Berlin · Pre-seed · 2026
The first board never works. Build and validate 5 instead.
coscope works under an engineer’s direction to design, bringup and validate hardware, so the team can build and validate 5x more boards with the same engineers.
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Software only, annual seat, per engineer.
8 users installed on real projects.
Raising €500k pre-seed on a SAFE, closing end of October 2026.
Tom Elliot · tom@coscope.ai
01 - The problem
Engineering time limits how many boards the team can test.
"We have to increase our shots on goal for prototypes we make." — CTO, neurotech startup
- •One engineer owns each board. The fab can build boards in parallel, but the engineer cannot work on them in parallel. When that engineer is busy or away, the board waits.
- •The first board never works. Each mistake costs weeks of fab and shipping. The team must get to a working board before the next fundraise or phase gate.
- •The work is much more than drawing the PCB. The engineer selects components, builds libraries, brings the board up and diagnoses what fails. Getting a board that seems to work is "five percent of the way."
- •Companies fail by not getting the hardware to work. coscope gives them more shots on goal. 5x more boards validated per engineer month.
02 - The market & customer
Hardware teams in physical AI, drones and space building multiple PCBAs a month using KiCad.
- •Burn per week is about €50k at seed, €150k at Series A and €400k to €500k at Series B.
- •coscope pays for itself if it brings the milestone forward by one day a year. A Series A team with two seats pays €28,800 a year.
- •The first market has 7,000 board designers and bring-up engineers. Each year 20% to 40% more engineers are hired into these companies.
- •Next come the industries that Europe and the US are rebuilding. First defence, aerospace and consumer electronics, then industrial, engineering consultancies, automotive, medical and large companies. Together they have ~93,000 engineers.
| Year | Market segment | coscope seats | Engineers in market | Revenue | Market size | Share |
|---|---|---|---|---|---|---|
| 3 | Physical AI, drones, space | 1,000 | 7,000 | €14M | €100M | 14% |
| 5 | + defence, aerospace, consumer electronics | 4,000 | 32,000 | €120M | €1.0B | 13% |
| 8 | + industrial, consultancies, automotive, medical, large companies | 17,000 | 93,000 | €1.0B | €5.6B | 18% |
The customer:
- •The team makes new designs and revisions again and again. coscope's value grows with the number of distinct boards the team develops and tests. Production volume does not change it.
03 - The solution
5x more designed + tested boards with 1x the engineers.
coscope is the harness for EEs. It does design, bring-up and validation work under an engineer’s direction, so the team builds and validates more boards.
- •Design, shipping today. Component selection and datasheet fetching, schematic-versus-board checks, ERC/DRC, floor planning against an enclosure, routing through Freerouting and documentation. The engineer reviews the output in KiCad and makes corrections where needed.
- •A record for context. Capture design decisions and their reasons in the repo today. Extend that record to measurements and fixes as bring-up and testing ship.
- •Bring-up and testing, next. Connect the design and test requirements to bench instruments, measurements and debugging, with the engineer directing and checking the work.
Product vision: Increase tested-board throughput, so smaller teams can iterate more before committing.
04 - Why now
Agents can do real EE work in the tools engineers use, and the world is in a rush to build faster.
- •Models became capable of real EE work in late 2025 and early 2026.
- •Geopolitical upheaval is increasing the pressure. Hardware companies are racing against China. The EU is fighting for sovereignty, both the US and the EU are rethinking their defence strategies.
- •Replace-the-EDA and prompt-to-PCB attempts failed or are failing. They fail to meet the needs of industry.
- •EEs already use general AI tools, but ad hoc. They do not have a harness good enough for hardware work.
- •KiCad matured and is gaining broad adoption. Its open file format is compatible with coding agents, so adoption is about to explode.
The thesis: Hardware startups are under incredible pressure to build more hardware in the same time.
05 - Traction
In users’ hands, on real boards.
- •8 users have it installed on real projects with feedback arriving each week.
- •Split across robotics, industrial and consumer electronics companies.
- •A new design in a weekend. A pilot reported correct parts, a floor plan and a routed board.
- •A floor plan from new constraints. A live session with a founder produced the PCBA floor plan needed for a new enclosure.
- •Debugging. coscope designed a board needed for testing robot components and sped up debugging once the board was built.
06 - Business model
€1,200 per engineer, per month.
Annual seat, sold to the engineering lead. Design partners start in 2026. They get their first months free, then 50% pricing (€600 a month) locked for their first year. Pilot users have accepted these terms verbally.
- •€14,400 per seat per year. A two-seat team is a €28,800 annual account.
- •Recurring board development is the buying context. The target customer has new designs and revisions to prepare and test throughout the year.
- •The value to prove is more completed hardware experiments. Measure boards tested and questions answered alongside the engineer’s review, correction and bench time. Paid conversion must establish that this is worth the annual commitment.
07 - Alternatives
The engineer still needs a complete experiment.
| Approach | What the team gets | What remains |
|---|---|---|
| KiCad and the existing manual workflow. | Direct control over design and review. | Engineering time for research, preparation, documentation and bench work. |
| General-purpose models with a custom tool setup. | A workflow the team can adapt itself. | The team builds and maintains the connections to its files, tools and instruments. It also supplies the hardware-specific learnings that general models do not have. |
| Separate tools for design, firmware and test. | Specialized support for individual tasks. | The team connects the design decisions, test requirements and results. |
| coscope. | Connected design tasks and a project record on the team’s KiCad files today. | Bring-up and testing are roadmap work. The engineer retains judgment and verification. |
08 - Why me
20 years in hardware. Early believer in AI's future.
Tom Elliot - Founder
- •Domain expert. I've worked on electronics development from consumer electronics to industrial equipment. From individual contributor to managing teams. From research experiments to units manufactured in the millions.
- •Product experience. I've bootstrapped several B2B SaaS products over the last few years (some even made money).
- •AI pilled. I have been using LLMs in SaaS products since 2023. I have Openclaws, Hermes' and custom built agents doing work for me both professionally and personally. I am on top of the latest trends (I've got Jev built into some tooling for coscope already).
- •Vision. I don't think "prompt-to-PCB" is enough. The real impact is having a coordination layer across the whole EE workflow, allowing the EE to work at a higher level of abstraction across more parallel workstreams.
09 - The ask
€500k pre-seed, SAFE, closing end of October 2026.
- •Hiring My attention stays on customers, product and the business model.
- •Founder's associate
- •Resident engineer
- •Distribution. Founder-led sales converts the live pilots into paying design partners, backed by reference builds documenting the design, bring-up, test results and resulting decisions.
- •Compute. Model and tool execution for design tasks and the planned bench workflow.
Goal: 3+ paying design partners at 5-figure ARR.
Non-dilutive funding through German R&D grants.

The first board never works. Build and validate 5 instead.