCAGGTTATGCTCCTTTCCCGTGTACAGTTGATGCAGAACCCATCTCTGTGGTTCCGAATAAAAAATCTAGGCATGACGATCCGAACTCTAGTAATGCAAATGGTTCAGAGGATTCAACTACAACTCATGATCTTTGCACAACAAATATGTCCTCTGCACTTGTTGAAATCCCTTTATTAGAGTCTCTCGATCCCAAAGAAAATCATCCGAATAAACTGACGGCATTTGATTCGGCTATTCTTGAGAAATCTGTGCCTCCGGGGTACTTGAAGTTCATCAACAATCTGGAAAACGAGATCCTCAATGTTTCTATGGAGAGGGAGACGCTGAAGATTGAAGTGATGAGGGCCCAGGCCATGATTAATGTTCTTCAATCGCGCATTGAGGTTCTGAACAAGGAAAATGAGGACCTGAAAAGGGCCGGTTGA

>AvNAC075 | Symbols: R_transcript_69341 | NAC domain containing protein

ATGCAGCTCTTTCATGTCCAATATACTGTTTCTCGTGTTGTTATATCTCTCTTCCAATCCCTCTCCCTATTTTATGGACCTTCAGGTCATTCAAGGCTTAAGAGCCGAGACCTAGAGTATTACTTCTTTAGCCCTGTAGATAGAAAGTATGGGAATGGATCTCGGTTGAATCGAGCCACTGGAAAAGGGTATTGGAAGGCCACTGGAAAGGATCGGTCAGTACGTCACAAGGGCCAGACAATTGGGATGAAGAAAACCCTTGTGTTTCATGGGGGACGGGCTCCAGATGGCAAGCGGACTAACTGGGTCATGCATGAGTACAGGCTTGCTGACAGAGATTTGGAGAGAGATGGGGTATCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGCGGATCGATATGCTCCATTTATTGAGGAGGAATGGAATGATGATGTGCCAATGGTGATTCCTGGAGAAGAAGAGCCTGGATATGAGATGGTAAATGCTGATGATTCAAAAGTGGAAGGGAATGACTTTGAGCAGGATACTCATTCCCACAACATGGCAGCTCTGTATCAAACTGAGCTTCCAAATGGTTGTCAAAACGTTCCCTTCTTTTGCAAGAGGGAAACGTCAGGTTATGCTCCTTTCCCATGTACAGTTGATGCAGAACCCATCTCTGTGGTTCCGAATAAAAAATCTAGGCATGAGGATCCAAACTCCAGTAATGCAAATGGTTCAGAGGACTCAACTACGACAACTCATGATCTTTGCACAACAAATACGTCCTCTGCACTTGTCGAAATCCCTTTATTAGAGTCTCTCGATCCCAAAGAAAATCATCCGAATAAACTGACTGCATTTGATTCGGCTAATCTTGAGAAATTTGTGCCTCCAGGGTACTTGAAGTTCATCAACAATCTGGAAAACGAGATCCTCAATGTTTCTATGGAGAGGGAGACGCTGAAGATCGAAGTAATGAGGGCCCAGGCCATGATTAATGTTCTTCAATCACGCATTGAGCTTCTGAACAAGGAAAATGAGGACCTGAAAAGGGCCGGTTGA

>AvNAC076 | Symbols: R_transcript_13655 | NAC domain containing protein

ATGGCTCTGGATCAGGCTTCGCTGGCTCCTGGGTTTCGGTTCCACCCAACTGATGAAGAACTGGTGGTTTACTACCTGAAGCGCAAAATCTCCGGAAAAACCTTCCGCTTCGACGCCATCGCCGAAATTGACGTCTACAAGTCCGAACCCTCGGACCTCCCAGATAAATCGAGGCTGAAGAGCAAAGACTTGGAGTGGTACTTTTTCAGTTTACTAGATAAGAAGTATGGTAATGGGTCAAGGACGAATAGGGCTACTGAAAGAGGGTACTGGAAGACTACCGGGAAGGATAGACCAGTCCTCCACAAGGCCCAGACAGTGGGCATGAAGAAAACGCTTGTTTATCACAGTGGTCGGGCTCCACGGGGTGAGAGGACTAATTGGGTGATGCATGAGTACAGACTCATTGATGAACAGCTGGAGAAATCTGGGAATTTTCAGGATGCATTTGTCTTGTGCAGAATATTTCAGAAGAGTGGTTCAGGTCCAAAGAATGGGGAGCAGTATGGAGCACCATTTATTGAGGAGGAATGGGAGGAGGAGGAACTGGTTATGGTTCCTGGCAAGGAGGCTGCTGAGGATGAGGATGCCTACGTTAATGGAAATGACATTGATCAGATTTTTGGTGTAAACATTCCATCAGAAGATGGTCCTCCTCTTCCCTTCAGCTTCTATTATGGAGATGATAGCAGTAATGTCCAGAAGCATGTGGACTTTGTCGACGGCGCTCAAAAGCTTTTGGTGCCTGACAGTGAAAGTTACTATAGCCCAGAGCAACCTACTGACATGAAGTTACTCGATTTTCCAGTGGAAAATCATATGGATACAACTCCGGTGAAGGATGAATATACTGGTGAATCAAGCAATACTGTCAATTCTGTGGATGCAGATTACTTGCTCGATGAGCCATTCTTTGATGCTACCAATTACTTTCCATTTGGTTTTGAGGAGTTCCTAGGAAACTAA

>AvNAC077 | Symbols: R_transcript_15641 | NAC domain containing protein

ATGAAAAAGACGCTTGTGTTTCATAGTGGGCGAGCTCCAGACGGCAAGCGAACCAATTGGGTAATGCATGAGTACCGACTTGTTGATGGAGCAGCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGGGGATAGGTATGCTCCATTCATTGATGAGGAATGGGATAATGATGCATCACTGCTGGTGCCGGGGAGAAGAGGCTGGGGATGA

>AvNAC078 | Symbols: R_transcript_80139 | NAC domain containing protein

>AvNAC079 | Symbols: R_transcript_82604 | NAC domain containing protein

>AvNAC080 | Symbols: R_transcript_94099 | NAC domain containing protein

ATGGCTCACAATTTGGGGGAAATCGCTCCACCACCTCAACCGCCGGTGGCGGCTGCAGCGACGTCGCTGGCGCCGGGGTTTCGGTTCCACCCGACGGACGAGGAATTGGTGCAGTACTATCTCAAGCGCAAGGCTTGTGGTAAGCCCTTTCGCTTCGAAGCCGTCTCCGAAATCGATGTCTACAAATCGGAGCCTTGGGAGCTTTCAGGCCATTCAAGGCTGAAAACCCGAGATCTAGAGTGGTATTTCTTTAGCCCTGTGGATAGGAAGTATGGTAATGGATCTCGGTTGAATCGTGCCACTGGGAAAGGGTACTGGAAGGCCACTGGAAAGGATCGGCAAGTGCGTCATAAGGGTCAGACAATTGGGATGAAAAAGACGCTTGTGTTTCATAGTGGGCGAGCTCCAGACGGCAAGCGAACCAATTGGGTAATGCATGAGTACCGACTTGTTGATGGAGCAGCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGGGGATAGGTATGCTCCATTCATTGATGAGGAATGGGATAATGATGCATCACTGCTGGTGCCGGGAGAAGAGGCTGGGGATGAGATGGTAAATGGTGATGATGCACAAGTAGAAGGAAATGATCTTGAACAGGTTTGTGCTCACCTGACACCATGCTGTGGCTCAAAAATCATATTGGGTGCTGTTATGCGTGATTTATTTATTTTCCCATATTGCTTTACATGCAAGTTAAATCAGTACCAAGAGTCTAAGAGTGATTCAACGCACAAACATAATCCCATAGTACATAATATATAA

>AvNAC081 | Symbols: R_transcript_95060 | NAC domain containing protein

ATGGCTCACAATTTGGGGGAAATCGCTCCGCCGCCTCAACCGCCGGTGGCGGCTGCAGCGACGTCGCTGGCGCCGGGGTTTCGGTTCCACCCGACGGACGAGGAATTGGTGCAGTACTATCTCAAGCGCAAGGCTTGTGGTAAGCCCTTTCACTTCGAAGCCGTCTCCGAAATCGATGTCTACAAATCGGAGCCTTGGGAGCTTTCAGGCCATTCAAGGCTGAAAACTCGAGATCTAGAGTGGTATTTCTTTAGCCCCGTGGATAGGAAGTATGGTAATGGATCTCGGTTGAATCGTGCCACTGGGAAAGGGTACTGGAAGGCCACTGGAAAGGATCGGCAAGTGCGTCATAAGGGTCAGACAATTGGGATGAAAAAGACGCTTGTGTTTCATAGTGGGCGAGCTCCAGATGGCAAGCGAACCAATTGGGTAATGCATGAGTACCGACTTGTTGATGGAGCAGCACAGGATGCATTTGTGCTGTGCAGAATTTTTCAAAAAAGTGGTTTAGGACCACCAAATGGGGATAGGTATGCTCCATTCATTGATGAGGAATGGGATAATGATGCATCACTGGTGGTGCCGGGGGAAGAGGCTGGGGATGAGATGGTAAATGGTGATGATGCACAAGTGGAAGGAAATGAGCTTGAACAGGATATTCATTCCACGAACAAATCTCCTCTGCGTCTAGCTGAGCTTCCAAATCTTTCTGAAACTGTTCCATTTGTTTGCAAGAGGGAAAGGTCCGAAGATTGTCCTTTACCAGGGATAGCCAATCCAGAAACCCTCTCTTTGGTCCCAAATAAAAGAACGAAGAACGATGATCCTAACTCCAGCAATGCAAATGGTTCGGAAGATTCAAACACAACACCACCAGATCTTTGTATATCTACAACCACAACCACCACGAGAACAACAAATTTTTCCTCCACACTATTGGAGTTCCCGTTGTTAGAGCCTGTCGAACCCAAGGAAAACATTCCGAATAACCTGCATGCATTTGACGCATCGAATCTTGAGAAATCCGTGCCTCCTGGTTATTTGAAATTTATCAGCAATTTGGAAAATGAGATCCTTAACGTTTCCATGGAGAGGGAGACGTTGAAGATTGAATTGATGAGAGCTCAAGCAATGATCAACATTCTTCAATCGCGTATTGATCTTGTGAACAGGGACAATGAAGAACGGAGAAGGGTTGTTCGAGATGTGTAG

>AvNAC082 | Symbols: R_transcript_100635 | NAC domain containing protein

ATGGCTCACAATTTGGGGGAAATCGCTCCGCCGCCTCAACCGCCGGTGGCGGCTGCAGCGACGTCACTGGCGCCGGGGTTTCGGTTCCACCCGACGGATGAGGAATTGGTGCAGTACTATCTCAAACGCAAGGCTTGTGGTAAGCCCTTTCACTTCGAAGCCGTCTCCGAAATCGATGTCTACAAATCGGAGCCTTGGGAGCTTTCAGGTCCTGCCCCCCCCCCCCCCCCCCCCCCCCCCTCTCTCTCTCTCTCTCTCTCACTGGATTTTCTTTGTGGAGTGTTTCTGTTTCTAGTTTGTTTGTTTGTTGTGTGTGTGTGGATGTGGATGAATTGCTTGTTTGATAGTGGAAATGACGGGTTTGGGGTTCAATTATCTGTTTTTCGAATCTTGCTTTGA

>AvNAC083 | Symbols: R_transcript_54585 | NAC domain containing protein

ATGGAGATGCAAGGAGAAGAGGGAGTGTCGATGAAGGAAGAAAAACTACCACCAGGATTTAGGTTCCATCCAACAGATGAAGAACTAATCACTTATTATCTCATAAATAAGATCTCCGATGCCAACTTTACGGCAAGGGCCGTCACCGATGTTGATCTAAACAAATCTGAACCATGGGATCTTCCAGGAAAAGCGAAGATGGGAGAGAAAGAATGGTATTTCTTCAGCCTAAGAGACCGGAAATACCCAACGGGAGTGAGAACAAACAGAGCAACAAACACGGGATACTGGAAGACGACGGGGAAAGACAAGGAGATATTCAACAGTGTGAGCTCAGAGTTAGTTGGAATGAAGAAAACATTAGTATTCTACAGAGGGAGAGCTCCCAGAGGAGAGAAAACGAATTGGGTCATGCATGAATATCGTATCCATTCTAAATCTGCCATTAGAACCCCCAAGCAGGATGCATGGGTCGTTTGTCGTGTGTTCCAGAAGAGCGCAGGCGCGAAAAAGTACCCCTCAAACCACTCCTCATCAAGAGCAGCACTACTCAATCCCTACAGTCTCGAAATAGGTCCAAGTGCCGCCATGCACTACTCACAGATGTTGCAGGCCGCGGAGGCTTGTCAGTTTCCTTCCGTAGGAAGAAACCACATGATGAGCAATGAAATGGCAGAACACATGTCTTCTAGGGTTTTAAGATCCAACCCATCAACTAGCTTAGTCAACTTTCCAATTCAACCCCAACTCATAAACTATCCCCCGGAAGCAGCTGCAGGATGCTTCACTATTTCCGGTTTGAACTTGAACCTCGGAGGAGGAGGGGGAGCAACCTCCTCAGGTTTCCATCCACCACCACCACCGGTAGTGATGAATCAGCAAGATCATCATGCGAGTTCCAGCATTTTCAGTGGAGGTCTTGCAAGTGAAGCAGTCTATGGTACTGCAGAGGTGACCGCTAATAATAATGCAAATCATGTGGCCAACACCAATAGATTCATGACCATGGATCACTGTCTTGAACTTGATAACTACTGGCCAGCTCCCTATTAA

>AvNAC084 | Symbols: R_transcript_86053 | NAC domain containing protein

ATGCAAAGAGAAGAGGGAGTGTCGATGAAGGAAGAAAAACTACCACCAGGGTTTAGGTTTCATCCAACAGATGAAGAACTGATCACTTATTATCTCATAAATAAGATCTCTGATGCTAACTTTACGGCAAGGGCCGTCACCGATGTTGATCTAAATAAATCTGAACCGTGGGATCTTCCAGGAAAAGCGAAGATGGGAGAGAAAGAATGGTATTTCTTCAGCCTAAGAGATAGAAAATACCCAACGGGAGTGAGAACCAACAGAGCAACAAACACGGGATACTGGAAGACGACGGGGAAAGACAAGGAGATATTCAACAGTGTAACCTCAGAGTTAGTTGGCATGAAGAAAACATTAGTATTCTACCGAGGGAGAGCTCCCAGAGGAGAGAAAACGAATTGGGTCATGCATGAATATCGTATCCATTCTAAATCTGCCTTTAGAACTACCAAGCGCGATGAATGGGTAGTTTGTCGCGTATTCCAGAAAAGTGCAGGCGGGAAAAAGTACCCCTCAAACCACTCCTCATCAAGAGCACCACTACTCAATCCCTACAGTCTCGAAATAGGTCCAAGTGCCACCATGCACTACTCCCAGATGTTGCAGGCCGTGGAGGCTTGTCAGTTTCCCTCCCTAGGAAGAAACCACATGATGATGAGCAATGAAATGGCAGAACACATGTCTTCTAGGGTTCTAAGATCCGGCACCTGCAACTCATCAACTAGCTTAGTCAACTTTCCAATTCAACCCCAACTCATAAACTATGCCCCGGAAGAAGAAGAAGCAGCAGCAGGATTCTTCACTATTTCTGGTTTGAACTTGAACCTTGGGGGAGGAGGAGGAGCAACCTCCTCAGGTTTCCGTCCACCACCACCACCACCACAGGTAGTGATGAATCAGCAAGATCATGTGAGTTCCAGCATGTTCAGTGGAACTCTTGCAAGTGAAGCAGTCTATGGTACTCCAGAGGCGACCACTAACAATGCAAATCATGCGGCCAACAACAATAGATTCATGACAATGAATCATTGTCTTGAACTTGATAACTACTGGCCAGCTCCCTATTAA

>AvNAC085 | Symbols: R_transcript_90949 | NAC domain containing protein

ATGGACATGCAAGGAGACGAGGGAGTGTCGATGAAGGAAGAAAAACTACCACCAGGGTTTAGGTTTCATCCAACAGATGAAGAACTAATCACTTATTATCTGATAAATAAGATCTCCGATGCTAACTTTACGGCAAGGGCCGTCACCGATGTTGATCTAAACAAATCTGAACCATGGGATCTTCCAGGAAAAGCGAAGATGGGAGAGAAAGAATGGTATTTCTTCAGCCTAAGAGACCGGAAATACCCAACGGGAGTGAGAACAAACAGAGCAACAAACACGGGATACTGGAAGACGACGGGGAAAGACAAGGAGATATTCAACAGTGTGAGCTCAGAGTTAGTTGGAATGAAGAAAACATTAGTATTCTACCGAGGGAGAGCTCCCAGAGGAGAGAAAACGAATTGGGTCATGCATGAATATCGTATCCATTCTAAATCTGCCATTAGAACTCCCAAGCAGGATGCATGGGTCGTTTGTCGTGTGTTCCAGAAGAGCGCAGGCGCGAAAAAGTACCCATCAAACCACCACTCCTCATCAAGAGCAGCACTACTCAATCCCTACAGTCTCGAAATAGGTCCAAGTGCTGCCATGCACTACTCACAGATGTTGCAGGCCGCGGAGGCTTGTCAATTTCCTTCCGTTGGGAGAAACCACATGATGAGCAATGAAATGGCAGAACACATGTCTTCTAGGGTTTTAAGATCCAACCCATCAACTAGCTTAGTCAACTTTCCAATTCAACCCCAACTCATAAACTATCCCCCGGAAGCAGCTGCAGGATGCTTCACTATTTCCGGTTTGAACTTGAACCTTGGAGGAGGAGGAGGAGGAGGAGGAGCAACCTCCTCAGGTTTCCATCCACCACCACCACCGGTAGTGATGAATCAGCAAGATCATCATGTGAGTTCCAGCATTTTCAGTGGAGGTCTTGCAAATGAAGCAGTCTATGGTACTGCAGAGGTGACCGCTAATAATAATGCAAATCATGTGGCCAACACCAACAGATTCATGACTATGGATCATTGTCTTGAACTTGATAACTACTGGCCAGCTCCCTATTAA

>AvNAC086 | Symbols: R_transcript_96411 | NAC domain containing protein

>AvNAC087 | Symbols: R_transcript_42641 | NAC domain containing protein

ATGATAAATAATCAGTTGGGTTCGATTAGTAGCTCTGATCTTATTGATGCGAAGCTTGAGGAGCATCAACTGTGTGGATCCAAACAGTGCCCTGGTTGTGGACACAAGCTTGAAGGAAAGCCGGATTGGGTAGGTCTACCAGCAGGAGTGAAGTTTGATCCAACAGACCAAGAATTGATAGAGCATCTTGAAGCAAAGGTAGAGGCTAAAGACTCTAAATCTCACCCTTTGATTGATGAGTTCATCCCCACCATTGGAGGAGAAGATGGGATTTGCTACACTCATCCTGAAAAACTCCCAGGAGTCACAAGGGATGGCTTGAGCAAGCATTTCTTCCACAGGCCTTCCAAGGCCTACACAACTGGTACAAGAAAGAGAAGGAAAATTCAAACCGAATGTGACTTGCAAGGGGGCGAAACCCGGTGGCACAAGACCGGGAAAACAAGGCCGGTGATGGTGAATGGGAAGCAAAAGGGGTGCAAGAAGATCCTGGTTTTGTACACGAACTTTGGGAAGAACAGAAAACCTGAAAAGACAAACTGGGTGATGCACCAGTACCACCTAGGGCAACATGAGGAGGAGCGGGAAGGGGAGCTTGTGGTGTCGAAGATATTTTACCAGACGCAACCGAGGCAGTGCAACTGGGCGGAGAGGGGCGGTGCTGCTGCCACGGGAGACGGCAGTGGGGAGGCTAGTAGTAGGAGTTGTTCTTCTAAAGAAATTGTGATCAGTACTCAAAGAGATGAAATGGGTGTTGTTGGGGTTGGTGCTACAATTTCTAGTTATGGTGCCATGGACATGCAACAATTGAAGGCTGACCATTTTAGCTTCACCCCATTTAGAAAAAGCTTTGATGAGGTAGGAGTGGGTGAGGCTTCAACACTAAGGGAGGCACCGGTACAAGTCACGTGCGAGGCACGTGACATCCATGAGCAGCACATGACTCATCACGTGACTATCCCCCATGAGCATCACCAACATCAACATCAACATCCACATCAGCATCACCAGATTGGTGGGGCCACAACAGCATTCCACGTCAGTAGGCCTTCACACCCAATCTCCACCATCATCTCTCCTCCTCCTCCTTCCCTCCACCACACCTCAATCATGCTCGATGAGGCCTCTTTTCATGTCCCAAGAATTCTCCTTCCAAACGAGAATTTCCAGCAACAACAGCAGCAGCAGCAACAACATCATAAGTTGGGAGGGAGGTCTGGGTCTGGATTGGAGGAGCTCATAATGGGCTGCACATCGACTGATATCAAAGAAGAGTCATCCATCACAAACCCACAAGAAGCAGACTGGTTGAAGTACTCCACCTTCTGGCCTGACCCTGACAACCAAGATCATCATGGGTAG

>AvNAC088 | Symbols: R_transcript_50235 | NAC domain containing protein

ATGATAAATAATCAGTTGGGTTCGATTAGTAGCTCTGATCTTATTGATGCGAAGCTCGAGGAGCATCAACTGTGTGGATCCAAACAGTGCCCTGGTTGTGGACACAAGCTTGAAGGAAAGCCGGATTGGGTAGGTCTACCAGCAGGCGTGAAGTTTGATCCAACAGACCAGGAATTGATAGAGCATCTTGAAGCAAAGGTAGAGGCTAAAGACTCTAAATCTCACCCTTTGATTGATGAGTTCATCCCCACCATTGGAGGAGAAGATGGGATTTGCTACACTCATCCTGAAAAACTCCCAGGAGTCACAAGGGATGGCTTGAGCAAGCATTTCTTCCACAGGCCTTCCAAGGCCTACACAACTGGTACAAGAAAGAGAAGGAAAATTCAAACCGAATGTGACTTGCAAGGGGGCGAAACCCGGTGGCACAAGACCGGGAAAACAAGGCCGGTGATGGTGAATGGGAAGCAAAAGGGGTGCAAGAAGATCCTGGTTTTGTACACGAACTTTGGGAAGAACAGAAAACCTGAAAAGACAAACTGGGTGATGCACCAGTACCACCTAGGGCAACATGAGGAGGAGCGGGAAGGGGAGCTTGTGGTGTCGAAGATATTTTACCAGACGCAACCGAGGCAGTGCAACTGGGCGGAGAGGGGCGGTGCTGCTGCCACGGGAGACGGCAGTGGGGAGGCTAGTAGTAGGAGAGAGAGTGGGGGGAGTGGGAGTTGTTCTTCTAAAGAAATTGTGATCAGTACTCAAAGAGATGAAATGGGTGTTGTTGGGGTTGGTGCTACAATTTCTAGTTATGGTGCCATGGATATGCAACAATTGAAGGCTGACCATTTTAGCTTCACCCCATTTAGAAAAAGCTTTGATGAGCAGGTAGGAGTGGGTGAGGCTTCAACACTAAGGGAGGCACCGGTACAAGTCACGTGCGAGGCACGTGACATCCATGAGCAGCACATGACTCATCACGTGACTACCCCCCATGAGCATCACCAACATCAACATCAGCATCCACATCATCATCACCAGATTGGTGGGGCCACAACAGCATTCCACGTCAGTAGGCCTTCACACCCAATCTCCACCATCATCTCTCCTCCTCCTCCTTCCCTCCACCACACCTCAATCATTCTCGATGAGGCCTCTTTTCATGTCCCAAGAATTCTCCTTCCAAACGAGAATTTCCAGCAACAACAGCAGCAGCAGCAGCAGCAGCAACAACATCATAAGTTGGGAGGGAGGTCTGGGTCTGGATTGGAGGAGCTCATAATGGGCTGCACATCGACTGATATCAAAGAAGAGTCATCCATCACAAACCCACAAGAAGCAGACTGGTTGAAGTACTCCACCTTCTGGCCTGACCCTGACAACCAAGATCATCATGGGTAG

>AvNAC089 | Symbols: R_transcript_94297 | NAC domain containing protein

ATGATAAACAATCAGTTGGGTTCGATTAGTAGCTCTGATCTTATTGATGCGAAGCTTGAGGAGCATCAACTGTGTGGATCCAAACAGTGCCCTGGTTGTGGACACAAGCTTGAAGGAAAGCCGGATTGGGTAGGTCTACCAGCAGGAGTGAAGTTTGATCCAACAGACCAAGAATTGATAGAGCATCTTGAAGCAAAGGTAGAGGCTAAAGACTCTAAATCTCACCCTTTGATTGATGAGTTCATCCCCACCATTAAAGGAGAAGATGGGATTTGCTACACTCATCCTGAAAAACTCCCAGGAGTCACAAGGGATGGCTTGAGCAAGCATTTCTTCCACAGGCCTTCCAAGGCCTACACAACTGGTACAAGAAAGAGAAGGAAAATTCAAACCGAATGCGACTTGCAAGGGGGCGAAACCCGGTGGCACAAGACCGGGAAAACAAGGCCGGTGATGGTGAATGGGAAGCAAAAGGGGTGCAAGAAGATCCTAGTTTTGTACACAAACTTTGGGAAGAACAGAAAACCTGAAAAGACGAACTGGGTGATGCACCAGTACCACCTAGGGCAACATGAAGAGGAGCGGGAAGGGGAGCTTGTGGTGTCAAAGATATTTTACCAGACGCAACCGAGGCAGTGCAACTGGGCAGAGAGGGGCGGTGCTACTGCCACGGGAGAGGGCAGTGGGGAGGCTAGTAGTAGGAGAGAGAGTGGGGGAAGTGGGAGTTGTTCTTCTAAAGAAATTGTGATCAGTACTCAAAGAGATGAAATGGCTGCTGTTGGGGTTGGTGCTACAATTTCTAGTTATGGTGCCATGGACATGCAACAATTGAAGGCTGACCATTTTAGCTTCACCCCATTTAGAAAAAGCTTTGATGAGGTAGGAGCGGGTGAAGCTTCAACACTAAGGGAGGCACAGGTACAAGTCACGTGCGAGGCACGTGACATCCATGAGCAGCACATGACTCATCACGTGACTAGCCCCCATGAGCTTCACCAACATCCACATCAGCATCCACATCAGCATCAGCAGATTGGTGGGGCCACAACAGCATTCCACGTCAGTAGGCCTTCACACCCAATCTCCACCATCATCTCTCCTCCTCCTCCTTCCCTCCACCACACCTCCATCATTCTCGATGAGGCCTCTTTTCATGTCCCAAGAATTCTCCTTCCAAATGAGAATTTCCAGCAACAGCAGCAGCAACAGCAACATCAACATCATAAGTTGGGAGGGAGGTCTGGGTCTGGATTGGAGGAGCTCATAATGGGCTGCACATCAACTGATATAAAAGAAGAGTCATCCATCACAAACCCACAAGAAGCAGACTGGTTGAAGTACTCCACCTTCTGGCCTGACCCTGACAACCAAGATCATCATGGGTAG

