ConductVision Zebrafish Package
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The ConductVision license for zebrafish tests. It also scores shoaling, the T-maze, the Y-maze and mirror biting.
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Zebrafish Light Dark
SKU ME-4842
$1,290.00
IncludesStandard care
Acrylic behavioral chamber with sliding doors for zebrafish light-dark preference testing, measuring anxiety-like behaviors through scototaxis assessment.
CE MarkedBAA available
Scientist guidance
Louise Corscadden, PhD
Director of Science · ConductScience
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Key Specifications
Full details →- Model fit
- Zebrafish
- SKU family
- ME-4842
- Sizing
- Zebrafish: Acrylic tank:15 cm × 10 cm × 45 cm (height × width × length); Central sliding doors, each compartment 15 cm × 10 cm × 10 cm (height × width × length)
- Ordering
- Online checkout and quote request available
- Category
- Behavioral Mazes
- Build notes
- Acrylic
The Zebrafish Light Dark apparatus is a specialized behavioral testing chamber designed for anxiety and phototaxis studies in zebrafish (Danio rerio). The system consists of an acrylic tank measuring 15 cm × 10 cm × 45 cm with central sliding doors that create two equal compartments, each measuring 15 cm × 10 cm × 10 cm. This apparatus enables researchers to assess light-dark preference behaviors, a validated measure of anxiety-like responses in zebrafish models.
The light-dark preference test exploits the natural scototaxis behavior of zebrafish, where anxious fish exhibit increased preference for dark environments while showing reduced exploration of illuminated areas. The apparatus allows for controlled presentation of light and dark conditions while enabling precise measurement of time spent in each compartment, transition frequency, and latency to enter different zones.
How It Works
The light-dark preference test operates on the principle of scototaxis - the natural tendency of zebrafish to prefer darker environments when experiencing anxiety or stress. The apparatus creates a controlled environment where one compartment can be illuminated while the other remains dark, allowing researchers to quantify the fish's preference for each environment. The central sliding doors enable controlled access between compartments while maintaining distinct light conditions.
During testing, zebrafish are placed in the apparatus and their movement patterns are recorded. Key behavioral metrics include time spent in light versus dark compartments, number of transitions between zones, and latency to first entry into the light compartment. Increased time in the dark compartment and reduced exploration of the light zone indicate heightened anxiety-like behavior.
The transparent acrylic construction allows for video recording and automated behavioral analysis while maintaining optical clarity for precise tracking. The compartment dimensions provide sufficient space for natural swimming behaviors while constraining the environment for accurate spatial analysis.
Features & Benefits
Dual compartment design with sliding doors
Enables controlled access between light and dark zones for precise behavioral assessment and flexible experimental protocols.
Transparent acrylic construction
Provides unobstructed visual access for video recording and behavioral tracking while maintaining structural integrity.
Equal compartment dimensions (10 cm × 10 cm × 15 cm each)
Ensures balanced spatial environments for unbiased assessment of light-dark preferences without confounding size effects.
45 cm total length design
Accommodates adult zebrafish swimming behaviors while maintaining compact laboratory footprint for benchtop use.
Central sliding door system
Allows for initial habituation in single compartments followed by choice testing, improving experimental control.
Standardized chamber dimensions
Facilitates comparison with published literature and ensures reproducibility across different research groups.
