The purpose of this list is to publish in the International Journal of Systematic and Evolutionary Microbiology (IJSEM) those new names and new combinations that were effectively published outside the IJSEM as set forth in Rule 27 of the International Code of Nomenclature of Prokaryotes (2025 Revision) [1]. Authors and other individuals wishing to have new names and/or combinations included in future lists should send an electronic copy of the published paper to the IJSEM Editorial Office for confirmation that all of the other requirements for valid publication have been met. It is also a requirement of IJSEM and the International Code of Nomenclature of Prokaryotes (ICNP) that authors of new species, new subspecies and new combinations provide evidence that types are deposited in two publicly accessible culture collections in two different countries. It should be noted that the date of valid publication of these new names and combinations is the date of publication of this list, not the date of the original publication of the names and combinations. The authors of the new names and combinations are as given below.
Inclusion of a name on these lists validates the publication of the name and thereby makes it available in the nomenclature of prokaryotes. Inclusion of a name on these lists is part of the requirements of a valid publication of an effectively published name. Indeed, some of these names may, in time, be considered later synonyms, or it may be proposed to transfer the organisms to another genus, thus necessitating the creation of a new combination. Conversely, it may be proposed to transfer an organism back to an earlier genus and to regard the basonym or an earlier new combination as the correct name instead of a more recent new combination. The ICNP does not decide on such taxonomic opinions.
| Name/author | Proposed as | Nomenclatural type1 | Priority2 | Reference |
|---|---|---|---|---|
| Acetobacter zythi Bongaerts et al. 2026, 133,4 | sp. nov. | LMG 32666 (=CECT 30722) | 18 | [2] |
| Acinetobacter mesopotamicus Acer et al. 2020, 3198 | sp. nov. | GC2 (=DSM 26953=JCM 31073) | 93 | [3] |
| Acinetobacter pullorum Elnar et al. 2020, 531 | sp. nov. | B301 (=JCM 33942=KACC 21653) | 98 | [4] |
| Actinomyces oralis Mbogning Fonkou et al. 2018, 435 | sp. nov. | Marseille-P3109 (=CSUR P3109=DSM 103942) | 75 | [5] |
| Adhaeribacter soli Han et al. 2021, 167 | sp. nov. | MA2 (=KCTC 72630=NBRC 114192) | 80 | [6] |
| Agrobacterium vacciniicorymbosi Iličić et al. 2025, 103 | sp. nov. | BA1120 (=CFBP 9290=NCPPB 4800) | 129 | [7] |
| Algorimicrobium García-López et al. 2019, 293 | gen. nov. | Algorimicrobium algoritergicola | 135 | [8] |
| Algorimicrobium algoritergicola (Bowman and Nichols 2005) García-López et al. 2019, 303 | comb. nov. (basonym: Bizionia algoritergicola Bowman and Nichols 2005) | APA-1 (=CIP 108533=KMM 8430)6 | 135 | [8] |
| Algorimicrobium bowmanii Kurilenko et al. 2026, 163 | sp. nov. | 041–53-Ur-6 (=KCTC 72011=KMM 8389) | 136 | [9] |
| Algorimicrobium echini (Nedashkovskaya et al. 2010) García-López et al. 2019, 303 | comb. nov. (basonym: Bizionia echini Nedashkovskaya et al. 2010) | KMM 6177 (=DSM 23925=KCTC 22015) | 135 | [8] |
| Alistipes intestinihominis Hitch et al. 2025, 113 | sp. nov. | CLA-KB-H122 (=DSM 118481=JCM 38255) | 123 | [10] |
| Alistipes provencensis Bellali et al. 2019, 83,7 | sp. nov. | Marseille-P2431 (=CSUR P2431=DSM 102308) | 55 | [11] |
| Antarctobacter albus corrig. (Zheng et al. 2010) Xu et al. 2025, 113,8 | comb. nov. (basonym: Mameliella alba Zheng et al. 2010) | JLT354-W (=CGMCC 1.7290=LMG 24665) | 1 | [12] |
| Antarctobacter aquimaris (Jung et al. 2016) Xu et al. 2025, 113 | comb. nov. (basonym: Maliponia aquimaris Jung et al. 2016) | MM-10 (=CECT 8898=KCTC 42721) | 1 | [12] |
| Antarctobacter sediminis (Zheng et al. 2022) Xu et al. 2025, 113 | comb. nov. (basonym: Mameliella sediminis Zheng et al. 2022) | DP3N28-2 (=KCTC 82804=MCCC 1K06218) | 1 | [12] |
| Aquibium pacificum corrig. Jiang et al. 2024, 103,9 | sp. nov. | LZ166 (=KCTC 82889=MCCC M28807)10 | 14 | [13] |
| Bacillus bingmayongensis Liu et al. 2014, 50711 | sp. nov. | FJAT-13831 (=CGMCC 1.12043=DSM 25427) | 65 | [14] |
| Bacillus cheonanensis Kim et al. 2014, 557 | sp. nov. | PFS-5 (=JCM 19333=KACC 17469) | 39 | [15] |
