Table 1.
Using genome editing CRSPR-Cas to from last four years to increase the ability of major food crops to withstand climate adversity.
| Plant Species | Target Genes | Gene Function | Phenotype | Mode of Application | References |
|---|---|---|---|---|---|
| Rice | OsPRPl | Proline-rich protein | Cold sensitive | Mutants exhibited sensitive phenotype after treatment at 6°C for 3 days. | Nawaz et al., 2019 |
| OsMYB30 | Transcription factor | Cold tolerance, increased panicle length, enlarged grain size | Mutants exhibited tolerance phenotype after treatment at 4°C for 5-10 days. | Zeng et al., 2019 | |
| OsAnn5 | Annexin | Cold tolerance | Mutants exhibited tolerance phenotype after treatment at 4-6° C for 3 days. | Shen et al., 2020 | |
| OsERA1 | ABA signaling and the dehydration response | Enhanced response to drought stress through stomatal regulation | Mutants showed drought-tolerant phenotype under the 8-day watering-off treatment. | Ogata et al., 2020 | |
| OsSRL1,2 | Regulation of leaf rolling | Enhanced drought tolerance and ABA level | Mutants showed drought-tolerant phenotype under 30-day water-deficient treatment. | Liao et al., 2019 | |
| OsNAC006 | NAC transcription factor | Heat sensitive | Mutants exhibited sensitive phenotype after treatment at 42° C for 4 days. | Wang et al., 2020 | |
| OsPUB67 | U-box E3 ubiquitin ligase | Reduced drought tolerance | Mutants showed drought-sensitive phenotype after 10-day no water treatment at tillering stage. | Qin et al., 2020 | |
| OsRR22 | Involved in both cytokinin signal transduction and metabolism | Enhanced salinity tolerance | Mutants showed salinity-tolerant phenotype under concentrations of 0.75% NaCl solution treatment. | Zhang et al., 2019 | |
| OsVDE | Key enzyme of xanthophyll cycle | Enhanced salinity tolerance, reduced water loss | Mutants showed salinity-tolerant phenotype at 100 mM NaCl application. | Wang et al., 2021 | |
| OsDST | Drought and salt tolerance gene | Enhanced salinity tolerance, showed significantly broader leaf width and enhanced leaf area | Mutants showed salinity-tolerant phenotype at 200 mM NaCl application. | Santosh Kumar et al., 2020 | |
| OsNAC041 | NAC transcription factor | Reduced salinity tolerance, enhanced MDA content | Mutants showed salinity-sensitive phenotype at 150 mM NaCl application. | Bo et al., 2019 | |
| Tomato | SlIAA9 | Transcriptional regulator for auxin response | Parthenocarpy | Mutants exhibited parthenocarpy phenotype. | Kashojiya et al., 2022 |
| Tomato | SlCPK28 | Protein kinase, Ca2+ sensing | Heat sensitive, accumulation of ROS | Mutants exhibited sensitive phenotype and higher H2O2 content after treatment at 45°C for 12 h. | Hu et al., 2021 |
| SlMAPK3 | MAP kinase upregulating HSPs’/HSFs’ genes’ expression | Heat tolerance, reduction of ROS accumulation | Mutants exhibited tolerance phenotype and lower H2O2 and O2*— contents after treatment at 42°C for 1 day. | Yu et al., 2021 | |
| SIBZR1 | Transcription factor for brassinosteroid response | Heat tolerance | Mutants exhibited tolerance phenotype after treatment at 42°C/38°C (day/night) for 1 day. | Yu et al., 2019 | |
| SlNPR1 | A special receptor of salicylic acid | Reduced drought tolerance, increased stomatal aperture | Mutants showed drought-sensitive phenotype without watering for 6 consecutive days. | Li et al., 2019 | |
| SlLBD40 | Plant-specific transcription factors | Enhanced drought tolerance and reduced stomatal conductance | Mutants showed drought-tolerant phenotype under the 10-day watering cessation treatment. | Liu L et al., 2020 | |
| SlARF4 | Auxin response factors | Enhanced drought tolerance and stem thickness | Mutants showed drought-tolerant phenotype under the 12-day watering-off treatment. | Chen S et al., 2021 | |
| SlHyPRP1 | A subgroup of putative plant cell wall glycoproteins | Enhanced salinity tolerance and stem length | Mutants showed salinity-tolerant phenotype at 100 mM and150 mM NaCl application. | Tran et al., 2020 | |
| SlARF4 | Auxin response factor | Enhanced salinity tolerance, delayed flowering, increased height and leaf curling | Mutants showed salinity-tolerant phenotype at 250 mM NaCl application. | Tran et al., 2020 | |
| Arabidopsis | AtAITR family | ABA-induced transcription repressors | Enhanced drought and salt tolerance, reduced ABA sensitivity | Mutants showed drought-tolerant phenotype after 12-day watering off treatment and 2 days of rewatering. | Chen S et al., 2021 |
| AREB1 | ABA-responsive element-binding protein | Enhanced drought tolerance and chlorophyll content | Mutants showed drought-tolerant phenotype under 20% humidity treatment or 20-day cessation of watering. | ||
| AtAITR | ABA-induced transcription repressors | Enhanced salinity tolerance, reduced ABA sensitivity | Mutants showed salinity-tolerant phenotype at 150 mM NaCl application. | ||
| ACQOS | A toll-interleukinl receptor-nucleotidebinding leucine-rich repeat class protein | Enhanced salinity tolerance and chlorophyll content | Mutants showed salinity-tolerant phenotype at 250 mM NaCl application. | ||
| Soybean | GmMYB118 | MYB transcription factor family | Reduced drought and salinity tolerance | Mutants showed drought-sensitive phenotype after 14-day no water treatment. | |
| GmAITR | ABA-induced Transcription Repressors |
Enhanced salinity tolerance, more sensitivity to ABA |
Mutants showed salinity-tolerant phenotype at 200 mM NaCl |
Wang et al., 2021 | |
| Wheat | TaHAG1 | Histone acetyltransferase | Reduced salinity tolerance, more chlorotic leaves and higher Na+ content in the mutants | Mutants showed salinity-sensitive phenotype at 200 mM NaCl application. | Zheng et al., 2021 |
| Potato | Coilin | A main structural protein controlling the formation, composition, and activity of subnuclear Cajal bodies | Enhanced salinity tolerance, slower yellowing and leaf fall | Mutants showed salinity-tolerant phenotype at 300 mM NaCl application. |