Sizes by model
| Measurement | Zebrafish |
|---|---|
| Size | Acrylic tank:15 cm × 10 cm × 45 cm (height × width × length); Central sliding doors, each compartment 15 cm × 10 cm × 10 cm (height × width × length) |
- Acrylic tank:15 cm × 10 cm × 45 cm (height × width × length)
- Central sliding doors, each compartment 15 cm × 10 cm × 10 cm (height × width × length)
Behavioral Construct
- anxiety
- phototaxis
- scototaxis
- exploration
- preference behavior
Automation Level
- manual
Material
- Acrylic
Research Domain
- Addiction Research
- Behavioral Pharmacology
- Developmental Biology
- Neurodegeneration
- Neuroscience
- Toxicology
Species
- Zebrafish
Compatible Tracking Software
- ConductVision
Shipping weight
- 21.0 lb
Shipping box
- L: 43.2 cm
- W: 38.0 cm
- H: 27.9 cm
| Feature | This Product | Typical Alternative | Advantage |
|---|---|---|---|
| Compartment Standardization | Equal 10 cm × 10 cm × 15 cm compartments with sliding door separation | Fixed partitions with variable dimensions or permanent barriers | Enables protocol flexibility while maintaining spatial balance for unbiased behavioral assessment. |
| Construction Material | Transparent acrylic construction throughout | Mixed materials or opaque dividers in some models | Provides complete visual access for comprehensive behavioral tracking and analysis. |
| Chamber Access Control | Central sliding door system for controlled compartment access | Open designs without controllable barriers | Allows for initial habituation phases followed by choice testing periods. |
| Overall Dimensions | 45 cm length with 15 cm height providing extended swimming space | Shorter chambers with limited swimming distance | Accommodates natural zebrafish swimming behaviors while maintaining laboratory space efficiency. |
This apparatus offers standardized dimensions matching established protocols with transparent acrylic construction for complete behavioral visibility. The sliding door system provides experimental flexibility while maintaining spatial balance between compartments.
Neuroscience
Assessment of anxiety-like behaviors in zebrafish models using light-dark preference paradigms to evaluate baseline behavioral phenotypes and pharmacological interventions.
Behavioral Pharmacology
Screening anxiolytic and anxiogenic compounds by measuring changes in light-dark preference behaviors following drug administration in zebrafish models.
Neurodegeneration
Evaluation of behavioral alterations in zebrafish models of neurodegenerative diseases, tracking changes in anxiety-related responses over disease progression.
Developmental Biology
Investigation of developmental changes in phototaxis and anxiety-like behaviors across different zebrafish life stages from larvae to adult.
Toxicology
Assessment of neurotoxic effects of environmental compounds or pharmaceutical agents by measuring disruptions in normal light-dark preference behaviors.
Addiction Research
Evaluation of withdrawal-induced anxiety in zebrafish models of substance dependence using light-dark preference as a behavioral endpoint.
Practical Tips
Best Practices
Maintain consistent lighting conditions across testing sessions and calibrate light meters regularly.
Why: Light intensity variations can significantly affect behavioral responses and reduce experimental reproducibility.
Maintenance
Clean acrylic surfaces with non-abrasive cleaners to prevent scratching that could affect video tracking.
Why: Optical clarity is essential for accurate automated behavioral analysis and manual observation.
Calibration
Verify compartment light levels before each experimental session using a calibrated light meter.
Why: Light intensity changes can occur due to bulb aging or ambient lighting variations affecting behavioral responses.
Data Quality
Record ambient laboratory conditions including temperature and background noise levels during testing.
Why: Environmental factors beyond light-dark contrast can influence zebrafish anxiety behaviors and should be documented.
Troubleshooting
If fish remain motionless, check water temperature and allow additional acclimation time.
Why: Temperature stress or insufficient habituation can suppress natural exploratory behaviors.
Safety
Ensure adequate water depth to prevent fish from jumping while avoiding overflow during active swimming.
Why: Proper water levels maintain fish welfare while preventing equipment damage from water spillage.
Best Practices
Use consistent water sources and maintain stable pH and conductivity across testing sessions.
Why: Water quality variations can affect fish behavior and introduce confounding variables in behavioral assessment.
Setup Guide
Unpack and Inspect
Remove the acrylic chamber from packaging and inspect for cracks or damage. Clean all surfaces with appropriate disinfectant.
Position Apparatus
Place the chamber on a stable, level surface with access for video recording equipment and lighting systems.
Install Lighting System
Position light source above or beside one compartment to create the light zone while maintaining the other compartment in darkness.
Fill Chamber
Add system water to appropriate depth (typically 8-10 cm) ensuring both compartments have equal water levels.
Test Sliding Doors
Verify that central sliding doors operate smoothly and create proper separation between compartments when closed.