| Bacillus dabaoshanensis Cui et al. 2015, 51912 | sp. nov. | GSS04 (=CCTCC AB 2013260=KCTC 33191) | 90 | [16] |
| Bacteroides ihuae Andrieu et al. 2018, 86 | sp. nov. | Marseille-P2824 (=CCUG 70550=CSUR P2824) | 70 | [17] |
| Brevibacillus antibioticus Choi et al. 2019, 995 | sp. nov. | TGS2-1 (=FBCC-B2501=NBRC 113840)13 | 59 | [18] |
| Bruguierivorax Li et al. 2021, 86214 | gen. nov. | Bruguierivorax albus | 115 | [19] |
| Bruguierivorax albus Li et al. 2021, 862 | sp. nov. | BGMRC 2031 (=KCTC 52119=NBRC 111907) | 115 | [19] |
| Burkholderia alba Lee et al. 2018, 315 | sp. nov. | AD18 (=JCM 32403=KCCM 43268) | 108 | [20] |
| Campylobacter felis Wang et al. 2023, 123 | sp. nov. | XJK22-1 (=GDMCC 1.3684=JCM 35847) | 133 | [21] |
| Campylobacter ovis Wang et al. 2023, 123 | sp. nov. | SYS25-1 (=GDMCC 1.3685=JCM 35848) | 52 | [21] |
| Cellulomonas triticagri Han et al. 2022, 63 | sp. nov. | NEAU-YY56 (=DSM 106717=JCM 32550) | 15 | [22] |
| Chelatococcus thermostellatus Ibrahim et al. 2016, 83,15 | sp. nov. | MW9 (=DSM 28244=LMG 27009) | 145 | [23] |
| Chitinophaga soli An et al. 2007, 708 | sp. nov. | Gsoil 219 (=KCTC 12650=LMG 23593)16 | 68 | [24] |
| Chryseobacterium formosum corrig. Akter et al. 2015, 101517 | sp. nov. | THG-DN3.6 (=CCTCC AB 2015118=KCTC 42606)18 | 51 | [25] |
| Chryseobacterium panacis Singh et al. 2016, 193 | sp. nov. | DCY107 (=CCTCC AB 2015195=KCTC 42750) | 60 | [26] |
| Citrobacter arsenatis Wang et al. 2021, 129119 | sp. nov. | LY-1 (=CCTCC AB 2019169=KCTC 72440) | 120 | [27] |
| Citrobacter tructae Jung et al. 2021, 163 | sp. nov. | SNU WT2 (=JCM 33612=KCTC 72517)20 | 6 | [28] |
| Clostridium tunisiense Thabet et al. 2004, 18921 | sp. nov. | E1 (=CIP 107666=DSM 15206) | 36 | [29] |
| Coraliitalea Yoon et al. 2018, 469 | gen. nov. | Coraliitalea coralii | 73 | [30] |
| Coraliitalea coralii Yoon et al. 2018, 469 | sp. nov. | 04OKA-3–121 (=KCTC 52378=NBRC 112329) | 73 | [30] |
| Corynebacterium hiratae de Oliveira Sant’Anna et al. 2024, 1412 | sp. nov. | 332 (=CCBH 35014=CCCT 24.09)22 | 26 | [31] |
| Desulfobulbus aggregans Kharrat et al. 2017, 454 | sp. nov. | SM40 (=DSM 28693=JCM 19994) | 134 | [32] |
| Desulfomicrobium aggregans Dengler et al. 2023, 83 | sp. nov. | CaP3V-S-L1A (=DSM 113299=JCM 39179) | 28 | [33] |
| Desulfosporosinus cupriresistens Karnachuk et al. 2025, 83 | sp. nov. | BG (=JCM 32882=VKM B-3258) | 103 | [34] |
| Desulfovibrio brasiliensis Warthmann et al. 2005, 26023 | sp. nov. | LVform1 (=DSM 15816=JCM 12178)24 | 46 | [35] |
| Dyella thailandensis Intarapasit et al. 2026, 93 | sp. nov. | KULCS107 (=KCTC 18276=NBRC 117363=TBRC 20486)25 | 128 | [36] |
| Dysgonomonas massiliensis Bilen et al. 2019, 943 | sp. nov. | Marseille-P4356 (=CCUG 71356=CSUR P4356) | 111 | [37] |
| Faecalibacterium tardum Hitch et al. 2025, 133 | sp. nov. | CLA-AA-H175 (=DSM 116192=JCM 39670) | 123 | [10] |
| Flavisolibacter aluminii Lee et al. 2019, 21 | sp. nov. | ID1709 (=KCTC 52778=NBRC 112870)26 | 22 | [38] |
| Flavisolibacter galbus Maeng et al. 2019, 1564 | sp. nov. | 17J28-26 (=JCM 33203=KCTC 62222) | 23 | [39] |
| Flavobacterium agricola Lin et al. 2023, 135527 | sp. nov. | CC-SYL302 (=BCRC 81320=JCM 34764) | 118 | [40] |
| Flavobacterium panacis Kim et al. 2016, 1205 | sp. nov. | DCY106 (=JCM 31468=KCTC 42747) | 9 | [41] |
| Foetidibacter Pu et al. 2021, 2429 | gen. nov. | Foetidibacter luteolus | 76 | [42] |
| Foetidibacter luteolus Pu et al. 2021, 2429 | sp. nov. | YG09 (=KCTC 72595=MCCC 1K04042) | 76 | [42] |
| Frigoribacterium adelgis Tamošiūnaitė et al. 2026, 123,28 | sp. nov. | D8 (=DSM 119719=LMG 34012) | 127 | [43] |
| Fusobacterium hwasookii Cho et al. 2015, 174 | sp. nov. | ChDC F128 (=JCM 30218=KCTC 5108)29 | 30 | [44] |
| Fusobacterium pseudoperiodonticum Park et al. 2019, 66330 | sp. nov. | ChDC F213 (=JCM 33009=KCTC 5677)31 | 13 | [45] |
| Gluconacetobacter brunescens Karničnik et al. 2025, 143,32 | sp. nov. | Hr-1–5 (=LMG 33629=ZIM B1168) | 2 | [46] |
| Halobacillus rhizosphaerae Yin et al. 2025, 83 | sp. nov. | T66 (=JCM 36534=MCCC 1K08701) | 89 | [47] |
| Halomonas ethanolica Wang and Shao 2021, 143 | sp. nov. | CYT3-1-1 (=KCTC 72090=MCCC 1A11081) | 81 | [48] |
| Halomonas zhangzhouensis Wang and Shao 2021, 133 | sp. nov. | CXT3-11 (=KCTC 72087=MCCC 1A11036 | 81 | [48] |
