The emergence of organoids, simulations and AI-based approaches raises practical questions about how neuroscience should combine human studies with animal models. This workshop examines why animal models remain necessary for some medical questions and how complementary experimental systems can support stronger conclusions. Case studies connect brain organoids and zebrafish in rare genetic disease, rodent and human neuromodulatory systems, translation from rat experiments to clinical research, and human versus non-human primate contributions to understanding decisions and movement. A concluding
Hallucinating mice and dopamine – towards mechanistic treatment targets for psychosis
Katharina Schmack · Cold Spring Harbor Laboratory
Wed, Apr 28, 2021 · 13:30 UTC
Psychotic disorders are devastating conditions without any mechanistic treatment available. One major hurdle in the biological study of psychosis is the challenge of rigorously probing this condition in pre-clinical animal models. The goal of our research is to develop and exploit innovative frameworks for the study of psychosis in mice. In our present work, where we developed a cross-species computational psychiatry approach to probe hallucination-like perception. This enabled us to directly relate human and mouse behavior, and to demonstrate and dissect the causal role of striatal dopamine i
The structure of behavior entrained to long intervals
Tanya Gupta · Arizona State University, USA
Wed, Apr 21, 2021 · 04:30 UTC
Interpretation of interval timing data generated from animal models is complicated by ostensible motivational effects which arise from the delay-to-reward imposed by interval timing tasks, as well as overlap between timed and non-timed responses. These factors become increasingly prevalent at longer intervals. To address these concerns, two adjustments to long interval timing tasks are proposed. First, subjects should be afforded with reinforced non-timing behaviors concurrent with timing. Second, subjects should initiate the onset of timed stimuli. Under these conditions, interference by extr
CURE-ND Neurotechnology Workshop - Innovative models of neurodegenerative diseases
Bart De Strooper, Sabine Krabbe, Nir Grossman, Eric Burguière and many more · German Center for Neurodegenerative Diseases, ICM Paris Brain Institute, Mission Lucidity, UK Dementia Research Institute
Tue, Feb 23, 2021 · 13:30 UTC
One of the major roadblocks to medical progress in the field of neurodegeneration is the absence of animal models that fully recapitulate features of the human diseases. Unprecedented opportunities to tackle this challenge are emerging e.g. from genome engineering and stem cell technologies, and there are intense efforts to develop models with a high translational value. Simultaneously, single-cell, multi-omics and optogenetics technologies now allow longitudinal, molecular and functional analysis of human disease processes in these models at high resolution. During this workshop, 12 experts w
Using marmosets for the study of the visual cortex: unique opportunities, and some pitfalls
Marcello Rosa · Monash University
Tue, Nov 17, 2020 · 13:00 UTC
Marmosets (Callithrix jacchus) are small South American monkeys which are being increasingly becoming adopted as animal models in neuroscience. Knowledge about the marmoset visual system has developed rapidly over the last decade. But what are the comparative advantages, and disadvantages involved in adopting this emerging model, as opposed to the more traditionally used macaque monkey? In this talk I will present case studies where the simpler brain morphology and short developmental cycle of the marmoset have been key factors in facilitating discoveries about the anatomy and physiology of th
Following neuronal trajectories
Silvia Cappello · Max Planck Institute of Psychiatry
Thu, May 14, 2020 · 17:00 UTC
Malformations of the human cerebral cortex represent a major cause of developmental disabilities. To date, animal models carrying mutations of genes so far identified in human patients with brain malformations only partially recapitulate the expected phenotypes and therefore do not provide reliable models to entirely understand the molecular and cellular mechanisms responsible for these disorders. Hence, we combine the in vivo mouse model and the human brain organoids in order to better comprehend the mechanisms involved in the migration of neurons during human development and tackle the cause