Table S5: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Multi-Allelic Major Effect Genes Interact with Minor Effect QTLs to Control Adaptive Color Pattern Variation in Heliconius erato

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

<div>Recent studies indicate that relatively few genomic regions are repeatedly involved in the e...

Not Available

Ramesh, M
Lavanya, C.
Sujatha, M
Bhave, M.H.V
Aruna Kumari, J.

January 2017

Not AvailableThe segregation of morphological characters and sex expression of the traits was studie...

Multi-allelic major effect genes interact with minor effect QTLs to control adaptive color pattern variation in Heliconius erato.

Papa, Riccardo
Kapan, Durrell D.
Counterman, Brian A.
Maldonado, Karla
Lindstrom, Daniel P.
Reed, Robert D.
Nijhout, H. Frederik
Hrbek, Tomas
McMillan, W. Owen

March 2013

Recent studies indicate that relatively few genomic regions are repeatedly involved in the evolution...

Table S1: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Phenotypic colour measurements for all individuals used in the BR colour analysis. Also Cr phenotype...

Table S4: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Red band data – raw measurements for the 4 band measurements and 3 standardising measurements, and 4...

Figure S1 and Figure S2: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Individual F1 crosses split by sex. There were no significant differences between males across all c...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes - 1D SAXS Data

Melanie Brien (2749645)
Juan Enciso (4505311)
Emma Curran (2749576)
Andrew Parnell (2767525)
Nicola Nadeau (2749270)

November 2018

1D reduced SAXS data used to measure scale features in Heliconius erato individuals. The tarball con...

Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Brien, Melanie N.
Enciso-Romero, Juan
Parnell, Andrew J.
Salazar, Patricio A.
Morochz, Carlos
Chalá, Darwin
Bainbridge, Hannah E.
Zinn, Thomas
Curran, Emma V.
Nadeau, Nicola J.

May 2020

Bright, highly reflective iridescent colours can be seen across nature and are produced by the scatt...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes - Code used in 1D SAXS data analysis

Juan Enciso (4505311)

November 2018

This tarball contains the code used to calculate ultrastructure measurements in the scales of the bu...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes

Brien, M.
Enciso Romero, J.
Parnell, A.
Salazar, P.
Morochz, C.
Chalá, D.
Bainbridge, H.
Zinn, T.
Curran, E.
Nadeau, N.

December 2018

Bright, highly reflective iridescent colours can be seen across nature and are produced by the scatt...

The genetic basis of structural colour variation in mimetic Heliconius butterflies

Brien, Melanie
Enciso-Romero, Juan
Lloyd, Victoria
Curran, Emma
Parnell, Andrew
Morochz, Carlos
Salazar, Patricio
Rastas, Pasi
Zinn, Thomas
Nadeau, Nicola

December 2021

Raw USAXS data from discal region of Heliconius butterflies (H. erato and H. melpomene). The data co...

A single locus controls variation in the forewing black patterns of the H. erato radiation.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

(A) Linkage analysis of forewing black pattern variation segregating in three types of H. hime...

Major effect alleles at major color pattern loci segregating in the H. himera×H. erato mapping families.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

(A) Distinct geographic races of H. erato and the sister species H. himera used in ...

Crossing strategy and color pattern variation.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

Mendelian segregation of the major color pattern genes in H. erato as seen in our collecti...

Multi-allelic major effect genes interact with minor effect QTLs to control adaptive color pattern variation inHeliconius erato.PLoSONE

Riccardo Papa
Durrell D. Kapan
Brian A. Counterman
Karla Maldonado
Daniel P. Lindstrom
Robert D. Reed
H. Frederik Nijhout
Tomas Hrbek
W. Owen Mcmillan

January 2013

Recent studies indicate that relatively few genomic regions are repeatedly involved in the evolution...

Multi-Allelic Major Effect Genes Interact with Minor Effect QTLs to Control Adaptive Color Pattern Variation in Heliconius erato

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

<div>Recent studies indicate that relatively few genomic regions are repeatedly involved in the e...

Not Available

Ramesh, M
Lavanya, C.
Sujatha, M
Bhave, M.H.V
Aruna Kumari, J.

January 2017

Not AvailableThe segregation of morphological characters and sex expression of the traits was studie...

Multi-allelic major effect genes interact with minor effect QTLs to control adaptive color pattern variation in Heliconius erato.

Papa, Riccardo
Kapan, Durrell D.
Counterman, Brian A.
Maldonado, Karla
Lindstrom, Daniel P.
Reed, Robert D.
Nijhout, H. Frederik
Hrbek, Tomas
McMillan, W. Owen

March 2013

Recent studies indicate that relatively few genomic regions are repeatedly involved in the evolution...

Table S1: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Phenotypic colour measurements for all individuals used in the BR colour analysis. Also Cr phenotype...