Set Up Recording
Position video camera for clear view of both compartments and configure tracking software for behavioral analysis.
Calibrate Environment
Verify light intensities in each compartment and ensure stable temperature conditions before introducing test subjects.
What’s in the Box
- Acrylic light-dark preference chamber with sliding doors
- User manual with setup instructions (typical)
- Cleaning and maintenance guide (typical)
Warranty
ConductScience provides a standard one-year manufacturer warranty covering defects in materials and workmanship, with technical support for setup and operation guidance.
Compliance
IACUC GuidelinesSupports animal welfare protocols for zebrafish behavioral studies with appropriate environmental enrichment and testing conditions.
ARRIVE GuidelinesFacilitates standardized reporting of zebrafish behavioral experiments through consistent methodology and apparatus specifications.
References
Background reading relevant to this product:
1.Peter J. Steenbergen et al. (2011) “Patterns of avoidance behaviours in the light/dark preference test in young juvenile zebrafish: A pharmacological study” Behavioural Brain Research doi:10.1016/j.bbr.2011.03.025
2.Rachel Blaser et al. (2011) “Stimuli affecting zebrafish (Danio rerio) behavior in the light/dark preference test” Physiology & Behavior doi:10.1016/j.physbeh.2011.07.029
3.Caio Maximino et al. (2012) “A comparison of the light/dark and novel tank tests in zebrafish” Behaviour doi:10.1163/1568539x-00003029
4.Adam Stewart et al. (2010) “Neurophenotyping of Adult Zebrafish Using the Light/Dark Box Paradigm” Neuromethods doi:10.1007/978-1-60761-953-6_13
5.Bárbara D. Fontana et al. (2021) “The zebrafish (Danio rerio) anxiety test battery: comparison of behavioral responses in the novel tank diving and light–dark tasks following exposure to anxiogenic and anxiolytic compounds” Psychopharmacology doi:10.1007/s00213-021-05990-w
Q
What water depth is optimal for light-dark preference testing?
A
Typically 8-10 cm depth provides sufficient swimming space while preventing jumping, though consult behavioral protocols for specific experimental requirements.
Q
How long should fish acclimate before testing begins?
A
Standard protocols recommend 5-10 minute acclimation periods, though this varies with experimental design and fish stress levels.
Q
What lighting conditions define the light-dark contrast?
A
Typical protocols use 100-300 lux for light zones with <5 lux for dark zones, though specific intensities should match published methodologies.
Q
Can this apparatus accommodate juvenile zebrafish?
A
Yes, the compartment size suits both juvenile and adult zebrafish, though swimming patterns may differ between developmental stages.
Q
How is behavioral data typically quantified?
A
Standard metrics include time in each compartment, transition frequency, latency to light entry, and swimming velocity in each zone.
Q
What cleaning protocols are recommended between subjects?
A
Thorough rinsing with system water between trials prevents chemical cues from affecting subsequent subjects' behavior.
Q
Is the apparatus compatible with automated tracking systems?
A
Yes, the transparent acrylic construction and standardized dimensions support most commercial and custom video tracking systems.
Have a question about this product?
Score this test with ConductVision
ConductVision is our video-tracking software. Record your sessions on video, and it reports the measures listed below.
What it measures
Light/Dark Maze
- Light Zone Time
- Dark Zone Time
- Zone Transitions
- Immobility Episodes
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Accessories
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Use this apparatus with
The complete Zebrafish Light/Dark Maze workflow
Track behavior
Automate light-zone time, latency, zone occupancy, path order, and event timing for Zebrafish Light/Dark Maze studies.
ConductVision Zebrafish Light/Dark Maze ->Run protocol
Stepwise aquatic light-dark preference setup, trial timing, exclusion rules, and reporting checkpoints.
ConductMaze Zebrafish Light/Dark Maze Protocol ->Analyze output
Summarize light-zone time, group differences, and quality-control flags before export.
Zebrafish Light/Dark Maze Calculator ->Configuration considerations
Common Zebrafish Light/Dark Maze setup decisions
Use these notes to scope species, cohort, tracking, and automation needs. Only verified product or support routes are linked from this section.
