Preclinical research
Applications, Behavior Paradigms and Tests by Our Products
Automated detection and quantification of rodent novelty seeking patterns including familiar versus novel object exploration, handling special cases like crawling over object, freezing next to objects etc..
Automated tracking for the Morris Water Maze, providing precise quantification of path length, escape latency, quadrant preference, whishaw's corridor , turning ratio, .etc.
Automated tracking for automated quantification of arm entries, spontaneous alternation, and choice patterns in maze-based working memory tests.
Automated AI analysis of spatial learning for Barnes Maze Test, quantifying escape latency, path efficiency, and complex animal search strategies.
AI-driven system for high-throughput quantification of freezing behavior and context-specific conditioned fear responses in rodents.
Automated analysis of active and passive avoidance behavior, quantifying latency, crossings, and avoidance rates for memory research.
AI-driven automation for CPP, quantifying time in drug-paired vs. neutral zones to provide precise metrics for addiction and reward research.
AI-powered automated detection and quantification of Forced Swim Test for antidepressant screening. Support “Extended Forced Swim Test” measuring the time spent struggling/ escaping/ climbing/ diving versus time spent floating/ immobile/ passive swimming
AI-driven automated detection and quantification of immobility and escape-directed movements for Tail Suspension Test studies. compensate for the passive swinging motion that arises after the animal has stopped struggling and switches to a passive state.
AI-automated quantification of anxiety-related behavior, tracking open versus closed arm entries and residence time within Elevated Plus and Zero Mazes. Supporting Stretch-Attend-Posture (SAP) and Head-Dipping.
AI-driven tracking for automated quantification of locomotion, center-periphery exploration, and anxiety metrics in the Open Field Test.
Advanced AI-driven quantification of head-dipping and exploratory patterns to assess anxiety and neophilia in automated hole-board studies.
AI-driven detection and quantification of dark–light transitions and anxiety-related rodent behaviors for neuroscience research labs.
Advanced Gait Analysis for rodent on treadmill, providing automated quantification of gait metrics, stride length, speed, and motor coordination.
AI-powered high-precision Gait Analysis on runway platform, quantifying stride length, speed, motor coordination, and other gait metrics.
AI-powered automated Gait Analysis for free-walking locomotor behavior in open-field environments.
Automated detection and quantification of rodent foot fault events and motor coordination deficits with precision.
Sophisticated Kinematic analysis of limb movements, delivering comprehensive gait and kinematic metrics for rodents.
3D-Kinematic Analysis integrated Ventral View Gait Analysis, providing speed, stride, and coordination as well as miscellaneous Kinematic and Gait measures.
Behavioral assessment used in neuroscience to evaluate sensorimotor impairments and asymmetries in rodents, primarily following brain injuries like strokes or striatal lesions.
AI-driven non-invasive monitoring and analysis of rodent activity, sleep–wake cycles, and circadian patterns for continuous home-cage analysis.
AI-powered high-throughput, non-invasive home-cage phenotyping and behavior monitoring within IVC racks.
Automated detection and quantification of seizure events and related motor behaviors in rodents for epilepsy and neurotoxicity research.
AI-powered automated tracking for primates in cages or enclosures, quantifying locomotion, posture, and circadian rhythm metrics.
StereoView Analysis integrating Home Cage Side-View BehaviorAnalysis with Top-View Analysis.
AI-powered automated detection and quantification of rodent social interactions, including approach, following, and physical contact events.
AI-driven automated analysis of social partner preference, tracking time spent with social vs. non-social targets for research.
AI-driven automated detection and quantification of sociability and social preference behaviors in a three-chamber test paradigm.
Advanced AI detection of social dominance in Tube Tests, quantifying wins, retreats, and interactive contest dynamics with precision.
AI-driven automated tracking using RFID or video identification to quantify social hierarchy and group structure in group-housed rodents.
AI-powered automated detection and quantification of aggressive and defensive social behaviors in rodent interaction paradigms.
Precision AI software for the automated detection and high-throughput quantification of rodent social freezing in neuroscience research.
AI-powered platform for automated tracking of thermal gradient exploration and temperature preference in rodents for pain research studies.
AI-driven system for assessing the affective and motivational components of chronic pain without relying on forced, investigator-initiated stimuli.
Automatic analysis of drug-induced behavior on rat, including Head-Wave, Darting, Locomotor, In-Place Movement, Immobile and otherbehaviors .
AI-driven automated detection and precise quantification of rodent head twitch responses for neuropharmacology and psychedelic research.
Advanced AI system for the automated tracking and high-resolution quantification of rotational circling behavior in rodents within open arenas.
Advanced AI-driven quantification and automated detection of rearing and grooming behaviors in mice for precise pre-clinical data analysis.
AI-driven platform for automated tracking and high-precision quantification of aquatic behavior in wellplates and tanks for neuroscience research.
Advanced ultrasonic vocalization detection and analysis, enabling precise, automated capture of high-frequency calls with minimal manual effort.
Assesses an observer animal's response to a distressed conspecific, such as through freezing behavior, to study empathy-like reactions
Advanced, fully automated paradigm for assessing fine motor coordination, gait adaptation, and cerebellar-dependent learning in rodents