>AvNAC090 | Symbols: R_transcript_73092 | NAC domain containing protein

ATGAGGAAAACTTTGGTGTTCTACCAAGGCAGAGCACCCAAGGGACGAAAAACTGATTGGGTCATGCACGAATTCCGGCTCGAGGGACCCCTTGGTCTTCCAATCACTTCTTCTCTCAAGGTAGATTGGGTATTGTGTAGGGTATTCTACAAAAACAGAGAAGTTGCTGCCAAACAAGGCATTGGAAGCAGCCTAAATGATGACACAATTAGCTCTTCCTCTCTCCCACCCCTTATGGATTCCTACATCACCTTTGACCAAACTCAAACCGACAATAACAACATCACAAATGATCTGGTATGA

>AvNAC091 | Symbols: R_transcript_92394 | NAC domain containing protein

ATGTTTGTTGACGAGTTCATCCCAACAATTGACAAAGGTGATGGAATATGCTACACACATCCAGAAAATCTTCCTGGTGCAAAAAAAGATGGCACTAGTATCCACTTCTTTCATAGAACTACCAATGCATATGCTACTGGTCAACGAAAACGCCGTAAGATTCACAATCAACATAGTTTGACAAAGGAGGATGTCCGCTGGCACAAGACAGGTAAGACCAAGCCTGTGGTGGAAAATGGAGTGCACAAGGGTTATAAAAAGATCATGGTTCTTTATAGCATTCCAAAGAAGGGTTCCAAGCCTGATAAGTCTAACTGGGTAATGTACCAATATCATCTGGGGACTGATGAAGATGAGCAAGAAGGACAATATGTAGCATCAAAAATCTTTTATCAGCAGCAAAAGCAAAGCGTCAACAATGATATATCTCAAGTTGTCAAAGATTCTGATATGGGGTCGATTCGAACTAGTCCCCGGACTCCAAGGACAAACACTCCCAATCCAACTCGGCCAGGAAGATCTGTTTCATGTGATGATGCCACTGATGATTATGCACCCCAGCCATCAGCACAGGAAGCAGAGGTTGTCAGAGAACCATCTCATCCTTCTTCTGCTCATTTTTGTGATGATGTGGAGACGCAAACTTGTTTGGCAGGCGAGTCACAAGCTGTTGGCAGCGATGGTGTGGATGACTCGTTTTTATGCAATGAGATTTTCAATTCCTATGTTACTCTTGATGATTCGGGACTAAATGGTGGTGCTTTTGATGGCTTTGCTCGCTTCACAAATGATATTCCTGGGGTAGATAATAAAGTAAGTTGTGGAATTGTCGATCTTGAGAACCTAGAACTAGATACCCCACCAGATTTCCAGCTTGCAGACTTGCAGTTTTGCTCTCAAGACAGTGTTTTTGGTTGGTTAGACCGTTTATAG

>AvNAC092 | Symbols: R_transcript_12933 | NAC domain containing protein

>AvNAC093 | Symbols: R_transcript_63861 | NAC domain containing protein

ATGGGAGGGGCGTCGCTGCCACCGGGGTTTCGTTTCCACCCGACTGATGAGGAACTCGTTGGGTATTACCTAAAGAGAAAAGTTGAGGGGCTTGAGATTGAACTCGAAGTCATTCCCGTGATCGATTTGTACAAATTCGATCCTTGGGAATTGCCAGAGAAATCGTTCCTTCCAAAGCGCGATATGGAGTGGTTTTTCTTCTGTCCCCGGGATAGGAAGTACCCAAATGGATCGCGAACGAATCGTGCCACCAGAGTCGGCTACTGGAAAGCCACCGGTAAGGACCGGAAAGTAGTCTGTCAGTCATCGGTGACTGGGTCCCGAAAAACCCTAGTCTTCTACCGTGGACGGGCCCCAATGGGGGACCGAACAGATTGGTTAATGCACGAGTATCGCCTCTGTGATGATCTCTCTCAAGGGTCACCAAGTTTTCAGGGAGCTTTTGCCTTGTGCCGGGTGATTAAAAAGAATGAGACACAGAAAACAAGTGATGTCCATGGGGAATCAAAAGCTAAGGGGGTTGGAAGCAGTTCGAGCAACGGGGATTTTACCTCAACAGGAATGTCAAGTGACCCTGTAATCATCTCTGATGACACGACCTTTCAAACGAACCAACTATGCAATGGCAGTAATTTTTCTAGCCCTGTTAGTTCTCCATATCCTACCATGCCAATGATGGAGAATGAACCATTTTCGATGGGGACTAATCCCAGTAACCTCTGGGTATCACCGGATTTGATCCTCGATTCTTCAAGGGAATTTTCACAAGGGCAAGGTGCATGTGGGTACTTCCCGGGATATGAGTTTCCAAATTCGATGACTCAATGGCAACCATATAATCAGTATGAGTTCTCGCCCAGTTCGTCCTTATCAAATTTTACACAGGGAGTTGAACTCAGTGATGGTCTAAGTCGAATCAATAGCATGTCGTCTTACATGGGTTTTTATGGAAATGAGGATATGCCATTGCCATATGAAGGATTTGAAACTTGGGAACAAGCTCCAATTCACAGGCAGAGTAGCGGAGATGGGAGTTTGGCGGAAATTGGCGGTATATGGTCACAGGACGATAATATGGTTGTTGTCATGTGA

>AvNAC094 | Symbols: R_transcript_85819 | NAC domain containing protein

ATGGGAGGGGCATCGCTGCCACCAGGGTTTCGTTTCCACCCGACTGATGAGGAACTCGTTGGGTATTACCTAAAGAGAAAAGTTGAGGGGCTTGAGATTGAACTCGAAGTCATTCCCGTGATCGATTTGTACAAATTCGATCCGTGGGAATTGCCAGAGAAATCGTTCCTTCCAAAGCGCGATATGGAGTGGTTTTTCTTCTGTCCCCGGGATAGGAAGTACCCAAATGGATCGCGAACGAATCGTGCCACCAGAGTTGGCTACTGGAAAGCCACCGGTAAGGACCGGAAAGTGGTCTGTCAGTCATTGGTGACTGGGTACCGAAAAACCCTAGTCTTCTACCGTGGACGAGCCCCAATGGGGGACAGAACAGATTGGTTAATGCACGAGTATCGCCTCTGTGATGATCTCTCTCAAGGGTCACCAAGTTTTCAGGGAGCTTTTGCCTTGTGTCGGGTGATTAAAAAGAATGAGACACAGAAAACAAGTGATGTCCATGGGGAATCAAAAGCTAAGGGGGTTGGAAGCAGTTCGAGCACTGGGGATTTTACCTCAACGGGAATGTCAAGTGACCCTGTGATCATCTCTGATGACATGACCTTTCAAACGAACCAACTATGCAATGGCAGTAATTTTTCTAGCCCTGTTAGTTCTCCATATCCTATCATGCCAATGGTGGAGAATGAACCATTTTCGATGGGGAATAATCCCAGTAGCCTCTGGGTATCACCGGATTTGATCCTCGATTCTTCAAGGGAATTTTCACAAGGACAAGGTGCATGTGGGTACTTCCCGGGATATGAGTTTCCAAATTCAACGACTCAATGGCAACCATATAATCAGTACGAGATATCGCCCAGTTCGTCGTTATCAAATTTTACACAGGGAGTTGAACTCGGTGATGGTCTAAGTCAATTCAATAGCACGTCATCTTACATGGGCTTTTATGGAAATGAGGATATGCCATTGCCATATGAAGGTTATGACCACCAGACCGATTCACCAAGAAATCCAAACCCCTTCTGA

>AvNAC095 | Symbols: R_transcript_58057 | NAC domain containing protein | chr22:8771932-8781003 Forward LENGTH=315

ATGATGATCCTTGGTGCTTTAGGGAAGTCGAAGCTGAAGAGCAGGGACTTGGAGTGGTACTTTTTTAGTGCACTGGATAAGAAGTATGGGAATGGGTGGAGGACGAACAGGGCTACAGAAAGAGGGTACTGGAAGACAACAGGGAAAGACCGTCCAGTCGTCCACAAGTCACGGACAGTTGGGATGAAGAAAACGCTTGTTTATCACATTGGTCGGGCTCCATGGGGTGAGAGAACCAATTGGGTGATGCATGAGTACAAGCTTGTTGACGAGGAGTCGGAGAAAACTGGAAATGTTCAGGTGAGAATTGTATGA

>AvNAC096 | Symbols: R_transcript_79749 | NAC domain containing protein

ATGGACCTCGATCCGGCACCAGCCGCAACTTCGCTCGCTCCAGGGTTTCGGTTCCACCCCACAGATCAAGAGCTAATTGGGTACTACCTGAAGCGCAAAGTGTGTGGAAAGCCCTTTCGCCTCGACGCCATCTCCGAAATCGACATATACAAGTCCGAGCCCTGGGACCTCCCAGGGAAGTCGAAGCTGAAGAGCAGGGACTTGGAGTGGTACTTTTTTAGTGCACTGGATAAGAAGTATGGGAATGGGTGGAGGACGAACAGGGCTACAGAAAGAGGGTACTGGAAGACAACAGGGAAAGACCGTCCAGTCGTCCACAAGTCACGGACAGTTGGGATGAAGAAAACGCTTGTTTATCACATTGGTCGGGCTCCATGGGGTGAGAGAACCAATTGGGTGATGCATGAGTACAAGCTTGTTGACGAGGAGTCGGAGAAAACTGGAAATGTTCAGGATGCACTTGTGTTGTGCAAAATATTTCAGAAGAGTGGTTCAGGGCCGAAGAGTGGGGAGCAGTATGGGGCTCCTTTTGTTGAGGAGGAATGGGAAGATGACGAATTGGTTATGGTTCCTGGCAAGAAAGTTGCGGACGAAGTGACCGTTGGTGATGATGCCTATCTTGATGGAAATGACCTTGAGCAGATTCTCGGGGCAGACATTCCATCTGAAGATGTTCCCCTTCCTTTGAGCTTCTATTATGAGGATGATAATGGTTATGTCCAGGAGCCTGCAGACTTTGACGATGATGCTCAAAAGTTTTTGTTGGATATGGGTGGCAGTTACTGTGCTCCAGAGCAGCCTGATGACCAACATTTGTTTGATTTTCCAGTGCAAAATGATATATATACAAAACCAGTTAGGCATGAATATATTGGTGAACCAAGCAATACTGTGGATTCTGTGGATGCTGATTACTTGCTTGATGAGCCATTCATGGATGCTAATGATAACACTCAATTTGATGATGGATCATTCTTGGAAACTAATGACCTTTCGAACCCCGTTAAGACTGAATCTTCTGGTTTTGACATGGTAGAAGATTACCTTACCTTCTTTGATGCAGATGACAACTCACCGTATATGACCTTGGATTCTTCAAAGATGATCAGAAATGAGAACCTTGATTCCCACCAAACATCTCTCACTCAAAAGTGTGTTTACGGAGGAGCACAACAAGAGACCATGGGAGACCAACAGCTGTTACAAGGACACGACATTGACGTTGCATCAACCTCAAAGAAAGAGACTGGAAAATACGGATCAGAAATACAACACCCATTTATCAAGCAGGCAAGTTGTATGCTCTCGTCCAAAGATGCTGCTCGTCAGTTAAGTTCCACATCTCGTGCCTCAAGTTCAATCCGTGTTACTGCCGGTATCATCCATATAAGAAATATTACCTCAACTGGCAATGGAACCTACTGGTCGCCCGGCAAGCATGTGGATGTTAGTATCGTCCTTTCTTTCGGCCTGTCATATGATGATTCAAGTTATGCCAGTTTGGAGTCAATGGATGATACACTTTTAGGCAAGGCTGGTTCAACTTCGTCTTGGGGCTGGTTCTACCTGATATTTCTTTGGTTCCTGATTATTTCGTTGAGTTTCAAAATTGGGACTTACATCTACGCGGGCAAGGCCTCATGA

>AvNAC097 | Symbols: R_transcript_14929 | NAC domain containing protein

ATGGACATGCAAGGAGACGAGGGAGTGTCGATGAAGGAAGAAAAACTACCACCAGGGTTTAGGTTTCATCCAACAGATGAAGAACTAATCACTTATTATCTGATAAATAAGATCTCCGATGCTAACTTTACGGCAAGGGCCGTCACCGATGTTGATCTAAACAAATCTGAACCATGGGATCTTCCAGGAAAAGCGAAGATGGGAGAGAAAGAATGGTATTTCTTCAGCCTAAGAGACCGGAAATACCCAACGGGAGTGAGAACAAACAGAGCAACAAACACGGGATACTGGAAGACGACGGGGAAAGACAAGGAGATATTCAACAGTGTGAGCTCAGAGTTAGTTGGAATGAAGAAAACATTAGTATTCTACCGAGGGAGAGCTCCCAGAGGAGAGAAAACGAATTGGGTCATGCATGAATATCGTATCCATTCTAAATCTGCCATTAGAACTCCCAAGCAGGATGCATGGGTCGTTTGTCGTGTGTTCCAGAAGAGCGCAGGCGCGAAAAAGTACCCATCAAACCACCACTCCTCATCAAGAGCAGCACTACTCAATCCCTACAGTCTCGAAATAGGTCCAAGTGCTGCCATGCACTACTCACAGATGTTGCAGGCCGCGGAGGCTTGTCAATTTCCTTCCGTTGGGAGAAACCACATGATGAGCAATGAAATGGCAGAACACATGTCTTCTAGGGTTTTAAGATCCAACCCATCAACTAGCTTAGTCAACTTTCCAATTCAACCCCAACTCATAAACTATCCTCCGGAAGCAGCTGCAGGATGCTTCACTATTTCCGGTTTGAACTTGAACCTTGGAGGAGGAGGAGGAGGAGGAGGAGCAACCTCCTCAGGTTTCCATCCACCACCACCACCGGTAGTGATGAATCAGCAAGATCATCATGTGAGTTCCAGCATTTTCAGTGGAGGTCTTGCAAATGAAGCAGTCTATGGCACTGCAGAGGTGACCGCTAATAATAATGCAAATCATGTGGCCAACACCAACAGATTCATGACTATGGATCATTGTCTTGAACTTGATAACTACTGGCCAGCTCCCTATTAA

>AvNAC098 | Symbols: R_transcript_101459 | NAC domain containing protein

ATGTCGGAGGACATGAATCTATCTGTAAATGGTCAGTCTCAGGTCCCTCCAGGTTTCCGATTTCATCCTACAGAAGAGGAGCTTCTTCACTACTACTTGAGGAAGAAAGTGGCTTCCGAGAAGATAGACCTTGATGTAATTCGCGACGTTGATCTTAACAAGCTGGAGCCTTGGGATATTCAAGAGAAGTGCAAAATAGGATCCACCCCACAAAATGATTGGTACTTTTTCAGCCACAAAGACAAAAAATACCCAACGGGGACTCGAACAAATCGTGCGACTGCAGCTGGGTTTTGGAAGGCCACTGGTCGTGACAAGGTGATATACAGTAGCTTGAGAAGAATTGGAATGAGGAAGACACTGGTGTTCTACAAAGGACGGGCTCCACATGGGCAAAAATCAGATTGGATCATGCATGAATACAGGCTAGATGATCATAGCTCCCATGAGGCCACCGCTAATCATGTGGGAGGAGACTCATTGCCTGAAGAAGGCTGGGTGGTTTGCCGTGTTTTCAAGAAGAAAAATTACCACAAGGCCCTAGAGAGCCCCCAAAGCTCCTCACCAACTTCCATGGACTTAAGATCCCAGATAATCCGCAATTCGACCAATAACGATGGCATACTTGATCAGATTCTTCACTACATGGGCAAGTCTTGCAAGCAGGAGACCCAAACAATCACTAACCCCAATAACGGCCACATGCTTTACCTCCCCTCATTCAACACGGCCATCGATGCCCTACAAGATCGGTTTACGCATCTCCCGAGGCTGGAGACTGCTCCAACTAACTCTCCCTTCGATCACGAAGCCCTGGACGACATGTTTCTTGAGACGGAGCCTTCTTGCACCGAGCAAGGCAGTGGTCAGAGAGATTGGGTTGTGCTTGACCGGCTCGTGGCCTCCCAGCTCAATGGCCAAGACACATCCAACGATGATTTCTGTTTTCCGGTGGATCACAACGTACAATTATCACATCTACGTTCGAATAAAGTACTCAATAATGTTCAACCACCTTGTCAGGGCTACAGTAGCGAGATCGATCTTTGGAACTTTGCACGTTCATCGTCGGCATCCTCATCTGACCCACTCTGCCACCTGTCGGTATAA

>AvNAC099 | Symbols: R_transcript_39496 | NAC domain containing protein

ATGGAGGAATCAGCATCTGAGGTTGATCAATTGCCGGGATTTCGGTTCCACCCCACCGAGGAAGAACTCATCAACTTCTACCTTAAAAACATGATTTTTGGCAAAAGAATGTGCTTCGACATAATTGGTGTCCTCAACATCTACCATTATGTTCCCAGCGACTTGCCCAGGCTAGCCAAGATTGGAGAGAGGGAGTGGTACTTCTTTGTGCCAAGGGACAGAAAACATGGACATGGAGGGAGGCCAAACAGGACCACTGAAACTGGGTTCTGGAAGGCAACGGGTTCGGATCGCAAGATTTTGAGCTCAACTGACCCAAAGAAGATGATAGGATTAAAAAAGACTCTGGTGTTCTATAAGGGTAGAGCACCCCGTGGCTGCAAAACCGATTGGATCATGAATGAGTATCGTCTGCCTGATACTTACCCCTCACCCAAGGACATGGTGTTGTGCAAGATATATAGGAAGGCAACCTCCATGAAGGTTTTGGAACAGAGAGCAGCAATGGAAGAAGAAATGAAAACATTTCATCAACTTGAACCTTCACCTCCAATGACACCACCAATGGACACGATCTCCTTTAGCAGCAGCCAACATGAAGACTACTTTATGGCACCCATGGCTTCACACAATGACATGGCCTTCAAAATAGAAGATGAATTTGAAGACGAAAACCGATTCATAGTACAAGAGAAAAGAGAAGTTGCTTCTCTCCATTTGCCATTAGGGAAAGAGAAGTTGCCAGAGCTTCAAGTGCCAAGGTTTAGCGTGGACTGGACCCAAGACCCATTCTGGACACAGCTACGAAGCCCGTGGCTTGACAATTTGACCCCTTATGCTAATGTGCTAAATTTCTAA

>AvNAC100 | Symbols: R_transcript_95695 | NAC domain containing protein

ATGGTGGCCAATATGATGGGGTTGCCTCCAGGGTTTAGATTTCATCCCACAGATGAAGAAATCATCTCCGACTATGTTACACAAAAGGTTATGAACACCACCTTCACTGCAATAGCCGTTGCAGAAGTTGATCTCAATAAGATTGAACCATGGGATTTACCAAAGAAAGCGAAGATGGGGGAGAAGGAATGGTACTTCTTTTGCCAGAGGGACAGGAAGTACCCCACGGGGATGAGAACAAACAGAGCTACAGAATCTGGGTACTGGAAGGCGACGGGGAAGGACAAGGAGATTTACAAGGGTAAAAAGGGAAATTGCTTGATGGGGATGAAGAAGACCCTGGTGTTCTACAAAGGGAGAGCTCCCAAAGGAGAGAAATCCAATTGGGTCATGCACGAATATAGGCTAGAAGGAAAATTCTCGTACTACAACTTTCCTAAACCAGCAAAGGATGAATGGGTTGTGTGTAGGGTTTTCCACAAGAACACGGTAATCAAAAGAAGTCCAATTACGAGAATGAACTCCTTTGCGGTGGATGATTTGCTTGATTACCCTAATTCGTTGCCACCTCTAATCGACCCTCCTCCTTACTCCAACAGCGACAGACCGGCCGGTTGTTCAAGCTTTACAGAGTACAGTGAAGACGACCACGATATCAAGGGGAAAGCTACCGTTTCATCATCATCGGCTGCAAGATCGTCAGATGGCGGAGATTACTTCTCCTACCTGAGCAACGACCAAAATAATGACTTTATAGCCCATAATAGTAGTCACCAAGCCCGACTAGGTTATTCAACACACGGCTCCACTTTCTACCCTCAGATTCAGATTTCGAACACCAACTTTCCTTTCCAAGCCTCTCCAGATGATCTTGTTGGCCGATACGTGCACCAAGAGAGAATGAGGGTACCTGTCCCAAACTTTACAGGGTCGATGAGCTACATGAATACGGATCAAGCCATTTTAAGATCAGCAAAACGCGAGGCAAGTCATGGCAATATGGCCACCGGCAGCGAGATATCCTCGTCCGGATTAGAAGTGTCGATGAAAGATATCAGAAGCAGCGCCATCAGCAGCATCAGGTCTTATGATGATCAAGACCTTGAGGAACCTTCCGTTGGAGGACTTGACCCCATTTCAGATCTTGATTATCTATTGAATTACTAA

>AvNAC101 | Symbols: R_transcript_13398 | NAC domain containing protein

ATGAAGGTTACCGATGATGCTTCGTGTTTTGGAGGTGGAGGCTGTTGGCCGCCTGGGTTTCGGTTCCACCCGACGGACGAGGAGCTCGTGCTGTACTATCTGAAGAGGAAGATCTGTGGCCGGCGCCTGAAGCTCGACATCGTCGGCGAGACTGATGTCTACAAGTGGGACCCGGAGGAGTTGCCTGGGCTCTCCAAATTGAAAACTGGGGACAGGCTATGGTTCTTTTTTAGCCCAAGGGACAGGAAGTACCCGAATGGAGCAAGGTCAAATAGGGCAACAAGGCAGGGGTATTGGAAAGTAACTGGGAAGGACCGCACTATAACATGTAGTTCTCGTGCTGTTGGGGTGAAGAAAACTCTGGTTTTCTACAAAGGCCGTGCGCCTGCTGGTCAACGCACGGATTGGGTGATGCACGAGTATACTTTGGACGAGGAGGAGCTCAAGAGATGCCAGACCGCCAAGGATTATTATGCTCTCTATAAGGTCTACAAAAAGAGTGGACTTGGTCCCAAGAATGGTGAGCAGTATGGAGCTCAATTCAGAGAAGAAGACTGGGCTGATGATGATAACACAATTGTTAATGATCATGCTAACCTTGAAACTCCAGTGAAGCAAGTTAACGACATTGCTTCTGTTGACAATACCAGAACTAATGGTCAAGTGCAGTCCGGACTTAATGTCCTTGATGAGTTTATGAGCCAAAATGCAGTGGAGTCTCTACTTGTCCAACCTCTTGGTGTACATTTTGGTTATGCACTGCATGAGTTTGTTGATGAGGAAGAAAACCAAAGTAGCTTGGTGGATCAATCCTTTAGGGAAACCGATTTGCAAGAAAGGAGCATGGTACTCCAACAAAGCTGGCAGCAAAATGATGTGCAGCCTAGCTTTGACCTGACTCAGTCAGCCACCTCTCAGTTGCAACTTTATGAGAAACCTGAAGTTACATCTGCCCCAATCATTTCGAGACAGGAATCTCATGACAGCGAGCTGGAAGATTATATTGAAATGGATGATCTCATTGGCCCAGGACCTACCGTTCAAAACATGGACAATGATCTCATTGGCCCAACACCTACCGTTGACAAACCTGTGGAGAATCTTCACTTTGATGGGTTCAGTGAGCTAGATTTATTCCATGATGCAGCCATGTTTATTCGAGATATGGGTCCGATTAATCCAGAAATACTTGCTCACTCATATAGTAACAATTTTCAAAACAAAATGGTTAACCAATTGGATTGTCAACTTCAACCGTATTCCAGTTATTCAAGTGAGAGCAACGGTCAGCTGTGGATGCATGGTCAAAACAACATTGATACACCACCAGAATACAATCAGGGGGTTGTTCATCCGCCAACTTCAGGTGTGGTATGTGACTGTAGTTCTGCAAGTCTTCCTTCTGGAGTATATGAAAATGAAAACCAAAGCCAAAGCCAAAACCAAAACCAAAACCAAAACCAAAGTGGCAATGTAGACGATGGTGGAGACTCATGGTTAACTTCTGCATTGTGGTCCTTTGTGGAATCTGTACCAACCACTCCGGCATCCGCTTCAGAGGGTGCTGCTTTGGTGAATAGGGCTTTTGAACGAATGTCCAGCTTCGGTAGAGTGAGAGCAAGTGCCGGAGACACAAGTGTAGCTGCAGGTAACCCTGTTGCAACTCTGCGCAGGTCCGGCAGTCGTCATAGTAGGGGATTTTTCTTTTATGCATTTCTTGGAGTGTTGTGTGCCATATTGTGGGTATTGATCAGAACATCTGTAAGAGTATTGACTCGATACATATCTTCATGA

>AvNAC102 | Symbols: R_transcript_95502 | NAC domain containing protein

ATGACGGTTCCTGAGGATGCTGCGTGCTTCGGAGACGGAGGGTGTTGGCCTCCGGGGTTTCGGTTTCACCCGACGGACGAGGAGCTCGTGCTGTACTATCTGAAGAGGAAGATCTGTCGCCGGCGCCTGAAGCTCGACATCATCGGAGAGACAGACGTATACAAGCGGGACCCGGAGGAGTTACCTGGGCTCTCCAAATTGAAAACTGGGGACAGGCAATGGTTCTTTTTTAGCCCAAGGGACCGGAAGTACCCGAATGGAGCAAGGTCAAATAGGGCAACCAGGCAGGGGTATTGGAAAGCCACTGGGAAGGACCGCACCATAACATGTAATTCTCGTGCTGTTGGGGTGAAGAAAACTCTGGTTTTCTACAAAGGCCGTGCGCCTGTTGGTGAACGCACGGATTGGGTGATGCACGAGTATACTTTGGATGAGGAGGAGCTCAAGAGATGCCAGACTGCCCAGGATTACTATGCTCTCTATAAGGTCTTCAAAAAGAGTGGACCCGGTCCCAAGAATGGTGAACAGTATGGAGCTCCTTTCAGAGAAGAAGACTGGGCTGATGATGATAACACAATTGTTAATGATCATGCTAAACCTGAGACTCCTGTGAAGCAAGTTAACTGCATTGCCTCTGTTGACAATACCAGAACTAATTGTCAAGTGCAGTTCGCATTTAATGACTTTGATGAGTTCATGAACCAAATCGCAGATGAGCCTCTGCTTGTCCAACCTCTTGGTGTAGTAGATTTTGGTTATGCACTGCACGAGGTTGTTGGTGAGGAAGAAAACCAAAGTAGCTTGGTGGATCAATCCTTTAGGGAAGCCAATTTGCAAGAAAGGAGCATGGTACTCCAACCAAGCTGGCAGCAAAATAATGTGCAGCCTAGCTTTGACCTTACTCAGTCAGCCACCTCTCAGTTGAAACTTTGTGAGACACCTGAGGTTACATCTGCTTCAATCATTTCGAGGCAGGAATCTCATGAGAGCGAGCTGGAAGATTTTATTGAAATGGATGATCTTGTTGACCCTGGACCTACCGTTCAAAACATGGCCAATGATCTCATTGGCCCAACACCTACTGTTGACAAGCCTGTGGAGAATCTTCAGTTTGATGAGTTTGATGGATTAAGTGAGCTAGATCTATACCACAATACAGCCATGTTTATTAGAGATATGGGTCTGATTAATCCAGAAGCACTTCCTCACTCTTATGGTAACAATCTTCAAAGCGAAATGGTTAACCAATATTCAAGTGAGATCACCGGTGAGCTGTGGATGCATGGCCAAAACAACTTCGATACACCAGCAGTGTACGATCAGGGGGTTGTTCTTCCGCCAACTTCAGGTGTGGTATGTGATGGTAGTTCTCCAAGTCTTGCTTCTGGAGTATGTGAAAACCAAAACCAAAGTGGCAATACGGACAATGGTGGATACTCTTGGTTCACTTCTGCATTGTGGTCCTTTGTGGAGTCTGTACCAACTGCTCCGGCATCAGCTTCAGAGGGTGCTGCTTTGATGAATAGGGCTTTTGAACGAATGTCCAGCTTCGGTAGAGGAGCGAGAATTAGTGCTGGTGACACAAGTGTGGCTGCAGGTAACCCCGCTGCAAATCTGCACAGGTCTGGCAGTCGTTATAGTAGGGGATTTTTCTTTTATGCAATTCTTGGTGTGTTGTGTGCCATATTGTGGGTATTGATAGGAACATCTGTAAGAGTATTGACTAGATACATATCTTCATGA

