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Rhodesian Ridgeback

Rhodesian Ridgeback
Photo: Bonnie van den Born, http://www.bonfoto.nl / CC BY-SA 3.0 · Wikimedia

19 Rhodesian Ridgebacks in the atlas. Every number on this page has a source.

Population-genetic snapshot of Rhodesian Ridgebacks in the Sniff Atlas, source-graded Mendelian carrier frequencies from Donner 2023, and nutrition guidance tied to the genetic findings above.

Also known as African lion dog and African lion hound.

The plain version

Rhodesian Ridgebacks come from a somewhat limited gene pool, meaning they have a bit less genetic variety compared to some other breeds. They’re known for their distinctive ridge of hair along their back and are generally strong and athletic dogs. This breed’s gene pool includes a risk factor linked to heart health, so it’s a good idea to talk with your vet or consider genetic testing to keep an eye on this. Since only a small number of dogs were studied, this picture might change as more information becomes available.

What the atlas says about Rhodesian Ridgeback

In the atlas, the Rhodesian Ridgeback clusters consistently as Rhodesian Ridgeback (100% of the 19 dogs here). At the trait loci, LCORL runs lower than average (0% here vs 83%); HMGA2 runs higher than the atlas average (100% here vs 56%). Dogs here sit in a relatively sparse region of the atlas, fewer close neighbors than typical.

Low breed predictability score (0.17), individual dogs of this breed vary widely in genetics, suggesting active substructure or sub-population diversity. Only 19 dogs of this breed in the atlas, modestly sampled.

Genetic dimensions · CanVAS atlas

What the genome says about Rhodesian Ridgeback

Computed from the 18,477 research dogs in the Atlas.

These figures are computed from only 19 Rhodesian Ridgebacks in the atlas. Treat them as provisional. They sharpen as more dogs are added.
Dogs in the Atlas
19Founders
10 from Hayward2016, 9 from Spatola
Genetic diversity

Not enough dogs in the atlas yet (n=19) for a reliable diversity figure. It fills in as more are added.

Mean heterozygosity across the breed. Too few dogs in this breed (<20) to rank.
What does genetic diversity mean?

How varied a breed's gene pool is — the share of gene spots where a typical dog of the breed carries two different versions rather than two identical ones.

How to read it: Higher = more diverse. Among well-sampled breeds it ranges roughly 0.22 (least diverse) to 0.33 (most diverse).

Diversity is a strength, not a verdict on any individual dog. Lower diversity means it's worth paying attention to recessive-risk testing — not that a dog is doomed.

Cluster structure

Not enough dogs in the atlas yet (n=19) to resolve cluster structure. It fills in as more are added.

What does within-breed variation mean?

How much individual dogs within the breed differ from each other genetically.

How to read it: Higher = more internal variety among individuals of the breed.

Sensitive to how many dogs of the breed we've sampled.

Related breeds
Built from
Close cousins
In the Working group
Explore the full lineage map →
VBO foundation stock (breeding records) · AKC breed group
Relatedness is documented lineage + kennel family. Genetic-ancestry distance measures diversity, not kinship, so it isn't used here.
How long they live
12years (life expectancy)
95% CI 11.9–12.2 · VetCompass, McMillan 2024, n=2,108. source
What does typical lifespan mean?

The median age dogs of the breed tend to reach.

How to read it: Higher = longer-lived. Compare to longevity-for-size to see whether it's just a size effect.

Drawn from population lifespan records; individual dogs vary widely with care, genetics, and luck.

Trait genetics
Allele frequencies at named morphology loci

Frequency of the alternate allele in this breed at each locus's representative SNP.

Not enough Rhodesian Ridgebacks in the atlas yet (n=19) for reliable allele frequencies at these loci. It fills in as more are added.

n = 19 dogs · low confidence · CanVAS (Brundage 2026) · Sniff Atlas
Names & origins

Other names

The Rhodesian Ridgeback is also recorded as African lion dog and African lion hound.

