mgTi1 [rpl-28p::skn-1a::GFP::tbb-2 3'UTR + unc-119(+)] I. Expresses SKN-1A with C-terminal GFP tag. Reference: Lehrbach NL & Ruvkun G. Elife. 2016 Aug 16;5. pii: e17721

Unc-13 phenotype. Segregates Uncs and lethal DpyUncs (h80 arrests as a late larva). Maintain by picking Unc-13 and checking for correct segregation of progeny.

NL subclone of KR1787. NL received strain KR1787 from Ann Rose 11/93. High copy Tc1 strain. See WBG 14(4): 16-17.

NL subclone of CB4000. High Tc1 copy number strain. See WBG 14(4): 16-17.

NL subclone of strain RW7000. NL7000 seems to have diverged from RW7000 strains in other labs. Some polymorphisms are different; the two strains may actually be quite diverged. NL received RW7000 in 1988. See WBG 14(4): 16-17. Rec'd new stock 5/97 from NL.

ltIs1[pIC22; pie-1 promoter::knl-3::GFP + unc-119(+)].

ltSi597 [knl-1p::knl-1::mCherry::knl-1 3'UTR Cbr-unc-119(+)] I. mCherry labeled KNL-1. Reference: Hattersley et al., Dev Cell 2016 Sep 12;38(5):463-77. doi: 10.1016/j.devcel.2016.08.006. PMID: 27623381

ltIs22[pPM3; pie-1::GFP-TEV-STag::KNL-2 + unc-119(+)].

ltSi1 [knl-1p::knl-1(re-encoded)::RFP + Cbr-unc-119(+)] II. KNL-1::RFP has been re-coded to be knl-1(RNAi) resistant. Reference: Espeut J, et al. Cell Rep. 2015 Jul 7;12(1):58-65. doi: 10.1016/j.celrep.2015.05.039. PMID: 26119738

mCherry tag inserted at N-terminus of endogenous knl-1 locus using by CRISPR/Cas9 engineering. Reference: Cheerambathur DK, et al. Dev Cell. 2019 Mar 25;48(6):864-872.e7. doi: 10.1016/j.devcel.2019.02.002. PMID: 30827898

ltSi264 [bub-1p::bub-1(re-encoded)::RFP + Cbr-unc-119(+)] II. BUB-1::RFP has been re-coded to be knl-1(RNAi) resistant. Reference: Pelisch F, et al. Mol Cell. 2017 Jan 5;65(1):66-77. doi: 10.1016/j.molcel.2016.11.001. PMID: 27939944

Superficially wild-type. CRISPR/Cas9 engineered STOP-IN null mutant of kcnl-2. Universal 43 bp-long knock-in insertion with 3-frame stop codon (STOP-IN cassette) into very 1st exon of the gene. left flanking sequence: GTGATGTAAACGAAATTCCAAAAACGAATGGAGG right flanking sequence: AGGACATCCAATTGTTAGAAGAAAAAGTGGAATG inserted sequence between the two flanking sequence (STOP-IN cassette): GGGAAGTTTGTCCAGAGCAGAGGTGACTAAGTGATAAgctagc. sgRNA: CCAAAAACGAATGGAGGTCC Method Reference: G3 (Bethesda). 2018 Nov 6;8(11):3607-3616

Superficially wild-type. CRISPR/Cas9 engineered STOP-IN null mutant of kcnl-2. Universal 43 bp-long knock-in insertion with 3-frame stop codon (STOP-IN cassette) into the 1st one of the exons shared by all isoforms of the gene. left flanking sequence: GAATGGAGCAATTGGAGATGATTCAACAGTTCCAT right flanking sequence: TGATGGACGAAAAAGATGATAACAGgttagttattc inserted sequence between the two flanking sequence (STOP-IN cassette): GGGAAGTTTGTCCAGAGCAGAGGTGACTAAGTGATAAgctagc. sgRNA: TGATTCAACAGTTCCATTGA Method Reference: G3 (Bethesda). 2018 Nov 6;8(11):3607-3616

syEx1718 [kcnl-4p::NLS::cGAL(DBD)::gp41-1-N-intein::let-858 3'UTR + F58F6.6p::NLS::gp41-1-C-intein::cGAL(AD)::let-858 3'UTR + unc-122p::RFP + 1kb DNA ladder (NEB)]. Pick animals with RFP expression in coelomocytes to maintain. Split cGAL driver for PHC neurons. syIs300 [15xUAS::(delta)pes-10::GFP::let-858 3'UTR + ttx-3p::RFP + 1kb DNA ladder(NEB)]. Some worms do not express ttx-3p::RFP marker, but will consistently produce worms with transgenetic marker in next generation. GFP cGAL effector.

