Pathway Tract ID vs Neuro Sandbox

The Pathway Tract ID app covers normal pathway and tract animations and structure id. Structure ID is designed to teach pathway and tract structure in two ways; touch the parts and see the names highlight or touch the name to see the part highlight. The detailed text is hidden or viewed at the touch of a button. All views include a drawing whiteboard feature for easy anointment, screen prints direct to photo app to save and email out or printing. Disclaimer: seek a doctor’s advice in addition to using this app and before making any medical decisions. Pathway: structure ID - cortices, brainstem, cerebellum, thalamus and thalamus interrelation views. Animations - audition listen and balance, speech communication and corticobulbar, vision,sensation and movement views.. Tracts: structure ID - audition listen and balance, speech communication and corticobulbar, vision, sensation trigeminal, dorsal column and spinothalamic, movement rubrospinal, reticulopinal, tectospinal and corticospinal views. Animations - audition environment, speech and balance, speech communication and corticobulbar, vision, sensation trigeminal, fasciculus cuneatus, fasciculus gracilis, spinothalamic lateral and anterior, movement rubrospinal, reticulospinal, tectospinal, corticospinal lateral and ventral views. Two finger pan, zoom and rotation of all views, with easy reset button. Drawing Whiteboard feature: Drawing: freeform lines in red, blue, green or black hue. Draw and place text directly on all views. Screenshot whiteboard direct to photo app for easy email out and printing.

Neuro Sandbox is an interactive visual sandbox for exploring neural network dynamics. Build small networks by placing neurons, connecting synapses, and observing how activity flows through the system in real time. Neuro Sandbox is designed for students, researchers, and anyone interested in computational neuroscience who wants to see how network behavior emerges from simple rules. Rather than writing code, you interact directly with the network. Adjust parameters, introduce feedback loops, and watch how excitation, inhibition, and decay shape firing patterns over time. What you can do: • Build custom neural networks by adding and connecting neurons • Assign excitatory or inhibitory neuron types • Adjust basal firing rates and synaptic decay • Modify synaptic weights and observe their effects • Visualize spike propagation and firing dynamics • Monitor live firing rates and recent activity history • Explore simple Hebbian-style learning rules • Detect and pause runaway network behavior