I. Product Overview
Synapse EM: 16W is a high-performance electromagnetic stimulation system designed for scientific research and engineering applications. It adopts a high-power, low-latency electromagnetic pulse output architecture, enabling precise regulation of the nervous system, brain functions and bioelectrical activities. The system supports multiple stimulation modes and parameter configurations, and is suitable for neuroscience research, brain-computer interface experiments and related biomedical engineering applications.
II. Functional Features
1. 16W high-power electromagnetic output with stable and reliable stimulation intensity;
2. Supports single-pulse, repetitive pulse and custom timing stimulation modes;
3. High time resolution control with microsecond-level triggering accuracy;
4. Programmable multi-parameter settings for convenient experimental repetition and comparison;
5. Comprehensive safety protection mechanism with over-current and over-temperature protection functions;
6. Modular design for easy system integration and upgrade.
III. Application Scenarios and Fields
• Basic Research in Neuroscience
• Research on Brain Function Regulation and Plasticity
• Brain-Computer Interface and Neuromodulation Experiments
• Bioelectrical Signal Stimulation and Response Testing
• Medical-Engineering Interdisciplinary and Cutting-Edge Exploratory Research
IV. Technical Advantages
1. High-efficiency electromagnetic drive architecture reduces system power loss while ensuring power output;
2. Low-noise design minimizes interference with the acquisition of weak biological signals;
3. Highly stable output supports long-term continuous experimental operation;
4. Open interface design facilitates linkage with external acquisition, imaging or control systems;
5. High parameter consistency improves the reproducibility of experimental results.
V. Typical Models and Application Cases
Model | Features | Applicable Objects | Application Cases |
Synapse EM-16W（Standard research type） |
· Rated Output Power: 16 W, stable continuous output · Electromagnetic Pulse Mode: Supports single pulse and repetitive pulse · Pulse Parameters: Pulse width, frequency and duty cycle adjustable · Time Control Accuracy: Millisecond level, meeting the requirements of conventional stimulation experiments · Control Mode: Mainly local parameter setting · Output Stability: Suitable for medium and long-term experimental operation
| University laboratories, research institutions, and interdisciplinary research platforms |
· Basic Experiments on Neuronal Electromagnetic Stimulation · Exploration Experiments of Neuromodulation Parameters
|
Synapse EM-16W-P（High-precision Synchronous Type） |
· Rated Output Power: 16 W, high-stability electromagnetic pulse output · Time Control Precision: Microsecond-level triggering and synchronous control · Trigger Mode: Supports external hardware triggering and synchronous signal input · Stimulation Mode: Compatible with complex timing pulse sequences · Timing Consistency: Low time jitter between multiple stimulations · Interface Expansion: Easy linkage with electrophysiology and imaging systems
| Neuroelectrophysiology, Brain-Computer Interface, Closed-Loop Stimulation Research |
· Stimulus-recording Synchronous Electrophysiology Experiment
· Closed-loop Neural Stimulation Research
· Collaborative Application of Multimodal Experimental System
|
Synapse EM-16W-C（System Integrated Type） |
· Rated Output Power: 16 W, capable of long-term stable operation
· Control Interface: Equipped with standardized control and communication interfaces
· Parameter Calling Method: Supports external program calling and automatic control
· System Compatibility: Easy to be embedded into multi-channel or multi-module systems
· Expansion Capability: Supports customized control logic and secondary development
· Working Mode: Suitable for continuous and high-frequency experimental tasks
| Engineering Verification, System-Level Platform Construction, Prototype Equipment Development |
· Integration of Multichannel Neuromodulation System · Application of Automated Experimental Platform · Engineering Verification and Prototype System Development
|
Working Principle Diagram
Data chart
Appearance Drawing