>AvNAC103 | Symbols: R_transcript_100431 | NAC domain containing protein

ATGACGGTTCCTGAGGATGCTGCGTGCTTCGGAGACGGAGGGTGTTGGCCTCCGGGGTTTCGGTTTCACCCGACGGACGAGGAGCTCGTGCTGTACTATCTGAAGAGGAAGATCTGTCGCCGGCGCCTGAAGCTCGACATCATCGGAGAGACAGACGTATACAAGCGGGACCCGGAGGAGTTACCTGGGCTCTCCAAATTGAAAACTGGGGACAGGCAATGGTTCTTTTTTAGCCCAAGGGACCGGAAGTACCCGAATGGAGCAAGGTCAAATAGGGCAACCAGGCAGGGGTATTGGAAAGCCACTGGGAAGGACCGCACCATAACATGTAATTCTCGTGCTGTTGGGGTGAAGAAAACTCTGGTTTTCTACAAAGGCCGTGCGCCTGTTGGTGAACGCACGGATTGGGTGATGCACGAGTATACTTTGGATGAGGAGGAGCTCAAGAGATGCCAGACTGCCCAGGATTACTATGCTCTCTATAAGGTCTTCAAAAAGAGTGGACCCGGTCCCAAGAATGGTGAACAGTATGGAGCTCCTTTCAGAGAAGAAGACTGGGCTGATGATGATAACACAATTGTTAATGATCATGCTAAACCTGAGACTCCTGTGAAGCAAGTTAACTGCATTGCCTCTGTTGACAATACCAGAACTAATTGTCAAGTGCAGTTCGCATTTAATGACTTTGATGAGTTCATGAACCAAATCGCAGACGAGCCTCTGCTTGTCCAACCTCTTGGTGTAGTAGATTTTGGTTATGCACTGCACGAGGTTGTTGGTGAGGAAGAAAACCAAAGTAGCTTGGTGGATCAATCCTTTAGGGAAGCCAATTTGCAAGAAAGGAGCATGGTACTCCAACCAAGCTGGCAGCAAAATAATGTGCAGCCTAGCTTTGACCTGACTCAGTCAGCCACCTCTCAGTTGAAACTTTGTGAGACACCTGAGGTTACATCTGCTTCAATCATTTCGAGACAGGAATCTCATGAGAGCGAGCTGGAAGATTTTATTGAAATGGATGATCTCGTTGACCCTGGACCTACCGTTCAAAACATGGCCAATGATCTCATTGGCCCAACACCTACTGTTGACAAGCCTGTGGAGAATCTTCAGTTTGATGAGTTTGATGGATTAAGTGAGCTAGATCTATACCACAATACAGCCATGTTTATTAGAGATATGGGTCTGATTAATCCAGAAGCACTTCCTCACTCTTATGGTAACAATCTTCAAAGCGAAATGGTTAACCAATATTCAAGTGAGATCACCGGTGAGCTGTGGATGCATGGCCAAAACAACTTCGATACACCAGCAGTGTACGATCAGGGGGTTGTTCTTCCGCCAACTTCAGGTATACAGATTACTGAAAATGGCACTGAGCACACGTTTCATTGGATACCACTCAATCTATGA

>AvNAC104 | Symbols: R_transcript_68016 | NAC domain containing protein

ATGACAGCTGATTTGCAGTTGCCACCTGGCTTCAGGTTCCATCCTACGGACGAGGAGCTAGTGATGCACTATCTCTGCCGTAGGTGTGCGTCGCAGCATATTTCTGTTCCCATCATTGCCGAGATTGATCTCTACAAGTATGACCCGTGGGATCTTCCAGGTAATTTATAA

>AvNAC105 | Symbols: R_transcript_15938 | NAC domain containing protein

ATGGCACCTCGCCCTCGTGATAGTATTGGTTTGTATTGGACTGATGCGGAGATCATTATGTCTTTGGAGGGAATGGAAAAGGGATCTCCTATCCCTGTAAACGTCAGTGTAGATGTTAATCCTTACCAATACAAGCCCTTAAATTTACCTGCTGATATGTGGTACCTTCTACGCTCTGATCACAACAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGAGGCCAGTGAGATATTTATGAACTCTGCCATCATTGGTTGGAGAAGTACTCTTGACTTTTATGAAGGCAGGGGCCCTCACGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGTAAAGGACCGTGCAGTTACAGCAACCCAAAGATGCAGGAATCCAGGTTACTGTGCAGAGTCTTTCTTAGCAGCGGAGCAAGTCCCAACCCGGAAATGAAACTCAACGTGGGTGGTTGTACTGGGAGCAACGACATTCATCCATCAGTTGTTCCCAAGAGTGGCAATACTTCCGGACAAGGTTGCATGAGCGAGTCCCAGGCAAGGAACAGGAATGACAACACAGGACAATTGGCTGTCCCTGGGGGACTTCCTATTATTCCTGAAGACACGGATGACGATGATTGTATTTCAAGAGGTGACTACTTGGAGTTGGCTGATCTTGTTGATGGCGAATCACTGTCTTCCAGTTCAGAAAATTCTAGTTGTGTGACCCCAACAGCAGACGAATTTTTTGATTCACTGGCCCTTTTAAGAGACCTAGGAGCTAAAATTAGCCAAGATGAGAAGGGAAAGGACGCCAATGTCAAGTTAAGCGTTGCTGCATCGATCAAACCAAATGAGGTGGTTATGCGTCCAGCAAATTTGGGATCCCTTGTTAAAAACGATGGAAGGAAGTCACCAGCTGAAGCTATAGACAAGAATTTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGGCTGCGCGAAATTGGAATGAAGGCACATCGATTTCCATCAATGCGGCAACATCATCCCGCGGTCATAAGGCAATCCCACGAGGAGAAAAGAAGTCTGTAGCTGGAAGGACTCGGAACTGTTGGATCCTCTAA

>AvNAC106 | Symbols: R_transcript_24316 | NAC domain containing protein

ATGGCACCTCGCCCTCGTGATAGTATTGGTTTGTATTGGGCCGATGAGGAGATCATTATGTCTTTGGAGAGAATGGAAAAGGGATCTCCTATCCCTGTAAACGTCAGTGTAGATGTTAATCCTTATCAATACAAGCCCTTAAATTTACCTGCTGATATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGATGCCAGTGAGATATTTATGAACTCTGCCATGATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGGACTGTGCAGTTACAGCAACCCAAAGTCAATTGCTGTTTTGGTGGATAAGATGCAGGAATCCAGGTTACTGTGCAGAGTCTTTCTTAGCAGCGAAGCAAGTCCCAACCCGGAAATGAAACTCAACGTGGGTGATTGTACTGGGAGCAACGACATTCATCCATCAGTTGTTCCCAAGAGTGGCAGTACTTCTGGACAAGGTTGCATGAGCGACTCCCAGGCAAGGAACAGGAATGACAACACAGGACCATTGGCTGTCCCTGGGGGACTTCCTATTATTCCTGAAGACACGGATGACGATGATTGTATTTCAAGAGGTGACTACTTGGAGTTGGCTGATCTTGTTGATGGAGAATCACTGTCTTCCAGTTCAGATAATTCTAGTTGTGTGACCCCAACAGCAGATGAATTTTTTGATTCACTGGCCCTTTTAAGAGACCTAGGAGCTAAAATTAGCCAAGATGAGAAGGGAAATGATGCCAATGTCAAGTTAAGTGTTGCTGCATCGATCAAACCAAATGAGGTGGTTATGCGTCCAGCAAAATTGGGATCCCTTGTTAAAAACGATGGAAGGAAGTCACCAGCTGAAGCTATAGACAAGAATTTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGGCGATGCGAAATTGTAATGAAGGCACATCGAATTCCATCAATGTGGCAACATCATCCCGCAGTCATAAAGCAATCCCACGAGGAGAAAAGAAGTCTGTAGCTGGAAGGACTTGGAACTGTTGGATTCTCTAA

>AvNAC107 | Symbols: R_transcript_30973 | NAC domain containing protein

ATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGATGCCAGTGAGATATTTATGAACTCTGCCATGATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGGACTGTGCAGTTACAGCAACCCAAAGATGCAGGAATCCAGGTTACTGTGCAGAGTCTTTCTTAGCAGCGAAGCAAGTCCCAACCCGGAAATGAAACTCAACGTGGGTGATTGTACTGGGAGCAACGACATTCATCCATCAGTTGTTCCCAAGAGTGGCAGTACTTCTGGACAAGGTTGCATGAGCGACTCCCAGGCAAGGAACAGGAATGACAACACAGGACCATTGGCTGTCCCTGGGGGACTTCCTATTATTCCTGAAGACACGGATGACGATGATTGTATTTCAAGAGGTGACTACTTGGAGTTGGCTGATCTTGTTGATGGAGAATCACTGTCTTCCAGTTCAGATAATTCTAGTTGTGTGACCCCAACAGCAGATGAATTTTTTGATTCACTGGCCCTTTTAAGAGACCTAGGAGCTAAAATTAGCCAAGATGAGAAGGGAAATGATGCCAATGTCAAGTTAAGTGTTGCTGCATCGATCAAACCAAATGAGGTGGTTATGCGTCCAGCAAAATTGGGATCCCTTGTTAAAAACGATGGAAGGAAGTCACCAGCTGAAGCTATAGACAAGAATTTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGGCGATGCGAAATTGTAATGAAGGCACATCGAATTCCATCAATGTGGCAACATCATCCCGCAGTCATAAAGCAATCCCACGAGGAGAAAAGAAGTCTGTAGCTGGAAGGACTTGGAACTGTTGGATTCTCTAA

>AvNAC108 | Symbols: R_transcript_31867 | NAC domain containing protein

>AvNAC109 | Symbols: R_transcript_41086 | NAC domain containing protein

ATGGCACCTCGCCCTCGTGATAGTATTGGTTTGTATTGGACTGATGAGGCGATCATTATGTCTTTAGAGGAAATGGAAAAGGGATCTCCAAACCCTGAAAACGTCAGTGTAGATGTTAACCCTTACCAATGCAAGCCCATATATTTACGTGATGGTAGTTGGTACCTTATACGCTCTGAAAACAACAAAAACTCAGAACATGGATTCTGGAGGGCCAGAGGGGAGGCCATTGAGATATTTATGAACTCTGTCATCAAAGGTTGGAGAACTACGCTTGACTTTTATGAAGGCCGAGCCCCTCACGGACAGAGAACGAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGGACTGTGCAGTTACAGCAATCCAAAGGAATCCAGTTTACTGTGCAGAGTGTTTCTTAGCATCGAAGGTCCCAACCAAGAAACGAAACTCAACCTGGGTGGTAAAGAAATTGCTGGGGGCAACCACATTCATCCAAAGCCATCAGTTGTTCCCGAGAGTGGCAGTACCACCGGACAACGCTACATGAGCGAGTCCCAGGCTAGGAACAGGGATGACAACACAGGACCATTGGATGATGATGACATGAACTACGATGATTTTTTTTCAAGTGGCGACTACTTGGAGTTGGATGATCTCGGTGATGGAGAATCAAAGTCTTCCAGTTCAGATAATTCTCTTTGTGTGACCTCGACATCAGACGAATATTTTGATTTAGAGGCCCTCTTAAGAGACCTAGGAGCGAACCGAGATGAGCAGGGAAAGGATGCCAATGTCAAGTTAAGTGTTGCTGCGTTGATCAAACCAAATGATGTGGTTATGCGTCCATCAAATTTAGGATCCCTTGTTAAAAATGATGGAAGGAAGTCACCAGCTAAAACCATAGACAAGAAATTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGAAGGCACGAAAACGGAATGAGGGCACATCGAACTCCCATGATGTGGCAACATCATCCAGCAGTCATAAAGCAATCCCAAGAGAAAAAAAGAAGGCTGTAGCTGGAAGGACTAAAAAGCTGAAGAAGTATTTGTGTTTCATGCCCTTTTAG

>AvNAC110 | Symbols: R_transcript_46223 | NAC domain containing protein

>AvNAC111 | Symbols: R_transcript_65760 | NAC domain containing protein

ATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGATGCCAGTGAGATATTTATGAACTCTGCCATGATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGGACTGTGCAGTTACAGCAACCCAAAGTCAATTGCTGTTTTGGTGGATAAGATGCAGGAATCCAGGTTACTGTGCAGAGTCTTTCTTAGCAGCGAAGCAAGTCCCAACCCGGAAATGAAACTCAACGTGGGTGATTGTACTGGGAGCAACGACATTCATCCATCAGTTGTTCCCAAGAGTGGCAGTACTTCTGGACAAGGTTGCATGAGCGACTCCCAGGCAAGGAACAGGAATGACAACACAGGACCATTGGCTGTCCCTGGGGGACTTCCTATTATTCCTGAAGACACGGATGACGATGATTGTATTTCAAGAGGTGACTACTTGGAGTTGGCTGATCTTGTTGATGGAGAATCACTGTCTTCCAGTTCAGATAATTCTAGTTGTGTGACCCCAACAGCAGATGAATTTTTTGATTCACTGGCCCTTTTAAGAGACCTAGGAGCTAAAATTAGCCAAGATGAGAAGGGAAATGATGCCAATGTCAAGTTAAGTGTTGCTGCATCGATCAAACCAAATGAGGTGGTTATGCGTCCAGCAAAATTGGGATCCCTTGTTAAAAACGATGGAAGGAAGTCACCAGCTGAAGCTATAGACAAGAATTTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGGCGATGCGAAATTGTAATGAAGGCACATCGAATTCCATCAATGTGGCAACATCATCCCGCAGTCATAAAGCAATCCCACGAGGAGAAAAGAAGTCTGTAGCTGGAAGGACTTGGAACTGTTGGATTCTCTAA

>AvNAC112 | Symbols: R_transcript_98265 | NAC domain containing protein

ATGGCACCTCGCCCTCGTGATAGTATTGGTTTGTATTGGGCCGATGAGGAGATCATTATGTCTTTGGAGAGAATGGAAAAGGGATCTCCTATCCCTGTAAACGTCAGTGTAGATGTTAATCCTTATCAATACAAGCCCTTAAATTTACCTGCTGATATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGATGCCAGTGAGATATTTATGAACTCTGCCATGATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGGACTGTGCAGTTACAGCAACCCAAAGGTAAACCCCACCACCTGCTACTCCTTTGTGCTTTTTTTTTTTTCATGTAATTTTTATTTTATTTTCATCATCAATCCATCCTGCCAGTCAATTGCTGTTTTGGTGGATAAGATGCAGGAATCCAGGTTACTGTGCAGAGTCTTTCTTAGCAGCGAAGCAAGTCCCAACCCGGAAATGAAACTCAACGTGGGTGATTGTACTGGGAGCAACGACATTCATCCATCAGTTGTTCCCAAGAGTGGCAGTACTTCTGGACAAGGTTGCATGAGCGACTCCCAGGCAAGGAACAGGAATGACAACACAGGACCATTGGCTGTCCCTGGGGGACTTCCTATTATTCCTGAAGACACGGATGACGATGATTGTATTTCAAGAGGTGACTACTTGGAGTTGGCTGATCTTGTTGATGGAGAATCACTGTCTTCCAGTTCAGATAATTCTAGTTGTGTGACCCCAACAGCAGATGAATTTTTTGATTCACTGGCCCTTTTAAGAGACCTAGGAGCTAAAATTAGCCAAGATGAGAAGGGAAATGATGCCAATGTCAAGTTAAGTGTTGCTGCATCGATCGAACCAAATGAGGTGGTTATGCGTCCAGCAAAATTGGGATCCCTTGTTAAAAACGATGGAAGGAAGTCACCAGCTGAAGCTATAGACAAGAATTTCCTGGACAAAAAGGTCCCAGAGAATGCTATCAGAAGCAAGGCGATGCGAAATTGTAATGAAGGCACATCGAATTCCATCAATGTGGCAACATCATCCCGCAGTCATAAAGCAATCCCACGAGGAGAAAAGAAGTCTGTAGCTGGAAGGACTTGGAACTGTTGGATTCTCTAA

>AvNAC113 | Symbols: R_transcript_98456 | NAC domain containing protein

ATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGAGGGCAGTGAGATATTTATGAACTCTGCCATCATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGAACTGTGCAGTTATGGCAACCCAAAGGTAAACCCCACCACCTGCTACTCCTTTGTGCTTTTTTTTTTCATGTAA

>AvNAC114 | Symbols: R_transcript_100689 | NAC domain containing protein

ATGGCACCTCGCCCTCGTGATAGTATTGGTTTGTATTGGACCGATGAGGAGATTATTATGTCTTTGGAGGGAATGGAAAAGGGATCTCCTATCCCTGTAAACGTCAGTGTGGATGTTAATCCTTACCAATACAAGCCCTTAAATTTACCTGCTGATATGTGGTACCTTCTACGCTCTGATCACAAGAAAAACTCAGAACATGGATTCTGGACGGCCAGAGGGGAGGGCAGTGAGATATTTATGAACTCTGCCATCATTGGCTGGAGAACTACTCTTGACTTTTATGAAGGCAGGGGCCCTCATGGACAGAGAACTAATTGGGTAATGCAAGAGTACAGGATTACTCGAAAAGAACTGTGCAGTTATGGCAACCCAAAGGTAAACCCCACCACCTGCTACTCCTTTGTGCTTTTTTTTTTCATGTAA

>AvNAC115 | Symbols: R_transcript_19510 | NAC domain containing protein

ATGGCAGCAGAGTTGCAATTGCCCGCCGGATTCAGATTCCATCCGACGGATGAGGAGCTAGTGATGCACTATTTGTGCCGTAGGTGTGCGTCGCAGCGGATTGCTGTTCCCGTCATTGCTGAGATTGATTTGTACAAGTATGACCCTTGGGACCTTCCAGGATTGGCCTTGTACGGGGAGAAAGAATGGTACTTCTTTTCACCTAGGGACCGGAAATACCCAAACGGGTCGAGGCCGAACCGGGCTGCTGGTAGTGGGTACTGGAAGGCCACAGGAGCCGATAAGCCTATCAAACCCACTGGGCATCCGAAGCCCGTTGGAATTAAGAAGGCCCTGGTGTTTTACGCCGGAAAAGCTCCGAGGGGAGAGAAGACCAACTGGATCATGCACGAGTACAGGCTGGCCGATGTGGACCGCTCGGCCCGCAAGAAGAGCCCTAGCCTAAGGCTGGATGATTGGGTCTTGTGCCGCATATACAACAAGAAGGGCACCATCGAGAAGAGAAACGTCGGCGTCGCCAAGTTACCGGAAAGTTTTGAACAGAAGCCGGAAATTCTGACAACCAACGGCTTAGCGCTTCCGCCGGTGATTTCGCCGGCGTCGGGTGTGTACAATGATTTTGTGTACTTCGACACATCGGATTCGGTCCCGAGGCCGCACACGGACTCGAGCAGCTCGGAGCACGTGCTGTCGCCGGAGATCACGTGCGAGAGGGAGGTCCAGAGCGAGCCGGCCGACTGGGGGAGAAATGCCCTTGATTTTCCGTTTAATTACATGGATGCCACCATGGACAATGCCTTCGCTTCGCAGTTCCAGAGTAATCAGATGTCGCCGTTGCAGGATATGTTCATGTACCTACAGAAGCCATTCTAA

>AvNAC116 | Symbols: R_transcript_88888 | NAC domain containing protein

>AvNAC117 | Symbols: R_transcript_27781 | NAC domain containing protein

ATGGCTTCTGGATACTGGAAGGCCATGGGCTCTCCCAGTTACGTCTACTCGTCGGATAACAGAGTGATCGGAGTGAAGAAGACAATGGTGTTTTACGAAGGGAAAGCTCCTAGTGGAAGAAAAACCAAATGGAAGATGAACGAGTATAGAGCCATTGAACAACCAGCTGGTTGTGCTGTTCCAAAGTTGAGGAATGAACTGAGTTTGTGCCGAGTTTACGTGGTATCAGGAAGCTTTCGAGCATTTGATCGACGCCCCTTGGGGTCAGAGACCAGCCGAACAGGATTCCGGCAAATTCCTGGAGATCCATCTACCCAAGCCACTCAAACAGTGGAGAGAATAAGCTCATCATCTGAAAGCTCATCCTCAGGAGAAGATCCTTTTGAGTTTTCACAAACCAATTTGGGAATGTTTAATGGACTAGAACCTCTGTTGGAGTGGGACCAATTAAATTGGGTCTAG

>AvNAC118 | Symbols: R_transcript_33085 | NAC domain containing protein

>AvNAC119 | Symbols: R_transcript_34849 | NAC domain containing protein

>AvNAC120 | Symbols: R_transcript_47733 | NAC domain containing protein

>AvNAC001 | Symbols: R_transcript_18612 | NAC domain containing protein * stands for stop codon

MENPNFGRNGGIKFPIGFRFLPTDEELVVHYLKRKAHSLPLPALIIPELHVFHTNPWDLPGDLREKRYFFSKRKWNLNKCQRIRTGSGYWKTIGKEKHIVGSNKRAVGVRKTLVFYGGKPLHGLRTNWVMHQYGLLGSETTTPNTTQKIMGEEWVVCCIYQRRRKSRKAGVQHAFSNGNKIRNVGNVMACILDISSDSGHPQASSDSCLSSSEITAEVSSRESDHEEATSAYIRFSTHLA *

>AvNAC002 | Symbols: R_transcript_34811 | NAC domain containing protein MENPNFGRNGGIKFPIGFRFLPTDEELVVHYLKRKAHSLPLPALIIPELHVFHTNPWDLPGSL *

>AvNAC003 | Symbols: R_transcript_33699 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENTEVSNCDDVEQTFSSPETVKSITEDMQSEPVTPVTSIQAEKLSTTSDSCLAETSDTTFIADDAGYESTFPPDYELEEMLRQFCDPNQQAPDCNGKIFSPVHVQMQTELGSSYDLHNSFANDMGNEHKGLQFQNGTNESGSYQNMAVEIEELNYLNIMNFLDKETGSCSESDADVAQAQITEMEAPVFKSLSARGYTTSDISNEDHSRNSAFGQNNHLIQPALAVSSASNQSYDLFNSPEEIHFINNDVGDADSFGTGTGTGTGIRIRIRQRDNQPSAENSWLQGTAPRRIRLQKKIQVGSVFCGSFSCKEENHEAKPIVAKVRSSTVKLMYRFDIVPVVFVNSF *

>AvNAC004 | Symbols: R_transcript_37169 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENTEVSNCDDVEQTFSSPETVKSITEDMQSEPVTPVTSIQAEKLSTTSDSCLAETSDTTFIADDAGYESTFPPDYELEEMLRQFCDPNQQAPDCNGKIFSPVHVQMQTELGSSYDLHNSFANDMGNEHKGLQFQNGTNESGSYQNMAVEIEELNYLNIMNFLDKETGSCSESDADVAQAQVQ *

>AvNAC005 | Symbols: R_transcript_40690 | NAC domain containing protein MAVLSLKSLPVGFRFCPTDKQLINHYLRSKINGDEDAVRVIREVDVCKQEPWDLPAMSLIETNDDEWFFFCPKDRKYQNGQRLNRATKRGYWKATGRDRTIRSVTGTTVIGMKKTLVFYKGRAPKGTRTNWVIHEYRATTKDLDGTKPGQGSFVLCKLFRKHDEKVEEKQEENTEASNCDEVEKTVSSPGTAEKLSPTGESCVAETSDTPLPIEWPNSFIADDAGYKSIALLDFEREEMLEDFYPNLQAPYGDGKIFSPVHRQMQMELAYDLHYPFANDMGNEHEVVQFPYGTNESVSEQNLSVEIEEYNYLNTMDNFDKEIGSCSDSDADVAQAQITEMEAPALAVSSASNQSYDLFNSPEEIISNNNNVGDADGSGSGIRIRTRQRDNRPSADNSCLQGTAPRRIRLQMHIQGGSVGCNSFREFSCEEESPVAKPFVAKAEEAEDLDAATVGASESIDETQDLSLSKFSNGTEVVQEPSLKMESTSYSPSGGDKEFPSAYLKAAPAWSRISSYIHMLGGFVVVGLSVLFVGIYMVEMH *

>AvNAC006 | Symbols: R_transcript_52636 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENTEVSNCDDVEQTFSSPETVKSITEDMQSEPVTPVTSIQAEKLSTTSDSCLAETSDTTFIADDAGYESTFPVRRANFTYNLIC *

>AvNAC007 | Symbols: R_transcript_59072 | NAC domain containing protein MAILTLKSLPVGYRFRPTDKELINHYLRSKINGDEDAVRVIREVDVCKKEPWDLPDMSLIETNDDEWFFFCPKDRKYQNGQRLNRATKHGYWKATGRDRTIMSVRGTTVIGMKKTLVFHKGRAPKGTRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQDENTEASNCDEVEQTVSSPGTAEKLSPAGESCVAETSDTPLPSEWLNSLIADDVMMAMAKSFPQCTCRCRWSLHHHMTCITLLLMTWGMKTRWCSFLMAQMNLSVPRIWLSKLWNLII *