| Halonovum Hwang et al. 2026, 103 | gen. nov. | Halonovum salinarum | 125 | [49] |
| Halonovum salinarum Hwang et al. 2026, 103 | sp. nov. | MBLA0143 (=JCM 36640=KCTC 4317) | 125 | [49] |
| Halonovum rutilum Hwang et al. 2026, 103 | sp. nov. | MBLA0147 (=JCM 36641=KCTC 4319) | 125 | [49] |
| Herbivorax alkaliphila Sorokin et al. 2026, 113 | sp. nov. | ANBcel31 (=DSM 113934=UQM 41585) | 114 | [50] |
| Hoeflea siderophila Sorokina et al. 2012, 6433 | sp. nov. | Hf1 (=DSM 21587=UQM 40581)34 | 47 | [51] |
| Hominisplanchenecus murintestinalis Afrizal et al. 2022, 163 | sp. nov. | CLA-AA-M05 (=DSM 111139=JCM 38251) | 104 | [52] |
| Hydrogenophaga temperata Kim et al. 2010, 42335 | sp. nov. | TR7-01 (=DSM 18117=KCTC 12203) | 97 | [53] |
| Hymenobacter busanensis Lee et al. 2021, 76036 | sp. nov. | MA3 (=KCTC 72631=NBRC 114193) | 78 | [54] |
| Janthinobacterium psychrotolerans Gong et al. 2017, 53 | sp. nov. | S3-2 (=DSM 102223=LMG 29653) | 144 | [55] |
| Jeotgalibacillus aurantiacus Jiang et al. 2022, 780 | sp. nov. | T12=KCTC 43296=MCCC 1K07171) | 82 | [56] |
| Kluyvera chengduensis Liu et al. 2026, 63,37 | sp. nov. | 142359 (=GDMCC 1.5094=JCM 37737) | 146 | [57] |
| Kluyvera huaxiensis Liu et al. 2026, 43,37 | sp. nov. | 142053 (=GDMCC 1.4845=JCM 37413 | 146 | [57] |
| Lachnospira intestinalis Hitch et al. 2025, 133 | sp. nov. | CLA-AA-H89B (=DSM 118070=JCM 38254) | 123 | [10] |
| Lacisediminihabitans changchengi Liang et al. 2021, 5523 | sp. nov. | G11-30 (=CCTCC AA 2019080=KCTC 49359) | 77 | [58] |
| Lautropia dentalis Lim et al. 2019, 1371 | sp. nov. | ChDC F240 (=JCM 33297=KCOM 2505) | 99 | [59] |
| Litorerythrobacter Kathiresan et al. 2026, 103 | gen. nov. | Litorerythrobacter xanthomarinus | 101 | [60] |
| Litorerythrobacter xanthomarinus Kathiresan et al. 2026, 103 | sp. nov. | MF3-039 (=KCTC 8705=KEMB 23948=TBRC 19385) | 101 | [60] |
| Lotipaludicoccus Park et al. 2026, 73 | gen. nov. | Lotipaludicoccus stagni | 139 | [61] |
| Lotipaludicoccus stagni Park et al. 2026, 73 | sp. nov. | IMCC34717 (=KACC 23134=KCTC 82067=NBRC 113911) | 139 | [61] |
| Luteimonas granuli Siddiqi et al. 2020, 2006 | sp. nov. | Gr-4 (=JCM 18203=KACC 16614) | 21 | [62] |
| Lysobacter arenosi Kim et al. 2021, 715 | sp. nov. | R7 (=JCM 34257=KACC 21663) | 20 | [63] |
| Lysobacter chinensis Liu et al. 2022, 1038 | sp. nov. | TLK-CK17 (=CCTCC AB 2021257=KCTC 92122) | 48 | [64] |
| Lysobacter pedocola Jang et al. 2018, 391 | sp. nov. | IPC6 (=JCM 31020=KCTC 42811) | 12 | [65] |
| Lysobacter solisilvae Kim et al. 2021, 71538 | sp. nov. | R19 (=JCM 34258=KACC 21767) | 20 | [63] |
| Mangrovimonas xylaniphaga Dinesh et al. 2017, 66 | sp. nov. | ST2L12 (=JCM 30880=LMG 28914) | 10 | [66] |
| Maridesulfovibrio gilichinskyi (Ryzhmanova et al. 2019) Galushko and Kuever 2021, 73 | comb. nov. (basonym: Desulfovibrio gilichinskyi Ryzhmanova et al. 2019) | K3S (=DSM 100341=VKM B-2877) | 58 | [67] |
| Marinicella algicola Bayburt et al. 2026, 113 | sp. nov. | W31 (=JCM 35965=KACC 23129) | 8 | [68] |
| Marinimicrobium hydrolyticum Sorokin et al. 2025, 93 | sp. nov. | ABcell2 (=DSM 115774=JCM 35976) | 112 | [69] |
| Marinitalea Kim et al. 2011, 92 | gen. nov. | Marinitalea sucinacia | 45 | [70] |
| Marinitalea sucinacia Kim et al. 2011, 9239 | sp. nov. | JC2131 (=JCM 14003=KCTC 12705) | 45 | [70] |
| Marinovum sedimenti Romanenko et al. 2026, 143 | sp. nov. | KMM 9989 (=KCTC 8835) | 132 | [71] |
| Marisediminitalea alba (Sun et al. 2019) Bayburt et al. 2026, 123 | comb. nov. (basonym: Alteromonas alba Sun et al. 2019) | 190 (=KCTC 62227=MCCC 1K03456) | 8 | [68] |
| Marisediminitalea lipolytica (Shi et al. 2017) Bayburt et al. 2026, 123 | comb. nov. (basonym: Alteromonas lipolytica Shi et al. 2017) | JW12 (=CGMCC 1.15735=KCTC 52408) | 8 | [68] |
| Marisediminitalea oceani (Jin et al. 2018) Bayburt et al. 2026, 123 | comb. nov. (basonym: Alteromonas oceani Jin et al. 2018) | S35 (=CGMCC 1.16029=KCTC 52449) | 8 | [68] |
| Mesobacterium hydrothermale Su et al. 2024, 73 | sp. nov. | TK19101 (=KCTC 8354=MCCC 1K08936) | 87 | [72] |
| Mesorhizobium koreense Lee et al. 2024, 1822 | sp. nov. | WR6 (=KCTC 92695=NBRC 116021) | 16 | [73] |
| Mesorhizobium maamorense Alami et al. 2026, 123 | sp. nov. | ORM16 (=CCMM B1359=DSM 120599) | 122 | [74] |
