The problem🤔:
Decades of experimental and theoretical research show that neuronal dendrites do not just receive input from other neurons, but also perform complex functions semi-independently from the soma. (2/11)
Although dendritic operations greatly affect single-cell computations, their role in network functions (with a few notable exceptions @tyrell_turing@NeuroNaud) remains unexplored. (3/11)
This happens partly because neuron models with realistic dendritic properties are usually too complex and inefficient for large spiking network simulations 🫤. (4/11)
The solution🙏:
Develop simplified neuron models that reproduce essential dendritic mechanisms without sacrificing performance. And here is where Dendrify comes into play. (5/11)
Dendrify is a free, open-source #Python 🐍package that helps create simple neuron models that account for essential dendritic properties. It was born from our efforts to bridge the gap between detailed biophysical and integrate & fire models. (6/11)
Dendrify automatically generates and handles all the equations, parameters and custom events required by Brian to describe reduced compartmental models that reproduce many dendritic functions using only a few lines of code💻. (7/11)
Importantly, dendritic spikes are modelled in an event-driven fashion, without using the Hodgkin & Huxley equations, which makes the neuron models significantly more efficient and mathematically tractable. (8/11)
Using Dendrify, one can even create more complex models of specific cell types that accurately reproduce numerous experimentally observed neuronal and dendritic properties. (9/11)
All Dendrify's source code along with detailed tutorials and interactive Python notebooks will be available soon in the @dendritesgr GitHub page github.com/Poirazi-Lab, so stay tuned❗️❗️ (10/11)