>AvNAC008 | Symbols: R_transcript_63416 | NAC domain containing protein MAILTLKSLPVGYRFRPTDKELINHYLRSKINGDEDAVRVIREVDVCKKEPWDLPDMSLIETNDDEWFFFCPKDRKYQNGQRLNRATKHGYWKATGRDRTIMSVRGTTVIGMKKTLVFHKGRAPKGTRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQDENTEASNCDEVEQTVSSPGTAEKLSPAGESCVAETSDTPLPSEWLNSLIADDVMSNFELEDFYPNLQAPDGDGKIFSPVHVQMQMELASSYDLHYPFANDMGNEDEVVQFPYGTNESISSQNLAVEIVEPNYLNTVDNFDKETGSCSDSDADVAQAQITLMEAPALAVSSASNQSYDLFNSPEEIISNNNNVGNADSSGSGIRIRTRQRDNQPSADNSRLQGTAPRRIRLQMKIQGSSVRCNSFREFSCEEENPVAKPFVAKAEEAEDVDVATATVGASESIDETQDLSLSKFSNDTEVAQEPSLKMESTSYSPLGGDKEFPSASLKAAPAWSCITSYIHMLGGLVVVGLSVLFVGIYMVEMN *

>AvNAC009 | Symbols: R_transcript_66645 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENTEVSNCDDVEQTFSSPETVKSITEDMQSEPVTPVTSIQAEKLSTTSDSCLAETSDTTFIADDAGYESTFPPDYELEEMLRQFCDPNQQAPDCNGKIFSPVHVQMQTELGSSYDLHNSFANDMGNEHKGLQFQNGTNESGSYQNMAVEIEELNYLNIMNFLDKETGSCSESDADVAQAQITEMEAPVFKSLSARGYTTSDISNEDHSRNSAFGQNNHLIQPALAVSSASNQSYDLFNSPEEIHFINNVIINQVLKIPGCRELPQEGFDCRRKFRLVQFSAAVLAAKKKTTKQNQSWPRLKE *

>AvNAC010 | Symbols: R_transcript_69568 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEDAVSVIREVDVCKQEPWDLPDMSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIKSVRGTKVIGMKKTLVFYNGRAPKGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENNEASNCDDVEPTVSSPGTVKSITEDMQSEPVTPVMSIQAEKQSTTSDSCLAETSDTTFIADDAGYESTFPPDYELEEMLRQFCDPNQQAPDCNGKIFSPVHKQMQMELGSSYDSFANDMWNDQYGTNESGSYQNMAVEIEELNYLNIMSILDKETGSCSESDADVTQAQFMDNFSRSLRWRLLYSSHCLQEVILLLTLATRITPEIQHLCKTSILYSLHLLFLLLATNPMICSIVLKK *

>AvNAC011 | Symbols: R_transcript_71270 | NAC domain containing protein MAVLSLKSLPVGFRFCPTDKQLINHYLRSKINGDEDAVRVIREVDVCKQEPWDLPAMSLIETNDDEWFFFCPKDRKYQNGQRLNRATKRGYWKATGRDRTIRSVTGTTVIGMKKTLVFYKGRAPKGTRTNWVIHEYRATTKDLDGTKPGQYGIFFLPRVPLSSVSYLGSMMRR *

>AvNAC012 | Symbols: R_transcript_79093 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQGSFVLCKLIRKHDEKVEEKQEENTEVSNCDDVEQTFSSPETVKSITEDMQSEPVTPVTSIQAEKLSTTSDSCLAETSDTTFIADDAGYESTFPPDYELEEMLRQFCDPNQQAPDCNGKIFSPVHVQMQTELGSSYDLHNSFANDMGNEHKGLQFQNGTNESGSYQNMAVEIEELNYLNIMNFLDKETGSCSESDADVAQAQITEMEAPVFKSLSARGYTTSDISNEDHSRNSAFGQNNHLIQPALAVSSASNQSYDLFNSPEEIHFINNDVGDADSFGTGTGTGTGIRIRIRQRDNQPSAENSWLQGTAPRRIRLQKKIQVGSVFCGSFSCKEENHEAKPIVAKAEGVDVTTFGTFESIDETEDISLSKFSHGTEVAQEPSLKVESSDYSRISSHMHMLGVLVVVGLSVCVGLYIWRCIKF *

>AvNAC013 | Symbols: R_transcript_8696 | NAC domain containing protein MAVLPLKSLPVGYRFRPTDEELINHYLRSKINGDEEAVRVIREVDVCKQEPWDLPDKSLIETNDDEWFFFCPKDRKYQNGQRLNRATERGYWKATGKDRTIRSVRGTKVIGMKKTLVFYNGRAPRGKRTNWVIHEYRATTEDLDGTKPGQVRFRILYHL *

>AvNAC014 | Symbols: R_transcript_9544 | NAC domain containing protein MAILALDSLPVGYRFRPTEEELVNYFLRLKINGDEDEVSNIRVVDLCKQEPWDLPDKSLIETNDDEWIFFCPIDRKYKIGRRKNRATAAGYWKATGKDRSIKSVKERAVIGSKKTLVFYTGRAPNGKNTNWVIHEYCGPTKELDGTKSEQGSFVLCKLIKKHNKKLDGKQDENAEHSNCYDVEGDVSSPAIVRSFSDVIQSELVTPMMTAQNEMLTFSSESCLGEHSNCDNVEANVSSPAIVRSFSEVIQSELVTAMVTVQNEILPFSSENWLGENCTSTTLDAPLRTESPNNGCIAHDTGDKSTVQTDWIYKKC *

>AvNAC015 | Symbols: R_transcript_99187 | NAC domain containing protein MEPHPFIDEFIPTVKEDDGICYTHPQYLPGVRQDGNVSHFFHRAIMAYNTGTRKRRKIQGDDFGDVRWHKTGRTKPVILDGAQQGCKKIMVLYVSPIKGGKAEKTNWVMHQYHLGTGEDEKEGEFVISKVFYQQQVKQTDKCEQDLPEGTDVIIPIVDPVTPKSVTPEPPRTERQFSSFDPGQESTIFFTDPSSQHRAHEMEHVEDKTEAPYNKPNYQDSLLAENLADPMADDNDNQMGEDSKWWDSESQYLLNSQQLVEGLSLCDELLQSQSPNRDGAENGESKGKPRLSDYAHLGPEFLKKDLEECQDLVLDPENLELDAPPDFRLSQLEFGSQESFLAWGWRQGG *

>AvNAC016 | Symbols: R_transcript_46831 | NAC domain containing protein MERSEMEVGKMNISSSKSRDNDVMLPGFRFHPTDEELVGFYLRRKVEKKSLTIELIQQVDIYKFDPWDLPRGDKLMERYFFCIRGRKYRNSVRPNRVTGSGFWKATGIDKPIYSVDGGGATIGLKKSLVYYRGSAGKGTKTEWMMHEFRLPPSPNNNQHITGTAARNISTDQEAEVWTLCRIFKRNATYKMQKTYIPHEEEEEETATATKQSSLESDITHEHERNDPLAVDQNKNEEAPLIPPPPYSALIWDDDFFRDGNWEDLTSVVELAIDPSNQSL *

>AvNAC017 | Symbols: R_transcript_25400 | NAC domain containing protein MESTDSSTGSLQPILPPGFRFHPTDEELVVHYLKKKAASAPLPVSIIAEVDLYKFDPWELPAKATFGEQEWYFFSPRDRKYPNGARPNRAATSGYWKATGTDKPVLSSGGSQKVGVKKALVFYGGKPPKGVKTNWIMHEYRLVENKLNSKPPGCDAANKKASLRLDDWVLCRIYKKSNPPRPMDHERDNTMGDMLARMPPASIPLCQQTPKLPQEKATSYGSFLGNEHTLFDEMLGHDNAYLSHLASKPQLPMKRALPSVYWVDDVGEAGSSSSKRLIHLDGNEGSTSKTDETNSMATLLSSLNQLPQTPSMMDDVFRWYS *

>AvNAC018 | Symbols: R_transcript_18707 | NAC domain containing protein MGVPETDPLSQLCLPPGFRFYPTDEELLVQYLCRKVAGHDFSLQIIGEIDLYKFDPWILPSKAIFGEKEWYFFSPRDRKYPNGSRPNRVAGSGYWKATGTDKIITTEGRRVGIKKALVFYVGKAPKGTKTNWIMHEYRLSEPTRKNGSTRLDDWVLCRIYKKNSSSQKPISGVNPSIEHSHGSSSSSSSQFDDMIESLPEINDQLFNLPRMNSLRTIQHHDEKLNIQNLTSGNFDWASLAGASLPELVPGSQSQGHVSNHNIKYNDVYVPSMSMDEEVQSGIRAQRGENQGLFQQNPTGFTQGFFLLTP *

>AvNAC019 | Symbols: R_transcript_44451 | NAC domain containing protein MAHSLGEIAPPPASGTSLAPGFRFHPTDEELVQYYLKRKACGKPFRFEAVSEIDVYKSEPWELSGHSRLKSRDLEWYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRHVRHKGQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLVDGAAQDAFVLCRIFQKSGLGPPNGDRYAPFIEEEWDNDASLVVPGEDAGDEIVNGDDAQVEGNELEQDIHSTNKSPLRLAELQIFLNLFHLFARGKGLKIVLYQG *

>AvNAC020 | Symbols: R_transcript_13572 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKPFRFDAIAEIDVYKSEPLDLPDKSRLKSKDLEWYFFSLLDKKYGNGSRTNRATERGYWKTTGKDRPVFHKAQTVGMKKTLVYHSGRAPRGERTNWVMHEYRLVDEQLEKSGKFQDAFVLCRIFQKSGSGPKNGEQYGAPFIEEEWEEDELVMVPGKEAVVEVAVDADTDAAYLNGNDIDQIFGVNIPLEDAPPPFSFYYGNDSSNVQKHVDFVDGAQKLLVPDRESYYSPEQPSDMKLLDFPVQNHMDTTPLKDEYTGESSNTANYVDADYLLDEPFFDATNDFSFDFEEFLETNDLSNPIEVDLSGFDALHEHFTFCDPEAFDASMMTGIERIETEQALVQKPVSDGAQQESIGSQQQLSQGRDNDLASSANQKPGNSGSGTQSSAVKKAICMLGDIDAPPAFASEFPEKGAALLLNSASHSSNPVHTTAGMIHLGDMAMSGNGIYWSLEKHPDYNILSLALPQNDTNSASLERIGKAGSVMGWGCLYLFFVWALILSASCKIGSYYSGKAA *

>AvNAC021 | Symbols: R_transcript_33721 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKSFRFDAIAEIDVYKSEPLDLPDKSRLKSKDLEWYFFSLLDKKYGNGSRTNRATERGYWKTTGKDRPVFHKAQKVGMKKTLVYHSGRAPRGERTNWVMHEYRLIDEQLEKSGNFQDAFVLCRIFQKSGSGPKNGEQYGAPFIEEEWEEDELVMVPGQEAAVEVAVDADTAYLNGNDIDQIFGVNIPSEDIPPPFTSIMEMIAVMSRSMWTLLTELKNFWSLAGKVTIARSNLLT *

>AvNAC022 | Symbols: R_transcript_44030 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKSFRFDAIAEIDVYKSEPLDLPDKSRLKSKDLEVVLFQFTR *

>AvNAC023 | Symbols: R_transcript_62201 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKPFRFDAIAEIDVYKSEPLDLPDKSRLKSKDLEWYFFSLLDKKYGNGSRTNRATERGYWKTTGKDRPVFHKAQTVGMKKTLVYHSGRAPRGERTNWVMHEYRLVDEQLEKSGKFQFCFSFGE *

>AvNAC024 | Symbols: R_transcript_66399 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKPFRFDAIAEIDVYKSEPLDLPGLSLSLSLSLNLWFNSIDLVLVLFSVSPKRKIPIIWSVK *

>AvNAC025 | Symbols: R_transcript_81784 | NAC domain containing protein MKKTLVYHSGRAPRGERTNWVMHEYRLIDEQLEKSGNFQVSIVEFSRYDKDNWISLLN *

>AvNAC026 | Symbols: R_transcript_86796 | NAC domain containing protein MKKTLVYHSGRAPRGERTNWVMHEYRLVDEQLEKSGKFQDAFVLCRIFQKSGSGPKNGEQYGAPFIEEEWEEDELVMVPGKEAVVEVAVDADTDAAYLNGNDIDQVSDQFQYTHNLFNKLYSLWLSAL *

>AvNAC027 | Symbols: R_transcript_92715 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKPFRFDAIAEIDVYKSEPLDLPDKSRLKSKDLEWYFFSLLDKKYGMAQEQIGLLKEDTGRLPGRIDLSSTRPRQWA *

>AvNAC028 | Symbols: R_transcript_86654 | NAC domain containing protein MSRSWIIDYKGIATKVKCAGLSPAYQIKDCGATRKCPKCHYLIDNSDVMHEWPGLPTGVKFDPSDVELLEHLAAKCRVGNSKPHMFIDEFIPTVDREEGICYTHPENLPGAKTDGSSVHFFHRIINAYATGQRKRRRIHNQDSMKKEGVRWHKTGKTKCVTENGVQKGYKKIMVLYRTSKKGSKPDKANWVIHQYHLGTAEDEIGQFVVSKILYQLQKQSDNTDSSRVMEDSDLRTIQTVPQTPKTNTPNPPRPRKSFLCDDVTDDYLILPESSAQEEKETHTWLAGESQAVDGNGDDPLLCDEKLNSYVDLDDLGLNDGPSNDFSRLTPDVPGVDRINPPCGNANLENLELDAPLDFQLTDSYFGSQDSIYGWLDCL *

>AvNAC029 | Symbols: R_transcript_80114 | NAC domain containing protein MEENNNNNLPPGFRFHPTDEELITYYLSHKVSDFSFTSRAIADVDLNKCEPWDLPAKASMGDKEWYFFNLRDRKYPTGMRTNRATEAGYWKTTGKDKEIFRGDVLVGMKKTLVFYRGRAPKGEKTNWVMHEYRLEAKLSFKPTKVYKHITSCTHSSNDRYR *

>AvNAC030 | Symbols: R_transcript_71454 | NAC domain containing protein MEKLNFVKNGVLKLPPGFRFHPTDEELVDQYLMRKAYSCPLPASIIPEVDVCKSDPWDLPGDSEQERYFFSTREAKYPNGNRSNRATGSGYWKATGIDKKIATSRGNQVVGMKKTLVFYRGKPPHGSRTDWIMHEYRLVDAEPPKKNTTQSFAENWVICRIFLKKRSTKNEDDQENTKPRNCDKVKVLGNSTRPVFYDFMAKERADLNLAPASSSSGSSGVTEVFSHEADDRQESSSCNSFSSFRRKP *

>AvNAC031 | Symbols: R_transcript_78474 | NAC domain containing protein MEKLNFVKNGVLKLPPGFRFHPTDEELVDQYLMRKAYSCPLPASIIPEVDVCKSDPWDLPGKFLETWGGIQSGNCVFFLKQMLRNLVFR *

>AvNAC032 | Symbols: R_transcript_35688 | NAC domain containing protein MDTMESCVPPGFRFHPTDEELVGYYLKKKVASQKIDLDVIRDIDLYRIEPWDIQERCRIGYEEQNEWYFFSHKDKKYPTGTRTNRATMAGFWKATGRDKAVYDKSKLIGMRKTLVFYKGRAPNGQKTDWIMHEYRLESEENGPPQEEGWVVCRAFKKRTTGQNKSIEAWDSTYFYDEPSGVSSVLDPSEYISRQPQNFLSHNLLCKQEIEAENLNFFHSDQFVELPQLESPSMPQIKRPSSSISLISENNEEDEQIRGLSNNQKVTDWRALDKFVASQLSQEDKFVESDNVETSFGAHSNSDMALLFLQSDREEANKLNGFLSSSSECDIGICIFDK *

>AvNAC033 | Symbols: R_transcript_40217 | NAC domain containing protein MALYGTKEWYFFSPRDRKYPNGSRPNRAAGTGYWKATGADKPIGLPKAVGIKKALVFYAGKAPRGIKTNWIMHEYRLANVDRSAGKKHNLRLDDWVLCRIYNKKGKIEKHNNTVGQQPEIFPESEDRKPEILSGMPLPTLPSYHQAMGNDWSHFETSDSMPRLHTDSSGSEHVASPEVTWEREVQSEPKWNNGLENAFDFQFNYMDAFSEDPFAQQPFQQDMMLSPLQDMFTYMEKPF *

>AvNAC034 | Symbols: R_transcript_50816 | NAC domain containing protein MSPLLPRSISTSLTHGNYQLWLCTVRRSGTFFPRGTGSTPNGSRPNRAAGTGYWKATGADKPIGLPKAVGIKKALVFYAGKAPRGIKTNWIMHEYRLANVDRSAGKKHTLRLDDWVLCRIYNKKGKIEKHNNTVGQQLEIFPESEDRKPEILSGMPLPPLPSYHQAMGNDWSHFETSDSMPRLHTDSSGSEHVASPEVTWEREVQSEPKWNNGLENAFDFQFNYMDAFSEDPFAQQPFQQDMMLSPLQDMFTYMEKPF *

>AvNAC035 | Symbols: R_transcript_52293 | NAC domain containing protein MALYGTKEWYFFSPRDRKYPNGSRPNRAAGTGYWKATGADKPIGLPKAVGIKKALVFYAGKAPRGIKTNWIMHEYRLANVDRSAGKKHNLRVRIHSRFSG *

>AvNAC036 | Symbols: R_transcript_83913 | NAC domain containing protein MDEKSDADKIDDIMLPGFRFHPTDEELVGFYLKKKIQKHSLPIELIKQVDIYKYDPWDLPKLAPTGEKEWYFYCPRDRKYRNSVRPNRVTGAGFWKATGTDRPIYSSDGTKCIGLKKSLVFYRGRAAKGFKTDWMMHEFRLPSISDSSAPKKFLDKNLPANEAWAICRIFKKTNSMAQRALSHSWVSPVPKTTAFDIFHIGAQSTHFSSETISCTTETGSFSALDIPSDKPMNPVTCKPSPFSIPNKDLSTGYTLSPLEMPGPTTINTLDVASVLFNLSPTLIEDASRASQGIDFEEPQQPFNVFSLGSPQDMQGGTREDDMGLRKYASAAPASDEWGNIQSIVFPFSLSSDLPDPWKPNLPWDSPPCPREISTTYPESIVYCLN *

>AvNAC037 | Symbols: R_transcript_27414 | NAC domain containing protein MVLFLCQRQKYPTGLRTNRATEAGYWKATGKDREIYRGKVLVGMKKTLVFYKGRAPKGEKTNWVMHEYRLEGKFSLQNMPKTAKNEWVIYRVFHKSSDGKKIHISGLMQSKIPPVMDCSVSAHVPSCFSDPTEEKPPRNDIVDSLKRPLLASSSPSKASYFSPHPIPFPDSLFSTQFLPNIGNLQYPDFPDQSILGLLLENNEMDMKRYLKSEFSPVSTDISSYHEVGQRNYEDQEDPINSGGPVDTDCLWNY *

>AvNAC038 | Symbols: R_transcript_38643 | NAC domain containing protein MEETENADRMAFMVPYGFRFNPKDQEIIYLLLRKANGNHLPVDEGLIQELDLFGKEEPWEIFGQGKEKTRYFFTRLKKKSKRNGCNFVRTTGKGTWKGQDGRGCNPIMDHKGSIIGFKKNLVYKGKGTNTNGRWLMKEYHLDGISLEPQPKFNDYVLCRIRKKDDGRTQEKQNDKAVIHQVANVGFKAEASSPMESNMPYLIDYELPNLSVPADAARMVESIAQDWMTEYSYFNSKESKIDRGDQLDRLSTEHFVPEGVSTSFTQDNEAEFWRVFSPILKSFSDEGFGGGL *

>AvNAC039 | Symbols: R_transcript_67877 | NAC domain containing protein MEETENADRMAFMVPYGFRFNPKDQEIIYLLLRKANGNPLPVDKGLIQERDLFGKEEPWEIFGQGTEKTRYFFTRLKKKSKRNGCNFVRTTGKGTWKGQDGRGCNPDYGPQRKYYWI *

>AvNAC040 | Symbols: R_transcript_65045 | NAC domain containing protein MEESTSSELQLPGFRFHPTEEELLEFYLKNMVYGKILHLDVIGFINIYLHDPVNLPGMHALMNGLSLQFFS *

>AvNAC041 | Symbols: R_transcript_75291 | NAC domain containing protein MEESTSSNLQLPGFRFHPTEEELLEFYLKNMVFGKKLHLDVIGFINIYHHDPVELPGLAKIGEREWYFFVPRDRKHGSGGRPNRTTETGFWKATGSDRKILSLSDPKKIIGLKKTLVFYKGRAPRGCKTDWVMNEYRLPDSCPSPKDIVLCKIYRKATSLKVLEERAAMEEEMKTSHAFQPSPPLTPPMDTISYNNSHEEYSTAPMAAQHMVFKKEEEDMLLIAEKWYEEATENKGTTSSIILPPGKEKPELQMPKLSMDWTQDSFWTQLRSPWLDNLTPLASLLNF *

>AvNAC042 | Symbols: R_transcript_94887 | NAC domain containing protein MGLKKTLVFYKGRAPRGCKTDWVMNEYRLPDYCPIQRTSCCVRSIGKQLP *

>AvNAC043 | Symbols: R_transcript_61978 | NAC domain containing protein MVGKNSSDLPPGFRFHPTDEELIMYYLRNQATSRPCPVSIIPEVDIYKFDPWELPEKAEFGENEWYFFTPRDRKYPNGVRPNRAAVSGYWKATGTDKAIYSGSKYVGVKKALVFYKGKPPKGIKTDWIMHEYRLRDSIRQTNNQSGSMRLDDWVLCRIYKKKSTIGRVLDPKVEDLGVQIVATNDASDSQMLKIPRIYSLSHLWQLDCLGSLPQLLNENSYHPNTDYQPTMGNAGNCSGGTEKFQFGDQFPYQYMDSVKFQASHSNHAVNQPIFVNPVFQFQ *

>AvNAC044 | Symbols: R_transcript_17613 | NAC domain containing protein MAEMSGETKKSIEASSMFPGFRFSPTDEELISYYLKKKIEGSDKCVEVISEVEINKYEPWDLPAKSVVQSESEWFFFSSRGRKYPNGSQSKRATESGYWKATGKERKVKSSSNMIGTKRTLVFHIGRAPKGERTEWIMHEYCMSDKSQVI *

>AvNAC045 | Symbols: R_transcript_19469 | NAC domain containing protein MAEMSVETQKSIEASSMFPGFRFSPNDEQLISYYLKKKLEGSEKCVEVISEVEINKYEPWDLPAKSVVQSESEWFFFSSRGRKYPNGSQSKRATESGYWKATGKERNVRSGCNVIGTKRTLVFHTGRAPKGERTEWIMHKYCMIDKSQDSMVVCRLRKNAEFRLNDSPRQGSSSRRHENTSNLAAEDSSRNSHLVEQQSGTGSDSDQRERNEFCQTSSSHQGCDDEDCYAEILKDDIVDLGQSLLPPEDERKSQDPVEAIPLRDVPLQGTADRRIRLRKPKTEKLEVEIFNKNATEKSASPNADRSPNYLDLFSNGRINRLSMSMLLLILILLVLFVCLLRAPWHVKRFALVSLF *

>AvNAC046 | Symbols: R_transcript_22363 | NAC domain containing protein MAEMSVETQKSIELSSMFPGFKFSPTDEELISYYLKKKLEGSEKCVEVISEVEINKYEPWDLPG *

>AvNAC047 | Symbols: R_transcript_30245 | NAC domain containing protein MAEMSGETQKSIEASSMFPGFRFSPTDEELISYYLKKKIEGSDKCVDVISEVEINKYEPWDLPDLWIHERYR *

>AvNAC048 | Symbols: R_transcript_50769 | NAC domain containing protein MAEMSVETQKSIELSSMFPGFKFSPTDEELISYYLKKKLEGSEKCVEVISEVEINKYEPWGLASFCLPQALRMIWKIGFGGSLLEWWSNGQMLLVGS *

>AvNAC049 | Symbols: R_transcript_78204 | NAC domain containing protein MENLSGIGKEEDQMELPPGFRFHPTDEELITHYLSKKVVDSNFSARVIGDVDLNKVEPWDLPWKAKMGEKEWYFFCVKDKKYPTGLRTNRATAAGYWKATGKDKEIFRGKSLVGMKKTLVFYKGRAPKGEKTNWVMHEYRLEGKFFLQNLPKTAKVIEFLSPVFLYFPPVFRVFMEFVSLNFLAE *

>AvNAC050 | Symbols: R_transcript_98040 | NAC domain containing protein MENLSGIGKEEDQMELPPGFRFHPTDEELITHYLSKKVVDSNFSARVIGDVDLNKVEPWDLPWKAKMGEKGVVLFLCEGQKNTQLV *

>AvNAC051 | Symbols: R_transcript_38748 | NAC domain containing protein MGSLPPGFRFHPTDEELVGYYLKRKVEGLEIELEVIPVIDLYKFDPWELPDKSFLPKRDMEWYFFCPRDRKYPNGSRTNRATRAGYWKATGKDRKIVCQSAVTSYRKTLVFYRGRAPLGDRTDWVMHEYRLSDDFSHGSPSFQGGFALCHVIKKNDQRQKMNYVRGELKAKQVGKSSNNGNFTSSRILSEPVTKSKDTTFQAIGENDSCSMGFDPSSPWVSPDLILDTSKECPQGQGVSGYFPRYKFPNSVTQWQTYSHYEISPGSSYSNLSKEVELGDEPSRFSCTSPYFGLQTTWVFGNEDMPCEGHDQTRPIL *

>AvNAC052 | Symbols: R_transcript_28167 | NAC domain containing protein MSGQSWLVDKSRIATKIKCASGSCDLESVNWKSNPSRACPNCQQIIDNSDVSLEWPGLPRGVKFDPSDQEIMWHLLAKVGVGNMKPHPFIDEFIPTVDEDDGICYTHPQNLPGVKQDGSVSHFFHIAIKAYNTGTRKRRKIHGDDFGDVRWHKTGRTKPVLLDGVQTGCKKIMVLYVSPVRGGKAEKTNWVMHQYHLGTGEDEKEGQYVVSKVFYQQQQGKQTDKFEHDLPDGTDVMIANVDPVTPQSVTPDPPRTEKQLCCIDPSVLLQHHETGHVEDKVEAAFEEPNRQDSLMVENHTGLAADNNNNQTGEEPKWWGQRVSESFRFATACGRVVSV *

>AvNAC053 | Symbols: R_transcript_31813 | NAC domain containing protein MAGQSWLVDKSRIATKIKCASGSCDLESVNWKSNPSRACPNCQQIIDNSDVSLEWPGLPRGVKFDPSDQEIMWHLLAKVGVGNMKPHPFIDEFIPTVDEDDGICYTHPQNLPGVKQDGSVSHFFHIAIKAYNTGTRKRRKIHGDDFGDVRWHKTGRTKPVLLDGVQTGCKKIMVLYVSPVRGGKAEKTNWVMHQYHLGTGEDEKEGQYVVSKVFYQQQQGKQTDKFEHDLPDGTDVMIANVDPVTPQSVTPDPPRTEKQLCCIDPSVLLQHHETGHVEDKVEAAFEEPNRQDSLMVENHTGLAADNNNNQTGEEPKWWDSESQNLLDSQQLVEGLSLCDELLQSQSPGMDGNENGELERKPCLSDYAHLGRENLKKDLEACQDLVLDLANIELDTPPDFRLSQLEFESQDSFLAWGGSKPVDQAWFETS *