Identified as Rhodesian Ridgeback (VBO:0201135) in the Vertebrate Breed Ontology (Mullen et al. 2025, CC-BY 4.0) · registry IDs FCI 146 · iDog 204 · VeNom 14634.

Temperament

What Rhodesian Ridgebacks tend toward

Tendencies from owner surveys of purebred Rhodesian Ridgebacks — a leaning across the breed, not a prediction for any one dog. A bar’s strength shows how much of that behavior breed actually explains: for most it’s faint, because the rest is your dog, their training, and the life you give them.

Biddabilitybreed ~18%
biddableindependent
n = 25 dogs · Morrill et al. 2022, Science, Darwin's Ark (CC0)
Owner-reported purebreds; each factor n ≥ 25. "Breed ~%" is the share of this behavior explained by breed.
What you see when you look at a Rhodesian Ridgeback

What does the genome say about how a Rhodesian Ridgeback looks?

Rhodesian Ridgebacks look the way they do because of a small set of fixed and near-fixed morphology genes that, taken together, define the visible breed. Each translation below pairs the gene with the trait an owner actually sees, the breed's allele frequency at that locus, and a one-clause causal phrase.

Where the breed-defining genes act, mapped on a generic dog-body key — and how fixed each marker is in the Rhodesian Ridgeback. The figure is the most-settled marker we read in that region; the full per-locus panel is below. (The silhouette is a shared anatomical guide, not this breed's outline.)

Body sizeHMGA2 · 100%Skull shapeBMP3 · 53%EarsMSRB3 · 53%Leg lengthFGF4 CFA18 · 71%Coat & colorKRT71 · 100%
CanVAS trait-locus panel (Brundage 2026)
15 morphology markers read across 5 regions. Allele frequency = how fixed a marker is in this breed, not whether your dog carries it.

Size and build

IGF1 sits at 53% for the small-body allele. IGF1 is the gene that sets dog body size from Chihuahua to Great Dane. Intermediate frequencies typically keep a breed in the mid-sized range rather than tipping toward the larger working forms.

IGF1what this gene does

IGF1 is a gene that plays a key role in determining a dog's body size. It influences how much a dog grows, affecting overall stature.

For your dog: Knowing about IGF1 gives you insight into your dog's size traits, but it’s just one part of the bigger picture when it comes to their health and care.

Full IGF1 gene page →

HMGA2 is near-fixed at 100%, reinforcing the breed's size signal through a second locus on chromosome 10.

HMGA2what this gene does

HMGA2 is a gene that influences body size in dogs, helping determine how big or small a dog grows.

For your dog: Knowing about HMGA2 helps you appreciate the genetic factors behind your dog's size, but it doesn't signal any health issues.

Full HMGA2 gene page →

SMAD2 is near-fixed at 100%, a chromosome-7 height locus differentiating small from giant breeds.

SMAD2what this gene does

SMAD2 is a gene involved in regulating body size by influencing how cells grow and develop.

For your dog: Knowing about SMAD2 helps understand your dog's size traits but isn't linked to health issues; no immediate action needed.

Full SMAD2 gene page →

LCORL is at 0%, the NCAPG/LCORL height locus running against the breed's body-size profile here.

LCORLwhat this gene does

LCORL is a gene that influences body size in dogs. It helps determine how big or small a dog might grow.

For your dog: Knowing about LCORL helps you appreciate the genetic factors behind your dog's size, but it’s just one piece of the bigger picture when it comes to health and care.

Full LCORL gene page →

STC2 sits at 53%.

ADAMTS17 sits at 50%. ADAMTS17 is a body-size locus also linked to lens disorders.

ADAMTS17what this gene does

ADAMTS17 is a gene that influences body size and also plays a role in certain eye conditions. It affects the structure of tissues in the eye and elsewhere in the body.

For your dog: If your dog belongs to a breed known to carry ADAMTS17 variants, it’s worth discussing genetic testing and eye exams with your vet to stay ahead of potential issues.

