Developmental transcriptomics in Pristionchus reveals the environmental responsiveness of a plasticity gene-regulatory network

Table 1.

Genes that affect mouth-form development in Pristionchus pacificus

Ppa Gene El Paco v2 annotation Chr Protein function Mutant line Mouth form (NGM) Mouth form (S-medium) References
Wild type PS312/RS2333 >90% Eu >90% St
eud-1 PPA43535 X Sulfatase tu445, tu442, tu450, RS3111 0% Eu Ragsdale et al. 2013
seud-1/sult-1 PPA12547 I Sulfotransferase iub7, iub8, tu1061, tu1232 100% Eu 0% St Bui et al. 2018; Namdeo et al. 2018
nag-1 PPA06134 X N-acetylglucosaminidase tu1137, tu1142 100% Eu 0% St Sieriebriennikov et al. 2018
nag-2 PPA34489 X N-acetylglucosaminidase tu1138, tu1143 >90% St Sieriebriennikov et al. 2018
sul-2.2.1 PPA06135 X Sulfatase >90% Eu 100% St Ragsdale et al. 2013; Sieriebriennikov et al. 2018
daf-12 PPA28648a I Nuclear hormone receptor tu381, tu389, tu390 85% Eub Bento et al. 2010
lsy-12 ppa_stranded_DN30317_c2_g1_i3 IV Histone acetyltransferase tu319 2% Eu Serobyan et al. 2016
mbd-2 PPA09682 V Methyl-binding protein tu365 0% Eu Serobyan et al. 2016
nhr-40 PPA22002a X Nuclear hormone receptor tu505, tu1421, tu1418, tu1419 0% Eu 100% St Kieninger et al. 2016; Sieriebriennikov et al. 2020
nhr-1 ppa_stranded_DN28508_c0_g1_i2 X Nuclear hormone receptor tu515, tu1163, tu1164 0% Eu Sieriebriennikov et al. 2020
daf-19 ppa_stranded_DN25985_c0_g1_i1 II Transcription factor RS3011 (tu1035), RS3238 (tu1167) 10% Eu 100% St Moreno et al. 2018, 2019
daf-21 ppa_stranded_DN30790_c0_g1_i2 I Heat-shock protein tu519 52% Eu Sieriebriennikov et al. 2017
osm-1 PPA24556a I Intraflagellar transport protein RS3170 (tu1129) 5% Eu 100% St Moreno et al. 2019
osm-12 PPA23445 III BBSome protein tu1099, tu1414 100% Eu 10% St Moreno et al. 2019
xbx-1 PPA21711 I Dynein protein RS3117 (tu1081) 100% Eu 70% St Moreno et al. 2019
ifta-1 PPA23338 II Intraflagellar transport protein RS2996 (tu1045) 55% Eu 97% St Moreno et al. 2019
dyf-1 PPA06701 V Intraflagellar transport protein RS3092 (tu1072) 35% Eu 98% St Moreno et al. 2019
che-11 ppa_stranded_DN27945_c0_g1_i1 II Intraflagellar transport protein RS3121 (tu1085) 75% Eu 98% St Moreno et al. 2019
che-3 PPA11202 V Dynein protein RS3141 (tu1100) 33% Eu 100% St Moreno et al. 2019
osm-3;klp-20 PPA03370;a
ppa_stranded_DN31699_c4_g13_i1
IV; III Kinesin proteins RS318 (tu1090; tu1131) 33% Eu 100% St Moreno et al. 2019
daf-25 ppa_stranded_DN18164_c0g1_i1 III MYND domain protein tu716 Lenuzzi et al. 2023
tax-2 PPA07435 V Nucleotide-gated channel subunit tu1291, tu1440 >80% Eu Lenuzzi et al. 2023
daf-16 PPA39986 V Transcription factor tu1514, tu1515 43% Eu Lenuzzi et al. 2023
daf-11 PPA14907 I Guanylyl cyclase tu722, tu1438, tu1439, tu1440 80% Eu Lenuzzi et al. 2023
dpy-6 PPA38488 I Mucin-type protein RS3887 (tu743) >90% Eu Sun et al. 2022a
chs-2 PPA39501 II Chitin synthase RS3911(tu1651), RS3912 (tu1652) Eu (toothless) Sun et al. 2022b
daf-7.1;daf-7.2 PPA36793; PPA27957 III; X TGF-β signaling ligand RS4058 (tu1566; tu1573) 60% Eu Lo et al. 2022
tag-68 ppa_stranded_DN25910_c0_g2_i3a V I-Smad transcriptional regulator RS3791 (tu1557), RS3792 (tu1558) 52% Eu Lo et al. 2022
nas-6 PPA30034 IV Astacin metalloprotease RS3913 (tu1653) 60% Eu Ishita et al. 2023
spr-5 ppa_stranded_DN16305_c0_g1_i1 V H3K4me1/2 demethylase cbh49, cbh81, cbh82, cbh149 50% Eu Levis and Ragsdale 2023
mdt-15.1 ppa_stranded_DN24725_c0_g1_i8 III Transcriptional coregulatory iub9, iub10, iub12 Eu (aberrant) Casasa et al. 2023
pddl-1 ppa_stranded_DN27845_c0_g3_i3c IV Delta-9 desaturase RS4411 (tu2028), RS4412 (tu2029) >100% Eue Piskobulu et al. 2025
pddl-3 PPA40514 IV Delta-9 desaturase RS4401 (tu2033), RS4402 (tu2034)d >90% Eue Piskobulu et al. 2025
pddl-4 ppa_stranded_DN27845_c0_g2_i1c IV Delta-9 desaturase RS4398 (tu2030), RS4399 (tu2031)d >90% Eue Piskobulu et al. 2025
dhs-28.1 PPA20393 X Peroxisomal beta- oxidation RS4147 (tu1855) 100% Eue Piskobulu et al. 2025
daf-22.1;daf-22.2 PPA39143;a PPA41516 II; IV Thiolase; thiolase RS2770 (tu489; tu504) 100% Eue Markov et al. 2016; Piskobulu et al. 2025
  • Gene IDs are based on the El Paco v2 gene annotation that was used for this transcriptomic analysis.

  • aThese genes have different gene IDs in the updated gene annotation (El Paco version 3).

  • bThis is our observed mouth-form frequency (Supplemental Fig. S18), which differs from the previously reported percent Eu.

  • cThese genes are not annotated in El Paco version 2, so this is the El Paco version 3 annotation.

  • dSee reference for additional mutant alleles of these genes.

  • eMouth form of these mutants is less responsive to high glucose.

This Article

  1. Genome Res. 35: 1560-1573

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