✓ The verified Fischer's Lovebird Genetics Calculator, cross-checked against the Lovebird Compendium (2016)✓ Verified against the Lovebird Compendium (2016)

Lovebird Pairing Outcomes:
Every Aqua and Blue Cross

A verified, engine-generated reference of offspring percentages for every common Aqua and Blue series pairing in Fischer's lovebirds. No estimates, every result comes straight from the Lovebird Genetics Calculator, and every cross links back into it.

Published
June 2026
Read time
8 min
Type
Verified reference

This is a verified reference of lovebird pairing outcomes for the Aqua and Blue (Parblue) series in Agapornis fischeri. Every result below was generated by the Lovebird Genetics Calculator engine, not estimated. Each pairing links straight into the calculator so you can adjust it for your own birds. For the Aqua mutation explained in full, see the Aqua breeder guide and the aqua mutation in lovebirds guide.

Why these are trustworthy

Aqua, Blue 1 and Blue 2 are alleles at the same blue locus, recessive to wild-type Green and co-dominant among themselves. Two visual blue-series parents carry no green allele, so they can never produce a pure Normal chick, a common mistake in older charts. The percentages here come directly from the calculator engine.

Every pairing in breeder syntax, cock × hen

Breeders write a pairing as cock × hen. What a pairing produces depends on the inheritance type of the mutation, not on the mutation name. Sex-linked mutations give different results depending on which parent carries them. Autosomal mutations do not.

Sex-linked recessive: Opaline cock × normal hen, and the reverse

Sex-linked mutations sit on the Z chromosome. A cock has two Z chromosomes so he can be split, a hen has only one Z so she can never be split. She either shows the mutation or does not carry it. This is why the direction of the pairing changes everything, and why these pairings can auto-sex the chicks.

Pairing (cock × hen)SonsDaughters
Visual cock × normal hen100% split100% visual
Normal cock × visual hen100% split100% normal
Split cock × normal hen50% split, 50% normal50% visual, 50% normal
Split cock × visual hen50% visual, 50% split50% visual, 50% normal
Visual cock × visual hen100% visual100% visual

Applies to Opaline, Cinnamon, Pallid and Pale. A visual cock paired to a normal hen is the classic auto-sexing pairing: every visual chick is a hen, every normal-looking chick is a split cock. Pallid carries a caveat: it is confirmed in Agapornis roseicollis, its status in Agapornis fischeri is not formally confirmed, so birds labelled Pallid fischeri should be treated as unverified until a pairing proves the mode. See the Pallid guide for the detail.

Autosomal recessive: Pale Fallow cock × Pale Fallow hen, and the split combinations

Autosomal mutations sit on ordinary chromosomes, so cocks and hens inherit them identically. Swapping the sexes in the pairing changes nothing.

Pairing (cock × hen)All chicks, both sexes
Visual cock × visual hen100% visual
Visual cock × normal hen100% split, no visuals
Split cock × split hen25% visual, 50% split, 25% pure normal
Visual cock × split hen50% visual, 50% split
Split cock × normal hen50% split, 50% pure normal, no visuals

Applies to Yellow Face, Lutino and Albino, Dark Eyed Clear, Pastel, Dilute, Pale Fallow, Dun Fallow, Bronze Fallow and Recessive Pied. Splits and pure normals look identical, so pedigree records matter.

Aqua, Blue and Parblue are a special case. They are alleles at the same blue locus and Aqua B1 and Aqua B2 are co-dominant compounds rather than plain recessives, so a visual to visual pairing can still throw a different visual form. Their compound-specific tables are set out in full further down this page.

Safety

Bronze Fallow cock × Bronze Fallow hen gives roughly 100 percent chick mortality. Bronze Fallow must be bred through split carriers, never visual to visual.

Autosomal dominant: single factor and double factor pairings

Dominant mutations have no split form. One copy already shows as single factor (SF) and two copies make the bird double factor (DF). Where the mutation is an incomplete dominant, such as Euwing and Misty, the DF bird also looks visibly stronger than the SF bird. Where it is a plain dominant, such as Dominant Pied and Slaty, SF and DF are not reliably separable by eye and the pairing arithmetic below is what identifies a DF bird.

Pairing (cock × hen)All chicks, both sexes
SF cock × normal hen50% SF, 50% normal
SF cock × SF hen25% DF, 50% SF, 25% normal
DF cock × normal hen100% SF
DF cock × SF hen50% DF, 50% SF
DF cock × DF hen100% DF

Euwing, Misty, Dominant Pied and Slaty follow this pattern and are modelled in the calculator. Violet and Dark Factor follow exactly the same rules but are not yet modelled in the calculator, so their SF or DF dose has to be tracked on paper.

Sex-linked dominant: Greywing

Greywing in Fischer's lovebirds is sex-linked incomplete dominant per Ornitho-Genetics VZW, so it combines both rules: one copy shows, and the direction of the pairing still matters.