Full ADAMTS17 gene page →

Leg length

The FGF4 retrogene on chromosome 18 sits at 71%. This is the leg-length variant. The intermediate frequency means some dogs in this breed carry the short-legged allele and some do not.

The FGF4 retrogene on chromosome 12 sits at 66%, the chondrodystrophic variant.

Coat type, length, and color

RSPO2 sits at 53% for the furnishings variant. Furnishings (the eyebrow-and-mustache pattern seen in Schnauzers and Wheaten Terriers) vary across the population at this intermediate frequency, and visible expression depends on the specific allele combination each dog carries.

RSPO2what this gene does

RSPO2 influences the texture and appearance of a dog's coat, particularly the presence of 'furnishings' like mustaches and eyebrows. It helps determine whether a dog has that distinctive wiry or textured look.

For your dog: If your dog has those wiry eyebrows or a mustache, RSPO2 is part of the reason—no health worries, just a coat feature worth knowing about.

Full RSPO2 gene page →

FGF5 sits at 45% for the long-coat variant. Coat length is influenced by other loci as well, so intermediate FGF5 frequencies do not always correspond to intermediate visible coat lengths.

FGF5what this gene does

FGF5 is a gene that influences the length of a dog's coat. It acts like a natural switch, telling hair follicles when to stop growing longer fur.

For your dog: If your dog has a notably long or short coat, FGF5 is likely part of the reason—no action needed, but it’s a neat genetic detail to know.

Full FGF5 gene page →

KRT71 is near-fixed at 100% for the wavy/curly variant. Coat curl phenotype varies across breeds at this fixation depending on modifier loci, and visible expression is not always curled even when the locus is fixed.

KRT71what this gene does

KRT71 is a gene that influences the curliness of a dog's coat. It helps determine whether a dog's fur is straight or has a distinctive curl.

For your dog: If your dog has a curly coat, KRT71 is likely part of the reason; it’s a natural variation, not a health concern.

Full KRT71 gene page →

MC1R sits at 50% at the representative SNP. MC1R controls the switch between red-to-gold pigment and black-to-brown pigment, with the e/e homozygous genotype producing the gold-to-red spectrum. Substrate frequencies at this SNP depend on the array's polarity, so visible coat color in the breed is a more reliable indicator than this single number.

MC1Rwhat this gene does

MC1R is a gene that influences coat color in dogs, affecting how pigments are produced in the fur.

For your dog: Knowing about MC1R gives insight into your dog's coat color but doesn't relate to health issues.

Full MC1R gene page →

Ears

MSRB3 sits at 53% for the drop-ear allele, which is why ear set varies across the breed.

MSRB3what this gene does

MSRB3 is a gene involved in the development of ear shape and structure in dogs.

For your dog: Understanding MSRB3 helps explain why your dog's ears look the way they do, but it isn't linked to any health issues.

Full MSRB3 gene page →

Skull shape

BMP3 sits at 53%, contributing to the breed's moderate, mesaticephalic head shape rather than the extreme brachycephalic form.

BMP3what this gene does

BMP3 is a gene that influences the shape of a dog's skull, particularly contributing to a shorter, broader head shape known as brachycephaly.

For your dog: If your dog has a broad, short skull, it's worth discussing with your vet how this might impact their health, even though BMP3 isn't directly tied to illness.

Full BMP3 gene page →

SMOC2 sits at 45%, contributing to the breed's moderate head shape.

SMOC2what this gene does

SMOC2 influences the shape of a dog's skull, particularly affecting how flat or short the face appears.

For your dog: If your dog has a short nose, it's worth discussing with your vet how this trait might impact their health over time.

Full SMOC2 gene page →
Mendelian-disease genetics

What genetic diseases do Rhodesian Ridgebacks carry?