syEx1719 [kcnl-4p::NLS::cGAL(DBD)::gp41-1-N-intein::let-858 3'UTR + Y48G10A.6p::NLS::gp41-1-C-intein::cGAL(AD)::let-858 3'UTR + unc-122p::RFP + 1kb DNA ladder (NEB)]. Pick animals with RFP expression in coelomocytes to maintain. Split cGAL driver for FLP and PVD neurons. syIs300 [15xUAS::(delta)pes-10::GFP::let-858 3'UTR + ttx-3p::RFP + 1kb DNA ladder(NEB)]. Some worms do not express ttx-3p::RFP marker, but will consistently produce worms with transgenetic marker in next generation. GFP cGAL effector.

ddIs153 [knl-1::TY1::EGFP::3xFLAG(92C12) + Cbr-unc-119(+)]. TY1::EGFP::3xFLAG tag inserted in frame at C-terminus of coding sequence by recombineering. Expression of transgene confirmed by GFP. References: Sarov M, et al. Cell. 2012 Aug 17;150(4):855-66. Strain was constructed as part of the Regulatory Element Project, part of modENCODE (http://www.modencode.org)

T10B5.6. Homozygous sterile deletion chromosome balanced by GFP-marked translocation. Heterozygotes are WT with pharyngeal GFP signal, and segregate WT GFP, arrested nT1[qIs51] aneuploids, and non-GFP ok2788 homozygotes (sterile adult). Homozygous nT1[qIs51] inviable. Pick WT GFP and check for correct segregation of progeny to maintain. External left primer: ATTTTTCGGCAAACTGCAAG. External right primer: AAAAATTGGAATCGGCTTGA. Internal left primer: GCCATTTCTTTGTTTTCAACG. Internal right primer: AAGCCCTGCTTGATTTCCTC. Internal WT amplicon: 1147 bp. Deletion size: 642 bp. Deletion left flank: AACGACACCACATTCTCGGTCAGAGCCGCG. Deletion right flank: AAACTAAGCTCAAGTCAGCTATTGAAATCG. Attribution: This strain was provided by the C. elegans Reverse Genetics Core Facility at the University of British Columbia, which is part of the international C. elegans Gene Knockout Consortium, which should be acknowledged in any publications resulting from its use. Paper_evidence WBPaper00041807

F08A10.1. External left primer: TTTCACAACTACCGCCCTTC. External right primer: AAAAAGAAGCGAACGAACGA. Internal left primer: GATGATTGGATGGTTGCCTT. Internal right primer: CCGACGTGATGATTACGCTA. Internal WT amplicon: 1193 bp. Deletion size: 546 bp. Deletion left flank: CTTCCAATCGAGTTCATAGCTCCATTTATG. Deletion right flank: AATTTCATGCAAGACACTCAACTTACTAAG. Insertion Sequence: TTTTCAT. Attribution: This strain was provided by the C. elegans Reverse Genetics Core Facility at the University of British Columbia, which is part of the international C. elegans Gene Knockout Consortium, which should be acknowledged in any publications resulting from its use. Paper_evidence WBPaper00041807

