Data and code from: Color vision improves foraging success and accelerates reproduction in a jumping spider
Data files
Sep 11, 2026 version files 558.64 KB
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DRYAD_Habronattus_color_use_and_fitness_experiment_CSV.csv
4.94 KB
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DRYAD_Habronattus_color_use_and_fitness_experiment.xlsx
49.83 KB
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DRYAD_paint_color_reflectance_data_CSV.csv
234.06 KB
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DRYAD_paint_color_reflectance_data.xlsx
193.38 KB
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IrradianceLamps.csv
5.83 KB
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Paper_Paints_pavo.csv
30.51 KB
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PAVO_code_annotated_TXT.txt
3.66 KB
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PAVO_code_annotated.docx
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README.md
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transmission.csv
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Abstract
Color vision is thought to convey fitness advantages during foraging, but empirical tests of this idea are exceedingly rare. We manipulated prey color cues in tests with the trichromatic jumping spider Habronattus pyrrithrix to assess whether their ability to use their color vision affected foraging success and reproduction. Mated adult female spiders were first trained to associate the color red with experimentally manipulated unpalatable (bitter) prey and then tested to confirm that they learned this association (independent of brightness cues). They were then divided into two treatment groups. Both groups were given a similar foraging task where they foraged among arrays of palatable and unpalatable prey. One group was given red color cues to make these choices (as in training, red signaled unpalatability, independent of brightness), while the other group did not have red color cues to make these choices. Spiders with access to color cues targeted the palatable prey more accurately, consumed more palatable prey during their trial period, and tended to direct fewer wasted attacks towards unpalatable prey. Over a two-month period, females with consistent access to color cues laid eggs earlier and tended to be heavier, but the total number of egg sacs, eggs, and hatchlings produced were unaffected. This study is among the first to directly link color vision with foraging success and fitness in any animal. Future work should track total lifetime reproductive output, test benefits of color vision across ecological contexts, and explore fitness consequences across the salticid phylogeny.
Dataset DOI: 10.5061/dryad.15dv41pbf
Description of the data and file structure
GENERAL INFORMATION
1. Title of Dataset:
Color vision improves foraging success and accelerates reproduction in a jumping spider
2. Author contact information:
Erin C. Powell, Florida State Collection of Arthropods, Florida Department of Agriculture and Consumer Services, Division of Plant Industry, 1911 SW 34th St., Gainesville, FL 32608, USA
Kayla Stalcup, Entomology and Nematology Department, University of Florida, 1881 Natural Area Drive, Gainesville, FL 32611, USA
Lisa Taylor, Entomology and Nematology Department, University of Florida, 1881 Natural Area Drive, Gainesville, FL 32611, USA
METHODOLOGICAL INFORMATION
For all methodological details of data collection and funding sources, see the following manuscript:
Powell, Stalcup, and Taylor (2026). Color vision improves foraging success and accelerates reproduction in a jumping spider. Behavioral Ecology.
The data contained in this dataset can be used to replicate all analyses that are detailed in the above manuscript.
Files and variables
File: DRYAD_Habronattus_color_use_and_fitness_experiment.xlsx and DRYAD_Habronattus_color_use_and_fitness_experiment_CSV.csv
These files contain the same information, but in different formats to make them easily accessible to all.
Description: This file contains all of the data necessary to replicate the statistical analyses described for the behavioral experiment that is the focus of our manuscript.
For the variables described below, these abbreviations are used. Additional context is provided in the accompanying manuscript.
- DB = refers to denatonium benzoate termites (references termites made unpalatable with treatment of denatonium benzoate)
- non-DB = refers to non-denatonium-benzoate termites (references sham-treated termites that did not receive DB treatment and are therefore palatable to the spiders)
- R = red, G = gray
- The numbers 1, 2, and 3 following R and G (i.e., R1, R2, R3, G1, G2, G3) refer to the different color and brightness levels of the color manipulated termites, with 1 being the brightest, 2 being intermediate, and 3 being the darkest (see manuscript for additional details)
Variables (the captial letter in parentheses refers to the column in the spreadsheet)
- (A) spider id (arbitrary ID number)
- (B) treatment (color absent or color present treatment group)
- (C) Phase 1 - color first attacked R(DB) or G(non-DB)?