From a panel of 250 Mendelian-disease variants screened in 1,054,293 dogs (Donner et al. 2023), Rhodesian Ridgebacks carry 10 of them at observable frequency. Carrier frequency is not clinical risk. Most recessive variants require two copies for disease expression; many dominant variants show incomplete penetrance. Read this as a population fingerprint of what's in the gene pool, not a per-dog prediction.

n = 323 dogs · 2 variants tested · OMIA:000162-9615 · omia.org →
PDK4what this gene does

PDK4 helps regulate how cells use energy, especially in the heart muscle.

For your dog: If your dog is one of the breeds known to carry this gene, it’s worth discussing heart health with your vet, but being a carrier doesn’t mean your dog will develop disease.

low 5.9%
n = 323 dogs · 3 variants tested · OMIA:000256-9615 · omia.org →
SLC3A1what this gene does

SLC3A1 is a gene that helps transport certain amino acids in the kidneys. It plays a key role in preventing the buildup of cystine, which can form stones.

For your dog: If your dog is from a breed known to carry SLC3A1 variants, it’s worth discussing cystinuria risks with your vet, especially if urinary issues arise.

Degenerative Myelopathy (DM)
Autosomal recessive (Incomplete penetrance)
low 5.4%
n = 323 dogs · 1 variant tested · OMIA:000263-9615 · omia.org →
SOD1what this gene does

SOD1 is a gene that helps protect cells from damage caused by harmful molecules called free radicals.

For your dog: If your dog is a carrier of SOD1 variants, it's worth discussing with your vet, but remember carrier status doesn't mean your dog will get the disease.

n = 28 dogs · 1 variant tested · OMIA:002168-9615 · omia.org →
IGFBP5what this gene does

IGFBP5 is a gene that helps regulate growth factors involved in tissue development and repair.

For your dog: If you have a sighthound, it’s worth mentioning IGFBP5-related risks to your vet, but being a carrier doesn’t mean your dog will develop the syndrome.

Exercise-Induced Collapse (EIC)
Autosomal recessive (Incomplete penetrance)
low 2.5%
n = 323 dogs · 1 variant tested · OMIA:001466-9615 · omia.org →
DNM1what this gene does

DNM1 is a gene that helps nerve cells communicate properly by managing how they send signals during muscle activity.

For your dog: If your dog belongs to one of the breeds known to carry this gene variant, it's worth discussing EIC with your vet, especially if your dog is very active or shows signs of weakness during exercise.

n = 323 dogs · 1 variant tested · OMIA:001444-9615 · omia.org →
BEST1what this gene does

BEST1 is a gene that helps maintain the health of the retina, the light-sensitive layer at the back of the eye. It plays a role in keeping the cells in the retina functioning properly.

For your dog: If your dog is from a breed known to carry BEST1 variants, it’s worth discussing retinal health with your vet, especially if you notice any vision changes.

n = 323 dogs · 1 variant tested · OMIA:001588-9615 · omia.org →
PNPLA1what this gene does

PNPLA1 is a gene involved in maintaining the skin's barrier by helping produce essential fats that keep the skin healthy and hydrated.

For your dog: If your dog is from a breed known to carry PNPLA1 variants and shows persistent dry, flaky skin, it's worth discussing with your vet to understand if genetics might be playing a role.

n = 323 dogs · 1 variant tested · OMIA:001503-9615 · omia.org →
ARSGwhat this gene does

ARSG is a gene that helps break down certain molecules in the body, keeping cells healthy.

For your dog: If your dog is from a breed known to carry ARSG mutations, it's worth discussing genetic testing with your vet to understand potential health risks.

Source: Donner J et al. 2023. Genetic prevalence and clinical relevance of canine Mendelian disease variants in over one million dogs. PLOS Genetics 19(2):e1010651 · Evidence: Limited (DTC ascertainment, tag-SNP proxy) · Confounding MEDIUM · License CC-BY-4.0 · Phene IDs from OMIA (Sydney School of Veterinary Science, The University of Sydney; DOI 10.25910/2AMR-PV70).
Sample size in this breed: 323 dogs from the Donner 2023 cohort.