C02F5.1. Apparent homozygous lethal deletion chromosome balanced by dpy-10-marked translocation. Heterozygotes are WT, and segregate WT, arrested mT1 aneuploids, sterile Dpys (mT1 homozygotes), and ok3457 homozygotes (arrest stage/phenotype undetermined). Pick WT and check for correct segregation of progeny to maintain. External left primer: TTCGATGGAATTGGACAACA. External right primer: ATTGTAGGCCTGATGCAAGG. Internal left primer: AGGCCATAATGAAACATCGC. Internal right primer: GTGAAGGCGGCATCTAAAAT. Internal WT amplicon: 1188 bp. Deletion size: 602 bp. Deletion left flank: GAATGGGCAAACAATGGAAGCTCTGACAGA. Deletion right flank: CAGCTAAGAGGTCTCGATAAGATGGCTGTC. Insertion Sequence: GGAAATTCGAAAATGGCTGAA. Attribution: This strain was provided by the C. elegans Reverse Genetics Core Facility at the University of British Columbia, which is part of the international C. elegans Gene Knockout Consortium, which should be acknowledged in any publications resulting from its use. Paper_evidence WBPaper00041807

iaIs21 [gcy-35p::GFP + unc-119(+)]. gcy-35::GFP is expressed in fifteen neurons, all of which also express ahr-1: AQR, PQR, URXR/L, ALNL/R, BDUL/R, SDQL/R, PLML/R, AVM, and two neurons in the tail tentatively identified as PLNL/R. gcy-35::GFP is only transiently expressed in PLML/R during the first larval stage.

hjIs37 [vha-6p::mRFP-PTS1 + Cbr-unc-119(+)]. ldrIs1 [dhs-3p::dhs-3::GFP + unc-76(+)]. mRFP targeted to peroxisomes in intestinal cells. dhs-3::GFP is expressed mainly in intestinal cells and localized to intestinal lipid droplets. Derived by crossing parental strains VS10 and LIU1 and outcrossing six times to ABR lab stock of N2. Reference: Papsdorf K, et al. Nat Cell Biol. 2023 May;25(5):672-684. doi: 10.1038/s41556-023-01136-6. 2023. PMID 37127715.

Growth retardation, enlarged vacuoles (late endosomes and lysosomes) in intestine, epidermis, coelomocytes and pharynx. 27% embryonic lethality and 8% post-embryonic lethality.

aeaIs10 [rgef-1p::GCaMP6s::3xNLS + lin-15(+)]. Worms express GCaMP6s in all neuronal nuclei. Pan-neuronal imaging strain; suitable for rapid whole-brain imaging due to brightness, good signal to noise ratio, and relative resistance to photo-bleaching. Reference: Susoy V, et al. Cell. 2021 Sep 30;184(20):5122-5137.e17. PMID: 34534446

aeaIs8 [ift-20p::GCaMP6s::3xNLS + lin-15(+)]. hpIs728 [gpc-1p::wCherry + lin-15(+)]. Unc. Nuclear-localized GCaMP6s expressed in ciliated sensory neurons. Cytoplasmic wCherry expression in a subset of neurons. Derived by crossing EG9631 (unc-13) hermaphrodites with ZM10104 (aeaIs8; hpIs728) heterozygous males. Reference: Lin A, et al. bioRxiv 2022.05.27.493772; doi: https://doi.org/10.1101/2022.05.27.493772.

Temperature-sensitive embryonic-lethal mutant. Maintain at 15C. Shift L4s to 25C overnight to observe mutant phenotype of embryos produced by adults. Mutants lack a central spindle during early embryonic mitosis and exhibits a late cytokinesis defect (cleavage furrows regress after ingressing in nearly to the center of dividing embryonic cells). This strain can be used for CRISPR-Cas9 co-conversion. There is a causal mis-sense mutation present in zen-4(cle5), GAC to AAC (D520N), and one silent mutation, GCA to GCT at codon 519, that introduces an AluI site for RFLP analysis. A previous deposited version of this strain, zen-4(ok153), possessed two mis-sense mutations: GAC to AAC (D520N) and GAT to AAT (D735N). Reference: Farboud B, et al. Genetics Early online November 30, 2018; https://doi.org/10.1534/genetics.118.301775.