Pairing (cock × hen)SonsDaughters
Normal cock × Greywing hen100% SF Greywing100% normal
SF Greywing cock × normal hen50% SF, 50% normal50% Greywing, 50% normal
DF Greywing cock × normal hen100% SF100% Greywing

Which rule applies to which mutation

MutationInheritanceFull cock × hen breakdown
OpalineSex-linked recessiveOpaline guide
CinnamonSex-linked recessiveCinnamon guide
PallidSex-linked recessive, confirmed in A. roseicollis, not formally confirmed in A. fischeriPallid guide
PaleSex-linked recessivePale guide
GreywingSex-linked dominantGreywing guide
AquaBlue-locus allele. Aqua Homo (aqua / aqua) behaves autosomal recessive; Aqua B1 (aqua // bl1) and Aqua B2 (aqua // bl2) are co-dominant compoundsAqua guide
Yellow FaceAutosomal recessiveYellow Face guide
Lutino and AlbinoAutosomal recessiveLutino and Albino guide
Dark Eyed ClearAutosomal recessiveDark Eyed Clear guide
PastelAutosomal recessivePastel guide
DiluteAutosomal recessiveDilute guide
Pale FallowAutosomal recessivePale Fallow guide
Dun FallowAutosomal recessiveDun Fallow guide
Bronze FallowAutosomal recessiveBronze Fallow guide
BlueBlue-locus allele. bl1 / bl1 and bl2 / bl2 breed true and behave autosomal recessive to wild-typeBlue guide
ParblueBlue-locus compound (bl1 // bl2). Both alleles express, so Parblue cannot breed trueParblue guide
Recessive PiedAutosomal recessiveRecessive Pied guide
EuwingAutosomal dominant, incompleteEuwing guide
MistyAutosomal dominant, incompleteMisty guide
Dominant PiedAutosomal dominantDominant Pied guide
SlatyAutosomal dominantSlaty guide
VioletAutosomal dominant, incompleteViolet guide
Dark FactorAutosomal dominant, incompleteDark Factor guide

Enter any of the modelled mutations above in the free lovebird genetics calculator to get the exact offspring percentages for your own birds, including splits and sex-specific results. Violet and Dark Factor are the two exceptions and are tracked on paper.

Aqua series pairings

What does Aqua B1 x Aqua B1 produce?

Aqua B1 x Aqua B1 produces 25% Aqua Homo, 50% Aqua B1, 25% Blue 1. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B10.1 Aqua B1
OffspringChanceNote
Aqua Homo25%
Aqua B150%
Blue 125%
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What does Aqua B2 x Aqua B2 produce?

Aqua B2 x Aqua B2 produces 25% Aqua Homo, 50% Aqua B2, 25% Blue 2. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B20.1 Aqua B2
OffspringChanceNote
Aqua Homo25%
Aqua B250%
Blue 225%
Open this pairing in the calculator →

What does Aqua B1 x Aqua B2 produce?

Aqua B1 x Aqua B2 produces 25% Aqua Homo, 25% Aqua B1, 25% Aqua B2, 25% Parblue (B1B2). Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B10.1 Aqua B2
OffspringChanceNote
Aqua Homo25%
Aqua B125%
Aqua B225%
Parblue (B1B2)25%
Open this pairing in the calculator →

What does Aqua Homo x Aqua B1 produce?

Aqua Homo x Aqua B1 produces 50% Aqua Homo, 50% Aqua B1. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua Homo0.1 Aqua B1
OffspringChanceNote
Aqua Homo50%
Aqua B150%
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What does Aqua Homo x Aqua B2 produce?

Aqua Homo x Aqua B2 produces 50% Aqua Homo, 50% Aqua B2. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua Homo0.1 Aqua B2
OffspringChanceNote
Aqua Homo50%
Aqua B250%
Open this pairing in the calculator →

What does Aqua Homo x Aqua Homo produce?

Aqua Homo x Aqua Homo produces 100% Aqua Homo. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua Homo0.1 Aqua Homo
OffspringChanceNote
Aqua Homo100%
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What does Aqua Homo x Green (Normal) produce?

Aqua Homo x Green (Normal) produces 100% Green / Aqua (split). Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua Homo0.1 Green (Normal)
OffspringChanceNote
Green / Aqua (split)100%
Open this pairing in the calculator →

What does Aqua B1 x Green (Normal) produce?

Aqua B1 x Green (Normal) produces 50% Green / Aqua and 50% Green / Blue 1. The Aqua B1 parent carries one aqua allele and one bl1 allele, so each chick inherits one or the other, and every chick looks Green. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B10.1 Green (Normal)
OffspringChanceNote
Green / Aqua50%Split for aqua, looks Green
Green / Blue 150%Split for bl1, looks Green
Open this pairing in the calculator →

What does Aqua B1 x Blue 1 produce?

Aqua B1 x Blue 1 produces 50% Aqua B1, 50% Blue 1. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B10.1 Blue 1
OffspringChanceNote
Aqua B150%
Blue 150%
Open this pairing in the calculator →

What does Aqua B2 x Blue 1 produce?

Aqua B2 x Blue 1 produces 50% Aqua B1, 50% Parblue (B1B2). Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B20.1 Blue 1
OffspringChanceNote
Aqua B150%
Parblue (B1B2)50%
Open this pairing in the calculator →

What does Aqua B2 x Parblue (B1B2) produce?

