Predict Your Poodle’s Puppy Colors

Select both parent coat colors below. Our genetics model cross-references dominant and recessive allele patterns to estimate probable litter outcomes.

Parent Colors

Parent 1 — Dam or Sire
Select coat color:
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Parent 2 — Dam or Sire
Select coat color:
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Predicted Results

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Select both parent colors, then tap Calculate to see your litter’s likely coat shades.

Analysing genetics…
Disclaimer: These predictions are probability estimates based on simplified genetic models. Real outcomes can vary due to hidden recessives, modifier genes, and polygenic factors. Always consult a certified canine geneticist for breeding decisions.

Three Steps to Your Litter’s Palette

Our predictor simplifies canine color genetics into a clear, visual workflow.

1

Pick Parent 1

Select the coat color of your first poodle from our visual swatch palette.

2

Pick Parent 2

Do the same for the second parent. You can mix any two recognized shades.

3

View Results

Click Calculate and get a ranked list of probable puppy coat colors instantly.

4

Plan Your Breeding

Use the probability breakdown to inform your next litter’s color goals.

The Science Behind Your Poodle’s Shade

Color is far more than aesthetics — it’s a window into your poodle’s genetic blueprint.

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Two Core Pigments

All poodle coat colors derive from just two pigments: eumelanin (producing black and brown shades) and phaeomelanin (producing red, apricot, and cream). Every shade you see is a variation or combination of these two.

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Dominant vs. Recessive Genes

Black is dominant — a single copy of the B allele produces a black coat. Red and apricot are recessive, requiring both parents to carry the phaeomelanin-only (ee) genotype. This is why two black poodles can sometimes produce apricot puppies.

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2022 Research Discovery

A 2022 genome-wide study published in PubMed identified an SNN retrocopy insertion (SNNL1) on chromosome 18, uniquely linked to dark red coat intensity in poodles — a breakthrough that explains why some reds are richer than others despite identical visible genotypes.

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The Fading Gene

Many poodles are born one color and mature into another. The G locus (graying gene) causes black poodles to silver and blue with age. Silver poodles are always born black and only begin clearing at the roots from 6 weeks onward — fully silvering by 18–24 months.

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AKC Recognized Colors

The American Kennel Club officially recognizes 11 standard poodle colors including black, white, apricot, red, silver, blue, gray, brown, café au lait, cream, and silver beige. Red was officially added in 1980, developed largely through Ilse Konig’s selective breeding of deep apricot lines.

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Pattern Complexity

Parti, phantom, sable, and brindle poodles follow separate inheritance rules from solid colors. Parti requires two copies of the parti gene (sp allele). Phantom patterns — tan points on a dark base — are controlled by the at allele and require specific genotype combinations to express.

Understanding the Genetic Loci

Each locus (gene location) independently controls a different aspect of your poodle’s final coat color. Here’s what each one does.

LocusControlsEffect
BPigment typeB = black eumelanin; b = brown (chocolate) eumelanin
EColor expressionE = eumelanin expressed; ee = only phaeomelanin (red/apricot/cream)
GProgressive grayingG = graying (silver/blue/café au lait); g = non-graying solid color
APigment patternAy = sable; aw = wild sable; at = tan points (phantom); a = recessive black
KDominant blackKB = dominant black (masks A locus); kbr = brindle; ky = allows A expression
SWhite spottingS = solid; sp = parti (white patches); requires two copies to express

🔬 Peer-Reviewed Research

A 2022 genome-wide association study published by the National Center for Biotechnology Information (NCBI) identified a novel SNN retrocopy insertion (SNNL1) on chromosome 18, uniquely associated with deeper red and apricot pigment intensity in poodles. The study found higher melanin content in darker poodles despite equal numbers of melanocytes — confirming that pigment density, not cell count, drives color depth.

How Dominant × Recessive Works

Think of each gene like a light switch. Dominant alleles (capital letters) override recessive ones (lowercase) — but you need two copies of a recessive gene for it to show.

