Instrumented observation cage
PhenoTyper is an instrumented observation cage to measure and test the behavior of laboratory rodents. Every cage is equipped with a top unit (LED units and a camera) and optionally with other sensor and stimuli devices.
Full integration of test environment and video equipment
Adaptable to fit your research aims
Work with hardware and your animals’ behavior (e.g. operant conditioning)
Customize your PhenoTyper
PhenoTyper is very customizable to your research: several different walls are available to accomodate any set-up, from simple novel cage testing to home cage environment and operant conditioning setups!
Each configuration consists of a bottom plate, four replaceable walls, and a PhenoTyper top unit. Walls are transparent but can optionally be replaced by (partially) opaque/matted walls to reduce reflection, which is useful for specific studies.
We are celebrating that more than 1,750 PhenoTypers are part of research in labs worldwide!
Sizing options and features
PhenoTyper is available in two standard sizes: the PhenoTyper 3000 has a floor area of 30cm x 30cm (12"x 12") and the PhenoTyper 4500 has a floor area of 45cm x 45cm (18" x 18"). Custom sizing is also possible, for example a model of 90cm x 90cm (36" x 36") has been used in studies.
The instrumented top unit contains an infrared sensitive camera with three arrays of infrared LED lights. You can adjust light conditions experimentally to e.g. create a day/night cycle, use the single tone for operant conditioning tests, or use the white spot light for approach-avoidance behavior testing.
- PhenoTyper 3000 (standard size) - floor size 30cm x 30cm (11.8" x 11.8"), wall height 35cm (13.8")
- PhenoTyper 4500 (standard size) - floor size 45cm x 45cm (17.7" x 17.7"), wall height 55cm (21.7")
- PhenoTyper 9000 (custom size) - 90cm x 90cm (35.4" x 35.4"), wall height 100cm (39.4")
- Top unit, 30cm x 30cm (11.8" x 11.8"), height 9cm (3.5")
- Video output - CCIR black/white Vpp-75 Ohm (PAL) or EIA black/white Vpp-75 Ohm (NTSC)
- Infrared lighting - 3 integrated IR arrays through diffuser
- Audio stimulus - Frequency ~2300 Hz; level ~70 dB
- House light - 590 nm
- White spotlight - 5500ºK color temperature; level 0-1000 lux
- Power supply - 24 VDC-15W
Dr. Do Rego "Automatic measurements makes us gain in quality"
Dr. Jean-Claude do Rego and Dr. Jean-Luc do Rego of the Behavioral Analysis Facility of the University of Rouen (Service Commun d’Analyse Comportementale, SCAC), are evaluating the behavioral and functional activities of new pharmacological drugs.
Watch the video to learn more about why they select Noldus PhenoTyper for their research.
PhenoTyper and social interaction
PhenoTyper and operant conditioning
PhenoTyper is ideal for operant conditioning tests: in combination with EthoVision XT, procotols are easily automated. For example, switch on a light when your mouse enters a zone, give the rat a food reward after a lever press, or switch on the brake of the Activity wheel after a number of rotations. There are a large number of operant modules that can be connected to the PhenoTyper cage, for example to automatically apply an air puff or give a food reward.
PhenoTyper and anxiety testing
You can use mild aversive stimuli for anxiety testing in PhenoTyper. You can, for example, automatically switch on a light when your animal enters a certain zone or illuminate the food hopper in the dark period when the animal has been eating or drinking for a certain time. But you can also equip PhenoTyper with an illuminated shelter that can be controlled with EthoVision XT’s Trial & Hardware Control Module. This way a light can switch on automatically when the animal enters the shelter, or chooses a specific shelter entrance. You can extend your setup with other TTL-based hardware. This way you can adjust your anxiety tests entirely to your needs.
Here is a selection of recent papers that mention the use of PhenoTyper. If you feel your paper should be on this list, please let us know at firstname.lastname@example.org!
- Rhine, M.A.; Parrott, J.M.; Schultz, M.N.; Kazdoba, T.M.; Crawley, J.N. (2019). Hypothesis-driven investigations of diverse pharmacological targets in two mouse models of autism. Autism research, 12(3), 401-421.
- Torruella-Suarez, M.L.; Vandenberg, J.R.; Tipton, G.J.; Luster, B.R.; Dange, K.; Patel, G.K.; McHenry, J.A.; Hardaway, J.A.; Kantak, P.A.; Crowley, N.A.; DiBerto, J.F.; Faccidomo, S.P.; Hodge, C.W.; Stuber, G.D.; McElligott, Z.A. (2018). Manipulation of central amygdala neurotensin neurons alters alcohol consumption. BioRxiv, doi:10.1101/245274.
- Urb, M.; Niinep, K.; Matsalu, T.; Kipper, K.; Herodes, K.; Zharkovsky, A.; Timmusk, T.; Anier, K.; Kalda, A. (2019). The role of DNA methyltransferase activity in cocaine treatment and withdrawal in the nucleus accumbens of mice. Addiction Biology, doi: 10.1111/adb.12720.