>AvNAC054 | Symbols: R_transcript_40244 | NAC domain containing protein MAGQSWLVDKNRIATKIKCASGSCGSVNWKSNPSRACPNCQHIIDNSDVSHEWPGLPRGVKFDPSDQEIMWHLLAKVGIGNMKPHPFIDEFIPTVDEDDGICYTHPQNLPGVKQDGSVYHFFHRAIKAYNTGTRKRRKIHGDDFCDVRWHKTGRTKPVILDGVVTGCKKIMVLYVSLVRGGKAEKTNWAMH *

>AvNAC055 | Symbols: R_transcript_62357 | NAC domain containing protein MWHLLAKVGVGNMKPHPFIDEFIPTVDEDDGICYTHPQNLPGVKQDGSVSHFFHIAIKAYNTGTRKRRKIHGDDFGDVRWHKTGRTKPVLLDGVQTGCKKIMVLYVSPVRGGKAEKTNWVMHQYHLGTGEDEKEGQYVVSKVFYQQQQGKQTDKFEHDLPDGTDVMIANVDPVTPQSVTPDPPRTEKQLCCIDPSVLVKRTSSLVSWL *

>AvNAC056 | Symbols: R_transcript_99111 | NAC domain containing protein MWHLLAKVSLGNMKPHPFIDEFIPTVDEDDGICYTHPQNLPGVKQDGSVSHFFHRAIKAYNTGTRKRRKIHGDDFGDVRWHKTGRTKPVLLDGVQTGCKKIMVLYVSPVRGGKAEKTNWVMHQYHLGTGEDEKEGQYVVSKVFYQQQQGKQTDKFEHDLPDGTDVMIANVDPVTPQSVTPDPPRTEKQLFCIDPNVLLQHHEIGHVEDEVEAAFEEPNHQDSLMVENHTDLAADNNDNQTGEEPKWWDSESQNLLDSQQLVEGLSLCDELLRSQSPGRDGNENGELERRPCLSDYAHLGRENLKKDLEACQDLVLDPENIELDTPPDFRLSQLEFESQDSFLAWGGTKPVD *

>AvNAC057 | Symbols: R_transcript_18002 | NAC domain containing protein MKKTLVFYRGKPPHGSRTDWIMHEYRLVDGEPPKTNTTQVRISNFPIHLQMKKLFGIQI *

>AvNAC058 | Symbols: R_transcript_19545 | NAC domain containing protein MEKLNFVKNGVLRLPPGFRFHPTDEELVDQYLKRKMYSCPLPASIIPEVDVCKSDPWDLPGDSEEERYFFSTKEAKYPNGNRSNRATGSGYWKATGIDKKIATSRGNQVVGMKKTLVFYRGKPPHGSRTDWIMHEYRLVDGEPPKKNTTQSLAENWVICRIFLKKRSTRNEEDHENTKPHNCDKVKILGNTTRPVFYDFMAKDRADLNLAPASSSSGSSGVTEVFSHEPDEREESSSCNSFSSFRRKP *

>AvNAC059 | Symbols: R_transcript_46194 | NAC domain containing protein MEKLNFVKNGVLRLPPGFRFHPTDEELVDQYLKRKVYSCPLPASIIPEVDVCKSDPWDLPGDSEEERYFFSTKEAKYPNGNRSNRATGSGYWKATGIDKKIVTSRGSKVVGMKKTLVFYRGKPPHGSRTDWIMHEYRLVDGEPPKTNTTQVRISNFPIHLQMKKLFGIQI *

>AvNAC060 | Symbols: R_transcript_95592 | NAC domain containing protein MKKTLVFYRGKPPHGSRTDWIMHEYRLVDGEPPKTNTTQSLAENWVICRIFLKKRSTRNEEDHENTKPHNCDKVKILGNTTRPVFYDFMAKDRADLNLAPASSSSGSSGVTEVFSHEPDDREESSSCNSFSSFRRKP *

>AvNAC061 | Symbols: R_transcript_53223 | NAC domain containing protein MEKLNVAKNGAIRLPPGFRFHPTDEELVVQYLKRKAFSCPLPASIIPEFDVCKSDPWDLPGDSAQERYFFSTREAKYPNGNRSNRATGSGYWKATGIDKQIVTSRSNQVAGMKKTLVFYRGKPPRGSRTDWIMHEYRLVGAVTEKNNSTQTTMENWVLCRIFLKKRSTKNDQEITQLNNCDTVKTARKTRPVFFNFLAKNKTDLNLTPASSSSGSSVVTQVSFHESDDHEESSSCNNLSSFKRKP *

>AvNAC062 | Symbols: R_transcript_54724 | NAC domain containing protein MEKFNVVKNSVIRLPPGFRFHPTDEELVVQYLKRKAFSYPLPASIIPEFDVCKSDPWDLPGKLVANSECFQTYFKKFPTYPEKKISRISNSIGM *

>AvNAC063 | Symbols: R_transcript_56133 | NAC domain containing protein MARPSVPPGFRFHPTDVELVKYYLKRKVMGKGFLFEAISELNIYKFSPSDLPDKSCLKSRDREWYFFCPTARKYSSGARTNRSTESGYWKSTGKTRSVLYNEQHVGSVKTLVYHTGHSSKGQRTDWVMHEYKIQEKELADAGVPQDAYVLCKIFQKSGPGPKANAQYGAPFKEEDWDDDAEFYGQSLQSNSLPSPSLPYDKENSVGTSMFIPGSMGCLSLFMPGPSNILPSMDVVPQPGPENDDYISLLDIDNDKGHGSSLPDYTVSNKVMEKFSQVNNNGVLTGLDGIYDNLGDLDNWHGLGGGGFNFSGNQASEYGAIPFSGGHNEGFVELNDLDGTIKSTDSRPFITDNLYIPGNDNYMEQDCFPADSFSTVQPVSAITQLPLQPEGSNGRNDHFFAFQEMGDAESANLGFTTSGIQNLPSLEQPEEGTRQAAQDQNRGVQQRNPYSRLQRLLESIPVHNPSAAELFAPAIEAERCNETIVFSPCGGSSFHVKAEVTCRGGVCTKDALSENLGESLYSYSEFNPYLTWKKWLNVDLACVFSLVWVFLGIIISKFGRHAWNFVNS *

>AvNAC064 | Symbols: R_transcript_90698 | NAC domain containing protein MARPSLPPGFRFHPTHVELVKYYLKRKVMGKGFPFEAISELNIYNYSPWDLPDKSCLKSKDLEWYFFCPAARKYSSGDRSKRSTEIGYWKSTGKDRSVLYNEQTVGSVKTLVFHIGPPKGKRTDWVMHEYKIKEKDLADAGVPQDAYVLCKIFQKSGAGPKANAQYGAPFKEEDWDDDEEFCDQSLQSNSLPSPALPHDKFIPGSMVCAPLSMPGPSNIMSSIDVVPQPGPENEDYITLWDIDKEYGSSLPDHTGNNEVVENFSQVNNNGGLTGLDGNGIYDNLGDLDNLRGMDGSGFNFSSNQKTEYSAMLFSGVNNEGFVELNDLDGTVKSANSRQFIPDNIYVPDNDNYMEQDCFPADSFSTVLPVSAINQLPLQPEGSNGHYDHFFAFQEMGDADSANMGFTATSGIQNLPPLEQPEEGTRQAAQAQNRGRFILSRDNVGSSFTNWEF *

>AvNAC065 | Symbols: R_transcript_19894 | NAC domain containing protein MTSQLELPAGFRFHPTDEELVIHYLCRKCASQPISVPIIAEVDLYKFDPWQLPGMALYGEKEWYFFSPRDRKYPNGSRPNRAARTGYWKATGADKPIGRSKAVGIKKALVFYAGKAPSGVKTNWIMHEYRLANVDRSAGKKNNLRLDDWVLCRIYNKKGTIEKHNITVGPKLEQFPEFEDRKPEILSGYTAMPPPPPPSSYHRAMGNDLLHFEPSDSLPWMHTDSSGSEHVASPEVTWEREVQSEPKWSNGLENSFDFQLNYMDAFSDDPFTPQMQQFQQDIMLSPLQDMFMYMDKPF *

>AvNAC066 | Symbols: R_transcript_56139 | NAC domain containing protein MKSQLELPAGFRFHPTDEELVIHYLCRKCASQPISVPIIAEVDLYKFDPWQLPGMALYGEKEWYFFSPRDRKYPNGSRPNRAARTGYWKATGADKPIGRSKAVGIKKALVFYAGKAPSGVKTNWIMHEYRLANVDRSAGKKNNLRVRIHSRVRVKITIISSSNDQHNTHSFEKLEKASHNYA *

>AvNAC067 | Symbols: R_transcript_27385 | NAC domain containing protein MALPVPSVPSLVQASHQMALSVPYGFTFSPEDHELIYILYRKVHGNSLPVDEGLIEERELFGKEEPWEISGRGTEKTRYFFVKLKKKGKSAGGSNFVRTVGKGMWKGQDGQILIKDQQGRTIGFKKNLVYKGKGQNTNGRWLMKEYHLHGVSLQPLPKLNDYVLCRIKKKDDGKKQNVHFDTEARSRCHSIGGNQDGENFGSVICEENSILGRKRPRIEYMTDYELPNLSVADATITAESIDKERDQHMDHSGAENCVPALSEGISKSFMQDDDDAEIFRGLSPIVEKFYDEGFGREVVD *

>AvNAC068 | Symbols: R_transcript_9009 | NAC domain containing protein MAHELAAIVPSPPPTSLAPGFRFHPTDEELVQYYLKRKARAKPFRFESVLEIDVYKSEPWELACNSLSLSLSLSLSLDFCLSL *

>AvNAC069 | Symbols: R_transcript_9620 | NAC domain containing protein MKKTLVFHSGRAPDGKRTNWVMHEYRLADRDLERAGVTQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVSMVIPGEEEPVNADDSQVEGNDYEQDTHSHNMAALCQTELPNVCQNIPFFFKRERPGYAPFPCTVDAEPISVVPNKKSRHDNPNSSNANGSEDSTTTTHDLCTTNTSSALVEIPLLESLDPKENRPNKLTAFDSTNLEKSVPPGYLKFINNLENEILNVSMERETLKIEVMRAQAMINMLQLRIDLLNKENEDRPEKGLLRSLSTFGARVI *

>AvNAC070 | Symbols: R_transcript_16576 | NAC domain containing protein MAHELAAIVPSPPPTSLAPGFRFHPTDEELVQYYLKRKARAKPFRFESVLEIDVYKSEPWELACHSRLKSRDLEYYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRSVRHKGQTIGMKKTLVFHGGRAPDGKRTNWVMHEYRLADRDLERDGVSQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVPIVIPGEEEPGYEMVNADDSQVEGNDFEQDTHSHNMAALYQTELPNGCQNIPFFCKRETSGYAPFPCTVDAEPISVVPNKKSRHDDPNSSNANGSEDSTTTHDLCTTNMSSALVEIPLLESLDPKENHPNKLTAFDSAILEKSVPPGYLKFINNLEKRDPQCFYGEGDAED *

>AvNAC071 | Symbols: R_transcript_16797 | NAC domain containing protein MAHELAAIVPSPPPTSLAPGFRFHPTDEELVQYYLKRKACAKPFRFEAVLEIDVYKSEPWELACHSRLKSRDLEYYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRSVRHKGQTIGMKKTLVFHGGRAPDGKRTNWVMHEYRLADRDLERDGVSQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVPMVIPGEEEPGYEMVNADDSKVEGNDFEQDTHSHNMAALYQTELPNGCQNVPFFCKRETSGYAPFPCTVDAEPISVVPNKKSRHEDPNSSNANGSEDSTTTTHDLCTTNTSSALVEIPLLESLDPKENHPNKLTAFDSANLEKFVPPGYLKFINNLENEILNVSMERETLKIEVMRAQAMINVLQSRIELLNKENEDLKRAG *

>AvNAC072 | Symbols: R_transcript_16893 | NAC domain containing protein MAHELVKIVPPPPTSLAPGFRFYPTDEELVQYYLKRKAYAKPFRFEAVSEIDVYKSEPWELACHSRLNSRDLEYYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRSVRHKDQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLADRDLERAGVTQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVSMVIPGEEEPVNADDSQVEGNDYEQDTHSHNMAALCQTELPNVCQNIPFFFKRERPGYAPFPCTVDAEPISVVPNKKSRHDNPNSSNANGSEDSTTTTHDLCTTNTSSALVEIPLLESLDPKENRPNKLTAFDSTNLEKSVPPGYLKFINNLENEILNVSMERETLKIEVMRAQAMINMLQLRIDLLNKENEDRPEKGLLRSLSTFGARVI *

>AvNAC073 | Symbols: R_transcript_37237 | NAC domain containing protein MAHELVKIVPPPPTSLAPGFRFHPTDEELVQYYLKRKAYAKPFRFEAVSEIDVYKSEPWELACHSRLNSRDLEYYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRSVRHKDQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLADRDLERAGGNTGCICAVQNFSKKWSRTTKCGSICSIYRGGME *

>AvNAC074 | Symbols: R_transcript_56738 | NAC domain containing protein MKKTLVFHGGRAPDGKRTNWVMHEYRLADRDLERDGVSQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVPIVIPGEEEPGYEMVNADDSQVEGNDFEQDTHSHNMAALYQTELPNGCQNIPFFCKRETSGYAPFPCTVDAEPISVVPNKKSRHDDPNSSNANGSEDSTTTHDLCTTNMSSALVEIPLLESLDPKENHPNKLTAFDSAILEKSVPPGYLKFINNLENEILNVSMERETLKIEVMRAQAMINVLQSRIEVLNKENEDLKRAG *

>AvNAC075 | Symbols: R_transcript_69341 | NAC domain containing protein MQLFHVQYTVSRVVISLFQSLSLFYGPSGHSRLKSRDLEYYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRSVRHKGQTIGMKKTLVFHGGRAPDGKRTNWVMHEYRLADRDLERDGVSQDAFVLCRIFQKSGLGPPNADRYAPFIEEEWNDDVPMVIPGEEEPGYEMVNADDSKVEGNDFEQDTHSHNMAALYQTELPNGCQNVPFFCKRETSGYAPFPCTVDAEPISVVPNKKSRHEDPNSSNANGSEDSTTTTHDLCTTNTSSALVEIPLLESLDPKENHPNKLTAFDSANLEKFVPPGYLKFINNLENEILNVSMERETLKIEVMRAQAMINVLQSRIELLNKENEDLKRAG *

>AvNAC076 | Symbols: R_transcript_13655 | NAC domain containing protein MALDQASLAPGFRFHPTDEELVVYYLKRKISGKTFRFDAIAEIDVYKSEPSDLPDKSRLKSKDLEWYFFSLLDKKYGNGSRTNRATERGYWKTTGKDRPVLHKAQTVGMKKTLVYHSGRAPRGERTNWVMHEYRLIDEQLEKSGNFQDAFVLCRIFQKSGSGPKNGEQYGAPFIEEEWEEEELVMVPGKEAAEDEDAYVNGNDIDQIFGVNIPSEDGPPLPFSFYYGDDSSNVQKHVDFVDGAQKLLVPDSESYYSPEQPTDMKLLDFPVENHMDTTPVKDEYTGESSNTVNSVDADYLLDEPFFDATNYFPFGFEEFLGN *

>AvNAC077 | Symbols: R_transcript_15641 | NAC domain containing protein MKKTLVFHSGRAPDGKRTNWVMHEYRLVDGAAQDAFVLCRIFQKSGLGPPNGDRYAPFIDEEWDNDASLLVPGRRGWG *

>AvNAC078 | Symbols: R_transcript_80139 | NAC domain containing protein MAHNLGEIAPPPQPPVAAAATSLAPGFRFHPTDEELVQYYLKRKACGKPFRFEAVSEIDVYKSEPWELSGHSRLKTRDLEWYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRQVRHKGQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLVDGAAQVEIVLCYK *

>AvNAC079 | Symbols: R_transcript_82604 | NAC domain containing protein MAHNLGEIAPPPQPPVAAAATSLAPGFRFHPTDEELVQYYLKRKACGKPFRFEAVSEIDVYKSEPWELSGPASPPFSLSLIGFSLWSVSVSSFFLCVWMWMNCLFDRGNDRVQLSVFQILL *

>AvNAC080 | Symbols: R_transcript_94099 | NAC domain containing protein MAHNLGEIAPPPQPPVAAAATSLAPGFRFHPTDEELVQYYLKRKACGKPFRFEAVSEIDVYKSEPWELSGHSRLKTRDLEWYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRQVRHKGQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLVDGAAQDAFVLCRIFQKSGLGPPNGDRYAPFIDEEWDNDASLLVPGEEAGDEMVNGDDAQVEGNDLEQVCAHLTPCCGSKIILGAVMRDLFIFPYCFTCKLNQYQESKSDSTHKHNPIVHNI *

>AvNAC081 | Symbols: R_transcript_95060 | NAC domain containing protein MAHNLGEIAPPPQPPVAAAATSLAPGFRFHPTDEELVQYYLKRKACGKPFHFEAVSEIDVYKSEPWELSGHSRLKTRDLEWYFFSPVDRKYGNGSRLNRATGKGYWKATGKDRQVRHKGQTIGMKKTLVFHSGRAPDGKRTNWVMHEYRLVDGAAQDAFVLCRIFQKSGLGPPNGDRYAPFIDEEWDNDASLVVPGEEAGDEMVNGDDAQVEGNELEQDIHSTNKSPLRLAELPNLSETVPFVCKRERSEDCPLPGIANPETLSLVPNKRTKNDDPNSSNANGSEDSNTTPPDLCISTTTTTTRTTNFSSTLLEFPLLEPVEPKENIPNNLHAFDASNLEKSVPPGYLKFISNLENEILNVSMERETLKIELMRAQAMINILQSRIDLVNRDNEERRRVVRDV *

>AvNAC082 | Symbols: R_transcript_100635 | NAC domain containing protein MAHNLGEIAPPPQPPVAAAATSLAPGFRFHPTDEELVQYYLKRKACGKPFHFEAVSEIDVYKSEPWELSGPAPPPPPPPPSLSLSLSLDFLCGVFLFLVCLFVVCVWMWMNCLFDSGNDGFGVQLSVFRILL *

>AvNAC083 | Symbols: R_transcript_54585 | NAC domain containing protein MEMQGEEGVSMKEEKLPPGFRFHPTDEELITYYLINKISDANFTARAVTDVDLNKSEPWDLPGKAKMGEKEWYFFSLRDRKYPTGVRTNRATNTGYWKTTGKDKEIFNSVSSELVGMKKTLVFYRGRAPRGEKTNWVMHEYRIHSKSAIRTPKQDAWVVCRVFQKSAGAKKYPSNHSSSRAALLNPYSLEIGPSAAMHYSQMLQAAEACQFPSVGRNHMMSNEMAEHMSSRVLRSNPSTSLVNFPIQPQLINYPPEAAAGCFTISGLNLNLGGGGGATSSGFHPPPPPVVMNQQDHHASSSIFSGGLASEAVYGTAEVTANNNANHVANTNRFMTMDHCLELDNYWPAPY *

>AvNAC084 | Symbols: R_transcript_86053 | NAC domain containing protein MQREEGVSMKEEKLPPGFRFHPTDEELITYYLINKISDANFTARAVTDVDLNKSEPWDLPGKAKMGEKEWYFFSLRDRKYPTGVRTNRATNTGYWKTTGKDKEIFNSVTSELVGMKKTLVFYRGRAPRGEKTNWVMHEYRIHSKSAFRTTKRDEWVVCRVFQKSAGGKKYPSNHSSSRAPLLNPYSLEIGPSATMHYSQMLQAVEACQFPSLGRNHMMMSNEMAEHMSSRVLRSGTCNSSTSLVNFPIQPQLINYAPEEEEAAAGFFTISGLNLNLGGGGGATSSGFRPPPPPPQVVMNQQDHVSSSMFSGTLASEAVYGTPEATTNNANHAANNNRFMTMNHCLELDNYWPAPY *

>AvNAC085 | Symbols: R_transcript_90949 | NAC domain containing protein MDMQGDEGVSMKEEKLPPGFRFHPTDEELITYYLINKISDANFTARAVTDVDLNKSEPWDLPGKAKMGEKEWYFFSLRDRKYPTGVRTNRATNTGYWKTTGKDKEIFNSVSSELVGMKKTLVFYRGRAPRGEKTNWVMHEYRIHSKSAIRTPKQDAWVVCRVFQKSAGAKKYPSNHHSSSRAALLNPYSLEIGPSAAMHYSQMLQAAEACQFPSVGRNHMMSNEMAEHMSSRVLRSNPSTSLVNFPIQPQLINYPPEAAAGCFTISGLNLNLGGGGGGGGATSSGFHPPPPPVVMNQQDHHVSSSIFSGGLANEAVYGTAEVTANNNANHVANTNRFMTMDHCLELDNYWPAPY *

>AvNAC086 | Symbols: R_transcript_96411 | NAC domain containing protein MDMQGDEGVSMKEEKLPPGFRFHPTDEELITYYLINKISDANFTARAVTDVDLNKSEPWDLPGKAKMGEKEWYFFSLRDRKYPTGVRTNRATNTGYWKTTGKDKEIFNSVSSELVGMKKTLVFYRGRAPRGEKTNWVMHEYRIHSKSAIRTPKVP *

>AvNAC087 | Symbols: R_transcript_42641 | NAC domain containing protein MINNQLGSISSSDLIDAKLEEHQLCGSKQCPGCGHKLEGKPDWVGLPAGVKFDPTDQELIEHLEAKVEAKDSKSHPLIDEFIPTIGGEDGICYTHPEKLPGVTRDGLSKHFFHRPSKAYTTGTRKRRKIQTECDLQGGETRWHKTGKTRPVMVNGKQKGCKKILVLYTNFGKNRKPEKTNWVMHQYHLGQHEEEREGELVVSKIFYQTQPRQCNWAERGGAAATGDGSGEASSRSCSSKEIVISTQRDEMGVVGVGATISSYGAMDMQQLKADHFSFTPFRKSFDEVGVGEASTLREAPVQVTCEARDIHEQHMTHHVTIPHEHHQHQHQHPHQHHQIGGATTAFHVSRPSHPISTIISPPPPSLHHTSIMLDEASFHVPRILLPNENFQQQQQQQQQHHKLGGRSGSGLEELIMGCTSTDIKEESSITNPQEADWLKYSTFWPDPDNQDHHG *

>AvNAC088 | Symbols: R_transcript_50235 | NAC domain containing protein MINNQLGSISSSDLIDAKLEEHQLCGSKQCPGCGHKLEGKPDWVGLPAGVKFDPTDQELIEHLEAKVEAKDSKSHPLIDEFIPTIGGEDGICYTHPEKLPGVTRDGLSKHFFHRPSKAYTTGTRKRRKIQTECDLQGGETRWHKTGKTRPVMVNGKQKGCKKILVLYTNFGKNRKPEKTNWVMHQYHLGQHEEEREGELVVSKIFYQTQPRQCNWAERGGAAATGDGSGEASSRRESGGSGSCSSKEIVISTQRDEMGVVGVGATISSYGAMDMQQLKADHFSFTPFRKSFDEQVGVGEASTLREAPVQVTCEARDIHEQHMTHHVTTPHEHHQHQHQHPHHHHQIGGATTAFHVSRPSHPISTIISPPPPSLHHTSIILDEASFHVPRILLPNENFQQQQQQQQQQQQHHKLGGRSGSGLEELIMGCTSTDIKEESSITNPQEADWLKYSTFWPDPDNQDHHG *

>AvNAC089 | Symbols: R_transcript_94297 | NAC domain containing protein MINNQLGSISSSDLIDAKLEEHQLCGSKQCPGCGHKLEGKPDWVGLPAGVKFDPTDQELIEHLEAKVEAKDSKSHPLIDEFIPTIKGEDGICYTHPEKLPGVTRDGLSKHFFHRPSKAYTTGTRKRRKIQTECDLQGGETRWHKTGKTRPVMVNGKQKGCKKILVLYTNFGKNRKPEKTNWVMHQYHLGQHEEEREGELVVSKIFYQTQPRQCNWAERGGATATGEGSGEASSRRESGGSGSCSSKEIVISTQRDEMAAVGVGATISSYGAMDMQQLKADHFSFTPFRKSFDEVGAGEASTLREAQVQVTCEARDIHEQHMTHHVTSPHELHQHPHQHPHQHQQIGGATTAFHVSRPSHPISTIISPPPPSLHHTSIILDEASFHVPRILLPNENFQQQQQQQQHQHHKLGGRSGSGLEELIMGCTSTDIKEESSITNPQEADWLKYSTFWPDPDNQDHHG *

>AvNAC090 | Symbols: R_transcript_73092 | NAC domain containing protein MRKTLVFYQGRAPKGRKTDWVMHEFRLEGPLGLPITSSLKVDWVLCRVFYKNREVAAKQGIGSSLNDDTISSSSLPPLMDSYITFDQTQTDNNNITNDLV *

>AvNAC091 | Symbols: R_transcript_92394 | NAC domain containing protein MFVDEFIPTIDKGDGICYTHPENLPGAKKDGTSIHFFHRTTNAYATGQRKRRKIHNQHSLTKEDVRWHKTGKTKPVVENGVHKGYKKIMVLYSIPKKGSKPDKSNWVMYQYHLGTDEDEQEGQYVASKIFYQQQKQSVNNDISQVVKDSDMGSIRTSPRTPRTNTPNPTRPGRSVSCDDATDDYAPQPSAQEAEVVREPSHPSSAHFCDDVETQTCLAGESQAVGSDGVDDSFLCNEIFNSYVTLDDSGLNGGAFDGFARFTNDIPGVDNKVSCGIVDLENLELDTPPDFQLADLQFCSQDSVFGWLDRL *

>AvNAC092 | Symbols: R_transcript_12933 | NAC domain containing protein MGGASLPPGFRFHPTDEELVGYYLKRKVEGLEIELEVIPVIDLYKFDPWELPEKSFLPKRDLEWFFFCPRDRKYPNGSRTNRATRVGYWKATGKDRKVVCQSSLTGYRKTLVFYRGRAPMGDRTDWLMHEYRLCDDLSQGSPSFQEKRIKVT *

>AvNAC093 | Symbols: R_transcript_63861 | NAC domain containing protein MGGASLPPGFRFHPTDEELVGYYLKRKVEGLEIELEVIPVIDLYKFDPWELPEKSFLPKRDMEWFFFCPRDRKYPNGSRTNRATRVGYWKATGKDRKVVCQSSVTGSRKTLVFYRGRAPMGDRTDWLMHEYRLCDDLSQGSPSFQGAFALCRVIKKNETQKTSDVHGESKAKGVGSSSSNGDFTSTGMSSDPVIISDDTTFQTNQLCNGSNFSSPVSSPYPTMPMMENEPFSMGTNPSNLWVSPDLILDSSREFSQGQGACGYFPGYEFPNSMTQWQPYNQYEFSPSSSLSNFTQGVELSDGLSRINSMSSYMGFYGNEDMPLPYEGFETWEQAPIHRQSSGDGSLAEIGGIWSQDDNMVVVM *