Temperature-sensitive embryonic-lethal mutant. Maintain at 15C. Shift L4s to 25C overnight to observe mutant phenotype of embryos produced by adults. Mutants lack a central spindle during early embryonic mitosis and exhibits a late cytokinesis defect (cleavage furrows regress after ingressing in nearly to the center of dividing embryonic cells). This strain can be used for CRISPR-Cas9 co-conversion. There is a causal mis-sense mutation present in zen-4(cle10), GAC to AAC (D520N), and two silent mutations. One silent mutation is a CGA to CGG mutation at codon 523 that creates a recognition site for a Cas9 guide RNA, in order to use zen-4(cle10ts) as a CRISPR/Cas9 co-conversion marker. The other silent mutation is a GCA to GCT mutation at codon 519 that introduces an AluI site for RFLP analysis. Reference: Farboud B, et al. Genetics Early online November 30, 2018; https://doi.org/10.1534/genetics.118.301775.

armEx227 [pak-1p::NLS::tagRFP + rol-6(su1006)]. Pick rollers to maintain. pak-1p::NLS::tagRFP is expressed primarily in the hypodermal tissue during the comma and 1.5-fold stages, and in the CAN cells at the 3-fold stage through adulthood. Expression can also be seen in additional neurons during the larval and adult stages. Reference: Kennedy LM, et al. Cell Rep. 2013 Sep 12;4(5):996-1009.

ccIs4251 [myo-3p::GFP::LacZ::NLS + myo-3p::mitochondrial GFP + dpy-20(+)] I. ddi-1 also known as vsm-1.

otIs355 [rab-3::NLS::tagRFP]. otIs45 [unc-119::GFP] V. Pan-neural expression with no injection marker. Reference: Nguyen JP, et al. Proc Natl Acad Sci U S A. 2016 Feb 23;113(8):E1074-81.

wtfEx4 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. Pick RFP+ to maintain array. Reference: Nguyen JP, et al. Proc Natl Acad Sci U S A. 2016 Feb 23;113(8):E1074-81.

wtfIs3 [rab-3p::NLS::GFP + rab-3p::NLS::tagRFP]. Worms expressing the calcium insensitive fluorescent proteins GFP and tagRFP in the nuclei of all neurons in a lite-1(ce314) background. Control strain for AML70. Reference: https://www.biorxiv.org/content/biorxiv/early/2018/10/17/445643.full.pdf

wtfIs3 [rab-3p::NLS::GFP + rab-3p::NLS::tagRFP]. RFP and GFP expression in the nuclei of all neurons. AML18 acts as a control for the calcium imaging strain AML14. Reference: Nguyen JP, et al. Proc Natl Acad Sci U S A. 2016 Feb 23;113(8):E1074-81.

wtfIs5 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. wtfEx258 [rig-3p::tagBFP::unc-54 3'UTR]. Pick BFP+ animals to maintain transgene. Integrated calcium indicator GCaMP6s and calcium-insensitive fluorescent protein RFP in the nuclei of all neurons for whole brain imaging. BFP expression from rig-3 promoter allows identification of AVAL/R neurons. Reference: Hallinen KM, et al. eLife. 2021 Jul 29;10:e66135. doi: 10.7554/eLife.66135.

wtfIs5 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. Integrated calcium indicator GCaMP6s and calcium-insensitive fluorescent protein RFP in the nuclei of all neurons. Derived from AML14 by integration of wtfEx4. Reference: Nguyen JP, et al. PLoS Comput Biol. 2017 May 18;13(5):e1005517.

otIs355 [rab-3p(prom1)::2xNLS::TagRFP] IV. kyIs51 [odr-2b::GFP + lin-15(+)]. Pan-neuronal nuclear RFP expression. Cytoplasmic GFP expressed in the odr-2b neurons including AIZ, AIB, SIAV, AVG, RIV, ASG and IL2 neurons. Derived from parental strains QW1155 and CX3300. Reference: Nguyen JP, et al. Proc Natl Acad Sci U S A. 2016 Feb 23;113(8):E1074-81.

wtfIs5 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. Integrated calcium indicator GCaMP6s and calcium-insensitive fluorescent protein RFP in the nuclei of all neurons. Derived from AML14 by integration of wtfEx4. Reference: Nguyen JP, et al. PLoS Comput Biol. 2017 May 18;13(5):e1005517.

wtfIs5 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. Integrated calcium indicator GCaMP6s and calcium-insensitive fluorescent protein RFP in the nuclei of all neurons. Derived from AML14 by integration of wtfEx4. Reference: Nguyen JP, et al. PLoS Comput Biol. 2017 May 18;13(5):e1005517.

