bioRxivBioengineering
Intestelligence: A pharmacological neural network using intestine data
Abstract
A neural network is a machine learning algorithm that can learn and make predictions by adjusting the strength of the connections between nodes. The sigmoid function is commonly used as an activation function in these nodes. This study explores the potential applicability of biological materials in the development of alternative activation functions. Inspired by the fact that acetylcholine induces intestinal contractions that follow a sigmoid function, we used pharmacological data obtained from guinea pig ilea in a layered neural network for image classification tasks. We found that the intestinal data-based neural network with the same structure as a conventional three-layer perceptron achieved an impressive classification accuracy of 85.7% {+/-} 0.6% based on the MNIST handwritten digit dataset (chance = 10%). Additionally, the neural network was trained to determine whether objects in photographs collected from the internet were digestible, achieving an accuracy of 88.5% {+/-} 0.9% (chance = 50%). Our approach highlights the potential applicability of intestine data in neural computations based on pharmacological mechanisms.
- research focus: clustering
- research focus: dimensionality reduction
- research focus: benchmarking
- approach: deep learning
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Spiking Neuron-Astrocyte Networks for Image Recognition
Jhunlyn Lorenzo, Juan‐Antonio Rico‐Gallego, … Sabir Jacquir·Neural ComputationPeer-reviewed·Mar 3, 2025
- One-time learning in a biologically-inspired Salience-affected Artificial Neural Network (SANN)
Leendert A Remmelzwaal, George Ellis, Jonathan C. Tapson·bioRxiv·Feb 7, 2020
- ElegansNet: a brief scientific report and initial experiments.
Francesco Bardozzo, Andrea Terlizzi, … Roberto Tagliaferri·bioRxiv·Apr 23, 2023
- Back-propagation learning in deep Spike-By-Spike networks
David Rotermund, Klaus Richard Pawelzik·Frontiers in Computational NeurosciencePeer-reviewed·Aug 13, 2019
- Nonlinear Reconfiguration of Network Edges, Topology and Information Content During an Artifical Learning Task
James M. Shine, Mike Li, … Joseph T. Lizier·bioRxiv·Sep 30, 2020
- Non-Negative Connectivity Causes Bow-Tie Architecture in Neural Circuits
Zhaofan Liu, CongCong Du, … Dahui Wang·Frontiers in Neural CircuitsPeer-reviewed·Aug 18, 2025