- abnormal heart development / MGI
- abnormal heart shape / MGI
- kidney cortex cysts / MGI
- abnormal kidney development / MGI
- abnormal kidney blood vessel morphology / MGI
- abnormal liver development / MGI
- liver hypoplasia / MGI
- absent spleen / MGI
- small testis / MGI
- abnormal lung development / MGI
- pulmonary hypoplasia / MGI
- decreased embryo size / MGI
- edema / MGI
- abnormal reproductive system physiology / MGI
- male infertility / MGI
- prenatal lethality / MGI
- premature death / MGI
- abnormal embryonic tissue morphology / MGI
- no abnormal phenotype detected / MGI
- small heart / MGI
- decreased germ cell number / MGI
- abnormal secondary sex determination / MGI
- streak gonad / MGI
- dilated renal tubules / MGI
- glomerulonephritis / MGI
- increased urine protein level / MGI
- small kidney / MGI
- primary sex reversal / MGI
- renal interstitial fibrosis / MGI
- absent ovary / MGI
- kidney failure / MGI
- kidney cysts / MGI
- diaphragmatic hernia / MGI
- azoospermia / MGI
- hemopericardium / MGI
- glomerulosclerosis / MGI
- absent adrenal gland / MGI
- abnormal renal glomerulus morphology / MGI
- abnormal podocyte morphology / MGI
- abnormal mesangial cell morphology / MGI
- renal/urinary system phenotype / MGI
- cardiovascular system phenotype / MGI
- agonadal / MGI
- abnormal mesenchyme morphology / MGI
- absent testes / MGI
- absent podocyte foot process / MGI
- podocyte foot process effacement / MGI
- increased splenocyte apoptosis / MGI
- abnormal spleen development / MGI
- myocardium hypoplasia / MGI
- primary atelectasis / MGI
- neonatal lethality, complete penetrance / MGI
- perinatal lethality, complete penetrance / MGI
- embryonic lethality, complete penetrance / MGI
- lethality throughout fetal growth and development, complete penetrance / MGI
- prenatal lethality, incomplete penetrance / MGI
- embryonic lethality during organogenesis, incomplete penetrance / MGI
- juxtaglomerular cell hyperplasia / MGI
- abnormal kidney interlobular artery morphology / MGI
- abnormal glomerular capillary morphology / MGI
- expanded mesangial matrix / MGI
- absent metanephros / MGI
- increased metanephric mesenchyme apoptosis / MGI
- renal cast / MGI
- increased renal glomerulus basement membrane thickness / MGI
- abnormal gonadal ridge morphology / MGI
- mesangial cell hyperplasia / MGI
- mesangiolysis / MGI
- abnormal glomerular capsule parietal layer morphology / MGI
- decreased glomerular capsule space / MGI
- glomerular crescent / MGI
- podocyte microvillus transformation / MGI
- podocyte hypertrophy / MGI
- abnormal diaphragm development / MGI
- abnormal pleuropericardial membrane morphology / MGI
- abnormal heart apex morphology / MGI
- abnormal adrenal gland development / MGI
C57BL/6J-Wt1Vih/H
| Status | Available to order |
| EMMA ID | EM:15813 |
| Citation information | RRID:IMSR_EM:15813 Research Resource Identifiers (RRID) are persistent unique ID numbers assigned to help researchers cite key resources (e.g. antibodies, model organisms and software projects) in the biomedical literature to improve transparency and reproducibility in research. See https://www.rrids.org/ for more information. |
| International strain name | C57BL/6J-Wt1Vih/H |
| Alternative name | Wt1R394W/+ |
| Strain type | Targeted Mutant Strains |
| Allele/Transgene symbol | Wt1R394W |
| Gene/Transgene symbol | Wt1 |
Information from provider
| Provider | Vicki Huff |
| Provider affiliation | Department of Genetics, The University of Texas MD Anderson Cancer Center |
| Genetic information | This strain models human Denys-Drash Syndrome (DDS) when on an MF1 background. When male heterozygous mice are back-crossed onto female MF1 for 2 generations, male mice show key phenotypes of glomerular disease including albuminuria, glomerular scarring, renal failure. This is a strong phenocopy of human Denys Drash syndrome. Female mice show a much slower renal disease so are not used for kidney research, but they are infertile due to issues with granulosa cell differentiation The R394W mutation is the most common mutation found in human DDS. The R394W mutation was introduced into mouse embryonic stem (ES) cells by homologous recombination by a cre-loxP strategy (Fig. 1A). With a genomic Wt1 clone isolated from a 129/SvEv genomic library, a loxP-PGKneobpA-loxP cassette was inserted in reverse orientation 3′ of exon 9 and an MC1tkpA herpes simplex virus thymidine kinase expression cassette (Citation26, Citation41) was introduced 3′ of exon 10 of Wt1. The C1180T mutation was introduced via site-directed mutagenesis, and the entire construct was sequenced to verify the presence of the C-to-T transition and to ensure that no other alteration had been introduced into the construct. AB1 (129/SvEv) ES cells were electroporated with the Wt1R394W targeting construct and selected for resistance to G418 and sensitivity to 1-(2-deoxy-2-fluoro-β-d-arabinofuranosyl)-s-iodouracil (Citation26, Citation27). Clones were genotyped by Southern blotting of EcoRV-restricted clone DNA hybridized to a genomic probe 5′ of exon 7 (5′ probe); introduction of the neo cassette by homologous recombination resulted in a 7.14-kb fragment compared to the normal 5.34-kb fragment (Fig. 1B). Following sequence verification, a targeted ES cell clone was injected into C57BL/6 (B6) blastocysts. Male chimeras were identified by coat color and subsequently crossed with wild-type females. Tail biopsies from agouti-pigmented F1 animals were genotyped by PCRs with a common forward primer (1.47 [5′ CTG CAG GTG GCT GTA CAG AA 3′]) paired with a mutant allele-specific primer (1.46 [5′ GTC TTC AGA TGG TCG GTC CA 3′]) (Fig. 1D). Wt1+/R394W-neo offspring were crossed with ZP3-cre (Jackson Laboratory) females. Offspring were assessed for the excision of the neo cassette, and several Wt1+/R394W heterozygotes were identified. |
| Phenotypic information | Homozygous:homozygous mice are embryonic lethal. https://doi.org/10.1128/MCB.24.22.9899-9910.2004Heterozygous:Heterozygous mice show no phenotype on C57BL/6, but when male hets are back-crossed onto female MF1 for 2 generations the male hets show key phenotypes of glomerular disease (albuminuria, glomerular scarring, renal failure). This is a strong phenocopy of human Denys-Drash syndrome. The R394W mutation is the most common mutation found in human DDS. Please see https://doi.org/10.1128/MCB.24.22.9899-9910.2004 for generation of line and characterisation Please see https://doi.org/10.1002/path.6339 for more on disease phenotype Female mice show a much slower renal disease so are not used for kindey research, but they are infertile due to issues with granulosa cell differentiation. Please see DOI: 10.1093/hmg/ddt423 |
| Breeding history | This line is maintained on C57BL/6 but is then backcrossed for 2 generations onto MF1 for disease phenotype. |
| References |
|
| Homozygous fertile | no |
| Homozygous viable | no |
| Homozygous matings required | no |
| Immunocompromised | no |
Information from EMMA
| Archiving centre | Mary Lyon Centre at MRC Harwell, Oxford, United Kingdom |
Disease and phenotype information
Orphanet associated rare diseases, based on orthologous gene matching
- Nephroblastoma / Orphanet_654
- Denys-Drash syndrome / Orphanet_220
- Meacham syndrome / Orphanet_3097
- Frasier syndrome / Orphanet_347
- Genetic steroid-resistant nephrotic syndrome / Orphanet_656
MGI phenotypes (gene matching)
Literature references
- Single-cell transcriptomics identifies aberrant glomerular angiogenic signalling in the early stages of WT1 kidney disease.;Chandler Jennifer C, Jafree Daniyal J, Malik Saif, Pomeranz Gideon, Ball Mary, Kolatsi-Joannou Maria, Piapi Alice, Mason William J, Benest Andrew V, Bates David O, Letunovska Aleksandra, Al-Saadi Reem, Rabant Marion, Boyer Olivia, Pritchard-Jones Kathy, Winyard Paul J, Mason Andrew S, Woolf Adrian S, Waters Aoife M, Long David A, ;2024;The Journal of pathology;264;212-227; 39177649
- The Wt1+/R394W mouse displays glomerulosclerosis and early-onset renal failure characteristic of human Denys-Drash syndrome.;Gao Fei, Maiti Sourindra, Sun Guizhi, Ordonez Nelson G, Udtha Malini, Deng Jian Min, Behringer Richard R, Huff Vicki, ;2004;Molecular and cellular biology;24;9899-910; 15509792
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