Which Mendelian variants matter most for Rhodesian Ridgebacks?

The Mendelian-disease table above lists variants screened in 323 Rhodesian Ridgebacks (Donner 2023). Two matter most by impact, and the first one is urgent to understand.

Dilated cardiomyopathy in Rhodesian Ridgebacks is an autosomal-dominant-with-incomplete-penetrance heart condition. The TTN variant (flagged as PDK4-related from its discovery in the Doberman Pinscher) predisposes to enlarged heart chambers and reduced contractility. This is a high-severity condition that can cause sudden death. 21.8% of Ridgebacks in the Donner cohort carry the variant (n=323). One in five.

This is the single most important genetic number for the breed. Not every dog with one copy develops clinical cardiomyopathy, the incomplete penetrance means some carriers remain asymptomatic, but the risk is real and the stakes are high. Testing is available. Affected dogs are managed with cardiac medications under veterinary supervision; specific protocols follow ACVIM consensus guidelines (Keene et al. 2019, JVIM 33:1763-1804). Annual echocardiography is standard screening for at-risk dogs.

Cystinuria Type I-A (SLC3A1)

Cystinuria Type I-A in Rhodesian Ridgebacks is an autosomal-recessive condition caused by a variant in SLC3A1. The condition causes excess urinary cystine excretion and predisposes to bladder and kidney stones. 5.9% of Ridgebacks carry one copy (n=323). Affected dogs are managed with diet (low-protein, alkalinizing) and monitoring.

Testing is available from most commercial canine DNA labs.

Degenerative Myelopathy (DM)

Degenerative myelopathy in Rhodesian Ridgebacks is an autosomal-recessive-with-incomplete-penetrance neurological condition. The condition causes progressive spinal-cord degeneration, typically beginning in the rear limbs and advancing toward the front. Affected dogs lose mobility over months to years. 5.4% of Ridgebacks carry one copy (n=323).

Not every dog with two copies of the variant develops clinical signs, which is why the inheritance is incomplete penetrance. The condition typically emerges in mid to late life in dogs with two copies of the SOD1 variant (Zeng et al. 2014, J Vet Intern Med 28:1355-1361). Testing is available and is recommended for breeding stock.

How should I test my Rhodesian Ridgeback?

A breed-specific panel from a CLIA-accredited lab is the highest-yield path. The minimum useful set for Ridgebacks is TTN (dilated cardiomyopathy risk factor, PDK4-related), SLC3A1 (cystinuria), and SOD1 (DM). Testing for the lower-frequency variants (EIC, JME, CMR1, Bald Thigh Syndrome) is available but less urgent unless you have family history.

What should I feed a Rhodesian Ridgeback?

Feeding a Ridgeback well means feeding around the breed’s known genetic vulnerabilities. The TTN-variant dilated cardiomyopathy carrier frequency of 21.8% shapes the nutrition priority: cardiac support is the first concern.

Taurine status and grain-free formulations warrant the same caution as in other breeds. The FDA’s 2018 advisory flagged a diet-associated cardiac signal in certain grain-free formulations. While that signal was most prominent in Goldens, the biology applies across breeds. For a Ridgeback carrying or at risk for TTN-variant cardiomyopathy, a grain-inclusive, taurine-supplemented adult formulation from a manufacturer that runs feeding trials is the conservative default. Taurine levels of 0.1% to 0.3% by dry matter are standard; ask the manufacturer for their taurine concentration if cardiac risk is present.

Joint care is secondary but real. The OFA reports hip dysplasia rates for evaluated Ridgebacks at ofa.org/diseases/hip-dysplasia, and the breed’s size means early-life bone development needs precision. A large-breed puppy formulation with controlled calcium and a calcium-to-phosphorus ratio between 1.1:1 and 2:1 supports skeletal development without over-supplementation (NRC 2006). Adult-life weight management protects the spine in dogs at DM risk.