| Mesosutterella faecium Yu et al. 2024, 133.40 | sp. nov. | AGMB02718 (=GDMCC 1.2717=KCTC 25541)41 | 67 | [75] |
| Metabacillus elymi Lee et al. 2021, 1716 | sp. nov. | KUD1714 (=DSM 27608=KCTC 33222) | 24 | [76] |
| Methanofollis propanolicus Dengler et al. 2022, 43,42 | sp. nov. | CaP3V-MF-L2A (=DSM 113321=JCM 39176) | 7 | [77] |
| Methylobacter alkaliphilus corrig. Khmelenina et al. 1997, 26043 | sp. nov. | 20Z (=DSM 19304=VKM B-2133) | 94 | [78] |
| Methylobacterium flocculans Gao et al. 2024, 73 | sp. nov. | FF17 (=KCTC 8320=MCCC 1K08738) | 83 | [79] |
| Micromonospora jinlongensis Gao et al. 2014, 31144 | sp. nov. | NEAU-GRX11 (=CGMCC 4.7103=DSM 45876) | 69 | [80] |
| Microvirga pudoricolor Oh et al. 2021, 6075 | sp. nov. | BT291 (=KCTC 72368=NBRC 114845) | 79 | [81] |
| Mucilaginibacter hankyongensis Liu et al. 2017, 528 | sp. nov. | BR5-28 (=DSM 21151=KCTC 22274) | 5 | [82] |
| Muricauda lutisoli Jeong et al. 2022, 53 | sp. nov. | CAU 1631 (=KCTC 82456=MCCC 1K06088) | 85 | [83] |
| Natrarchaeobius oligotrophus Tulenkov et al. 2025, 103 | sp. nov. | Aarcht7 (=DSM 119936=UNIQEM U967)45 | 113 | [84] |
| Natrarchaeobius versutus Tulenkov et al. 2025, 103,46 | sp. nov. | AArcel7 (=DSM 119677=UNIQEM U973)47 | 113 | [84] |
| Natronocytophaga Sorokin et al. 2025, 93 | gen. nov. | Natronocytophaga cellulosiphila | 112 | [69] |
| Natronocytophaga cellulosiphila Sorokin et al. 2025, 93 | sp. nov. | ABcell3 (=DSM 115919=UQM 41578) | 112 | [69] |
| Neoalteromonas Bayburt et al. 2026, 133,48 | gen. nov. | Neoalteromonas facilis | 8 | [68] |
| Neoalteromonas arenosi (Luo et al. 2025) Bayburt et al. 2026, 133,49 | comb. nov. (basonym: Alteromonas arenosi Luo et al. 2025)49 | ASW11-36 (=KCTC 82496=MCCC 1K05585) | 8 | [68] |
| Neoalteromonas facilis (Zhang et al. 2020) Bayburt et al. 2026, 133 | comb. nov. (basonym: Alteromonas facilis Zhang et al. 2020) | P0213 (=KCTC 62079=MCCC 1H00243) | 8 | [68] |
| Neoalteromonas flava (Zhang et al. 2020) Bayburt et al. 2026, 133 | comb. nov. (basonym: Alteromonas flava Zhang et al. 2020) | P0211 (=KCTC 62078=MCCC 1H00242) | 8 | [68] |
| Niallia hominis Hitch et al. 2025, 153 | sp. nov. | CLA-SR-H024 (=DSM 118483=JCM 38256) | 123 | [10] |
| Ningiella algicola Bayburt et al. 2026, 113 | sp. nov. | W23 (=JCM 35964=KACC 23126) | 8 | [68] |
| Nocardioides jejuensis Jang et al. 2020, 344 | sp. nov. | 18JY15-6 (=JCM 33182=KCTC 49105) | 11 | [85] |
| Nocardioides paucivorans Ahn et al. 2014, 993 | sp. nov. | KIS31-44 (=DSM 27142=KACC 17309) | 37 | [86] |
| Nocardioides suum Lee et al. 2017, 420 | sp. nov. | PBT33-2 (=DSM 102833=KCTC 39558) | 31 | [87] |
| Nocardiopsis oceanisediminis Kim et al. 2025, 63 | sp. nov. | CNT-189 (=KACC 22136=NBRC 114760) | 138 | [88] |
| Novosphingobium tardum Chen et al. 2015, 55 | sp. nov. | 16-28-2 (=CGMCC 1.12989=NBRC 110956) | 32 | [89] |
| Oceanisphaera pacifica Xue et al. 2022, 73,50 | sp. nov. | DM8 (=KCTC 82764=MCCC 1K06133) | 84 | [90] |
| Oceanobacillus gochujangensis Jang et al. 2014, 105451 | sp. nov. | TK1655 (=CIP 110582=KCTC 33014=NBRC 109637)52 | 42 | [91] |
| Oceanobacillus jeddahensis corrig. Khelaifia et al. 2016, 25653 | sp. nov. | S5 (=CSUR P1091=DSM 28586) | 54 | [92] |
| Oceanobacillus massiliensis Roux et al. 2013, 381 | sp. nov. | N’diop (=CSUR P132=DSM 24644)54 | 74 | [93] |
| Orenia metallireducens Dong et al. 2016, 645155 | sp. nov. | Z6 (=ATCC BAA-2645=JCM 31419) | 119 | [94] |
| Paenibacillus bouchesdurhonensis Pham et al. 2017, 1056 | sp. nov. | Marseille-P3071 (=CSUR P3071=DSM 103972) | 71 | [95] |
| Paenibacillus lycopersici Lee et al. 2020, 838 | sp. nov. | 12200R-189 (=CCTCC AB 2020027=KACC 19916) | 57 | [96] |
| Paenibacillus phocaeensis corrig. Tidjani Alou et al. 2017, 2157 | sp. nov. | mt24 (=CSUR P2238=DSM 101777) | 44 | [97] |
| Paenibacillus tuaregi Pham et al. 2017, 1258 | sp. nov. | Marseille-P2472 (=CSUR P2472=DSM 102801) | 71 | [95] |
| Paludibacterium flexuosum Nakamura et al. 2026, 113 | sp. nov. | THUN1379 (=JCM 36560=KCTC 8465) | 130 | [98] |
| Paracoccus zhejiangensis Wu et al. 2013, 125 | sp. nov. | J6 (=CCTCC AB 2012031=KACC 16703) | 61 | [99] |
| Paralteromonas Bayburt et al. 2026, 133 | gen. nov. | Paralteromonas sediminis | 8 | [68] |
| Paralteromonas sediminis (Ye et al. 2019) Bayburt et al. 2026, 133 | comb. nov. (basonym: Alteromonas sediminis Ye et al. 2019) | U0105 (=KCTC 62080=MCCC 1H00299) | 8 | [68] |