>AvNAC094 | Symbols: R_transcript_85819 | NAC domain containing protein MGGASLPPGFRFHPTDEELVGYYLKRKVEGLEIELEVIPVIDLYKFDPWELPEKSFLPKRDMEWFFFCPRDRKYPNGSRTNRATRVGYWKATGKDRKVVCQSLVTGYRKTLVFYRGRAPMGDRTDWLMHEYRLCDDLSQGSPSFQGAFALCRVIKKNETQKTSDVHGESKAKGVGSSSSTGDFTSTGMSSDPVIISDDMTFQTNQLCNGSNFSSPVSSPYPIMPMVENEPFSMGNNPSSLWVSPDLILDSSREFSQGQGACGYFPGYEFPNSTTQWQPYNQYEISPSSSLSNFTQGVELGDGLSQFNSTSSYMGFYGNEDMPLPYEGYDHQTDSPRNPNPF *

>AvNAC095 | Symbols: R_transcript_58057 | NAC domain containing protein MMILGALGKSKLKSRDLEWYFFSALDKKYGNGWRTNRATERGYWKTTGKDRPVVHKSRTVGMKKTLVYHIGRAPWGERTNWVMHEYKLVDEESEKTGNVQVRIV *

>AvNAC096 | Symbols: R_transcript_79749 | NAC domain containing protein MDLDPAPAATSLAPGFRFHPTDQELIGYYLKRKVCGKPFRLDAISEIDIYKSEPWDLPGKSKLKSRDLEWYFFSALDKKYGNGWRTNRATERGYWKTTGKDRPVVHKSRTVGMKKTLVYHIGRAPWGERTNWVMHEYKLVDEESEKTGNVQDALVLCKIFQKSGSGPKSGEQYGAPFVEEEWEDDELVMVPGKKVADEVTVGDDAYLDGNDLEQILGADIPSEDVPLPLSFYYEDDNGYVQEPADFDDDAQKFLLDMGGSYCAPEQPDDQHLFDFPVQNDIYTKPVRHEYIGEPSNTVDSVDADYLLDEPFMDANDNTQFDDGSFLETNDLSNPVKTESSGFDMVEDYLTFFDADDNSPYMTLDSSKMIRNENLDSHQTSLTQKCVYGGAQQETMGDQQLLQGHDIDVASTSKKETGKYGSEIQHPFIKQASCMLSSKDAARQLSSTSRASSSIRVTAGIIHIRNITSTGNGTYWSPGKHVDVSIVLSFGLSYDDSSYASLESMDDTLLGKAGSTSSWGWFYLIFLWFLIISLSFKIGTYIYAGKAS *

>AvNAC097 | Symbols: R_transcript_14929 | NAC domain containing protein MDMQGDEGVSMKEEKLPPGFRFHPTDEELITYYLINKISDANFTARAVTDVDLNKSEPWDLPGKAKMGEKEWYFFSLRDRKYPTGVRTNRATNTGYWKTTGKDKEIFNSVSSELVGMKKTLVFYRGRAPRGEKTNWVMHEYRIHSKSAIRTPKQDAWVVCRVFQKSAGAKKYPSNHHSSSRAALLNPYSLEIGPSAAMHYSQMLQAAEACQFPSVGRNHMMSNEMAEHMSSRVLRSNPSTSLVNFPIQPQLINYPPEAAAGCFTISGLNLNLGGGGGGGGATSSGFHPPPPPVVMNQQDHHVSSSIFSGGLANEAVYGTAEVTANNNANHVANTNRFMTMDHCLELDNYWPAPY *

>AvNAC098 | Symbols: R_transcript_101459 | NAC domain containing protein MSEDMNLSVNGQSQVPPGFRFHPTEEELLHYYLRKKVASEKIDLDVIRDVDLNKLEPWDIQEKCKIGSTPQNDWYFFSHKDKKYPTGTRTNRATAAGFWKATGRDKVIYSSLRRIGMRKTLVFYKGRAPHGQKSDWIMHEYRLDDHSSHEATANHVGGDSLPEEGWVVCRVFKKKNYHKALESPQSSSPTSMDLRSQIIRNSTNNDGILDQILHYMGKSCKQETQTITNPNNGHMLYLPSFNTAIDALQDRFTHLPRLETAPTNSPFDHEALDDMFLETEPSCTEQGSGQRDWVVLDRLVASQLNGQDTSNDDFCFPVDHNVQLSHLRSNKVLNNVQPPCQGYSSEIDLWNFARSSSASSSDPLCHLSV *

>AvNAC099 | Symbols: R_transcript_39496 | NAC domain containing protein MEESASEVDQLPGFRFHPTEEELINFYLKNMIFGKRMCFDIIGVLNIYHYVPSDLPRLAKIGEREWYFFVPRDRKHGHGGRPNRTTETGFWKATGSDRKILSSTDPKKMIGLKKTLVFYKGRAPRGCKTDWIMNEYRLPDTYPSPKDMVLCKIYRKATSMKVLEQRAAMEEEMKTFHQLEPSPPMTPPMDTISFSSSQHEDYFMAPMASHNDMAFKIEDEFEDENRFIVQEKREVASLHLPLGKEKLPELQVPRFSVDWTQDPFWTQLRSPWLDNLTPYANVLNF *

>AvNAC100 | Symbols: R_transcript_95695 | NAC domain containing protein MVANMMGLPPGFRFHPTDEEIISDYVTQKVMNTTFTAIAVAEVDLNKIEPWDLPKKAKMGEKEWYFFCQRDRKYPTGMRTNRATESGYWKATGKDKEIYKGKKGNCLMGMKKTLVFYKGRAPKGEKSNWVMHEYRLEGKFSYYNFPKPAKDEWVVCRVFHKNTVIKRSPITRMNSFAVDDLLDYPNSLPPLIDPPPYSNSDRPAGCSSFTEYSEDDHDIKGKATVSSSSAARSSDGGDYFSYLSNDQNNDFIAHNSSHQARLGYSTHGSTFYPQIQISNTNFPFQASPDDLVGRYVHQERMRVPVPNFTGSMSYMNTDQAILRSAKREASHGNMATGSEISSSGLEVSMKDIRSSAISSIRSYDDQDLEEPSVGGLDPISDLDYLLNY *

>AvNAC101 | Symbols: R_transcript_13398 | NAC domain containing protein MKVTDDASCFGGGGCWPPGFRFHPTDEELVLYYLKRKICGRRLKLDIVGETDVYKWDPEELPGLSKLKTGDRLWFFFSPRDRKYPNGARSNRATRQGYWKVTGKDRTITCSSRAVGVKKTLVFYKGRAPAGQRTDWVMHEYTLDEEELKRCQTAKDYYALYKVYKKSGLGPKNGEQYGAQFREEDWADDDNTIVNDHANLETPVKQVNDIASVDNTRTNGQVQSGLNVLDEFMSQNAVESLLVQPLGVHFGYALHEFVDEEENQSSLVDQSFRETDLQERSMVLQQSWQQNDVQPSFDLTQSATSQLQLYEKPEVTSAPIISRQESHDSELEDYIEMDDLIGPGPTVQNMDNDLIGPTPTVDKPVENLHFDGFSELDLFHDAAMFIRDMGPINPEILAHSYSNNFQNKMVNQLDCQLQPYSSYSSESNGQLWMHGQNNIDTPPEYNQGVVHPPTSGVVCDCSSASLPSGVYENENQSQSQNQNQNQNQSGNVDDGGDSWLTSALWSFVESVPTTPASASEGAALVNRAFERMSSFGRVRASAGDTSVAAGNPVATLRRSGSRHSRGFFFYAFLGVLCAILWVLIRTSVRVLTRYISS *

>AvNAC102 | Symbols: R_transcript_95502 | NAC domain containing protein MTVPEDAACFGDGGCWPPGFRFHPTDEELVLYYLKRKICRRRLKLDIIGETDVYKRDPEELPGLSKLKTGDRQWFFFSPRDRKYPNGARSNRATRQGYWKATGKDRTITCNSRAVGVKKTLVFYKGRAPVGERTDWVMHEYTLDEEELKRCQTAQDYYALYKVFKKSGPGPKNGEQYGAPFREEDWADDDNTIVNDHAKPETPVKQVNCIASVDNTRTNCQVQFAFNDFDEFMNQIADEPLLVQPLGVVDFGYALHEVVGEEENQSSLVDQSFREANLQERSMVLQPSWQQNNVQPSFDLTQSATSQLKLCETPEVTSASIISRQESHESELEDFIEMDDLVDPGPTVQNMANDLIGPTPTVDKPVENLQFDEFDGLSELDLYHNTAMFIRDMGLINPEALPHSYGNNLQSEMVNQYSSEITGELWMHGQNNFDTPAVYDQGVVLPPTSGVVCDGSSPSLASGVCENQNQSGNTDNGGYSWFTSALWSFVESVPTAPASASEGAALMNRAFERMSSFGRGARISAGDTSVAAGNPAANLHRSGSRYSRGFFFYAILGVLCAILWVLIGTSVRVLTRYISS *

>AvNAC103 | Symbols: R_transcript_100431 | NAC domain containing protein MTVPEDAACFGDGGCWPPGFRFHPTDEELVLYYLKRKICRRRLKLDIIGETDVYKRDPEELPGLSKLKTGDRQWFFFSPRDRKYPNGARSNRATRQGYWKATGKDRTITCNSRAVGVKKTLVFYKGRAPVGERTDWVMHEYTLDEEELKRCQTAQDYYALYKVFKKSGPGPKNGEQYGAPFREEDWADDDNTIVNDHAKPETPVKQVNCIASVDNTRTNCQVQFAFNDFDEFMNQIADEPLLVQPLGVVDFGYALHEVVGEEENQSSLVDQSFREANLQERSMVLQPSWQQNNVQPSFDLTQSATSQLKLCETPEVTSASIISRQESHESELEDFIEMDDLVDPGPTVQNMANDLIGPTPTVDKPVENLQFDEFDGLSELDLYHNTAMFIRDMGLINPEALPHSYGNNLQSEMVNQYSSEITGELWMHGQNNFDTPAVYDQGVVLPPTSGIQITENGTEHTFHWIPLNL *

>AvNAC104 | Symbols: R_transcript_68016 | NAC domain containing protein MTADLQLPPGFRFHPTDEELVMHYLCRRCASQHISVPIIAEIDLYKYDPWDLPGNL *

>AvNAC105 | Symbols: R_transcript_15938 | NAC domain containing protein MAPRPRDSIGLYWTDAEIIMSLEGMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHNKNSEHGFWTARGEASEIFMNSAIIGWRSTLDFYEGRGPHGQRTNWVMQEYRITRKGPCSYSNPKMQESRLLCRVFLSSGASPNPEMKLNVGGCTGSNDIHPSVVPKSGNTSGQGCMSESQARNRNDNTGQLAVPGGLPIIPEDTDDDDCISRGDYLELADLVDGESLSSSSENSSCVTPTADEFFDSLALLRDLGAKISQDEKGKDANVKLSVAASIKPNEVVMRPANLGSLVKNDGRKSPAEAIDKNFLDKKVPENAIRSKAARNWNEGTSISINAATSSRGHKAIPRGEKKSVAGRTRNCWIL *

>AvNAC106 | Symbols: R_transcript_24316 | NAC domain containing protein MAPRPRDSIGLYWADEEIIMSLERMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKGLCSYSNPKSIAVLVDKMQESRLLCRVFLSSEASPNPEMKLNVGDCTGSNDIHPSVVPKSGSTSGQGCMSDSQARNRNDNTGPLAVPGGLPIIPEDTDDDDCISRGDYLELADLVDGESLSSSSDNSSCVTPTADEFFDSLALLRDLGAKISQDEKGNDANVKLSVAASIKPNEVVMRPAKLGSLVKNDGRKSPAEAIDKNFLDKKVPENAIRSKAMRNCNEGTSNSINVATSSRSHKAIPRGEKKSVAGRTWNCWIL *

>AvNAC107 | Symbols: R_transcript_30973 | NAC domain containing protein MWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKGLCSYSNPKMQESRLLCRVFLSSEASPNPEMKLNVGDCTGSNDIHPSVVPKSGSTSGQGCMSDSQARNRNDNTGPLAVPGGLPIIPEDTDDDDCISRGDYLELADLVDGESLSSSSDNSSCVTPTADEFFDSLALLRDLGAKISQDEKGNDANVKLSVAASIKPNEVVMRPAKLGSLVKNDGRKSPAEAIDKNFLDKKVPENAIRSKAMRNCNEGTSNSINVATSSRSHKAIPRGEKKSVAGRTWNCWIL *

>AvNAC108 | Symbols: R_transcript_31867 | NAC domain containing protein MAPRPRDSIGLYWADEEIIMSLERMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPSWTEN *

>AvNAC109 | Symbols: R_transcript_41086 | NAC domain containing protein MAPRPRDSIGLYWTDEAIIMSLEEMEKGSPNPENVSVDVNPYQCKPIYLRDGSWYLIRSENNKNSEHGFWRARGEAIEIFMNSVIKGWRTTLDFYEGRAPHGQRTNWVMQEYRITRKGLCSYSNPKESSLLCRVFLSIEGPNQETKLNLGGKEIAGGNHIHPKPSVVPESGSTTGQRYMSESQARNRDDNTGPLDDDDMNYDDFFSSGDYLELDDLGDGESKSSSSDNSLCVTSTSDEYFDLEALLRDLGANRDEQGKDANVKLSVAALIKPNDVVMRPSNLGSLVKNDGRKSPAKTIDKKFLDKKVPENAIRSKKARKRNEGTSNSHDVATSSSSHKAIPREKKKAVAGRTKKLKKYLCFMPF *

>AvNAC110 | Symbols: R_transcript_46223 | NAC domain containing protein

MAPRPRDSIGLYWADEEIIMSLERMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKGLCSYSNPKMQESRLLCRVFLSSEASPNPEMKLNVGDCTGSNDIHPSVVPKSGSTSGQGCMSDSQVD *

>AvNAC111 | Symbols: R_transcript_65760 | NAC domain containing protein MWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKGLCSYSNPKSIAVLVDKMQESRLLCRVFLSSEASPNPEMKLNVGDCTGSNDIHPSVVPKSGSTSGQGCMSDSQARNRNDNTGPLAVPGGLPIIPEDTDDDDCISRGDYLELADLVDGESLSSSSDNSSCVTPTADEFFDSLALLRDLGAKISQDEKGNDANVKLSVAASIKPNEVVMRPAKLGSLVKNDGRKSPAEAIDKNFLDKKVPENAIRSKAMRNCNEGTSNSINVATSSRSHKAIPRGEKKSVAGRTWNCWIL *

>AvNAC112 | Symbols: R_transcript_98265 | NAC domain containing protein MAPRPRDSIGLYWADEEIIMSLERMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHKKNSEHGFWTARGDASEIFMNSAMIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKGLCSYSNPKVNPTTCYSFVLFFFSCNFYFIFIINPSCQSIAVLVDKMQESRLLCRVFLSSEASPNPEMKLNVGDCTGSNDIHPSVVPKSGSTSGQGCMSDSQARNRNDNTGPLAVPGGLPIIPEDTDDDDCISRGDYLELADLVDGESLSSSSDNSSCVTPTADEFFDSLALLRDLGAKISQDEKGNDANVKLSVAASIEPNEVVMRPAKLGSLVKNDGRKSPAEAIDKNFLDKKVPENAIRSKAMRNCNEGTSNSINVATSSRSHKAIPRGEKKSVAGRTWNCWIL *

>AvNAC113 | Symbols: R_transcript_98456 | NAC domain containing protein MWYLLRSDHKKNSEHGFWTARGEGSEIFMNSAIIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKELCSYGNPKVNPTTCYSFVLFFFM *

>AvNAC114 | Symbols: R_transcript_100689 | NAC domain containing protein MAPRPRDSIGLYWTDEEIIMSLEGMEKGSPIPVNVSVDVNPYQYKPLNLPADMWYLLRSDHKKNSEHGFWTARGEGSEIFMNSAIIGWRTTLDFYEGRGPHGQRTNWVMQEYRITRKELCSYGNPKVNPTTCYSFVLFFFM *

>AvNAC115 | Symbols: R_transcript_19510 | NAC domain containing protein MAAELQLPAGFRFHPTDEELVMHYLCRRCASQRIAVPVIAEIDLYKYDPWDLPGLALYGEKEWYFFSPRDRKYPNGSRPNRAAGSGYWKATGADKPIKPTGHPKPVGIKKALVFYAGKAPRGEKTNWIMHEYRLADVDRSARKKSPSLRLDDWVLCRIYNKKGTIEKRNVGVAKLPESFEQKPEILTTNGLALPPVISPASGVYNDFVYFDTSDSVPRPHTDSSSSEHVLSPEITCEREVQSEPADWGRNALDFPFNYMDATMDNAFASQFQSNQMSPLQDMFMYLQKPF *

>AvNAC116 | Symbols: R_transcript_88888 | NAC domain containing protein MAAELQLPAGFRFHPTDEELVMHYLCRRCASQRIAVPVIAEIDLYKYDPWDLPGLALYGEKEWYFFSPRDRKYPNGSRPNRAAGSGYWKATGADKPIKPTGHPKPVGIKKALVFYAGKAPRGEKTNWIMHEYRLADVDRSARKKSPSLRVNKTIPSLILILGVKWTFHCTNQNH *

>AvNAC117 | Symbols: R_transcript_27781 | NAC domain containing protein MASGYWKAMGSPSYVYSSDNRVIGVKKTMVFYEGKAPSGRKTKWKMNEYRAIEQPAGCAVPKLRNELSLCRVYVVSGSFRAFDRRPLGSETSRTGFRQIPGDPSTQATQTVERISSSSESSSSGEDPFEFSQTNLGMFNGLEPLLEWDQLNWV *

>AvNAC118 | Symbols: R_transcript_33085 | NAC domain containing protein MTVPEDAACFGDGGCWPPGFRFHPTDEELVLYYLKRKICRRRLKLDIIGETDVYKRDPEELPGMCLDCFLMRN *

>AvNAC119 | Symbols: R_transcript_34849 | NAC domain containing protein MTVPEDAACFGDGGCWPPGFRFHPTDEELVLYYLKRKICRRRLKLDIIGETDVYKRDPEELPGLSKLKTGDRQWFFFSPRDRKYPNGARSNRATRQGYWKATGKDRTITCNSRAVGVKKTLVFYKGRAPVGERTDWVMHEYTLDEEELKRCQTAQDYYALYKVYKKSGPGSQEW *

>AvNAC120 | Symbols: R_transcript_47733 | NAC domain containing protein MKVTDDASCFGGGGCWPPGFRFHPTDEELVLYYLKRKICGRRLKLDIVGETDVYKWDPEELPGLSKLKTGDRLWFFFSPRDRKYPNGARSNRATRQGYWKVTGKDRTNM *

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Author Contributions

J.C., M.A., and X.Q. conceived the research. M.L., Z.W., and Y.Z. performed the experiments, analyzed the data, and wrote the manuscript. H.G., D.C., and X.G. provided scientific suggestions. C.S., L.L., G.X., and S.G. revised the manuscript. All authors reviewed the manuscript. All authors have read and agreed to the published version of the manuscript.

Funding

This work was supported by the National Natural Science Foundation of China (32102325); the National Key Research and Development Program (Grant No.2019YFD1000200); China Agriculture Research System of MOF and MARA (Grant CARS-26); the Agricultural Science and Technology Innovation Program, Chinese Academy of Agricultural Sciences (CAAS-ASTIP-2021-ZFRI); the Collaborative Innovation of Science and Technology Innovation Project of the Chinese Academy of Agricultural Sciences (Grant No. CAAS-XTCX20190025-4); the Modern Agricultural Industrial Technology System of Henan Province (Grant No. S2014-11); Scientific and Technological Research in Henan Province (Grant No. 202102110047) and (Grant No. 212102110428); the Collaborative Innovation Project of ZFRI, CAAS (Grant No. ZGS202103).

Institutional Review Board Statement

The research content of the manuscript does not involve ethical issues.

Informed Consent Statement

The research content of the manuscript does not involve humans issue.

Data Availability Statement

Sequence data from this work can be found in the NCBI database (SRA data).

Conflicts of Interest

The authors declare no conflict of interest.

Footnotes

Publisher’s Note: MDPI stays neutral with regard to jurisdictional claims in published maps and institutional affiliations.

