1. 3D MEDICAL IMAGING & SURGICAL PLANNING

Our Materialise Mimics-powered solution converts CT, MRI, and X-ray scans into accurate 3D anatomical models, enhancing diagnosis, treatment planning, and surgical precision in orthopaedics, cardiology, and reconstructive surgery. It provides doctors with clear, detailed insights for safer and more effective patient care

Materialise Mimics Innovation Suite

Transforms CT and MRI scans into precise 3D anatomical models with complete workflows for segmentation, design, meshing, and Cloud-based collaboration, enabling efficient and accurate biomedical innovation.
Applications:
•Surgical Planning – Create patient-specific models to plan complex procedures with higher accuracy.
•Anatomical Analysis – Study detailed 3D anatomy for education, research, and clinical insights.
•Device Design – Develop and test custom implants, prosthetics, and biomedical devices.
•3D Printing – Produce accurate anatomical models for surgical rehearsal, training, and patient communication.
•Research & Innovation – Advance biomedical engineering through AI-driven modeling and simulation.

2.Advanced Additive Manufacturing for Healthcare & Research

Using Formlabs 3D printers, we create custom medical devices, implants, prosthetics, and anatomical models, enabling precise, cost-effective production that supports surgical planning, research, and improved patient care.

Formlabs Form 4BL ( Large-Format Healthcare 3D Printer)

A large-format 3D printer for healthcare, delivering high-accuracy, biocompatible prints for anatomical models, surgical guides, and custom prosthetics with reliable, repeatable results.
Applications:
•Models– Accurate 3D replicas for surgical planning and education.
•Surgical Guides– Patient-specific guides to improve procedural precision.
•Custom Prosthetics & Implants– Tailored solutions for individual patients.
•Medical Device Prototyping – Rapid development and testing of biomedical devices.
•Biomedical Research– High-quality prints for lab studies and experimentation.

2OneLab-2 Create

A versatile platform for custom biomedical design and rapid prototyping, converting medical data into 3D models and patient-specific devices. Delivers precise, efficient, and cost-effective 3D printing in CoCr and Titanium, accelerating innovation in surgical planning and biomedical research.
Applications:
•Patient-Specific Device Design– Custom implants, prosthetics, and surgical tools.
•Surgical Planning Models– Accurate 3D models for preoperative preparation.
•Rapid Prototyping– Quick development and testing of biomedical devices.
•Medical Research & Development– Create models for experimentation and study.
•Educational Tools– 3D anatomical models for training and learning.

3.Bioinstrumentation and Image processing

Combining smart sensors and medical image analysis, we monitor vital signs and process ECG, EEG and EMG data to enable accurate diagnosis, early detection, and improved patient care.

Vision Based Biomedical Image Processing:

Biomedical engineering leverages image acquisition and processing for diagnosis, monitoring, and treatment planning. NI Vision tools with LabVIEW provide a flexible platform to seamlessly integrate hardware and software for advanced imaging solutions

BIO-Signal Acquisition and Data Analysis

Using NI LabVIEW with DAQ hardware, engineers and researchers can acquire, visualize, and analyse bio-signals like ECG, EEG, and EMG in real time for accurate physiological monitoring and research.

Data Acquisition System

Modular, scalable, supports a wide range of analog and digital I/O modules for signals like ECG, EEG, EMG, temperature, and strain. Ideal for real-time monitoring and lab setups.

NI LabVIEW

LabVIEW interfaces with NI DAQ hardware to acquire, visualize, and analyse bio-signals like ECG, EEG, and EMG in real time. It enables signal processing, feature extraction, data logging, and automated monitoring, providing a flexible platform for biomedical research and diagnostics

EEG(Electroencephalogram)

Measures the electrical activity of the brain.
Applications: Brain-computer interfaces (BCI), epilepsy detection, sleep studies, and cognitive neuroscience.

ECG (Electrocardiogram)

Measure Electrical activity of the heart. Applications:Arrhythmia detection, heart rate variability, cardiac health monitoring.

EMG (Electromyogram)

Electrical activity of skeletal muscles.. Applications:Muscle fatigue analysis, prosthetic control, rehabilitation, sports science.