| Paraniabella Kim et al. 2025, 93 | gen. nov. | Paraniabella ginsengisoli | 105 | [100] |
| Paraniabella aurantiaca Kim et al. 2025, 103 | sp. nov. | CJ426 (=JCM 37728=KACC 23908) | 105 | [100] |
| Paraniabella defluvii (Min et al. 2024) Kim et al. 2025, 113 | comb. nov. (basonym: Niabella defluvii Min et al. 2024) | I65 (=JCM 35315=KACC 22647) | 105 | [100] |
| Paraniabella ginsengisoli (Weon et al. 2009) Kim et al. 2025, 113 | comb. nov. (basonym: Niabella ginsengisoli Weon et al. 2009) | GR10-1 (=JCM 15444=KACC 13021) | 105 | [100] |
| Paraniabella hibiscisoli (Ngo et al. 2017) Kim et al. 2025, 113 | comb. nov. (basonym: Niabella hibiscisoli Ngo et al. 2017) | THG-DN5.5 (=CCTCC AB 2016086=KACC 18857) | 105 | [100] |
| Paraniabella yanshanensis (Wang et al. 2009) Kim et al. 2025, 113 | comb. nov. (basonym: Niabella yanshanensis Wang et al. 2009) | CCBAU 05354 (=KACC 14980=LMG 24661)59 | 105 | [100] |
| Parendozoicomonas verongulae (Goldberg et al. 2018) Kim et al. 2024, 73 | comb. nov. (basonym: Sansalvadorimonas verongulae Goldberg et al. 2018) | RKSG058 (=ATCC TSD-72=LMG 29871) | 147 | [101] |
| Paucisalibacillus algeriensis Bendjama et al. 2014, 1362 | sp. nov. | EB02 (=CSUR P858=DSM 27335) | 34 | [102] |
| Pedobacter paludis Zhang et al. 2019, 35360 | sp. nov. | YX (=CCTCC AB 2018029=KCTC 62520) | 62 | [103] |
| Peptoniphilus raoultii Diop et al. 2019, 103 | sp. nov. | KHD4 (=CECT 9308=CSUR P0110) | 72 | [104] |
| Phaeovulum molybdatiresistens Song et al. 2026, 63 | sp. nov. | NW3 (=GDMCC 1.3054=JCM 35387) | 142 | [105] |
| Photobacterium atrarenae Kim et al. 2011, 43661 | sp. nov. | M3-4 (=KCTC 23265=NCAIM B 02414) | 126 | [106] |
| Planobacterium oryzisoli Chhetri et al. 2023, 73,62 | sp. nov. | GCR5 (=KCTC 82713=TBRC 15746)63 | 27 | [107] |
| Polaribacter aestuariivivens Park et al. 2019, 33 | sp. nov. | DBTF-3 (=KACC 19612=NBRC 113191) | 66 | [108] |
| Pseudomonas hutmensis Xiang et al. 2019, 87664 | sp. nov. | XWS2 (=CCTCC AB 2018189=KACC 19898) | 49 | [109] |
| Pseudomonas onubensis Flores-Duarte et al. 2026, 103 | sp. nov. | L1=MIS C2 (=CECT 31157=LMG 34132) | 106 | [110] |
| Pseudomonas pseudonitroreducens Tohya et al. 2023, 13 | sp. nov. | BML-PP015 (=JCM 34578=LMG 32247) | 124 | [111] |
| Pseudomonas qingdaonensis Wang et al. 2019, 67665 | sp. nov. | JJ3 (=JCM 32579=KCTC 62384)66 | 25 | [112] |
| Pseudomonas spartinae Flores-Duarte et al. 2026, 103 | sp. nov. | SDT3 (=CECT 31003=LMG 34080) | 106 | [110] |
| Pseudothermotoga profunda (Mori et al. 2014) Belahbib et al. 2018, 561 | comb. nov. (basonym: Thermotoga profunda Mori et al. 2014) | AZM34c06 (=DSM 23275=NBRC 106115) | 53 | [113] |
| Pseudoxanthomonas fibrivorans Yulei et al. 2026, 113,67 | sp. nov. | 10 H (=CCTCC AB 2024091=KCTC 8654) | 131 | [114] |
| Rhodococcus aromaticivorans Muhammad et al. 2025, 143 | sp. nov. | DK17 (=InaCC B1662=KCCM 90599) | 4 | [115] |
| Roseobacter pelophilus Köpke 2007, 4968 | sp. nov. | SAM4 (=DSM 17270=LMG 23018) | 143 | [116] |
| Roseomonas aceris Tonouchi and Tazawa 2014, 42 | sp. nov. | R-1 (=DSM 26554=NBRC 109410) | 38 | [117] |
| Rothia marina Liu et al. 2013, 335 | sp. nov. | JSM 078151 (=DSM 21080=KCTC 19432) | 33 | [118] |
| Rubrivirga aquatilis Han et al. 2025, 53,69 | sp. nov. | IMCC43871 (=KCTC 102072=NBRC 116463)70 | 140 | [119] |
| Rubrivirga halophila Han et al. 2025, 63 | sp. nov. | IMCC45206 (=CCTCC AB 2023136=KCTC 92925=NBRC 116172)71 | 140 | [119] |
| Saliniferula Yoon and Oh 2026, 53 | gen. nov. | Saliniferula longa | 17 | [120] |
| Saliniferula longa Yoon and Oh 2026, 63 | sp. nov. | KMU-117 (=KCCM 90342=NBRC 117094) | 17 | [120] |
| Sediminibacterium soli Wu et al. 2021, 972 | sp. nov. | WSJ-3 (=CCTCC AB 2019408=KCTC 72839) | 109 | [121] |
| Sinanaerobacter Bao et al. 2021, 1614 | gen. nov. | Sinanaerobacter chloroacetimidivorans | 64 | [122] |
| Sinanaerobacter chloroacetimidivorans Bao et al. 2021, 1614 | sp. nov. | BAD-6 (=CCTCC AB 2021092=KCTC 25290) | 64 | [122] |
| Snuella sedimenti Kim et al. 2021, 544172 | sp. nov. | CAU 1569 (=KCTC 82409=MCCC 1K05670) | 92 | [123] |
| Sphingobium salicis Tournay et al. 2026, 153 | sp. nov. | WW5 (=DSM 120182=NCCB 101075)73 | 3 | [124] |
| Sphingomonas ginsenosidivorax Jin et al. 2013, 196574 | sp. nov. | KHI67 (=JCM 17076=KACC 14951)75 | 35 | [125] |
