Owning up to the potential of organoids

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Organoids are miniaturized 3D tissue structures that have mimic the structure of a human organ, such as the brain. But can an organoid mimic not just the structure, but the function of a brain, and can it grow past beyond the small structure? How much can an organoid develop into something that is useful for studying disorders like autism? On this week’s podcast, we interview Dr. Kevin Kelley, a neuroscientist and psychiatrist from @Stanford University who spent that past decade developing tools to better understand the potential of organoids. He explains how he created the organoids and the systems needed to show that they can develop past a few cells, that they make connections with other brain cells, spread out, connect, and function in a model system like a brain. This new discovery provides more hope for utilizing it as a system for better understanding the autistic brain and for screening lots of treatment candidates for people who need them.

OPEN ACCESS: https://www.nature.com/articles/s41586-026-11032-2

The 2024 Autism Science Year in Review

New Technologies, New Data, New Solutions

This year’s progress in autism research includes promising findings, clarifications, explanations, and the uncovering of new avenues of inquiry. The focus is now on personalized medicine: finding the right treatment for the right person at the right time through targeted interventions. Advances in technology and genetic testing are opening new avenues for therapeutics, rapid drug testing, and improved differentiation of subgroups of autism.

Little Brains Answer Big Questions

This week we talk to Sergiu Pasca from Stanford University. He has revolutionized the field of understanding the field of brain development in neurodevelopmental disorders and just published a new study which examined the genetic influence of brain assembly. The way he does this is quite remarkable. His lab uses assembloids, which are many many many stem cells which form into a tiny brain. He explains what an interneuron is, why it is important for brain function, and how genetics can influence how these neurons work. This way the development of the brain from the first cell can be tracked and even manipulated to understand what happens in autism, and what therapies might be the most helpful to target these interneurons. Thank you Dr. Pasca.

Open access! https://pubmed.ncbi.nlm.nih.gov/37758944/

Genetic confounding plus organoids

You heard it in the news this week, and we discuss it on this week’s ASF podcast. Can you make little brains in a dish then make them better by providing them a real structured live neural environment? Can these organoids integrate with a live brain and be functional in vivo? The answers are: yes! Learn more from a new study published this week. Also, what the h**l is genetic confounding and how can it address many of the controversies of genetic vs. the environment? Sometimes genes that predispose to a disorder also predispose to environmental factors leading to that disorder. There is always room for both. Here are the links I promised:

https://www.fhi.no/en/studies/moba/

https://pubmed.ncbi.nlm.nih.gov/35793100/

https://www.nature.com/articles/s41586-022-05277-w