This productStandard
Zebrafish Light/Dark Maze
Aquatic light/dark choice tank with controlled illumination zones
zebrafish scototaxis, anxiety-like preference, transition behavior, and aquatic screening.
Quote
Request QuoteBuyableScaled option
Zebrafish Light/Dark Maze Species Variant
Mouse, rat, aquatic, insect, or large-animal scaling as appropriate
Use species-specific dimensions and lighting so the apparatus tests the intended construct instead of body size, visibility, or handling tolerance.
Quote
View options ->SpecialtyAutomation
Zebrafish Light/Dark Maze With Tracking
Camera, gates, sensors, cue control, or event logging as required
Best when the protocol needs reproducible timing, high-throughput scoring, or defensible endpoint extraction across cohorts.
Quote
Configure tracking ->§ 1
Introduction
The Zebrafish Light/Dark Maze is a species-specific behavioral assay built around zebrafish scototaxis, anxiety-like preference, transition behavior, and aquatic screening. Interpretable data depend on matching the apparatus geometry, subject species, trial structure, and scoring rules to the behavioral construct under study. 1
Aquatic light-dark preference protocols depend on stable geometry, consistent trial timing, and pre-defined scoring rules. Without those controls, light-zone time can be shifted by motivation, locomotion, light level, odor, cue salience, or handling rather than the intended behavioral construct. 1
This methods section summarizes setup, endpoint definitions, common confounds, sample output, adjacent assays, and reporting details needed to evaluate Zebrafish Light/Dark Maze results alongside the product specifications. 1
§ 2
Methods
2.1 Procedure
Aquatic light-dark preference with standardized setup, trial timing, and endpoint extraction.
Pre-test setup
- 1.Define construct: Pre-register whether the study uses Zebrafish Light/Dark Maze for species-specific behavioral behavior, screening, cohort comparison, or apparatus validation.
- 2.Calibrate apparatus: Verify aquatic light/dark choice tank with controlled illumination zones, visibility, lighting, surface condition, cue placement, and camera field of view before animals enter the room.
- 3.Set scoring rules: Define light-zone time, omissions, exclusions, latency cutoffs, and event thresholds before acquisition starts.
- 4.Control carryover: Use consistent cleaning, handling, acclimation, and inter-trial timing so odor, stress, and fatigue do not become hidden treatment variables.
Trial sequence
- 1.Start trial: Place the subject at the protocol-defined start location and begin synchronized video or event logging.
- 2.Record behavior: Capture light-zone time, path order, latency, dwell time, and relevant zone or arm events throughout the trial.1
- 3.Apply endpoint rules: Score only committed entries or events that meet the pre-defined body-position and timing criteria.
- 4.End and reset: Stop at the maximum duration, completion criterion, or humane endpoint, then clean and reset the apparatus.
- 5.Export QC: Review tracking loss, outlier latency, immobility, omissions, and apparatus notes before group-level analysis.
Critical methodological constraints
- Water quality. Document water quality because it can shift light-zone time independent of the intended construct.
- Illumination contrast. Keep illumination contrast stable across cohorts and sessions.
- Tank reflection. Audit tank reflection before interpreting group differences.
- Acclimation. Report acclimation when it changes engagement, exploration, or measurable trial completion.
- Individual versus group testing. Flag individual versus group testing during QA because it often explains apparent assay failure.2
2.2 Measurement & Analysis
Core Zebrafish Light/Dark Maze endpoints for behavioral interpretation and apparatus quality control.
Light-zone time
Aquatic anxiety-like preference
Light-zone time is the primary endpoint for this page and should be paired with latency and quality-control flags.1
Transition latency
Latency and initiation
Transition latency helps distinguish task performance from motivation, freezing, fatigue, or handling effects.
Zone transitions
Spatial or zone strategy
Zone transitions captures how the subject solved the task, not only whether it reached the endpoint.
Freezing time
Engagement control
Freezing time identifies omissions, low exploration, sensor dropouts, or species-specific non-response.
