Innovation

Research & Development Pipeline

Innovation is the engine of Biotronics. Our R&D pipeline transforms advanced materials science into the next generation of MEMS devices for healthcare, defense, and industrial applications.

01

Active Micro Parts

Micro-scale actuated components that push the boundaries of miniaturization. Our active micro parts research focuses on developing miniaturized moving mechanical parts for precision actuation at scales below one millimeter.

These components integrate sensing, actuation, and control on a single substrate, enabling autonomous micro-scale systems for applications ranging from adaptive optics to micro-robotics. Our SiC substrate expertise allows these actuated parts to operate in environments where conventional silicon micro-actuators would fail.

Research Applications

  • Precision micro-actuators
  • Adaptive optical systems
  • Micro-robotics
  • Miniaturized valve systems
02

Biomedical Pressure Sensors

MEMS-based pressure sensing for medical applications represents one of the highest-impact areas of our research. We are developing implantable pressure sensors that provide continuous, real-time physiological monitoring without the limitations of external measurement systems.

Our biomedical sensor development leverages aluminum nitride piezoelectric thin films for self-powered sensing capability, eliminating the need for batteries in implantable devices. Combined with biocompatible packaging and wireless data transmission, these sensors enable a new generation of patient monitoring solutions.

Research Applications

  • Implantable pressure monitors
  • Intracranial pressure sensing
  • Cardiovascular monitoring
  • Continuous patient telemetry
03

Human-Actuator Interface

The bridge between human input and mechanical actuation is becoming increasingly sophisticated. Our human-actuator interface research develops precision control interfaces that translate human intent into micro-scale mechanical action with sub-micron accuracy.

This research encompasses haptic feedback systems that provide tactile confirmation of micro-scale operations, force-sensing interfaces for surgical robotics, and brain-machine interface transducers. The goal is seamless, intuitive control of actuated microsystems across medical, industrial, and defense applications.

Research Applications

  • Haptic feedback systems
  • Surgical robotics interfaces
  • Precision control systems
  • Force-sensing transducers
04

Bio Electronics

Bio electronics integrates semiconductor technology with biological systems for health monitoring and therapeutic applications. Our research spans wearable and implantable electronics designed for next-generation patient care.

Key focus areas include continuous glucose monitoring sensors, programmable drug delivery microdevices, neural interface electronics, and wearable physiological monitoring arrays. We leverage our multi-substrate capability to select the optimal material for each bio-electronic application, whether biocompatibility, piezoelectric properties, or chemical stability is the driving requirement.

Research Applications

  • Health monitoring wearables
  • Drug delivery microsystems
  • Neural interfaces
  • Diagnostic biosensors
05

Accelerometers

Our accelerometer research spans the full dynamic range, from force-amplified nano-g capacitive designs for seismic vibration detection to ruggedized high-g devices built to survive extreme shock loads. These MEMS accelerometers leverage our multi-substrate expertise to achieve performance in environments where commercial off-the-shelf sensors fail.

Key innovations include force-amplification structures that boost sensitivity for sub-micro-g seismic applications, and robust material systems for accelerometers rated to thousands of g under high-temperature operation. Finite element modeling drives the design process, optimizing proof mass geometry, spring constants, and damping for each target application.

Research Applications

  • Seismic vibration monitoring
  • Inertial navigation systems
  • High-g shock sensing
  • Structural health monitoring

Market Context

A Growing Global Market

The global MEMS market exceeds $18 billion in 2025 and is growing at 5-8% annually, with projections reaching $22-34 billion by 2033. Our R&D pipeline is aligned with the sectors driving this growth.

$18B+MEMS Market (2025)
5-8%Annual Growth Rate
$22-34BProjected by 2033
18-22MEMS per EV

Automotive

18-22 MEMS sensors per electric vehicle for pressure, inertial, and environmental monitoring

Healthcare

Continuous monitoring devices, insulin delivery pumps, implantable pressure sensors, and point-of-care diagnostics

Aerospace & Defense

High-temperature sensors for turbine monitoring, inertial navigation, and missile guidance systems

Industrial IoT

Wireless sensor networks for predictive maintenance, process control, and environmental monitoring at scale

Interested in R&D Collaboration?

We partner with universities, government labs, and industry leaders to advance MEMS technology. Let’s explore how our capabilities align with your research goals.