wtfIs5 [rab-3p::NLS::GCaMP6s + rab-3p::NLS::tagRFP]. Integrated calcium indicator GCaMP6s and calcium-insensitive fluorescent protein RFP in the nuclei of all neurons in a lite-1(ce314) background. Reference (wtfIs5): https://www.biorxiv.org/content/biorxiv/early/2018/10/17/445643.full.pdf

Y22D7AR.13. Hyperactive 5HT induced egglaying. Homozygous. Outer Left Sequence: AATTATCGGATTTAGGGCCG. Outer Right Sequence: ATGGAACGGAGCATTATTCG. Inner Left Sequence: CAACACGCAACGAATGTACC. Inner Right Sequence: TGTGAAGTTTGGGAGGCTTT. Inner primer WT PCR product: 3126. Outcrossed 5 times by Stanley Shyn. URL: http://www.celeganskoconsortium.omrf.org.

ccIs4251 [myo-3p::GFP::LacZ::NLS + myo-3p::mitochondrial GFP + dpy-20(+)] I. aceIs1 [myo-3p::mitochondrial LAR-GECO + myo-2p::RFP]; likely inserted into LG II. Reporter expresses the calcium indicator mitochondrial LAR-GECO in all body wall muscles.

Heterozygotes are Unc and segregate Uncs (heterozygotes), non-Unc spo-11 homozygotes, and dead eggs (nT1 homozygotes). spo-11 homozygotes produce an average of ~200 fertilized eggs but only about 0.1 progeny survive to adulthood. When mated to N2 males, spo-11 homozygotes will produce at least 5-10 cross progeny.

Heterozygotes are Unc and segregate Uncs (heterozygotes), non-Unc mre-11 homozygotes, and dead eggs (nT1 homozygotes). mre-11 homozygotes produce about 200 fertilized eggs but only about 2-3% of these eggs survive to adulthood (this mutation cannot be maintained in a homozygous condition). Occasionally non-Unc progeny that do not demonstrate the mre-11(ok179) mutant phenotype arise when grown in large liquid cultures. mre-11 is the predicted gene ZC302.1

Impaired chemotaxis and foraging behavior. Excess intestinal fat accumulation. Reduced oxygen consumption. Derived from NL4000. Reference: Cohen M, et al. 2009 Cell Metabolism 9: 375-385.

zcIs4 [hsp-4::GFP] V. vit-1(ac2) is a dominant allele that causes ER stress. Since vit-1 is expressed only in adult stage, ER stress is induced only in adult stage. The levels of GFP expression from zcIs4 [hsp-4::GFP] reporter indicates the level of ER stress. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

zcIs4 [hsp-4::GFP] V. vit-2(ac3) is a dominant allele that causes ER stress. Since vit-2 is expressed only in adult stage, ER stress is induced only in adult stage. The levels of GFP expression from zcIs4 [hsp-4::GFP] reporter indicates the level of ER stress. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

zcIs4 [hsp-4::GFP] V. vit-4(ac4) is a dominant allele that causes ER stress. Since vit-4 is expressed only in adult stage, ER stress is induced only in adult stage. The levels of GFP expression from zcIs4 [hsp-4::GFP] reporter indicates the level of ER stress. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

zcIs4 [hsp-4::GFP] V. vit-5(ac5) is a dominant allele that causes ER stress. Since vit-5 is expressed only in adult stage, ER stress is induced only in adult stage. The levels of GFP expression from zcIs4 [hsp-4::GFP] reporter indicates the level of ER stress. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

zcIs4 [hsp-4::GFP] V. vit-6(ac6) is a dominant allele that causes ER stress. Since vit-6 is expressed only in adult stage, ER stress is induced only in adult stage. The levels of GFP expression from zcIs4 [hsp-4::GFP] reporter indicates the level of ER stress. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

vit-2(ac3) is a dominant allele that causes ER stress. Since vit-2 is expressed only in adult stage, ER stress is induced only in adult stage. Reference: Singh J & Aballay A. MBio. 2017 May 30;8(3). pii: e00778-17. doi: 10.1128/mBio.00778-17.

Temperature sensitive. M-MATING+LOW TEMP ONLY. Recessive. Fertilization abnormal.