References

1.Zhao C., Zhang H., Song C., Zhu J.K., Shabala S. Mechanisms of plant responses and adaptation to soil salinity. Innovation. 2020;1:100017. doi: 10.1016/j.xinn.2020.100017. [DOI] [PMC free article] [PubMed] [Google Scholar]
2.Rengasamy P. World salinization with emphasis on Australia. J. Exp. Bot. 2006;57:1017–1023. doi: 10.1093/jxb/erj108. [DOI] [PubMed] [Google Scholar]
3.Hanin M., Ebel C., Ngom M., Laplaze L., Masmoudi K. New insights on plant salt tolerance mechanisms and their potential use for breeding. Front. Plant Sci. 2016;7:1787. doi: 10.3389/fpls.2016.01787. [DOI] [PMC free article] [PubMed] [Google Scholar]
4.Munns R., Tester M. Mechanisms of salinity tolerance. Annu. Rev. Plant Biol. 2008;59:651–681. doi: 10.1146/annurev.arplant.59.032607.092911. [DOI] [PubMed] [Google Scholar]
5.Slama I., Abdelly C., Bouchereau A., Flowers T., Savouré A. Diversity, distribution and roles of osmoprotective compounds accumulated in halophytes under abiotic stress. Ann. Bot. 2015;115:433–447. doi: 10.1093/aob/mcu239. [DOI] [PMC free article] [PubMed] [Google Scholar]
6.FAO FAO Soils Portal. 2016. [(accessed on 18 March 2021)]. Available online: http://www.fao.org/soils-portal/soil-management/management-of-some-problem-soils/salt-affected-soils/more-information-on-salt-affected-soils/en/
7.Muchate N.S., Nikalje G.C., Rajurkar N.S., Suprasanna P., Nikam T.D. Plant salt stress: Adaptive responses, tolerance mechanism and bioengineering for salt tolerance. Bot. Rev. 2016;82:371–406. doi: 10.1007/s12229-016-9173-y. [DOI] [Google Scholar]
8.Nimbolkar P.K., Awachare C., Reddy Y.T.N., Chander S., Hussain F. Role of rootstocks in fruit production—A review. J. Agric. Eng. Food Technol. 2016;3:183–188. [Google Scholar]
9.Perrino E.V., Valerio F., Jallali S., Trani A., Mezzapesa G.N. Ecological and Biological Properties of Satureja cuneifolia Ten. and Thymus spinulosus Ten.: Two Wild Officinal Species of Conservation Concern in Apulia (Italy). A Preliminary Survey. Plants. 2021;10:1952. doi: 10.3390/plants10091952. [DOI] [PMC free article] [PubMed] [Google Scholar]
10.Li Y., Fang J., Qi X., Lin M., Zhong Y., Sun L. A key structural gene, AaLDOX, is involved in anthocyanin biosynthesis in all red-fleshed kiwifruit (Actinidia arguta) based on transcriptome analysis. Gene. 2018;648:31–41. doi: 10.1016/j.gene.2018.01.022. [DOI] [PubMed] [Google Scholar]
11.Huang H.W., Ferguson A.R. Actinidia in China: Natural diversity, phylogeographical evolution, interspecific gene flow and kiwifruit cultivar improvement. Acta Hortic. 2007;753:31–40. doi: 10.17660/ActaHortic.2007.753.1. [DOI] [Google Scholar]
12.Li D., Liu Y., Li X., Rao J., Yao X., Zhong C. Genetic diversity in kiwifruit polyploid complexes: Insights into cultivar evaluation, conservation, and utilization. Tree Genet. Genomes. 2014;10:1451–1463. doi: 10.1007/s11295-014-0773-6. [DOI] [Google Scholar]
13.Ferguson A.R., Huang H. Genetic resources of kiwifruit: Domestication and breeding. Hortic. Rev. 2007;33:1–121. [Google Scholar]
14.Fu Q., Gu J., Li Y., Qian X., Sun W., Wang X., Lei Y. Analyses of microbial biomass and community diversity in kiwifruit orchard soils of different planting ages. Acta Ecol. Sin. 2015;35:22–28. doi: 10.1016/j.chnaes.2015.04.002. [DOI] [Google Scholar]
15.Jing Z., Lei Y., Li Y., Li L. Study on the allocation patterns of above-and below-ground biomass of Actinidia chinensis in northern area of Qinling. J. Fruit Sci. 2016;33:52–58. [Google Scholar]
16.Chen J., Fang J., Qi X., Gu H., Lin M., Zhang W., Wei C. Research progress on rootstock of kiwifruit. J. Fruit Sci. 2015;32:959–968. [Google Scholar]
17.Deinlein U., Stephan A.B., Horie T., Luo W., Xu G., Schroeder J.I. Plant salt-tolerance mechanisms. Trends Plant Sci. 2014;19:371–379. doi: 10.1016/j.tplants.2014.02.001. [DOI] [PMC free article] [PubMed] [Google Scholar]
18.Zelm E.V., Zhang Y., Testerink C. Salt tolerance mechanisms of plants. Annu. Rev. Plant Biol. 2020;71:403–433. doi: 10.1146/annurev-arplant-050718-100005. [DOI] [PubMed] [Google Scholar]
19.Han G., Yuan F., Guo J., Zhang Y., Sui N., Wang B. AtSIZ1 improves salt tolerance by maintaining ionic homeostasis and osmotic balance in Arabidopsis. Plant Sci. 2019;285:55–67. doi: 10.1016/j.plantsci.2019.05.002. [DOI] [PubMed] [Google Scholar]
20.Zhang X., Chen L., Shi Q., Ren Z. SlMYB102, an R2R3-type MYB gene, confers salt tolerance in transgenic tomato. Plant Sci. 2020;291:110356. doi: 10.1016/j.plantsci.2019.110356. [DOI] [PubMed] [Google Scholar]
21.Wang J., Zhang L., Wang X., Liu L., Lin X., Wang W., Qi C., Cao Y., Li S., Ren S., et al. PvNAC1 increases biomass and enhances salt tolerance by decreasing Na+ accumulation and promoting ROS scavenging in switchgrass (Panicum virgatum L.) Plant Sci. 2019;280:66–76. doi: 10.1016/j.plantsci.2018.11.007. [DOI] [PubMed] [Google Scholar]
22.Tian N., Wang J., Xu Z.Q. Overexpression of Na+/H+ antiporter gene AtNHX1 from Arabidopsis thaliana improves the salt tolerance of kiwifruit (Actinidia deliciosa) S. Afr. J. Bot. 2011;77:160–169. doi: 10.1016/j.sajb.2010.07.010. [DOI] [Google Scholar]
23.Yang Y., Guo Y. Elucidating the molecular mechanisms mediating plant salt-stress responses. New Phytol. 2018;217:523–539. doi: 10.1111/nph.14920. [DOI] [PubMed] [Google Scholar]
24.Yang Y., Guo Y. Unraveling salt stress signaling in plants. J. Integr. Plant Biol. 2018;60:796–804. doi: 10.1111/jipb.12689. [DOI] [PubMed] [Google Scholar]
25.Kaleem F., Shabir G., Aslam K., Rasul S., Manzoor H., Shah S.M., Khan A.R. An overview of the genetics of plant response to salt stress: Present status and the way forward. Appl. Biochem. Biotechnol. 2018;186:306–334. doi: 10.1007/s12010-018-2738-y. [DOI] [PubMed] [Google Scholar]
26.Park H.J., Kim W.Y., Yun D.J. A new insight of salt stress signaling in plant. Mol. Cells. 2016;39:447. doi: 10.14348/molcells.2016.0083. [DOI] [PMC free article] [PubMed] [Google Scholar]
27.Reddy I.N.B.L., Kim B.K., Yoon I.S., Kim K.H., Kwon T.R. Salt tolerance in rice: Focus on mechanisms and approaches. Rice Sci. 2017;24:123–144. doi: 10.1016/j.rsci.2016.09.004. [DOI] [Google Scholar]
28.Puranik S., Sahu P.P., Srivastava P.S., Prasad M. NAC proteins: Regulation and role in stress tolerance. Trends Plant Sci. 2012;17:369–381. doi: 10.1016/j.tplants.2012.02.004. [DOI] [PubMed] [Google Scholar]
29.Li B., Fan R., Guo S., Wang P., Zhu X., Fan Y., Chen Y., He K., Kumar A., Shi J., et al. The Arabidopsis MYB transcription factor, MYB111 modulates salt responses by regulating flavonoid biosynthesis. Environ. Exp. Bot. 2019;166:103807. doi: 10.1016/j.envexpbot.2019.103807. [DOI] [Google Scholar]
30.Wang L., Li Z., Lu M., Wang Y. ThNAC13, a NAC transcription factor from Tamarix hispida, confers salt and osmotic stress tolerance to transgenic Tamarix and Arabidopsis. Front. Plant Sci. 2017;8:635. doi: 10.3389/fpls.2017.00635. [DOI] [PMC free article] [PubMed] [Google Scholar]
31.Guan H., Liu X., Niu F., Zhao Q., Fan N., Cao D., Meng D., He W., Guo B., Wei Y., et al. OoNAC72, a NAC-type Oxytropis ochrocephala transcription factor, conferring enhanced drought and salt stress tolerance in Arabidopsis. Front. Plant Sci. 2019;10:890. doi: 10.3389/fpls.2019.00890. [DOI] [PMC free article] [PubMed] [Google Scholar]
32.Li M., Chen R., Jiang Q., Sun X., Zhang H., Hu Z. GmNAC06, a NAC domain transcription factor enhances salt stress tolerance in soybean. Plant Mol. Biol. 2021;105:333–345. doi: 10.1007/s11103-020-01091-y. [DOI] [PMC free article] [PubMed] [Google Scholar]
33.Abid M., Zhang Y.J., Li Z., Bai D.F., Zhong Y.P., Fang J.B. Effect of salt stress on growth, physiological and biochemical characters of four kiwifruit genotypes. Sci. Hortic. 2020;271:109473. doi: 10.1016/j.scienta.2020.109473. [DOI] [Google Scholar]
34.Baruah P.M., Krishnatreya D.B., Bordoloi K.S., Gill S.S., Agarwala N. Genome wide identification and characterization of abiotic stress responsive lncRNAs in Capsicum annuum. Plant Physiol. Biochem. 2021;162:221–236. doi: 10.1016/j.plaphy.2021.02.031. [DOI] [PubMed] [Google Scholar]
35.Jiang M., Chen H., Liu J., Du Q., Lu S., Liu C. Genome-wide identification and functional characterization of natural antisense transcripts in Salvia miltiorrhiza. Sci. Rep. 2021;11:1–14. doi: 10.1038/s41598-021-83520-6. [DOI] [PMC free article] [PubMed] [Google Scholar]
36.Kesawat M.S., Kherawat B.S., Singh A., Dey P., Kabi M., Debnath D., Kumar M. Genome-wide identification and characterization of the brassinazole-resistant (BZR) gene family and its expression in the various developmental stage and stress conditions in wheat (Triticum aestivum L.) Int. J. Mol. Sci. 2021;22:8743. doi: 10.3390/ijms22168743. [DOI] [PMC free article] [PubMed] [Google Scholar]
37.Kumar M., Kherawat B.S., Dey P., Saha D., Singh A., Bhatia S.K., Kesawat M.S. Genome-Wide Identification and Characterization of PIN-FORMED (PIN) Gene Family Reveals Role in Developmental and Various Stress Conditions in Triticum aestivum L. Int. J. Mol. Sci. 2021;22:7396. doi: 10.3390/ijms22147396. [DOI] [PMC free article] [PubMed] [Google Scholar]
38.Tong T., Fang Y.X., Zhang Z., Zheng J., Zhang X., Li J., Zhang X. Genome-wide identification and expression pattern analysis of the KCS gene family in barley. Plant Growth Regul. 2021;93:89–103. doi: 10.1007/s10725-020-00668-3. [DOI] [Google Scholar]
39.Wang M., Chen B., Zhou W., Xie L., Wang L., Zhang Y., Zhang Q. Genome-wide identification and expression analysis of the AT-hook Motif Nuclear Localized gene family in soybean. BMC Genom. 2021;22:1–26. doi: 10.1186/s12864-021-07687-y. [DOI] [PMC free article] [PubMed] [Google Scholar]
40.Olsen A.N., Ernst H.A., Leggio L.L., Skriver K. NAC transcription factors: Structurally distinct, functionally diverse. Trends Plant Sci. 2005;10:79–87. doi: 10.1016/j.tplants.2004.12.010. [DOI] [PubMed] [Google Scholar]
41.Nie G., Yang X., Yang Z., Zhong M., Zhu Y., Zhou J., Appiah C., Liao Z., Feng G., Zhang X. Genome-wide investigation of the NAC transcript factor family in perennial ryegrass (Lolium perenne L.) and expression analysis under various abiotic stressor. Genomics. 2020;112:4224–4231. doi: 10.1016/j.ygeno.2020.06.033. [DOI] [PubMed] [Google Scholar]
42.Fang Y., You J., Xie K., Xie W., Xiong L. Systematic sequence analysis and identification of tissue-specific or stress-responsive genes of NAC transcription factor family in rice. Mol. Genet. Genom. 2008;280:547–563. doi: 10.1007/s00438-008-0386-6. [DOI] [PubMed] [Google Scholar]
43.Hu W., Wei Y., Xia Z., Yan Y., Hou X., Zou M., Lu C., Wang W., Peng M. Genome-wide identification and expression analysis of the NAC transcription factor family in cassava. PLoS ONE. 2015;10:e0136993. doi: 10.1371/journal.pone.0136993. [DOI] [PMC free article] [PubMed] [Google Scholar]
44.Ooka H., Satoh K., Doi K., Nagata T., Otomo Y., Murakami K., Matsubara K., Osato N., Kawai J., Carninci P., et al. Comprehensive analysis of NAC family genes in Oryza sativa and Arabidopsis thaliana. DNA Res. 2003;10:239–247. doi: 10.1093/dnares/10.6.239. [DOI] [PubMed] [Google Scholar]
45.Baranwal V.K., Khurana P. Genome-wide analysis, expression dynamics and varietal comparison of NAC gene family at various developmental stages in Morus notabilis. Mol. Genet. Genom. 2016;291:1305–1317. doi: 10.1007/s00438-016-1186-z. [DOI] [PubMed] [Google Scholar]
46.Duan A.Q., Yang X.L., Feng K., Liu J.X., Xu Z.S., Xiong A.S. Genome-wide analysis of NAC transcription factors and their response to abiotic stress in celery (Apium graveolens L.) Comput. Biol. Chem. 2020;84:107186. doi: 10.1016/j.compbiolchem.2019.107186. [DOI] [PubMed] [Google Scholar]
47.Wang J., Hu Z., Zhao T., Yang Y., Chen T., Yang M., Yu W., Zhang B. Genome-wide analysis of bHLH transcription factor and involvement in the infection by yellow leaf curl virus in tomato (Solanum lycopersicum) BMC Genom. 2015;16:1–14. doi: 10.1186/s12864-015-1249-2. [DOI] [PMC free article] [PubMed] [Google Scholar]
48.Toledo-Ortiz G., Huq E., Quail P.H. The Arabidopsis basic/helix-loop-helix transcription factor family. Plant Cell. 2003;15:1749–1770. doi: 10.1105/tpc.013839. [DOI] [PMC free article] [PubMed] [Google Scholar]
49.Heim M.A., Jakoby M., Werber M., Martin C., Weisshaar B., Bailey P.C. The basic helix-loop-helix transcription factor family in plants: A genome-wide study of protein structure and functional diversity. Mol. Biol. Evol. 2003;20:735–747. doi: 10.1093/molbev/msg088. [DOI] [PubMed] [Google Scholar]
50.Shan X., Yang K., Xu X., Zhu C., Gao Z. Genome-wide investigation of the NAC gene family and its potential association with the secondary cell wall in moso bamboo. Biomolecules. 2019;9:609. doi: 10.3390/biom9100609. [DOI] [PMC free article] [PubMed] [Google Scholar]
51.Ernst H.A., Olsen A.N., Skriver K., Larsen S., Lo Leggio L. Structure of the conserved domain of ANAC, a member of the NAC family of transcription factors. EMBO Rep. 2004;5:297–303. doi: 10.1038/sj.embor.7400093. [DOI] [PMC free article] [PubMed] [Google Scholar]
52.Olsen A.N., Ernst H.A., Leggio L.L., Skriver K. DNA-binding specificity and molecular functions of NAC transcription factors. Plant Sci. 2005;169:785–797. doi: 10.1016/j.plantsci.2005.05.035. [DOI] [PubMed] [Google Scholar]
53.Chen Q., Wang Q., Xiong L., Lou Z. A structural view of the conserved domain of rice stress-responsive NAC1. Protein Cell. 2011;2:55–63. doi: 10.1007/s13238-011-1010-9. [DOI] [PMC free article] [PubMed] [Google Scholar]
54.Hu H., Dai M., Yao J., Xiao B., Li X., Zhang Q., Xiong L. Overexpressing a NAM, ATAF, and CUC (NAC) transcription factor enhances drought resistance and salt tolerance in rice. Proc. Natl. Acad. Sci. USA. 2006;103:12987–12992. doi: 10.1073/pnas.0604882103. [DOI] [PMC free article] [PubMed] [Google Scholar]
55.Zhang X.M., Yu H.J., Sun C., Deng J., Zhang X., Liu P., Li Y., Li Q., Jiang W.J. Genome-wide characterization and expression profiling of the NAC genes under abiotic stresses in Cucumis sativus. Plant Physiol. Biochem. 2017;113:98–109. doi: 10.1016/j.plaphy.2017.01.023. [DOI] [PubMed] [Google Scholar]
56.Zhao F., Li G., Hu P., Zhao X., Li L., Wei W., Zhou H. Identification of basic/helix-loop-helix transcription factors reveals candidate genes involved in anthocyanin biosynthesis from the strawberry white-flesh mutant. Sci. Rep. 2018;8:2721. doi: 10.1038/s41598-018-21136-z. [DOI] [PMC free article] [PubMed] [Google Scholar]
57.Nakabayashi R., Yonekura-Sakakibara K., Urano K., Suzuki M., Yamada Y., Nishizawa T., Matsuda F., Kojima M., Sakakibara H., Shinozaki K., et al. Enhancement of oxidative and drought tolerance in Arabidopsis by overaccumulation of antioxidant flavonoids. Plant J. 2014;77:367–379. doi: 10.1111/tpj.12388. [DOI] [PMC free article] [PubMed] [Google Scholar]
58.Lei X., Liu Z., Li X., Tan B., Wu J., Gao C. Screening and functional identification of salt tolerance HMG genes in Betula platyphylla. Environ. Exp. Bot. 2021;181:104235. doi: 10.1016/j.envexpbot.2020.104235. [DOI] [Google Scholar]
59.Fang J., Zhong C. Fruit scientific research in New China in the past 70 years: Kiwifruit. J. Fruit Sci. 2019;36:1352–1359. [Google Scholar]
60.He Q., Liu Y., Zhang M., Bai M., Priyadarshani S.V.G.N., Chai M., Chen F., Huang Y., Liu L., Cai H., et al. Genome-wide identification and expression analysis of the NAC transcription factor family in pineapple. Trop. Plant Biol. 2019;12:255–267. doi: 10.1007/s12042-019-09233-3. [DOI] [Google Scholar]
61.Liu Y., Sun J., Wu Y. Arabidopsis ATAF1 enhances the tolerance to salt stress and ABA in transgenic rice. J. Plant Res. 2016;129:955–962. doi: 10.1007/s10265-016-0833-0. [DOI] [PubMed] [Google Scholar]
62.Al-Abdallat A.M., Ali-Sheikh-Omar M.A., Alnemer L.M. Overexpression of two ATNAC3-related genes improves drought and salt tolerance in tomato (Solanum lycopersicum L.) Plant Cell Tissue Organ Cult. 2015;120:989–1001. doi: 10.1007/s11240-014-0652-8. [DOI] [Google Scholar]
63.Wang H., Li T., Li W., Wang W., Zhao H. Identification and analysis of Chrysanthemum nankingense NAC transcription factors and an expression analysis of OsNAC7 subfamily members. PeerJ. 2021;9:e11505. doi: 10.7717/peerj.11505. [DOI] [PMC free article] [PubMed] [Google Scholar]
64.Liu X., Baird W.V. Differential expression of genes regulated in response to drought or salinity stress in sunflower. Crop. Sci. 2003;43:678–687. [Google Scholar]
65.Peng H., Yu X., Cheng H., Shi Q., Zhang H., Li J., Ma H. Cloning and characterization of a novel NAC family gene CarNAC1 from chickpea (Cicer arietinum L.) Mol. Biotechnol. 2010;44:30. doi: 10.1007/s12033-009-9202-8. [DOI] [PubMed] [Google Scholar]
66.Zhong H., Guo Q.Q., Chen L., Ren F., Wang Q.Q., Zheng Y., Li X.B. Two Brassica napus genes encoding NAC transcription factors are involved in response to high-salinity stress. Plant Cell Rep. 2012;31:1991–2003. doi: 10.1007/s00299-012-1311-3. [DOI] [PubMed] [Google Scholar]
67.Huang H., Wang Y., Wang S., Wu X., Yang K., Niu Y., Dai S. Transcriptome-wide survey and expression analysis of stress-responsive NAC genes in Chrysanthemum lavandulifolium. Plant Sci. 2012;193:18–27. doi: 10.1016/j.plantsci.2012.05.004. [DOI] [PubMed] [Google Scholar]
68.Dong F., Huang H., Liu J., Zhang M., Zhou Y., Dai S. Cloning and function analysis of ClNAC9 from Chrysanthemum lavandulifolium. Can. J. Plant Sci. 2018;98:1265–1279. doi: 10.1139/cjps-2017-0349. [DOI] [Google Scholar]
69.Liu Y., He M., Dong F., Cai Y., Gao W., Zhou Y., Huang H., Dai S. The Chrysanthemum lavandulifolium ClNAC9 Gene Positively Regulates Saline, Alkaline, and Drought Stress in Transgenic Chrysanthemum grandiflora. J. Am. Soc. Hortic. Sci. 2019;144:280–288. doi: 10.21273/JASHS04697-19. [DOI] [Google Scholar]
70.Wang Y., Cao S., Guan C., Kong X., Wang Y., Cui Y., Liu B., Zhou Y., Zhang Y. Overexpressing the NAC transcription factor LpNAC13 from Lilium pumilum in tobacco negatively regulates the drought response and positively regulates the salt response. Plant Physiol. Biochem. 2020;149:96–110. doi: 10.1016/j.plaphy.2020.01.036. [DOI] [PubMed] [Google Scholar]
71.Singh A.K., Sharma V., Pal A.K., Acharya V., Ahuja P.S. Genome-wide organization and expression profiling of the NAC transcription factor family in potato (Solanum tuberosum L.) DNA Res. 2013;20:403–423. doi: 10.1093/dnares/dst019. [DOI] [PMC free article] [PubMed] [Google Scholar]
72.Wojcik K.A., Kaminska A., Blasiak J., Szaflik J., Szaflik J.P. Oxidative stress in the pathogenesis of keratoconus and Fuchs endothelial corneal dystrophy. Int. J. Mol. Sci. 2013;14:19294–19308. doi: 10.3390/ijms140919294. [DOI] [PMC free article] [PubMed] [Google Scholar]
73.Jin C., Li K.Q., Xu X.Y., Zhang H.P., Chen H.X., Chen Y.H., Hao J., Wang Y., Huang X.S., Zhang S.L. A novel NAC transcription factor, PbeNAC1, of Pyrus betulifolia confers cold and drought tolerance via interacting with PbeDREBs and activating the expression of stress-responsive genes. Front. Plant Sci. 2017;8:1049. doi: 10.3389/fpls.2017.01049. [DOI] [PMC free article] [PubMed] [Google Scholar]
74.Nguyen N.H., Kim J.H., Kwon J., Jeong C.Y., Lee W., Lee D., Hong S.W., Lee H. Characterization of Arabidopsis thaliana FLAVONOL SYNTHASE 1 (FLS1)-overexpression plants in response to abiotic stress. Plant Physiol. Biochem. 2016;103:133–142. doi: 10.1016/j.plaphy.2016.03.010. [DOI] [PubMed] [Google Scholar]
75.Yao W., Wang L., Zhou B., Wang S., Li R., Jiang T. Over-expression of poplar transcription factor ERF76 gene confers salt tolerance in transgenic tobacco. J. Plant Physiol. 2016;198:23–31. doi: 10.1016/j.jplph.2016.03.015. [DOI] [PubMed] [Google Scholar]
76.Jin T., Chang Q., Li W., Yin D., Li Z., Wang D., Liu B., Liu L. Stress-inducible expression of GmDREB1 conferred salt tolerance in transgenic alfalfa. Plant Cell Tissue Organ Cult. 2010;100:219–227. doi: 10.1007/s11240-009-9628-5. [DOI] [Google Scholar]
77.Peng J., Li Z., Wen X., Li W., Shi H., Yang L., Zhu H., Guo H. Salt-induced stabilization of EIN3/EIL1 confers salinity tolerance by deterring ROS accumulation in Arabidopsis. PLoS Genet. 2014;10:e1004664. doi: 10.1371/journal.pgen.1004664. [DOI] [PMC free article] [PubMed] [Google Scholar]
78.Huang P., Chung M.S., Ju H.W., Na H.S., Lee D.J., Cheong H.S., Kim C.S. Physiological characterization of the Arabidopsis thaliana oxidation-related zinc finger 1, a plasma membrane protein involved in oxidative stress. J. Plant Res. 2011;124:699–705. doi: 10.1007/s10265-010-0397-3. [DOI] [PubMed] [Google Scholar]
79.Wagner U., Edwards R., Dixon D.P., Mauch F. Probing the diversity of the Arabidopsis glutathione S-transferase gene family. Plant Mol. Biol. 2002;49:515–532. doi: 10.1023/A:1015557300450. [DOI] [PubMed] [Google Scholar]
80.Kim G.B., Nam Y.W. A novel Δ1-pyrroline-5-carboxylate synthetase gene of Medicago truncatula plays a predominant role in stress-induced proline accumulation during symbiotic nitrogen fixation. J. Plant Physiol. 2013;170:291–302. doi: 10.1016/j.jplph.2012.10.004. [DOI] [PubMed] [Google Scholar]
81.Wang N., Zhang W., Qin M., Li S., Qiao M., Liu Z., Xiang F. Drought tolerance conferred in soybean (Glycine max. L.) by GmMYB84, a novel R2R3-MYB transcription factor. Plant Cell Physiol. 2017;58:1764–1776. doi: 10.1093/pcp/pcx111. [DOI] [PubMed] [Google Scholar]
82.Zhang Y., Zhang Y.J., Yang B.J., Yu X.X., Wang D., Zu S.H., Xue H.W., Lin W.H. Functional characterization of GmBZL2 (AtBZR1 like gene) reveals the conserved BR signaling regulation in Glycine max. Sci. Rep. 2016;6:1–14. doi: 10.1038/srep31134. [DOI] [PMC free article] [PubMed] [Google Scholar]
83.Zhishen J., Mengcheng T., Jianming W. The determination of flavonoid contents in mulberry and their scavenging effects on superoxide radicals. Food Chem. 1999;64:555–559. doi: 10.1016/S0308-8146(98)00102-2. [DOI] [Google Scholar]
84.Su L., Dai Z., Li S., Xin H. A novel system for evaluating drought-cold tolerance of grapevines using chlorophyll fluorescence. BMC Plant Biol. 2015;15:1–12. doi: 10.1186/s12870-015-0459-8. [DOI] [PMC free article] [PubMed] [Google Scholar]
85.Liu Z.J., Guo Y.K., Bai J.G. Exogenous hydrogen peroxide changes antioxidant enzyme activity and protects ultrastructure in leaves of two cucumber ecotypes under osmotic stress. J. Plant Growth Regul. 2010;29:171–183. doi: 10.1007/s00344-009-9121-8. [DOI] [Google Scholar]
86.Elstner E.F., Heupel A. Inhibition of nitrite formation from hydroxylammoniumchloride: A simple assay for superoxide dismutase. Anal. Biochem. 1976;70:616–620. doi: 10.1016/0003-2697(76)90488-7. [DOI] [PubMed] [Google Scholar]
87.Ben-Amor M., Flores B., Latché A., Bouzayen M., Pech J.C., Fomojaro F. Inhibition of ethylene biosynthesis by antisense ACC oxidase RNA prevents chilling injury in Charentais cantaloupe melons. Plant Cell Environ. 1999;22:1579–1586. doi: 10.1046/j.1365-3040.1999.00509.x. [DOI] [Google Scholar]
88.Meng X., Liu S., Dong T., Xu T., Ma D., Pan S., Li Z., Zhu M. Comparative transcriptome and proteome analysis of salt-tolerant and salt-sensitive sweet potato and overexpression of IbNAC7 confers salt tolerance in Arabidopsis. Front. Plant Sci. 2020;11:1342. doi: 10.3389/fpls.2020.572540. [DOI] [PMC free article] [PubMed] [Google Scholar]

Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Data Availability Statement

Sequence data from this work can be found in the NCBI database (SRA data).

[B1-ijms-22-11897] 1.Zhao C., Zhang H., Song C., Zhu J.K., Shabala S. Mechanisms of plant responses and adaptation to soil salinity. Innovation. 2020;1:100017. doi: 10.1016/j.xinn.2020.100017. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B2-ijms-22-11897] 2.Rengasamy P. World salinization with emphasis on Australia. J. Exp. Bot. 2006;57:1017–1023. doi: 10.1093/jxb/erj108. [DOI] [PubMed] [Google Scholar]

[B3-ijms-22-11897] 3.Hanin M., Ebel C., Ngom M., Laplaze L., Masmoudi K. New insights on plant salt tolerance mechanisms and their potential use for breeding. Front. Plant Sci. 2016;7:1787. doi: 10.3389/fpls.2016.01787. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B4-ijms-22-11897] 4.Munns R., Tester M. Mechanisms of salinity tolerance. Annu. Rev. Plant Biol. 2008;59:651–681. doi: 10.1146/annurev.arplant.59.032607.092911. [DOI] [PubMed] [Google Scholar]

[B5-ijms-22-11897] 5.Slama I., Abdelly C., Bouchereau A., Flowers T., Savouré A. Diversity, distribution and roles of osmoprotective compounds accumulated in halophytes under abiotic stress. Ann. Bot. 2015;115:433–447. doi: 10.1093/aob/mcu239. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B6-ijms-22-11897] 6.FAO FAO Soils Portal. 2016. [(accessed on 18 March 2021)]. Available online: http://www.fao.org/soils-portal/soil-management/management-of-some-problem-soils/salt-affected-soils/more-information-on-salt-affected-soils/en/

[B7-ijms-22-11897] 7.Muchate N.S., Nikalje G.C., Rajurkar N.S., Suprasanna P., Nikam T.D. Plant salt stress: Adaptive responses, tolerance mechanism and bioengineering for salt tolerance. Bot. Rev. 2016;82:371–406. doi: 10.1007/s12229-016-9173-y. [DOI] [Google Scholar]

[B8-ijms-22-11897] 8.Nimbolkar P.K., Awachare C., Reddy Y.T.N., Chander S., Hussain F. Role of rootstocks in fruit production—A review. J. Agric. Eng. Food Technol. 2016;3:183–188. [Google Scholar]

[B9-ijms-22-11897] 9.Perrino E.V., Valerio F., Jallali S., Trani A., Mezzapesa G.N. Ecological and Biological Properties of Satureja cuneifolia Ten. and Thymus spinulosus Ten.: Two Wild Officinal Species of Conservation Concern in Apulia (Italy). A Preliminary Survey. Plants. 2021;10:1952. doi: 10.3390/plants10091952. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B10-ijms-22-11897] 10.Li Y., Fang J., Qi X., Lin M., Zhong Y., Sun L. A key structural gene, AaLDOX, is involved in anthocyanin biosynthesis in all red-fleshed kiwifruit (Actinidia arguta) based on transcriptome analysis. Gene. 2018;648:31–41. doi: 10.1016/j.gene.2018.01.022. [DOI] [PubMed] [Google Scholar]

[B11-ijms-22-11897] 11.Huang H.W., Ferguson A.R. Actinidia in China: Natural diversity, phylogeographical evolution, interspecific gene flow and kiwifruit cultivar improvement. Acta Hortic. 2007;753:31–40. doi: 10.17660/ActaHortic.2007.753.1. [DOI] [Google Scholar]

[B12-ijms-22-11897] 12.Li D., Liu Y., Li X., Rao J., Yao X., Zhong C. Genetic diversity in kiwifruit polyploid complexes: Insights into cultivar evaluation, conservation, and utilization. Tree Genet. Genomes. 2014;10:1451–1463. doi: 10.1007/s11295-014-0773-6. [DOI] [Google Scholar]

[B13-ijms-22-11897] 13.Ferguson A.R., Huang H. Genetic resources of kiwifruit: Domestication and breeding. Hortic. Rev. 2007;33:1–121. [Google Scholar]

[B14-ijms-22-11897] 14.Fu Q., Gu J., Li Y., Qian X., Sun W., Wang X., Lei Y. Analyses of microbial biomass and community diversity in kiwifruit orchard soils of different planting ages. Acta Ecol. Sin. 2015;35:22–28. doi: 10.1016/j.chnaes.2015.04.002. [DOI] [Google Scholar]

[B15-ijms-22-11897] 15.Jing Z., Lei Y., Li Y., Li L. Study on the allocation patterns of above-and below-ground biomass of Actinidia chinensis in northern area of Qinling. J. Fruit Sci. 2016;33:52–58. [Google Scholar]

[B16-ijms-22-11897] 16.Chen J., Fang J., Qi X., Gu H., Lin M., Zhang W., Wei C. Research progress on rootstock of kiwifruit. J. Fruit Sci. 2015;32:959–968. [Google Scholar]

[B17-ijms-22-11897] 17.Deinlein U., Stephan A.B., Horie T., Luo W., Xu G., Schroeder J.I. Plant salt-tolerance mechanisms. Trends Plant Sci. 2014;19:371–379. doi: 10.1016/j.tplants.2014.02.001. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B18-ijms-22-11897] 18.Zelm E.V., Zhang Y., Testerink C. Salt tolerance mechanisms of plants. Annu. Rev. Plant Biol. 2020;71:403–433. doi: 10.1146/annurev-arplant-050718-100005. [DOI] [PubMed] [Google Scholar]

