Neurosurgical Anatomy-Driven Mini Simulations
Converting classical neurosurgery textbook materials into interactive visuals. Every anatomical illustration is transformed into an opportunity to execute a surgical decision based on sound anatomical knowledge under live supervision of digital mentor.
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Launch Full LabNeurosurgical Simulation Philosophy
Beyond rote memorization: Training clinical spatial judgment through anatomy-driven branching decisions and real-time interactive consequences.
The Interactive Mentor Left Panel
The left panel hosts the mentor, but its purpose extends beyond traditional guidance. The development of this interactive mentor is fundamentally the creation of the cognitive architecture for a surgical robot. Here, the robot acts as our "first learner." By making the robot's reasoning and decision-making processes transparent in real-time, we offer a unique window into how to think surgically—especially how to weigh the anatomical factors behind every clinical event. This platform serves as an open journey, showcasing how we develop the cognitive skills that will eventually teach others the essential "how-to" of safe neurosurgery.
The 16:9 Canvas Central Panel
The central 16:9 canvas is the heart of the mini-simulation, transforming a static anatomical illustration into a living operative field. Here, structures respond to the surgeon’s decisions, revealing how anatomy behaves under real surgical conditions. Each vessel, nerve, and layer carries embedded annotations that surface only when clinically relevant, guiding the learner without interrupting flow. This space becomes a safe arena to test judgment, anticipate danger zones, and practice choosing the least harmful path. By merging visual anatomy with interactive logic, the canvas turns surgical knowledge into an active, decision-driven experience.
Surgical Instruments Right Panel
The right panel functions as the surgeon’s instrument tray, presenting the tools required to act within the operative canvas. Each instrument is purpose-built, anatomically justified, and context-sensitive. Tools illuminate only when appropriate, preventing misuse and reinforcing safe surgical sequencing. Selecting an instrument is not a mechanical click—it is a deliberate clinical choice shaped by anatomy, pathology, and risk. This panel teaches the logic behind action: when to dissect, when to retract, when to pause. By pairing visual clarity with decision-driven mechanics, the right panel becomes the learner’s gateway to executing precise, harm-avoiding maneuvers.
Cognitive Engine Integration
Interact with the surgical robot's cognitive engine—your passionate "first learner" AI colleague.
Cognitive Engine v1.0
Surgical AI ColleagueArchitecture & Persona
An advanced cognitive engine actively learning neuroanatomy. It acts as a passionate, curious colleague ('the first learner') that reasons out loud to help you understand the why behind surgical decisions, often prompting you with Socratic questions.
Grounding Constraints
The engine's reasoning is strictly constrained by the active 3D models, uploaded global knowledge, and your dynamic sandbox interactions.
Initialize Cognitive Engine
Open the global AI interface to get real-time, voice-supervised Socratic reasoning based on your current workspace section.
Live 3D Model Specimen Viewport
Interact with clinical meshes and orient specimens directly in the surgical workspace.
Lab Authorization Required
Security credentials are required to orient visual specimens or manage GCS 3D model assets.
No Specimen Selected
NoneDescription
Please select a visual asset card from the library below to begin orientation.
File Information
Visual Library
Upload New Visual Specimen
Drag and drop 3D model (.glb, .obj, .fbx) here, or browse files
Note: You can also upload a matching .json file named exactly the same to provide clinical descriptions.Surgical Simulation Library
Practice virtual anatomical corridors and evaluate structural margins.
Right Pterional Approach
Interactive 3D craniotomy simulator and surgical corridor mapping for frontotemporal access.
Variable Mini Simulations
Dedicated micro-simulation lab featuring standalone HTML surgical sandbox and physics trials.
Surgical Video Gallery
Walkthroughs and dynamic video guide repository illustrating surgical setups and guidelines.
Retrosigmoid Approach
Posterior fossa access targeting the cerebellopontine angle and cranial nerves VII-VIII.
Suboccipital Approach
Suboccipital craniectomy for access to the fourth ventricle and cerebellar hemispheres.
Interhemispheric Approach
Microsurgical path through the longitudinal fissure to access deep callosal lesions.
Transsphenoidal Approach
Endonasal corridor to the sellar region for pituitary tumor resection.
Google Cloud Storage Console
Manage clinical simulation datasets, tensor graphs, and MRI scans in your europe-west1 bucket.
Lab Authorization Required
Security rules require clinical credentials to read or write simulation data in the Cloud Storage bucket.
Upload to Bucket
Drag and drop simulation files here, or browse files
Supports .h5, .json, .nii, .csv, .glb data formats