Protein and amino acid balance matter for neurological support. Dogs at risk for degenerative myelopathy benefit from complete amino acid profiles with adequate methionine and cysteine. A high-quality protein source (animal-based rather than plant-based as the primary protein) is a reasonable choice here, though the evidence for prevention of DM onset is not yet definitive.

The breed’s cystinuria carriers are managed with low-protein, alkalinizing diets if they form stones; this is individualized management, not a breed-wide rule. Consult your veterinarian if a Ridgeback has a history of urinary calculi.

What we don’t know

The relationship between the TTN variant and clinical cardiomyopathy in Ridgebacks is incompletely penetrant, which means we do not yet know which of the 21.8% of carriers will become symptomatic and which will remain asymptomatic throughout life. The penetrance evidence from Donner 2023 has not yet quantified this split in Ridgebacks specifically.

The exercise-induced collapse variant shows zero phenotype confirmation in the Donner cohort (0/2 at-risk dogs), so the clinical significance of this variant in Ridgebacks is still uncertain. Similarly, the CMR1 retinal variant shows zero phenotype confirmation (0/1 at-risk dog). These may be important variants or incidental findings; we do not yet have enough clinical data to say.

The Donner cohort for Ridgebacks is 323 dogs, which is smaller than some of the larger breeds in the study. Rare variants may not be captured, and the confidence intervals around the carrier frequencies are wider than in the largest breeds.

Frequently asked questions about Rhodesian Ridgebacks

What is the most common genetic disease in Rhodesian Ridgebacks? Dilated cardiomyopathy risk, driven by the TTN variant (PDK4-related). 21.8% of Ridgebacks in the Donner cohort carry the variant (Donner 2023, n=323). Not every carrier develops clinical disease, but the risk is real and warrants screening.

How long do Rhodesian Ridgebacks live? The breed’s median lifespan is often cited as approximately 10 to 12 years by breed clubs, consistent with large-breed longevity (Rhodesian Ridgeback Club of the United States, rhrc.org). Individual dogs show substantial variation based on genetics, diet, and management of any cardiac or neurological conditions.

Should I do a DNA test on my Rhodesian Ridgeback? For breeding stock, yes. The breed-specific health committee recommends testing for TTN (dilated cardiomyopathy risk factor), SLC3A1 (cystinuria), and SOD1 (DM). If you are buying a Ridgeback puppy, ask the breeder for test results on both parents.

Are Rhodesian Ridgebacks prone to heart disease? Yes. The TTN variant (PDK4-related) is present in roughly one in five Ridgebacks (21.8%). Regular cardiac screening by a veterinarian is recommended, especially as dogs age. Discuss with your vet whether echocardiography is warranted.

What should I feed a Rhodesian Ridgeback? A grain-inclusive, taurine-supplemented large-breed adult formulation from a manufacturer that runs feeding trials is the conservative default, especially for dogs at cardiac risk. Avoid grain-free diets unless your vet recommends one for specific gastrointestinal disease. Puppy formulations should maintain calcium-to-phosphorus ratios between 1.1:1 and 2:1 (NRC 2006).

Are Rhodesian Ridgebacks good family dogs? Yes. The breed is stable and tolerant with children and other dogs. They are single-prey-drive hunters originally, so socialization with smaller pets should start early. Their size and strength mean supervision with small children is important.

Do Rhodesian Ridgebacks have a ridge on their back? Yes. The ridge is the breed’s signature trait, a stripe of hair running forward along the spine. It is a dominant trait and is present in nearly all Ridgebacks. The ridge itself is a cosmetic trait, though a related condition called dermoid sinus can occur along the ridge line and should be checked by a veterinarian in puppies.

What health screening should I do before buying a Rhodesian Ridgeback puppy? Ask the breeder for: (1) TTN (DCM risk factor) genetic test results on both parents; (2) SLC3A1 and SOD1 (DM) genetic test results; (3) OFA hip and elbow evaluations on both parents; (4) cardiac screening by echocardiography if either parent carries the TTN variant. Request documentation from a CLIA-accredited lab for genetic tests.

