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To track disease progression and evaluate the potency of a potential treatment, researchers can look to a number of different measures in their mice. That includes their behavior, which digital vivariums can capture continuously and non-invasively.
A new research article shows how monitoring mice in motion can help researchers predict terminal endpoints and assess drug efficacy in the ES-2 ovarian cancer model.
Researchers are building better barcodes and combining spatial and temporal tools to trace cell lineages from the earliest stages of animal development—and beyond.
Cortico-striatal circuits are at the heart of many brain disorders, which means they are often studied using neurobiological animal models. A new study uses resting-state functional connectivity to assess homologies of cortico-striatal circuits in mice, monkeys, and humans.
Continuous motion monitoring sensitively predicts terminal endpoint in a mouse model of ovarian cancer; the use of motion metrics could reduce animal suffering and be valuable for drug efficacy testing.