Electronics Engineering
We design electronics for implantable and wearable medical devices, always prioritizing performance (power consumption, signal integrity, or processing), safety, manufacturability, and physical integration.
Our scope spans architecture definition, schematic design, controlled libraries, PCB layout, manufacturing outputs, and verification testing.
What We Do
We develop electronic systems for implantable and wearable medical devices based on product, system, and electrical requirements. These requirements drive the entire development process, from architecture definition and component selection to schematic design, component library management, PCB layout, preparation of manufacturing outputs, and electrical verification testing.
Depending on the project, our work may involve low-power architectures, wireless power transfer constraints, stimulation circuits, and multi-channel sensing analog or digital front ends with special attention to low-noise performance. These designs are shaped not only by electrical performance, but also by the physical, mechanical, and regulatory realities of the product.
We take into consideration battery constraints, board shape and dimensions, mechanical interfaces, enclosure limitations, leads, feedthroughs, and manufacturing specifications from the beginning so the electronics can move from concept toward scalable production without avoidable redesign loops.

We also take responsibility for manufacturing management, using our experience and close working relationships across different supplier profiles. That includes low-cost prototype-oriented manufacturers, high-end quick-turn partners, and more experimental or specialized technology paths that may require coordination across multiple interlocutors.
We also design the support electronics and hardware interfaces needed for verification, manufacturing support, and the foundations of future test automation.

Typical Deliverables
Interconnected
Disciplines
Need electronics designed around real device constraints?
We can help define and implement hardware architectures that support performance, integration, validation, and scale-up.