| Spongitalea Mitra et al. 2012, 38376 | gen. nov. | Spongitalea numazuensis | 117 | [126] |
| Spongitalea numazuensis Mitra et al. 2012, 384 | sp. nov. | HJ24 (=DSM 21243=NBRC 104581) | 117 | [126] |
| Sporosarcina beigongshangi Sun et al. 2022, 33 | sp. nov. | REN13 (=GDMCC 1.2151=JCM 34409) | 86 | [127] |
| Stenotrophomonas oahuensis Chuang et al. 2024, 83 | sp. nov. | A5586=D31 (=ICMP 25024=LMG 33201) | 102 | [128] |
| Streptococcus bouchesdurhonensis Zoaiter et al. 2023, 63 | sp. nov. | Marseille-Q6994 (=CSUR Q6994=DSM 113892)24 | 43 | [129] |
| Streptomyces composti Duangupama et al. 2023, 93 | sp. nov. | SBST2-5 (=NBRC 113999=TBRC 9952) | 63 | [130] |
| Streptomyces gilvigriseus Ser et al. 2015, 1375 | sp. nov. | MUSC 26 (=DSM 42173=NBRC 110931)24,77 | 100 | [131] |
| Streptomyces griseicoloratus Xing et al. 2022, 53 | sp. nov. | TRM S81-3 (=CCTCC AA 2020002=LMG 31942) | 121 | [132] |
| Streptomyces shinuiensis Lim et al. 2025, 73 | sp. nov. | HK10 (=KACC 22137=NBRC 114904) | 141 | [133] |
| Streptomyces tatrensis Bielańska et al. 2026, 113 | sp. nov. | 5.8 (=DSM 119354=PCM 3549) | 148 | [134] |
| Sunxiuqinia dokdonensis Chang et al. 2013, 744 | sp. nov. | DH1 (=JCM 19380=KCTC 32503)78 | 40 | [135] |
| Sulfuriroseicoccus Feng et al. 2022, 34879 | gen. nov. | Sulfuriroseicoccus oceanibius 80 | 116 | [136] |
| Sulfuriroseicoccus oceanibius Feng et al. 2022, 34981 | sp. nov. | T37 (=KCTC 72799=MCCC 1H00391) | 116 | [136] |
| Telluribacter roseus Feng et al. 2023, 73 | sp. nov. | SYSU D00476 (=KCTC 82285=MCCC 1K04983)82 | 88 | [137] |
| Terrimonas suqianensis Chen et al. 2017, 1065 | sp. nov. | C3-5 (=CCTCC AB 2017042=KCTC 52676) | 50 | [138] |
| Thermococcus radiotolerans Jolivet et al. 2004, 22583 | sp. nov. | EJ2 (=DSM 15228=JCM 11826) | 41 | [139] |
| Thermodesulfobium fumaratoxidans Maltseva et al. 2026, 113 | sp. nov. | 4217–1 (=JCM 39391=KCTC 25626=VKM B-3675) | 95 | [140] |
| Thiobacillus cuprinus Huber and Stetter 1990, 321 | sp. nov. | Hó5 (=DSM 5495=NBRC 102094) | 110 | [141] |
| Thiobacillus prosperus Huber and Stetter 1989, 484 | sp. nov. | LM3 (=DSM 5130=JCM 30709) | 137 | [142] |
| Thiobacter aerophilus corrig. Dukat et al. 2024, 103,84 | sp. nov. | AK1 (=CGMCC 1.18099=UQM 41819) | 96 | [143] |
| Thiobacteraceae Dukat et al. 2024, 103 | fam. nov. | Thiobacter | 96 | [143] |
| Tropicibacter alexandrii Wang et al. 2020, 317 | sp. nov. | LMIT003 (=CICC 24660=KCTC 62895) | 91 | [144] |
| Uliginosibacterium sangjuense Han et al. 2018, 263 | sp. nov. | SS1-76 (=JCM 31375=KCTC 52159) | 29 | [145] |
| Vibrio zhuhaiensis Jin et al. 2013, 99385 | sp. nov. | E20121 (=CCTCC AB 2011174=DSM 25602) | 107 | [146] |
| Vitreoscilla massiliensis Ndongo et al. 2021, 3317 | sp. nov. | SN6 (=CSUR P2036=DSM 100958)86 | 56 | [147] |
| Xanthomonas hawaiiensis Chuang et al. 2024, 63 | sp. nov. | A6251=D-93 (=ICMP 25022=LMG 33200) | 102 | [128] |
| Xylophilus rhododendri Lee et al. 2020, 4163 | sp. nov. | CJ1-R5 (=CCTCC AB 2020030=KACC 21265) | 19 | [148] |
For references to Validation Lists 1–71, see Int J Syst Bacteriol 49 (1999) 1325. Lists 72–197 were published in Int J Syst Evol Microbiol 50 (2000) 3, 423, 949, 1415, 1699, 1953; and 51 (2001) 1, 263, 793, 1229, 1619, 1945; and 52 (2002) 3, 685, 1075, 1437, 1915; and 53 (2003) 1, 373, 627, 935, 1219, 1701; and 54 (2004) 1, 307, 631, 1005, 1425, 1909; and 55 (2005) 1, 547, 983, 1395, 1743, 2235; and 56 (2006) 1, 499, 925, 1459, 2025, 2507; and 57 (2007) 1, 433, 893, 1371, 1933, 2449; and 58 (2008) 1, 529, 1057, 1511, 1993, 2471; and 59 (2009) 1, 451, 923, 1555, 2129, 2647; and 60 (2010) 1, 469, 1009, 1477, 1985, 2509; 61 (2011) 1, 475,1011, 1499, 2025, 2563; and 62 (2012) 1, 473, 1017, 1443, 2045, 2549; and 63 (2013) 1, 797, 1577, 2365, 3131, 3931; and 64 (2014) 1, 693, 1455, 2184, 3603; and 65 (2015), 1, 741, 1112, 2017, 2777, 3767; and 66 (2016) 1, 1603, 1913, 2463, 3761, 4299; and 67 (2017) 1, 529, 1095, 2075, 3140, 4291; and 68 (2018), 1, 693, 1411, 2130, 2707, 3379; and 69 (2019), 5, 597, 1247, 1844, 2627, 3313, and 70 (2020) 1, 1443, 2960, 4043, 4844, 5596. Lists 197–228 were published in Int J Syst Evol Microbiol 71 (2021) 004600, 004688, 004773, 004846, 004943, 005096; and 72 (2022) 005167, 005260, 005331, 005422, 005517, 005592; and 73 (2023) 005709, 005812, 005845, 005931, 005997, 006080; and 74 (2024) 006173, 006229, 006275, 006398, 006452, 006501; and 75 (2025) 006562, 006640, 006699, 006863, 006910, 006989; and 76 (2026) 007052.