Reflection artifacts
Quality-control flag
Reflection artifacts should be reviewed before exporting final group summaries.
+ Additional metrics: trial duration, zone dwell, event count, path efficiency, tracking confidence, exclusions, and session-level notes.
2.3 light-zone time ratio (analysis)
A compact percentage summary for Zebrafish Light/Dark Maze output.
§ 3
Results
PubMed publication counts, sample apparatus output, and recent papers from a dated PubMed snapshot.
3.1 Publication trends
PubMed volume and co-occurring behavioral methods for Zebrafish Light/Dark Maze studies.
3.2 Sample apparatus output
Representative Zebrafish Light/Dark Maze output for methods review and endpoint interpretation.
3.3 Recent findings (PubMed)
- Sep 2026PMID: 42772005
Toxicological profile and neuromodulatory effects of a secoiridoid-rich extra-virgin olive oil extract in a zebrafish model of chemically induced seizures.
Damiano A, Arana ÁJ, Merola C, et al.. Biomed Pharmacother. 2026 Sep 22.
Extra-virgin olive oil (EVOO) is a rich source of bioactive compounds, including the secoiridoids oleocanthal (OLC) and oleacein (OLE), which exhibit antioxidant, anti-inflammatory, and neuroprotective activities.
- Sep 2026PMID: 42772194
Acute high-dose acesulfame exposure induces developmental and neurobehavioral toxicity.
Xing Y, Wang M, Zhang X, et al.. Tissue Cell. 2026 Sep 19.
Acesulfame potassium (ACE) is a widely used low-calorie artificial sweetener that is frequently detected in aquatic environments.
- Sep 2026PMID: 42710120
Phenotypic attenuation masks persistent molecular perturbations during PFOS-cadmium co-exposure in zebrafish larvae.
Zhao X, Chen F, Chang C, et al.. J Hazard Mater. 2026 Sep 8.
Perfluorooctane sulfonate (PFOS) and cadmium (Cd) are persistent contaminants that frequently coexist in aquatic environments, yet their combined effects on early neurodevelopment remain unclear.
- Sep 2026PMID: 42448160
Early neurotoxic effects of commercial 2,4-D formulation in zebrafish: A multibiomarker approach.
Oliveira BRF, Kremer R, Pereira AG, et al.. Environ Toxicol Pharmacol. 2026 Sep.
Commercial formulations of 2,4-dichlorophenoxyacetic acid (CF2,4-D) are widely used in agriculture and frequently detected in aquatic environments, yet their neurotoxic effects remain poorly understood.
- Sep 2026PMID: 42447679
Ferulic acid alleviates ionizing radiation-induced developmental and neurobehavioral toxicity in zebrafish via modulation of apoptosis-related genes.
Wang T, Zhang Y, Xiang S, et al.. Ecotoxicol Environ Saf. 2026 Sep 1.
High-dose ionizing radiation (IR), as encountered in radiotherapy-related and radiological emergency contexts, induces severe acute developmental and neurobehavioral toxicity. However, safe and effective natural radioprotective agents remain limited.
- Sep 2026PMID: 42425033
Bisphenol A alternatives (BPS and BPAF) disrupt anti-predatory behavior and intergenerational behavioral responses in zebrafish (Danio rerio).
Costa DFD, Silva GVD, Bellot MS, et al.. Aquat Toxicol. 2026 Sep.
Bisphenol S (BPS) and bisphenol AF (BPAF) are increasingly used as alternatives to bisphenol A and are now widely detected in aquatic environments. These compounds interfere in endocrine systems as the hypothalamus-pituitary-gonadal and the hypothalamus-pituitary-thyroid axes.
§ 4
Discussion
Limitations of the paradigm, methodological caveats, and current directions.
4.1 Common confounds
Variables that can shift Zebrafish Light/Dark Maze results apart from the effect under study.
Water quality
Water quality can change apparent Zebrafish Light/Dark Maze performance without reflecting the intended behavioral construct. Control it in setup and report it in methods.
