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CASE STUDY

Biosignal Hardware Architecture for Research Systems

Delivered a flexible hardware architecture that allows researchers to scale biosignal acquisition systems from entry-level to advanced multi-channel configurations without system replacement.

Situation

Existing biosensing systems are typically monolithic and expensive, requiring full system replacement to increase channel count or capabilities. This limited experimentation and iterative research workflows.

Solution

Engineered a modular hardware platform composed of interoperable sensing units. This modularity enabled users to incrementally scale their systems based on evolving research needs.

OUTCOMES

3 modalities supported
EEG EMG and ECG
80% less replacement
upgradeable system architecture
Extended hardware
through interoperable modules

Challenges

Scalability

  • Monolithic system limitations
  • Full replacement dependency
  • Limited upgrade flexibility

Solutions

01

Multi-Channel Boards

Designed multi-channel biosignal acquisition boards supporting EEG, EMG, and ECG.

  • Engineered boards supporting multiple biosignal modalities
  • Enabled consistent signal capture across configurations
  • Supported both entry-level and advanced deployments
02

Daisy-Chain Expansion

Implemented daisy-chain expansion capability to increase channel count dynamically.

  • Enabled seamless chaining of sensing modules
  • Supported incremental channel scaling without redesign
03

Interface Standardization

Standardized electrical and communication interfaces across modules.

  • Unified connector and communication protocols
  • Simplified integration across hardware variants
  • Improved long-term maintainability
04

Flexible Configurations

Built the system to support multiple experimental configurations without hardware redesign.

  • Supported rapid reconfiguration for new experiments
  • Enabled cross-domain biosignal research workflows
  • Reduced setup time between study variations