Changes in neurological function may be produced by metabolic disease, neural injury, epigenetic causes, antibiotic history or exposure to toxins or treatments. Persistence and scientific rigor are a pre-requisite in this field where relevant patterns must be discerned from small signals. Metabolic assays and ethographic profiling of behavior are key methods when a high-definition, in-vivo record is required to evaluate efficacy in pharmaceutical safety, neurological or physiological investigations.
Important System Considerations
- Second by second quantification of activity
- Automated monitoring of food and water uptake amounts and event frequency
- Differentiate between food uptake and food stashing
- Differentiate between large ingested meals from micro meals
- High-throughput capacity
- Interchangeable instrumentation between mouse and rat cages
- Compatibility with leading video analysis systems
Sable Solutions
Promethion Core Behavioral System, Mouse
The Promethion Core Behavior Phenotyping System features the modular flexibility to support real-time behavioral studies in a home-cage setting. Capture a complete data-rich archive of behaviors with unbeatable temporal resolution. Second-by-second observations ...
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Promethion Core Metabolic System, Mouse
The Promethion Core High Definition Multiplexed Respirometry System for mice synchronously measures energy expenditure, RQ, VO2, VCO2 and activity. The SableHD™ High Definition platform updates once per second for all sensors in ...
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Rat GRID System
The new Promethion Rat GRID system provides automated analysis of ingestive behavior for up to 6 rats in a single spacious cage. Individual animal intake events are identified using RFID technology via ...
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Contact Us
Our systems are highly customizable for a broad range of applications. Let us help configure a system to meet your specific research needs.
Relevant Publications
23 Results Found
(Showing 19 - 23)
Sucralose Promotes Food Intake through NPY and a Neuronal Fasting Response. Wang Q-P, Qi Lin Y, Zhang L, Wilson YA, Oyston LJ, Cotterell J, Qi Y, Khuong TM, Bakhshi N, Planchehault Y, Browman DT, Tat Lau M, Cole TA, Wong ACN, Simpson SJ, Cole AR, Penninger JM, Herzog H, Gregory Neely G. Cell Metabolism. 7/12/2016.
July 12, 2016 12:00 am Published by Brett DavisChronic CNS oxytocin signaling preferentially induces fat loss in high-fat diet-fad rats by enhancing satiety responses and increasing lipid utilization. Blevins JE, Thompson BW, Anekonda VT, Ho JM, Graham JL, Roberts ZS, Hwang BH, Ogimoto K, Wolden-Hanson T, Nelson J, Kaiyala KJ, Havel PJ, Bales KL, Morton GJ, Schwarts MW, Baskin DG. American Journal of Physiology. 1/20/2016.
January 20, 2016 12:00 am Published by Brett Davis- « Previous
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