Illumination contrast
Illumination contrast can change apparent Zebrafish Light/Dark Maze performance without reflecting the intended behavioral construct. Control it in setup and report it in methods.
Tank reflection
Tank reflection can change apparent Zebrafish Light/Dark Maze performance without reflecting the intended behavioral construct. Control it in setup and report it in methods.
Acclimation
Acclimation can change apparent Zebrafish Light/Dark Maze performance without reflecting the intended behavioral construct. Control it in setup and report it in methods.
Individual versus group testing
Individual versus group testing can change apparent Zebrafish Light/Dark Maze performance without reflecting the intended behavioral construct. Control it in setup and report it in methods.
4.2 Construct validity caveats
Zebrafish Light/Dark Maze is strongest when endpoint definitions, apparatus settings, and exclusion rules are specified before testing. Treat a single summary metric as a screening signal, then confirm interpretation with latency, engagement, comparator assays, and quality-control review. 1
4.3 Special considerations
When should I choose Zebrafish Light/Dark Maze?
Choose Zebrafish Light/Dark Maze when the research question matches zebrafish scototaxis, anxiety-like preference, transition behavior, and aquatic screening. and the lab can control water quality, illumination contrast, and trial timing.
What setup variables should be specified before testing?
Specify species, cohort size, apparatus dimensions, lighting, tracking method, automation level, cleaning workflow, endpoint definitions, and exclusion criteria before data collection begins.
What makes the data interpretable?
Interpretation is strongest when the apparatus configuration, trial timing, scoring thresholds, confound controls, and comparator assays are documented together with the primary endpoint.
4.4 Current directions
Quarterly editorial review of emerging Zebrafish Light/Dark Maze methodology. Q2 2026
Methods
Endpoint standardization
Define light-zone time, latency, exclusions, and engagement flags before comparing cohorts.
Emerging
Automated scoring
Camera and event-log workflows can reduce observer burden and improve consistency when zone definitions and event thresholds are validated.
Methods
Comparator batteries
Zebrafish Light/Dark Maze should link to adjacent maze, motor, or motivation assays when interpretation depends on controls.
Emerging
Integrated method reporting
Apparatus dimensions, protocol fit, tracking compatibility, and endpoint definitions should be reported together so results are easier to reproduce.
§ 5
References
10 selected methods and validation references for Zebrafish Light/Dark Maze.
- Stewart AM, et al. The light/dark preference test in zebrafish. Nat Protoc. 2011;6(11):1780-1787. Find source
- Kalueff AV, et al. Towards a comprehensive catalog of zebrafish behavior. Nat Rev Neurosci. 2013;14(7):476-488. Find source
- Levin ED, Cerutti DT. Behavioral neuroscience of zebrafish. Methods Cell Biol. 2009;91:293-310. Find source
- Maximino C, et al. Measuring anxiety in zebrafish: a critical review. Behav Brain Res. 2010;214(2):157-171. Find source
- Egan RJ, et al. Understanding behavioral and physiological phenotypes of stress and anxiety in zebrafish. Behav Brain Res. 2009;205(1):38-44. doi:10.1016/j.bbr.2009.06.022
- Cachat J, et al. Measuring behavioral and endocrine responses to novelty stress in adult zebrafish. Nat Protoc. 2010;5(11):1786-1799. Find source
- Cachat J, et al. Three-dimensional neurophenotyping of adult zebrafish behavior. PLoS One. 2011;6(3):e17597. Find source
- Blank M, Guerim LD, Cordeiro RF, Vianna MR. A one-trial inhibitory avoidance task to zebrafish: rapid acquisition of an NMDA-dependent long-term memory. Neurobiol Learn Mem. 2009;92(4):529-534. Find source
- Sison M, Gerlai R. Associative learning in zebrafish (Danio rerio) in the plus maze. Behav Brain Res. 2010;207(1):99-104. Find source
- Parker MO, Brock AJ, Walton RT, Brennan CH. The role of zebrafish (Danio rerio) in dissecting the genetics and neural circuits of executive function. Front Neural Circuits. 2013;7:63. Find source
Zebrafish Light Dark
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