1Abbreviations of culture collections cited in this list can be found at https://lpsn.dsmz.de/text/collections.
2Priority number assigned according to the date the documentation and request for validation are received.
3The journal in which the name was effectively published does not have continuous pages.
4The preferred etymology is Gr. masc. n. zythos, beer; N.L. gen. n. zythi, from beer.
5The etymology must state N.L. masc. adj. instead of N.L. neut. adj.
6The effective publication states that the type strain was also deposited as ACAM 1056, but no documentation was supplied.
7The etymology must state N.L. masc. adj.
8The list editors have corrected alba to albus (al’bus. L. masc. adj. albus, white).
9The list editors have corrected pacificus to pacificum (pa.ci’fi.cum. L. neut. adj. …).
10The effective publication states that the type strain was also deposited as KACC 23148, but no documentation was supplied.
11The preferred etymology is N.L. masc. adj. bingmayongensis, arbitrarily formed from the Chinese characters Bīng Mă Yŏng, ‘military servants’, ….
12Preferred syllabification and etymology are da.bao.shan.en’sis. N.L. masc. adj. dabaoshanensis, pertaining to the Dabaoshan Mine.
13The effective publication states that the type strain was also deposited as KCCM 90326, but no documentation was supplied.
14The preferred etymology is N.L. fem. n. Bruguiera ….
15Preferred syllabification and etymology are ther.mo.stel.la’tus. Gr. masc. adj. thermos, hot; L. masc. part. adj. stellatus, star-shaped; N.L. masc. part. adj. thermostellatus, referring to the formation of star-shaped aggregates at high temperatures.
16The effective publication states that the type strain was also deposited as DSM 18093, but no documentation was supplied.
17The list editors have corrected the epithet to formosum (for.mo’sum. L. neut. adj. formosum, …).
18The protologue erroneously has KCTC 42,606.
19The preferred etymology is N.L. gen. n. instead of M.L. gen. n.
20The type strain is mentioned in the abstract, but not in the protologue.
21The protologue heading must state Clostridium instead of C., and the etymology must state N.L. neut. adj. tunisiense instead of M.L. neut. adj. tunisiense.
22The CCBH number was erroneously given as 35,014. The effective publication states that the type strain was also deposited as CBAS 826, but no documentation was supplied.
23Preferred syllabification and etymology are bra.si.li.en’sis. N.L. masc. adj. brasiliensis, ….
24The authors gave DSMZ instead of DSM.
25The culture collection accession numbers are given in the abstract, but not in the protologue.
26The effective publication states that the type strain was also deposited as KACC 19451, but no documentation was supplied.
27Preferred syllabification and etymology are a.gri’co.la. L. masc. n. agricola, field dweller.
28The protologue heading must state Frigoribacterium instead of F., and the syllabification must be corrected as follows: a.del’gis.
29The effective publication states that the type strain was also deposited as KCOM 1249, but no documentation was supplied.
30The preferred etymology is N.L. neut. adj. periodonticum, …, N.L. neut. adj. pseudoperiodonticum, …,
31The effective publication states that the type strain was also deposited as KCOM 1259, but no documentation was supplied.
32Preferred syllabification and etymology are bru.nes’cens. N.L. masc. part. adj. brunescens, becoming brown.
33Preferred syllabification and etymology are si.de.ro’phi.la. Gr. masc. n. sideros, iron; N.L. masc. adj. philus, loving; from Gr. adj. philos, loving; N.L. fem. adj. siderophila, iron-loving.
34The effective publication states that the type strain was also deposited as VKM A7094, but no documentation was supplied.
35The etymology must state L. fem. adj. instead of L. fam. adj.
36The preferred etymology is N.L. masc. adj.
37The etymology must state adj. instead of Adj.
38The preferred etymology is L. neut. n. solum, soil; L. fem. n. silva, forest.
39The protologue heading must state Marinitalea instead of M.
40The preferred etymology is L. fem. gen. pl. n. instead of L. fem. Gen. pl. n.