[B19-ijms-22-11897] 19.Han G., Yuan F., Guo J., Zhang Y., Sui N., Wang B. AtSIZ1 improves salt tolerance by maintaining ionic homeostasis and osmotic balance in Arabidopsis. Plant Sci. 2019;285:55–67. doi: 10.1016/j.plantsci.2019.05.002. [DOI] [PubMed] [Google Scholar]

[B20-ijms-22-11897] 20.Zhang X., Chen L., Shi Q., Ren Z. SlMYB102, an R2R3-type MYB gene, confers salt tolerance in transgenic tomato. Plant Sci. 2020;291:110356. doi: 10.1016/j.plantsci.2019.110356. [DOI] [PubMed] [Google Scholar]

[B21-ijms-22-11897] 21.Wang J., Zhang L., Wang X., Liu L., Lin X., Wang W., Qi C., Cao Y., Li S., Ren S., et al. PvNAC1 increases biomass and enhances salt tolerance by decreasing Na+ accumulation and promoting ROS scavenging in switchgrass (Panicum virgatum L.) Plant Sci. 2019;280:66–76. doi: 10.1016/j.plantsci.2018.11.007. [DOI] [PubMed] [Google Scholar]

[B22-ijms-22-11897] 22.Tian N., Wang J., Xu Z.Q. Overexpression of Na+/H+ antiporter gene AtNHX1 from Arabidopsis thaliana improves the salt tolerance of kiwifruit (Actinidia deliciosa) S. Afr. J. Bot. 2011;77:160–169. doi: 10.1016/j.sajb.2010.07.010. [DOI] [Google Scholar]

[B23-ijms-22-11897] 23.Yang Y., Guo Y. Elucidating the molecular mechanisms mediating plant salt-stress responses. New Phytol. 2018;217:523–539. doi: 10.1111/nph.14920. [DOI] [PubMed] [Google Scholar]

[B24-ijms-22-11897] 24.Yang Y., Guo Y. Unraveling salt stress signaling in plants. J. Integr. Plant Biol. 2018;60:796–804. doi: 10.1111/jipb.12689. [DOI] [PubMed] [Google Scholar]

[B25-ijms-22-11897] 25.Kaleem F., Shabir G., Aslam K., Rasul S., Manzoor H., Shah S.M., Khan A.R. An overview of the genetics of plant response to salt stress: Present status and the way forward. Appl. Biochem. Biotechnol. 2018;186:306–334. doi: 10.1007/s12010-018-2738-y. [DOI] [PubMed] [Google Scholar]

[B26-ijms-22-11897] 26.Park H.J., Kim W.Y., Yun D.J. A new insight of salt stress signaling in plant. Mol. Cells. 2016;39:447. doi: 10.14348/molcells.2016.0083. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B27-ijms-22-11897] 27.Reddy I.N.B.L., Kim B.K., Yoon I.S., Kim K.H., Kwon T.R. Salt tolerance in rice: Focus on mechanisms and approaches. Rice Sci. 2017;24:123–144. doi: 10.1016/j.rsci.2016.09.004. [DOI] [Google Scholar]

[B28-ijms-22-11897] 28.Puranik S., Sahu P.P., Srivastava P.S., Prasad M. NAC proteins: Regulation and role in stress tolerance. Trends Plant Sci. 2012;17:369–381. doi: 10.1016/j.tplants.2012.02.004. [DOI] [PubMed] [Google Scholar]

[B29-ijms-22-11897] 29.Li B., Fan R., Guo S., Wang P., Zhu X., Fan Y., Chen Y., He K., Kumar A., Shi J., et al. The Arabidopsis MYB transcription factor, MYB111 modulates salt responses by regulating flavonoid biosynthesis. Environ. Exp. Bot. 2019;166:103807. doi: 10.1016/j.envexpbot.2019.103807. [DOI] [Google Scholar]

[B30-ijms-22-11897] 30.Wang L., Li Z., Lu M., Wang Y. ThNAC13, a NAC transcription factor from Tamarix hispida, confers salt and osmotic stress tolerance to transgenic Tamarix and Arabidopsis. Front. Plant Sci. 2017;8:635. doi: 10.3389/fpls.2017.00635. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B31-ijms-22-11897] 31.Guan H., Liu X., Niu F., Zhao Q., Fan N., Cao D., Meng D., He W., Guo B., Wei Y., et al. OoNAC72, a NAC-type Oxytropis ochrocephala transcription factor, conferring enhanced drought and salt stress tolerance in Arabidopsis. Front. Plant Sci. 2019;10:890. doi: 10.3389/fpls.2019.00890. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B32-ijms-22-11897] 32.Li M., Chen R., Jiang Q., Sun X., Zhang H., Hu Z. GmNAC06, a NAC domain transcription factor enhances salt stress tolerance in soybean. Plant Mol. Biol. 2021;105:333–345. doi: 10.1007/s11103-020-01091-y. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B33-ijms-22-11897] 33.Abid M., Zhang Y.J., Li Z., Bai D.F., Zhong Y.P., Fang J.B. Effect of salt stress on growth, physiological and biochemical characters of four kiwifruit genotypes. Sci. Hortic. 2020;271:109473. doi: 10.1016/j.scienta.2020.109473. [DOI] [Google Scholar]

[B34-ijms-22-11897] 34.Baruah P.M., Krishnatreya D.B., Bordoloi K.S., Gill S.S., Agarwala N. Genome wide identification and characterization of abiotic stress responsive lncRNAs in Capsicum annuum. Plant Physiol. Biochem. 2021;162:221–236. doi: 10.1016/j.plaphy.2021.02.031. [DOI] [PubMed] [Google Scholar]

[B35-ijms-22-11897] 35.Jiang M., Chen H., Liu J., Du Q., Lu S., Liu C. Genome-wide identification and functional characterization of natural antisense transcripts in Salvia miltiorrhiza. Sci. Rep. 2021;11:1–14. doi: 10.1038/s41598-021-83520-6. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B36-ijms-22-11897] 36.Kesawat M.S., Kherawat B.S., Singh A., Dey P., Kabi M., Debnath D., Kumar M. Genome-wide identification and characterization of the brassinazole-resistant (BZR) gene family and its expression in the various developmental stage and stress conditions in wheat (Triticum aestivum L.) Int. J. Mol. Sci. 2021;22:8743. doi: 10.3390/ijms22168743. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B37-ijms-22-11897] 37.Kumar M., Kherawat B.S., Dey P., Saha D., Singh A., Bhatia S.K., Kesawat M.S. Genome-Wide Identification and Characterization of PIN-FORMED (PIN) Gene Family Reveals Role in Developmental and Various Stress Conditions in Triticum aestivum L. Int. J. Mol. Sci. 2021;22:7396. doi: 10.3390/ijms22147396. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B38-ijms-22-11897] 38.Tong T., Fang Y.X., Zhang Z., Zheng J., Zhang X., Li J., Zhang X. Genome-wide identification and expression pattern analysis of the KCS gene family in barley. Plant Growth Regul. 2021;93:89–103. doi: 10.1007/s10725-020-00668-3. [DOI] [Google Scholar]

[B39-ijms-22-11897] 39.Wang M., Chen B., Zhou W., Xie L., Wang L., Zhang Y., Zhang Q. Genome-wide identification and expression analysis of the AT-hook Motif Nuclear Localized gene family in soybean. BMC Genom. 2021;22:1–26. doi: 10.1186/s12864-021-07687-y. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B40-ijms-22-11897] 40.Olsen A.N., Ernst H.A., Leggio L.L., Skriver K. NAC transcription factors: Structurally distinct, functionally diverse. Trends Plant Sci. 2005;10:79–87. doi: 10.1016/j.tplants.2004.12.010. [DOI] [PubMed] [Google Scholar]

[B41-ijms-22-11897] 41.Nie G., Yang X., Yang Z., Zhong M., Zhu Y., Zhou J., Appiah C., Liao Z., Feng G., Zhang X. Genome-wide investigation of the NAC transcript factor family in perennial ryegrass (Lolium perenne L.) and expression analysis under various abiotic stressor. Genomics. 2020;112:4224–4231. doi: 10.1016/j.ygeno.2020.06.033. [DOI] [PubMed] [Google Scholar]

[B42-ijms-22-11897] 42.Fang Y., You J., Xie K., Xie W., Xiong L. Systematic sequence analysis and identification of tissue-specific or stress-responsive genes of NAC transcription factor family in rice. Mol. Genet. Genom. 2008;280:547–563. doi: 10.1007/s00438-008-0386-6. [DOI] [PubMed] [Google Scholar]

[B43-ijms-22-11897] 43.Hu W., Wei Y., Xia Z., Yan Y., Hou X., Zou M., Lu C., Wang W., Peng M. Genome-wide identification and expression analysis of the NAC transcription factor family in cassava. PLoS ONE. 2015;10:e0136993. doi: 10.1371/journal.pone.0136993. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B44-ijms-22-11897] 44.Ooka H., Satoh K., Doi K., Nagata T., Otomo Y., Murakami K., Matsubara K., Osato N., Kawai J., Carninci P., et al. Comprehensive analysis of NAC family genes in Oryza sativa and Arabidopsis thaliana. DNA Res. 2003;10:239–247. doi: 10.1093/dnares/10.6.239. [DOI] [PubMed] [Google Scholar]

[B45-ijms-22-11897] 45.Baranwal V.K., Khurana P. Genome-wide analysis, expression dynamics and varietal comparison of NAC gene family at various developmental stages in Morus notabilis. Mol. Genet. Genom. 2016;291:1305–1317. doi: 10.1007/s00438-016-1186-z. [DOI] [PubMed] [Google Scholar]

[B46-ijms-22-11897] 46.Duan A.Q., Yang X.L., Feng K., Liu J.X., Xu Z.S., Xiong A.S. Genome-wide analysis of NAC transcription factors and their response to abiotic stress in celery (Apium graveolens L.) Comput. Biol. Chem. 2020;84:107186. doi: 10.1016/j.compbiolchem.2019.107186. [DOI] [PubMed] [Google Scholar]

[B47-ijms-22-11897] 47.Wang J., Hu Z., Zhao T., Yang Y., Chen T., Yang M., Yu W., Zhang B. Genome-wide analysis of bHLH transcription factor and involvement in the infection by yellow leaf curl virus in tomato (Solanum lycopersicum) BMC Genom. 2015;16:1–14. doi: 10.1186/s12864-015-1249-2. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B48-ijms-22-11897] 48.Toledo-Ortiz G., Huq E., Quail P.H. The Arabidopsis basic/helix-loop-helix transcription factor family. Plant Cell. 2003;15:1749–1770. doi: 10.1105/tpc.013839. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B49-ijms-22-11897] 49.Heim M.A., Jakoby M., Werber M., Martin C., Weisshaar B., Bailey P.C. The basic helix-loop-helix transcription factor family in plants: A genome-wide study of protein structure and functional diversity. Mol. Biol. Evol. 2003;20:735–747. doi: 10.1093/molbev/msg088. [DOI] [PubMed] [Google Scholar]

[B50-ijms-22-11897] 50.Shan X., Yang K., Xu X., Zhu C., Gao Z. Genome-wide investigation of the NAC gene family and its potential association with the secondary cell wall in moso bamboo. Biomolecules. 2019;9:609. doi: 10.3390/biom9100609. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B51-ijms-22-11897] 51.Ernst H.A., Olsen A.N., Skriver K., Larsen S., Lo Leggio L. Structure of the conserved domain of ANAC, a member of the NAC family of transcription factors. EMBO Rep. 2004;5:297–303. doi: 10.1038/sj.embor.7400093. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B52-ijms-22-11897] 52.Olsen A.N., Ernst H.A., Leggio L.L., Skriver K. DNA-binding specificity and molecular functions of NAC transcription factors. Plant Sci. 2005;169:785–797. doi: 10.1016/j.plantsci.2005.05.035. [DOI] [PubMed] [Google Scholar]

[B53-ijms-22-11897] 53.Chen Q., Wang Q., Xiong L., Lou Z. A structural view of the conserved domain of rice stress-responsive NAC1. Protein Cell. 2011;2:55–63. doi: 10.1007/s13238-011-1010-9. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B54-ijms-22-11897] 54.Hu H., Dai M., Yao J., Xiao B., Li X., Zhang Q., Xiong L. Overexpressing a NAM, ATAF, and CUC (NAC) transcription factor enhances drought resistance and salt tolerance in rice. Proc. Natl. Acad. Sci. USA. 2006;103:12987–12992. doi: 10.1073/pnas.0604882103. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B55-ijms-22-11897] 55.Zhang X.M., Yu H.J., Sun C., Deng J., Zhang X., Liu P., Li Y., Li Q., Jiang W.J. Genome-wide characterization and expression profiling of the NAC genes under abiotic stresses in Cucumis sativus. Plant Physiol. Biochem. 2017;113:98–109. doi: 10.1016/j.plaphy.2017.01.023. [DOI] [PubMed] [Google Scholar]

[B56-ijms-22-11897] 56.Zhao F., Li G., Hu P., Zhao X., Li L., Wei W., Zhou H. Identification of basic/helix-loop-helix transcription factors reveals candidate genes involved in anthocyanin biosynthesis from the strawberry white-flesh mutant. Sci. Rep. 2018;8:2721. doi: 10.1038/s41598-018-21136-z. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B57-ijms-22-11897] 57.Nakabayashi R., Yonekura-Sakakibara K., Urano K., Suzuki M., Yamada Y., Nishizawa T., Matsuda F., Kojima M., Sakakibara H., Shinozaki K., et al. Enhancement of oxidative and drought tolerance in Arabidopsis by overaccumulation of antioxidant flavonoids. Plant J. 2014;77:367–379. doi: 10.1111/tpj.12388. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B58-ijms-22-11897] 58.Lei X., Liu Z., Li X., Tan B., Wu J., Gao C. Screening and functional identification of salt tolerance HMG genes in Betula platyphylla. Environ. Exp. Bot. 2021;181:104235. doi: 10.1016/j.envexpbot.2020.104235. [DOI] [Google Scholar]

[B59-ijms-22-11897] 59.Fang J., Zhong C. Fruit scientific research in New China in the past 70 years: Kiwifruit. J. Fruit Sci. 2019;36:1352–1359. [Google Scholar]

[B60-ijms-22-11897] 60.He Q., Liu Y., Zhang M., Bai M., Priyadarshani S.V.G.N., Chai M., Chen F., Huang Y., Liu L., Cai H., et al. Genome-wide identification and expression analysis of the NAC transcription factor family in pineapple. Trop. Plant Biol. 2019;12:255–267. doi: 10.1007/s12042-019-09233-3. [DOI] [Google Scholar]

[B61-ijms-22-11897] 61.Liu Y., Sun J., Wu Y. Arabidopsis ATAF1 enhances the tolerance to salt stress and ABA in transgenic rice. J. Plant Res. 2016;129:955–962. doi: 10.1007/s10265-016-0833-0. [DOI] [PubMed] [Google Scholar]

[B62-ijms-22-11897] 62.Al-Abdallat A.M., Ali-Sheikh-Omar M.A., Alnemer L.M. Overexpression of two ATNAC3-related genes improves drought and salt tolerance in tomato (Solanum lycopersicum L.) Plant Cell Tissue Organ Cult. 2015;120:989–1001. doi: 10.1007/s11240-014-0652-8. [DOI] [Google Scholar]

[B63-ijms-22-11897] 63.Wang H., Li T., Li W., Wang W., Zhao H. Identification and analysis of Chrysanthemum nankingense NAC transcription factors and an expression analysis of OsNAC7 subfamily members. PeerJ. 2021;9:e11505. doi: 10.7717/peerj.11505. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B64-ijms-22-11897] 64.Liu X., Baird W.V. Differential expression of genes regulated in response to drought or salinity stress in sunflower. Crop. Sci. 2003;43:678–687. [Google Scholar]

[B65-ijms-22-11897] 65.Peng H., Yu X., Cheng H., Shi Q., Zhang H., Li J., Ma H. Cloning and characterization of a novel NAC family gene CarNAC1 from chickpea (Cicer arietinum L.) Mol. Biotechnol. 2010;44:30. doi: 10.1007/s12033-009-9202-8. [DOI] [PubMed] [Google Scholar]

[B66-ijms-22-11897] 66.Zhong H., Guo Q.Q., Chen L., Ren F., Wang Q.Q., Zheng Y., Li X.B. Two Brassica napus genes encoding NAC transcription factors are involved in response to high-salinity stress. Plant Cell Rep. 2012;31:1991–2003. doi: 10.1007/s00299-012-1311-3. [DOI] [PubMed] [Google Scholar]

[B67-ijms-22-11897] 67.Huang H., Wang Y., Wang S., Wu X., Yang K., Niu Y., Dai S. Transcriptome-wide survey and expression analysis of stress-responsive NAC genes in Chrysanthemum lavandulifolium. Plant Sci. 2012;193:18–27. doi: 10.1016/j.plantsci.2012.05.004. [DOI] [PubMed] [Google Scholar]

[B68-ijms-22-11897] 68.Dong F., Huang H., Liu J., Zhang M., Zhou Y., Dai S. Cloning and function analysis of ClNAC9 from Chrysanthemum lavandulifolium. Can. J. Plant Sci. 2018;98:1265–1279. doi: 10.1139/cjps-2017-0349. [DOI] [Google Scholar]

[B69-ijms-22-11897] 69.Liu Y., He M., Dong F., Cai Y., Gao W., Zhou Y., Huang H., Dai S. The Chrysanthemum lavandulifolium ClNAC9 Gene Positively Regulates Saline, Alkaline, and Drought Stress in Transgenic Chrysanthemum grandiflora. J. Am. Soc. Hortic. Sci. 2019;144:280–288. doi: 10.21273/JASHS04697-19. [DOI] [Google Scholar]

[B70-ijms-22-11897] 70.Wang Y., Cao S., Guan C., Kong X., Wang Y., Cui Y., Liu B., Zhou Y., Zhang Y. Overexpressing the NAC transcription factor LpNAC13 from Lilium pumilum in tobacco negatively regulates the drought response and positively regulates the salt response. Plant Physiol. Biochem. 2020;149:96–110. doi: 10.1016/j.plaphy.2020.01.036. [DOI] [PubMed] [Google Scholar]

[B71-ijms-22-11897] 71.Singh A.K., Sharma V., Pal A.K., Acharya V., Ahuja P.S. Genome-wide organization and expression profiling of the NAC transcription factor family in potato (Solanum tuberosum L.) DNA Res. 2013;20:403–423. doi: 10.1093/dnares/dst019. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B72-ijms-22-11897] 72.Wojcik K.A., Kaminska A., Blasiak J., Szaflik J., Szaflik J.P. Oxidative stress in the pathogenesis of keratoconus and Fuchs endothelial corneal dystrophy. Int. J. Mol. Sci. 2013;14:19294–19308. doi: 10.3390/ijms140919294. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B73-ijms-22-11897] 73.Jin C., Li K.Q., Xu X.Y., Zhang H.P., Chen H.X., Chen Y.H., Hao J., Wang Y., Huang X.S., Zhang S.L. A novel NAC transcription factor, PbeNAC1, of Pyrus betulifolia confers cold and drought tolerance via interacting with PbeDREBs and activating the expression of stress-responsive genes. Front. Plant Sci. 2017;8:1049. doi: 10.3389/fpls.2017.01049. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B74-ijms-22-11897] 74.Nguyen N.H., Kim J.H., Kwon J., Jeong C.Y., Lee W., Lee D., Hong S.W., Lee H. Characterization of Arabidopsis thaliana FLAVONOL SYNTHASE 1 (FLS1)-overexpression plants in response to abiotic stress. Plant Physiol. Biochem. 2016;103:133–142. doi: 10.1016/j.plaphy.2016.03.010. [DOI] [PubMed] [Google Scholar]

[B75-ijms-22-11897] 75.Yao W., Wang L., Zhou B., Wang S., Li R., Jiang T. Over-expression of poplar transcription factor ERF76 gene confers salt tolerance in transgenic tobacco. J. Plant Physiol. 2016;198:23–31. doi: 10.1016/j.jplph.2016.03.015. [DOI] [PubMed] [Google Scholar]

[B76-ijms-22-11897] 76.Jin T., Chang Q., Li W., Yin D., Li Z., Wang D., Liu B., Liu L. Stress-inducible expression of GmDREB1 conferred salt tolerance in transgenic alfalfa. Plant Cell Tissue Organ Cult. 2010;100:219–227. doi: 10.1007/s11240-009-9628-5. [DOI] [Google Scholar]

[B77-ijms-22-11897] 77.Peng J., Li Z., Wen X., Li W., Shi H., Yang L., Zhu H., Guo H. Salt-induced stabilization of EIN3/EIL1 confers salinity tolerance by deterring ROS accumulation in Arabidopsis. PLoS Genet. 2014;10:e1004664. doi: 10.1371/journal.pgen.1004664. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B78-ijms-22-11897] 78.Huang P., Chung M.S., Ju H.W., Na H.S., Lee D.J., Cheong H.S., Kim C.S. Physiological characterization of the Arabidopsis thaliana oxidation-related zinc finger 1, a plasma membrane protein involved in oxidative stress. J. Plant Res. 2011;124:699–705. doi: 10.1007/s10265-010-0397-3. [DOI] [PubMed] [Google Scholar]

[B79-ijms-22-11897] 79.Wagner U., Edwards R., Dixon D.P., Mauch F. Probing the diversity of the Arabidopsis glutathione S-transferase gene family. Plant Mol. Biol. 2002;49:515–532. doi: 10.1023/A:1015557300450. [DOI] [PubMed] [Google Scholar]

[B80-ijms-22-11897] 80.Kim G.B., Nam Y.W. A novel Δ1-pyrroline-5-carboxylate synthetase gene of Medicago truncatula plays a predominant role in stress-induced proline accumulation during symbiotic nitrogen fixation. J. Plant Physiol. 2013;170:291–302. doi: 10.1016/j.jplph.2012.10.004. [DOI] [PubMed] [Google Scholar]

[B81-ijms-22-11897] 81.Wang N., Zhang W., Qin M., Li S., Qiao M., Liu Z., Xiang F. Drought tolerance conferred in soybean (Glycine max. L.) by GmMYB84, a novel R2R3-MYB transcription factor. Plant Cell Physiol. 2017;58:1764–1776. doi: 10.1093/pcp/pcx111. [DOI] [PubMed] [Google Scholar]

[B82-ijms-22-11897] 82.Zhang Y., Zhang Y.J., Yang B.J., Yu X.X., Wang D., Zu S.H., Xue H.W., Lin W.H. Functional characterization of GmBZL2 (AtBZR1 like gene) reveals the conserved BR signaling regulation in Glycine max. Sci. Rep. 2016;6:1–14. doi: 10.1038/srep31134. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B83-ijms-22-11897] 83.Zhishen J., Mengcheng T., Jianming W. The determination of flavonoid contents in mulberry and their scavenging effects on superoxide radicals. Food Chem. 1999;64:555–559. doi: 10.1016/S0308-8146(98)00102-2. [DOI] [Google Scholar]

[B84-ijms-22-11897] 84.Su L., Dai Z., Li S., Xin H. A novel system for evaluating drought-cold tolerance of grapevines using chlorophyll fluorescence. BMC Plant Biol. 2015;15:1–12. doi: 10.1186/s12870-015-0459-8. [DOI] [PMC free article] [PubMed] [Google Scholar]

[B85-ijms-22-11897] 85.Liu Z.J., Guo Y.K., Bai J.G. Exogenous hydrogen peroxide changes antioxidant enzyme activity and protects ultrastructure in leaves of two cucumber ecotypes under osmotic stress. J. Plant Growth Regul. 2010;29:171–183. doi: 10.1007/s00344-009-9121-8. [DOI] [Google Scholar]

[B86-ijms-22-11897] 86.Elstner E.F., Heupel A. Inhibition of nitrite formation from hydroxylammoniumchloride: A simple assay for superoxide dismutase. Anal. Biochem. 1976;70:616–620. doi: 10.1016/0003-2697(76)90488-7. [DOI] [PubMed] [Google Scholar]

[B87-ijms-22-11897] 87.Ben-Amor M., Flores B., Latché A., Bouzayen M., Pech J.C., Fomojaro F. Inhibition of ethylene biosynthesis by antisense ACC oxidase RNA prevents chilling injury in Charentais cantaloupe melons. Plant Cell Environ. 1999;22:1579–1586. doi: 10.1046/j.1365-3040.1999.00509.x. [DOI] [Google Scholar]

[B88-ijms-22-11897] 88.Meng X., Liu S., Dong T., Xu T., Ma D., Pan S., Li Z., Zhu M. Comparative transcriptome and proteome analysis of salt-tolerant and salt-sensitive sweet potato and overexpression of IbNAC7 confers salt tolerance in Arabidopsis. Front. Plant Sci. 2020;11:1342. doi: 10.3389/fpls.2020.572540. [DOI] [PMC free article] [PubMed] [Google Scholar]

PERMALINK

AvNAC030, a NAC Domain Transcription Factor, Enhances Salt Stress Tolerance in Kiwifruit

Ming Li

Zhiyong Wu

Hong Gu

Dawei Cheng

Xizhi Guo

Lan Li

Caiyun Shi

Guoyi Xu

Shichao Gu

Muhammad Abid

Yunpeng Zhong

Xiujuan Qi

Jinyong Chen

Roles

Abstract

1. Introduction

2. Results

2.1. Phylogenetic Analysis of the NAC Family in Kiwifruit

Figure 1.

Table 1.

2.2. The Motif Analysis of the NAC Family in Kiwifruit

Figure 2.

Table 2.

2.3. Analysis of Conserved Amino Acid Residues in the NAC Domain of Kiwifruit

Figure 3.

2.4. The Expression Level of the AvNAC Family under Salt Stress

Figure 4.

2.5. The Interaction Network Analysis of Candidate Genes

Figure 5.

2.6. Subcellular Localization of AvNAC030

Figure 6.

2.7. The Effects of Overexpression of AvNAC030 in Arabidopsis

Figure 7.

2.8. The Effects of AvNAC030 Overexpression on ROS Scavenging in Arabidopsis

Figure 8.

2.9. The Physiological Effects of AvNAC030 Overexpression in Arabidopsis

Figure 9.

2.10. The Expression Analysis of Genes Involved in Salt Tolerance

Figure 10.

3. Discussion

Figure 11.

4. Materials and Methods

4.1. Sequence Retrieval and Identification of A. valvata NAC Genes

Table 3.

4.2. Bioinformatic Analysis of the NAC Family in Kiwifruit

4.3. The Sample Collection

4.4. Subcellular Localization

Table 4.

4.5. The Transformation of Arabidopsis and Stress Treatments

4.6. Histochemical and Physiological Analysis

4.7. RT-qPCR Analysis

4.8. Statistical Analysis

5. Conclusions

Appendix A

Table A1.

Author Contributions

Funding

Institutional Review Board Statement

Informed Consent Statement

Data Availability Statement

Conflicts of Interest

Footnotes

References

Associated Data

Data Availability Statement

ACTIONS

PERMALINK

RESOURCES

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