- This is the color of termite (red or gray) that the spider first attacked in Phase 1 of the experiment
- (D) Phase 1 - color first attacked R1(DB), R2(DB), R3(DB), G1(non-DB), G2(non-DB), G3(non-DB)
- This is the specific color/brightness category of the termite first attacked in Phase 1 of the experiment (R1, R2, R3, G1, G2, or G3)
- (E) Phase 1 - EXPLORATORY - termite brightness category (regardless of color)
- Ranges from 1 to 3, with 1 being brightest and 3 being darkest
- (F) Phase 1 - total number of red (DB-treated) termites attacked (regardless of consumption) in 2 hours? (*Don't count repeated attacks)
- (G) Phase 1 - total number of gray (untreated) termites attacked (regardless of consumption) in 2 hours?
- (H) Phase 2 - is the termite first attacked a DB-treated or non-DB-treated termite?
- (I) Phase 2 - total number of (non-DB treated) termites consumed in 2-hour trial
- (J) Phase 2 - number of wasted attacks (attacks and rejections of DB-treated termites in 2-hour trial)
- (K) Phase 3 - time (days) to produce first egg sac (from starting in experiment)
- No value indicates that no eggs were laid
- (L) Phase 3 - total number of egg sacs produced (by day 60 of Phase 3)
- (M) Phase 3 - total number of spiderlings hatched (by day 60 of Phase 3)
- (N) Total number of eggs produced. (This includes all eggs produced by Day 60 of Phase 3)
- (O) Body mass at end of Phase 3 (day 60) (grams)
- (P) Notes
- This includes the detailed rationale for any missing data points, which is also described in the manuscript
File: IrradianceLamps.csv
Description: This file contains the spectral irradiance data for the lab lighting used in the experiment, trimmed to 300–700nm.
Variables
- wl: wavelength (nm)
- intensity: microwatts/cm2/nm
File: Paper_Paints_pavo.csv
Description: This file contains the % reflectance values (relative to a white standard, for the wavelength range 300–700nm) for the six paint colors used in the study to manipulate termite color (Gray 1, Gray 2, Gray 3, Red 1, Red 2, and Red 3) and the % reflectance values for the filter paper background that lined the Petri dishes where the termites were presented to the spiders.
Variables
- wl: wavelength (nm)
- gray1: % reflectance values at each wavelength (relative to a white standard)
- gray2: % reflectance values at each wavelength (relative to a white standard)
- gray3: % reflectance values at each wavelength (relative to a white standard)
- red1: % reflectance values at each wavelength (relative to a white standard)
- red2: % reflectance values at each wavelength (relative to a white standard)
- red3: % reflectance values at each wavelength (relative to a white standard)
- paper: % reflectance values at each wavelength (relative to a white standard) for the white filter paper used as background
File: PAVO_code_annotated.docx and PAVO_code_annotated_TXT.txt
These files contain the same information, but in different formats to make them easily accessible to all.
Description: This file contains the R code used to construct the models described in our manuscript (see Methods).
File: transmission.csv
Description: This file contains the ocular transmission data used in the visual models. These data were derived from Zurek et al. (2015).
Variables
- wavelength: nm
- lens transmission: proportion of light transmitted through the lens
- vitreous transmission .5mm: proportion of light transmitted through the vitreous media
File: DRYAD_paint_color_reflectance_data.xlsx and DRYAD_paint_color_reflectance_data_CSV.csv
These files contain the same information, but in different formats to make them easily accessible to all.
Description: This file contains the % reflectance values (relative to a white standard) for 10 samples each of our gray and red paints used to manipulate termite colors in our study. Because there are 10 samples of each paint, each paint color has 10 columns of data.
Variables
- wavelength (n/m)
- paint colors (gray 1, gray 2, gray 3, red 1, red 2, red 3)
References
Zurek DB, Cronin TW, Taylor LA, Byrne K, Sullivan ML, Morehouse NI. 2015. Spectral filtering enables trichromatic vision in colorful jumping spiders. Curr Biol. 25:R403–R404. https://doi.org/10.1016/j.cub.2015.03.033
Code/software
pavo v2.9.0 in R 4.5.2 (R Core Team 2026)