41Also misspelled AGBM02718 in the protologue.
42The preferred etymology is N.L. neut. n. propanol, propanol; ….
43The list editors have corrected the epithet alcaliphilus to alkaliphilus (al.ka.li’phi.lus. N.L. n. alkali, from Arabic al-qaliy, the soda ash; Gr. masc. adj. philos, loving; N.L. masc. adj. alkaliphilus, loving alkaline conditions).
44The etymology must state N.L. fem. adj. instead of N.L. masc. adj.
45In the abstract given as DSM 119677.
46In the protologue heading, the genus name is misspelled Natrarchaebius.
47In the abstract given as DSM 119936.
48The etymology must state gen. nov. instead of gen. Nov.
49The authors gave Luo et al. 2024 instead of Luo et al. 2025.
50The etymology must state L. fem. adj. pacifica instead of pacificus.
51The etymology must state N.L. masc. adj.
52The effective publication states that the type strain was also deposited as KCCM 101304, but no documentation was supplied.
53The list editors have corrected the epithet to jeddahensis (jed.dah.en’sis. N.L. masc. adj. jeddahensis, …).
54N’diop given in the protologue was also spelled Ndiop, NDiop and N’Diop in the article and in culture collection documents.
55Preferred syllabification and etymology are me.tal.li.re.du’cens. L. neut. n. metallum, …,
56The etymology must state N.L. masc. adj. instead of NL adj. masc.
57The list editors have corrected the epithet to phocaeensis (pho.cae.en’sis. N.L. masc. adj. phocaeensis, pertaining to Phocaea in Anatolia, home of the colonists that founded Massilia (Marseille).
58The etymology must state N.L. gen. n. instead of L. masc. adj.
59The effective publication states that the type strain was also deposited as HAMBI 3031, but no documentation was supplied.
60The etymology must state L. gen. n. paludis, of a swamp instead of L. gen. n. paludis (italic type) of a swamp.
61The protologue heading must state Photobacterium atrarenae instead of P. atrarenae.
62The etymology must state L. fem. n. oryza, rice; L. neut. n. solum, soil; N.L. gen. n. oryzisoli, of rice soil.
63The effective publication states that the type strain was also deposited as TISTR 2996, but no documentation was supplied.
64The list editors propose the following syllabification and etymology: hu.tmen’sis. N.L. fem. adj. hutmensis, arbitrarily formed from Hu-bei and Huang-jia-hu, where the strain was isolated and ‘tm’, abbreviation of traditional medicine.
65The etymology must state N.L. fem. adj. instead of N.L. msac. adj.
66The effective publication states that the type strain was also deposited as CGMCC 1.16493, but no documentation was supplied.
67The protologue heading must read Pseudoxanthomonas fibrivorans sp. nov. instead of Pseudxanthomonas fibrivorans 10HT sp. nov.
68Preferred syllabification and etymology are pe.lo’phi.lus. Gr. masc. n. pelos, mud; Gr. masc. adj. philos, loving; N.L. masc. adj. pelophilus, mud-loving).
69The preferred etymology is L. fem. adj. aquatilis, aquatic, ….
70The effective publication states that the type strain was also deposited as HNIBRBA6996, but no documentation was supplied.
71The effective publication states that the type strain was also deposited as HNIBRBA14924, but no documentation was supplied.
72The etymology must state L. gen. n. sedimenti instead of L. gen. n. sediment.
73Culture collection numbers were not in the protologue but are found in the abstract and in the protologue of Sphingobium salicis subsp. salicis, for which validation was not requested.
74The preferred etymology is N.L. neut. n. ginsenosidum, … and N.L. fem. adj. ginsenosidivorax, ….
75The effective publication states that the type strain was also deposited as LMG 25801, but no documentation was supplied.
76The preferred etymology is L. fem. n. spongia, sponge.
77The effective publication states that the type strain was also deposited as MCCC 1K00504, but no documentation was supplied.
78The effective publication states that the type strain was also deposited as CGMCC 1.12676, but no documentation was supplied.
79The protologue heading must state Sufuriroseicoccus instead of sulfuriroseicoccus.
80The type species is not explicitly mentioned.
81The protologue heading must state Sufuriroseicoccus oceanibius instead of sulfuriroseicoccus oceanibius.
82The effective publication states that the type strain was also deposited as CGMCC 1.18647, but no documentation was supplied.
83The protologue heading must have Thermococcus instead of T. The preferred syllabification and etymology are ra.di.o.to’le.rans. L. masc. n. radius, a beam or ray; L. pref. radio-, pertaining to radiation; L. pres. part. tolerans, tolerating; N.L. masc. part. adj. radiotolerans, (γ-ray) radiation-tolerating.
84The list editors have corrected aerophilum to aerophilus (ae.ro’phi.lus. Gr. masc. n. aer, air; Gr. masc. adj. philos, loving; N.L. masc. adj. aerophilus, air loving).
85The preferred etymology is N.L. masc. adj. ….
86The effective publication states that the type strain was also deposited as LN870312, but no documentation was supplied.
Corrigenda
The name Nocardioides bruguierae Chen et al. 2023 was listed both in Validation List no. 225 [149] and in Validation List no. 226 [150].
In Validation List no. 227 [151], the list editors corrected the name Actinospongicola Huang et al. 2025 to Actinospongiicola. In view of the latest emendation of Appendix 9, Section A (1)(c) of the ICNP, this correction was not necessary.
Acknowledgements
We thank S. Turner (National Center for Biotechnology Information, National Institutes of Health, Bethesda, MD, USA) and H. Freese (Leibniz Institute DSMZ – German Collection of Microorganisms and Cell Cultures, Braunschweig, Germany) for helpful comments.
Abbreviations
- ICNP
International Code of Nomenclature of Prokaryotes
- IJSEM
International Journal of Systematic and Evolutionary Microbiology
Footnotes
Funding: The authors received no specific grant from any funding agency.
Contributor Information
Aharon Oren, Email: aharon.oren@mail.huji.ac.il.
Markus Göker, Email: markus.goeker@dsmz.de.
References
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