Project Overview
Project Name: Deep Brain Stimulation Surgical Device Animation
Objective: To create a scientifically accurate and visually engaging surgical device animation that explains how deep brain stimulators (DBS) and neurosimulators work in treating neurological disorders such as Parkinson’s disease, dystonia, and essential tremor.
Service Type: 3D Medical & Surgical Device Animation
Industry: Healthcare, Neurosurgery, Medical Education, Medical Devices
Timeline: 10 Weeks
Targeted Audience: Neurosurgeons, medical students, device manufacturers, patients, and healthcare educators seeking a clear understanding of DBS technology.
Project Description
EFFE Animation developed a comprehensive surgical device animation showcasing the working mechanism of deep brain stimulators with neurosimulators. The animation demonstrated the surgical procedure, device placement, and how electrical impulses are transmitted to targeted brain regions.
This surgical device animation simplified the complex process by visualizing brain structures, electrode placement, and signal modulation that helps manage abnormal neural activity. It also highlighted the external controller and implantable pulse generator (IPG) used in deep brain stimulation therapy.
By presenting highly detailed step-by-step visuals, this animation served as both an educational tool for medical professionals and an awareness tool for patients considering DBS surgery.
Project Plan
• Researched medical device manuals, neurosurgical guidelines, and clinical literature on DBS.
• Designed a storyboard showing the journey from device implantation to neural stimulation.
• Created 3D brain models with targeted regions such as the subthalamic nucleus and globus pallidus.
• Visualized electrode placement, stimulation signals, and symptom reduction.
• Integrated narration simplifying complex neurosurgical concepts for both professionals and patients.
• Reviewed by neurologists, neurosurgeons, and medical device experts for accuracy.
About EFFE Animation
EFFE Animation specializes in creating scientifically accurate surgical device animation and medical visualization projects. From neurosurgery tutorials to interactive AR/VR-based training, we bridge the gap between device manufacturers, healthcare professionals, and patients. Our expertise ensures that complex devices like deep brain stimulators are explained with clarity and precision.
Our Process
• Research: Studied neurosurgical procedures, medical device specifications, and case studies.
• Conceptualization: Designed a flow showing device implantation, electrode placement, and signal transmission.
• 3D Modeling: Created accurate brain structures and DBS device components.
• Animation Techniques: Illustrated step-by-step surgical device placement and stimulation effects.
• Visual Effects: Highlighted electrical signals modulating abnormal brain activity.
• Audio Integration: Added professional narration for clinical and patient-friendly explanations.
• Accuracy Validation: Reviewed by neurosurgeons and device engineers.
• Testing: Refined based on feedback from medical device companies and academic experts.
Our Team
A multidisciplinary team of neurology researchers, neurosurgeons, 3D designers, animators, sound engineers, and editors collaborated to ensure scientific precision, creative storytelling, and effective educational delivery.
Features
• High-detail surgical device animation of the deep brain stimulator and neurosimulator.
• 3D brain visuals showing electrode implantation in targeted regions.
• Step-by-step procedure animation for surgical training.
• Cross-sectional views explaining device programming and signal modulation.
• Narration and captions for both professional and patient learning.
• AR/VR compatibility for immersive neurosurgical education.
Measuring Success
Success is measured by adoption in neurosurgical training programs, patient education modules, and medical device company presentations. The surgical device animation continues to serve as a valuable resource for teaching, awareness, and medical innovation communication.
