Join Neko Health as an Electronics Design Engineer to design and own electronics for sensor-dense medical systems.
Posted by employer 17 hours ago
First seen on Joblaze 2 hours ago
Last verified on the company career page 2 hours ago
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Not disclosed in this posting: compensation, years of experience, visa sponsorship.
Joblaze summary
The Electronics Design Engineer at Neko Health is responsible for the end-to-end design of electronics for sensor-dense medical systems, ensuring robustness and data quality throughout the product lifecycle. This role requires hands-on experience with mixed-signal PCB design, schematic capture, and board bring-up, along with a solid understanding of power design and signal integrity. It is well-suited for engineers who thrive in a collaborative environment and have a background in electronics product development, particularly in regulated industries. The team emphasizes design ownership and practical application, with all functions working closely together in the same location.
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From the original posting
Neko is redefining what prevention means, from treating illness when it arrives, to sustaining health before it's ever at risk. Our mission: make data-driven, preventative care accessible to more people, before symptoms appear.
In a single, non-invasive visit under an hour, proprietary technology and direct clinical care combine to deliver personalised, actionable insights. It's a team that thinks in 10x, not 10%. Every role here plays a part in building a world where prevention is the norm, and where your work genuinely helps people live longer, healthier lives.
We're looking for a hands-on Electronics Design Engineer to join our Hardware & Firmware organization. You'll design and own electronics for sensor-dense medical systems, working closely with Mechanical, Firmware, Software, Verification & Validation, Manufacturing, and Production teams.
You'll carry the design across the full product lifecycle: early system trades and requirements, concept, schematic, layout, bring-up, verification, certification, and into production. The device has to give the same reading in every clinic, every time, so robustness and data quality are design constraints from day one rather than something verification catches later.
This is a practical, lab-facing role for engineers who want to see their designs deployed in real clinical environments. We're looking for leadership through design ownership.
Own electronics design end-to-end, from system trades and requirements through schematic, layout, verification, certification, and production support
Design robust mixed-signal PCBs for sensor-dense medical systems, balancing signal integrity, power, thermal, and EMC constraints
Select and integrate MCUs / DSPs and key components, working closely with firmware and software teams
Perform board bring-up, debugging, and root cause analysis for both prototype and production hardware
Design for manufacture and test, and support the transfer into production
Collaborate cross-functionally to keep designs manufacturable, testable, compliant, and scalable
Hands-on experience with both schematic capture and PCB layout
Hands-on electronics product development, with products that reached production
Mixed-signal design, including simulation
Solid understanding of power design, signal integrity, and EMC/EMI in real products
Board bring-up, debugging, and lab instrumentation in embedded systems
Comfortable working autonomously, taking an open-ended problem through to a design and the reasoning behind it
Degree in Electrical Engineering or equivalent practical experience
Fluent English (C1 or above)
Experience in medical devices or another regulated industry, or familiarity with IEC 60601
Sensor signal conditioning
Switching power converters, magnetics, analog control loops, or motor inverters
High-performance digital: processors, FPGAs, memory, network switches
RF design or RF-sensitive systems
Test interfaces or test systems (Python, LabVIEW, MATLAB)
You'd own boards, not sections of boards. From the first system trade to the first unit off the line, the design is yours.
Complete design freedom. You make the design calls. Nobody hands you a topology and asks you to route it. The hierarchy is flat, so the path from a decision to a built board is short.
Hardware with real constraints. Sensor-dense, mixed-signal, and every constraint pulling against the others: signal integrity, power, thermal, EMC, cost, manufacturability. There's no version of this that's routine.
The rest of the system is in the room. Mechanical, firmware, software, V&V and production all sit in the same Stockholm office. When a board misbehaves you walk over to the person whose subsystem it's talking to and sort it out that afternoon.
And it goes into clinics. Your boards end up in front of real people getting answers they wouldn't otherwise have.