Table S4: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Red band data – raw measurements for the 4 band measurements and 3 standardising measurements, and 4...

Figure S1 and Figure S2: from Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Melanie N. Brien (5057933)
Juan Enciso Romero (5977652)
Andrew J. Parnell (2171758)
Patricio A. Salazar (4971103)
Carlos Morochz (3853870)
Darwin Chalá (5977655)
Hannah E. Bainbridge (5977658)
Thomas Zinn (1611523)
Emma V. Curran (5057939)
Nicola J. Nadeau (253527)

November 2018

Individual F1 crosses split by sex. There were no significant differences between males across all c...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes - 1D SAXS Data

Melanie Brien (2749645)
Juan Enciso (4505311)
Emma Curran (2749576)
Andrew Parnell (2767525)
Nicola Nadeau (2749270)

November 2018

1D reduced SAXS data used to measure scale features in Heliconius erato individuals. The tarball con...

Phenotypic variation in Heliconius erato crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Brien, Melanie N.
Enciso-Romero, Juan
Parnell, Andrew J.
Salazar, Patricio A.
Morochz, Carlos
Chalá, Darwin
Bainbridge, Hannah E.
Zinn, Thomas
Curran, Emma V.
Nadeau, Nicola J.

May 2020

Bright, highly reflective iridescent colours can be seen across nature and are produced by the scatt...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes - Code used in 1D SAXS data analysis

Juan Enciso (4505311)

November 2018

This tarball contains the code used to calculate ultrastructure measurements in the scales of the bu...

Phenotypic variation in Heliconius erato crosses shows iridescent structural colour is sex-linked and controlled by multiple genes

Brien, M.
Enciso Romero, J.
Parnell, A.
Salazar, P.
Morochz, C.
Chalá, D.
Bainbridge, H.
Zinn, T.
Curran, E.
Nadeau, N.

December 2018

Bright, highly reflective iridescent colours can be seen across nature and are produced by the scatt...

The genetic basis of structural colour variation in mimetic Heliconius butterflies

Brien, Melanie
Enciso-Romero, Juan
Lloyd, Victoria
Curran, Emma
Parnell, Andrew
Morochz, Carlos
Salazar, Patricio
Rastas, Pasi
Zinn, Thomas
Nadeau, Nicola

December 2021

Raw USAXS data from discal region of Heliconius butterflies (H. erato and H. melpomene). The data co...

A single locus controls variation in the forewing black patterns of the H. erato radiation.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

(A) Linkage analysis of forewing black pattern variation segregating in three types of H. hime...

Major effect alleles at major color pattern loci segregating in the H. himera×H. erato mapping families.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

(A) Distinct geographic races of H. erato and the sister species H. himera used in ...

Crossing strategy and color pattern variation.

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

Mendelian segregation of the major color pattern genes in H. erato as seen in our collecti...

Multi-allelic major effect genes interact with minor effect QTLs to control adaptive color pattern variation inHeliconius erato.PLoSONE

Riccardo Papa
Durrell D. Kapan
Brian A. Counterman
Karla Maldonado
Daniel P. Lindstrom
Robert D. Reed
H. Frederik Nijhout
Tomas Hrbek
W. Owen Mcmillan

January 2013

Recent studies indicate that relatively few genomic regions are repeatedly involved in the evolution...

Multi-Allelic Major Effect Genes Interact with Minor Effect QTLs to Control Adaptive Color Pattern Variation in Heliconius erato

Riccardo Papa (95307)
Durrell D. Kapan (260596)
Brian A. Counterman (253518)
Karla Maldonado (393513)
Daniel P. Lindstrom (253538)
Robert D. Reed (253568)
H. Frederik Nijhout (66383)
Tomas Hrbek (393514)
W. Owen McMillan (156971)

March 2013

<div>Recent studies indicate that relatively few genomic regions are repeatedly involved in the e...

Not Available

Ramesh, M
Lavanya, C.
Sujatha, M
Bhave, M.H.V
Aruna Kumari, J.

January 2017

Not AvailableThe segregation of morphological characters and sex expression of the traits was studie...

Multi-allelic major effect genes interact with minor effect QTLs to control adaptive color pattern variation in Heliconius erato.

Papa, Riccardo
Kapan, Durrell D.
Counterman, Brian A.
Maldonado, Karla
Lindstrom, Daniel P.
Reed, Robert D.
Nijhout, H. Frederik
Hrbek, Tomas
McMillan, W. Owen

March 2013

Recent studies indicate that relatively few genomic regions are repeatedly involved in the evolution...

Table S5: from Phenotypic variation in <i>Heliconius erato</i> crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Abstract

Extracted data

Table S5: from Phenotypic variation in <i>Heliconius erato</i> crosses shows that iridescent structural colour is sex-linked and controlled by multiple genes

Abstract

Extracted data

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