Aqua B2 x Parblue (B1B2) produces 25% Aqua B1, 25% Aqua B2, 25% Parblue (B1B2), 25% Blue 2. Verified on the lovebirdgenetics.com calculator engine.

1.0 Aqua B20.1 Parblue (B1B2)
OffspringChanceNote
Aqua B125%
Aqua B225%
Parblue (B1B2)25%
Blue 225%
Open this pairing in the calculator →

What does Normal / Aqua (split) x Normal / Aqua (split) produce?

Normal / Aqua (split) x Normal / Aqua (split) produces 25% Aqua Homo, 50% Green / Aqua (split) and 25% pure Green. The splits and the pure Greens look identical, so pedigree records or a test pairing are needed to tell them apart. Verified on the lovebirdgenetics.com calculator engine.

1.0 Normal / Aqua (split)0.1 Normal / Aqua (split)
OffspringChanceNote
Aqua Homo25%Visual Aqua
Green / Aqua (split)50%Carries one Aqua allele, looks Green
Green (pure)25%Carries no Aqua allele, looks identical to the splits
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Blue and Parblue series pairings

What does Blue 1 x Blue 2 produce?

Blue 1 x Blue 2 produces 100% Parblue (B1B2). Verified on the lovebirdgenetics.com calculator engine.

1.0 Blue 10.1 Blue 2
OffspringChanceNote
Parblue (B1B2)100%
Open this pairing in the calculator →

What does Parblue (B1B2) x Parblue (B1B2) produce?

Parblue (B1B2) x Parblue (B1B2) produces 50% Parblue (B1B2), 25% Blue 1, 25% Blue 2. Each parent passes either a bl1 or a bl2 allele, so a quarter of the chicks are bl1/bl1 (Blue 1), a quarter are bl2/bl2 (Blue 2) and half are the bl1/bl2 compound, which is Parblue. Verified on the lovebirdgenetics.com calculator engine.

1.0 Parblue (B1B2)0.1 Parblue (B1B2)
OffspringChanceNote
Parblue (B1B2)50%bl1/bl2 compound
Blue 125%bl1/bl1
Blue 225%bl2/bl2
Open this pairing in the calculator →

What does Blue 1 x Green (Normal) produce?

Blue 1 x Green (Normal) produces 100% Green / Blue 1 (split). Verified on the lovebirdgenetics.com calculator engine.

1.0 Blue 10.1 Green (Normal)
OffspringChanceNote
Green / Blue 1 (split)100%
Open this pairing in the calculator →

Run your own pairing

These cover the most-asked Aqua and Blue crosses, but the calculator handles the full modelled set, including Opaline, Ino (Creamino), Pale Fallow and multi-trait pairings, with separate male and female outcomes for sex-linked mutations. Violet and Dark Factor are the two modifiers it does not yet model. Open the Lovebird Genetics Calculator →

Frequently asked questions

What do you get from an Opaline cock x normal hen?
Every son is a normal-looking split Opaline cock and every daughter is a visual Opaline hen. This is the classic auto-sexing pairing in Fischer's lovebirds: the chicks can be sexed by colour alone. The same pattern applies to Cinnamon, Pallid and Pale, because all four are sex-linked recessive. One caveat on Pallid: it is confirmed in Agapornis roseicollis, its status in Agapornis fischeri is not formally confirmed, so birds labelled Pallid fischeri should be treated as unverified.
What do you get from a normal cock x Opaline hen?
Every son is a split Opaline cock and every daughter is a normal hen. No visual chicks appear in this direction. Hens can never be split for a sex-linked mutation, so a hen either shows it or does not carry it.
What do you get from an Aqua cock x Aqua hen?
It depends which form of Aqua the parents are. Aqua Homo x Aqua Homo gives 100% Aqua Homo, every chick a visual Aqua, cocks and hens alike. Aqua B1 and Aqua B2 are co-dominant compounds at the blue locus, not plain recessives, so Aqua B1 x Aqua B1 gives 25% Aqua Homo, 50% Aqua B1 and 25% Blue 1, and Aqua B2 x Aqua B2 gives 25% Aqua Homo, 50% Aqua B2 and 25% Blue 2. Aqua is not sex-linked in any of these forms, so the sex of the parents makes no difference to the outcome.
What do you get from a split cock x split hen?
For an autosomal recessive mutation, 25 percent of chicks are visual, 50 percent are splits and 25 percent carry nothing. The splits and the pure normals look identical, which is why pedigree records or test pairings are needed.
Does it matter which parent carries the mutation?
It matters for sex-linked mutations and does not matter for autosomal ones. With Opaline, Cinnamon, Pallid, Pale and Greywing the direction of the pairing changes the result completely. With Aqua, Yellow Face, the fallows, Dilute, Ino, DEC, Pastel, Blue and Parblue the result is the same either way. Note that Pallid is confirmed in Agapornis roseicollis, its status in Agapornis fischeri is not formally confirmed, so birds labelled Pallid fischeri should be treated as unverified.