A gift to human medicine

Rhodesian Ridgebacks are a natural model for human disease

Because the same genes cause the same conditions across species, the inherited conditions documented in Rhodesian Ridgebacks help researchers understand, and work toward treating, the human diseases they model. This is the dog advancing human medicine. The breed models the human disease; it does not have it, and this is not a prediction for your dog.

Human equivalents via OMIA → Mondo / OMIM. Model-of, not identity.
Documented in OMIA

Every condition recorded in the Rhodesian Ridgeback

Beyond the testable carriers above, OMIA's literature catalogue records 12 genetic conditions in the Rhodesian Ridgeback, 11 of which have a known human equivalent. This is the documented landscape across all Rhodesian Ridgebacks ever studied, not a prediction for any one dog.

Online Mendelian Inheritance in Animals (OMIA); Nicholas, Tammen & Sydney Informatics Hub, DOI 10.25910/2AMR-PV70
Documented in the breed's literature is not carrier status and not a forecast for an individual dog. Human equivalents are mapped via Mondo/OMIM. Carrier frequencies (above) are the separately-measured testable subset (Donner 2023).
The data behind this page

Where every number on this page came from.

This page draws on three primary data sources. Carrier frequencies for the Mendelian section come from Donner et al. 2023 (CC-BY-4.0). We grade these data at evidence Limited because the cohort is a direct-to-consumer ascertainment, which biases toward owners who chose to test their dogs. The panel also uses tag-SNP proxies for some variants rather than direct causal-variant assays. Limited is a study-design grade, not a quality grade: the Donner cohort is the largest open canine-genotype dataset in existence and we are grateful for it. We rate the confounding MEDIUM.

Population-genetic dimensions (heterozygosity, intra-breed PCA distance, nearest neighbors, trait-locus frequencies) come from CanVAS (Brundage 2026), harmonized through the Sniff Atlas. The exact release date and verification commit are pinned at the bottom of the page so a researcher can trace a number back to a specific snapshot. The disease-gene-variant graph comes from OMIA (Online Mendelian Inheritance in Animals; Nicholas, Tammen, and the Sydney Informatics Hub at the Sydney School of Veterinary Science, The University of Sydney; retrieved April 2026, DOI 10.25910/2AMR-PV70).

What this page does not yet have. Inheritance modes and per-disease penetrance evidence from Donner 2023 are now in the structured data for every variant the panel covers. Mondo, OMIM, Ensembl, and HGNC cross-references on gene pages remain pending, they arrive in December 2026 alongside the imputed 9.67M-variant CanVAS dataset via the OMIA SQL dump absorption. Until then, gene IDs carry NCBI Gene and OMIA phene URLs only; the wider human-homolog and disease-ontology cross-reference set fills in with that release.

How to cite this page. The computed dimensions on this page are derived from the open Sniff Atlas v1.0.1 (Gehring 2026, doi:10.5281/zenodo.20566358, CC-BY 4.0). Full citation formats including BibTeX, RIS, and CITATION.cff at sniff.world/cite.

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References
  1. Donner J, Freyer J, Davison S, Anderson H, Blades M, Honkanen L, et al. (2023). Genetic prevalence and clinical relevance of canine Mendelian disease variants in over one million dogs. PLOS Genetics 19(2):e1010651. doi:10.1371/journal.pgen.1010651
  2. Brundage J, et al. (2026). CanVAS: a harmonized canine variant atlas. bioRxiv. doi:10.64898/2026.04.13.718238
  3. Nicholas, F.W., Tammen, I., & Sydney Informatics Hub. (2026). Online Mendelian Inheritance in Animals (OMIA) [dataset]. The University of Sydney. https://omia.org. doi:10.25910/2AMR-PV70 (retrieved April 2026).
Last updated
Sources: CanVAS (Brundage 2026) · Donner 2023 · OMIA