EXAMPLE: Black × Apricot Cross

Parent 1 (Black): BB EE — dominant black eumelanin fully expressed

Parent 2 (Apricot): BB ee — phaeomelanin only, red pigment at low intensity

F1 Offspring: All BbEe — black phenotype (E masks ee recessive)

F2 Cross: 75% black, 25% apricot/cream — the recessive ee finally surfaces

Key Insight: Hidden Carriers

A solid black poodle can carry recessive genes for red, brown, or even parti coloration without showing any visible signs. DNA color testing (available from Embark, Wisdom Panel, or UC Davis Veterinary Genetics Laboratory) is the only reliable way to know what recessive genes your poodle carries.

All Recognized Poodle Coat Colors

From classic blacks to rare phantoms — every officially recognized poodle shade, at a glance.

Frequently Asked Questions

The most common questions about poodle coat color genetics — answered clearly.

The American Kennel Club recognizes 11 standard coat colors for poodles: black, white, apricot, red, silver, blue, gray, brown (chocolate), café au lait, cream, and silver beige. Beyond solids, pattern varieties including parti-color, phantom, sable, brindle, and abstract are also registered. Not all colors appear equally across toy, miniature, and standard sizes — silver, for example, is more common in miniatures.
Yes — if both black parents carry the recessive ee genotype (phaeomelanin-only expression) as hidden carriers. Because black is dominant, a black poodle with genotype BbEe will look completely black but still pass the ‘e’ allele to offspring. When two such carriers are bred, there’s a 25% chance each puppy receives ‘ee’ from both parents, producing an apricot or cream coat. This surprises many owners who didn’t know their dog was a carrier.
Blue and silver beige are considered among the rarest solid poodle colors. Blue requires the progressive-graying G gene combined with black base pigment, while silver beige requires the same graying gene paired with brown base pigment. Phantom (tan-point pattern on a non-fading base) and true brindle are also exceptionally rare and require very specific genetic combinations from both parents.
Yes — this is very common and controlled by the G (graying) locus. Silver poodles are always born black and clear from the roots outward, typically reaching their silver shade between 18–24 months. Blue poodles undergo a similar but slower clearing process. Red and apricot coats tend to fade with age, sun exposure, and nutrition — all pheomelanin-based coats lighten over time, though genetics, grooming, and diet influence the rate of fading significantly.
No scientific evidence links coat color to temperament or overall health in poodles. Temperament is shaped primarily by genetics of behavior, early socialization, and training — not pigmentation. However, double merle (two copies of the merle gene) breeding — which is not standard in poodles but sometimes seen in doodle crosses — is associated with blindness and deafness. Color-linked health risks in poodles are minimal, though breeders should always health-test for PRA, hip dysplasia, and Addison’s disease regardless of color.
The AKC registers them separately, but apricot and red are not genetically distinct colors — they fall on the same phaeomelanin intensity spectrum. Red is deeper and more saturated; apricot is a lighter variation of the same pigment. A 2022 NCBI study identified a novel SNN retrocopy insertion (SNNL1) linked to increased pigment density in red poodles. The red color was developed intentionally from deep apricot lines in the 1980s, with Ilse Konig of Shangri-La Kennels playing a foundational role. Both colors fade with age at similar rates.
Our tool provides probability estimates based on well-established canine color genetics patterns. It accounts for dominant/recessive relationships between the most common alleles. However, real-world genetics involve additional modifier genes, polygenic intensity factors, and hidden carriers that a visual-color-only model cannot account for. For the highest accuracy — especially in a professional breeding program — we recommend DNA color testing from services like Embark Veterinary or Wisdom Panel, which can reveal exact genotypes including hidden recessives.

© 2026 PoodleGuru.com · All predictions are educational estimates. Not a substitute for professional veterinary or genetic advice. · Privacy Policy

Last updated:2026 · Based on peer-reviewed canine genetics research

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