What We Actually Build

End-to-end instrument development

Most research groups can design a circuit or write firmware. Fewer can also design and fabricate the enclosure that houses it, machine or print the mechanical components that mount it, and then deploy the whole thing in a field environment where it has to work reliably without a technician nearby.

That's the capability we've built at Sunstrike. Our instrumentation work spans electronics design, microprocessor programming, 3D printing, laser cutting, and precision mechanical components — applied together, because real instruments need all of it.

This same capability underpins both our PV-Scope monitoring system and the instrumentation we use for SHINE's concentrating solar research.

Microprocessor-Based Data Acquisition

Custom firmware and hardware for measurement, logging, and real-time monitoring. Designed for the specific parameters your application requires — not adapted from a generic platform.

3D Printed Enclosures & Components

Custom enclosures designed around your electronics — not generic project boxes. We design for thermal environment, cable routing, and clean assembly. Built for lab and field instrumentation use.

Laser Cut Parts

Panels, brackets, mounting plates, and structural components cut from acrylic, plywood, or sheet stock. Rapid iteration for prototype development or small-batch production.

Fiber Optic Mounts & Holders

Precision-designed mounts and alignment fixtures for fiber optic devices, laser sources, and photodetectors. We design and build custom holders, rotation stages, and mounting arms for optical test setups where off-the-shelf hardware doesn't fit the geometry.

Three custom laser-cut measurement and control boxes with microprocessor electronics on optical bench
Custom laser-cut measurement and control enclosures — three units on optical bench
Solar3b Controller board by Sunstrike Optics with ESP32-S2 microprocessor and motor driver boards
Solar3b Controller — custom Sunstrike Optics PCB with ESP32-S2 and motor driver boards
3D printed fiber optic device holders and mounts on optical breadboard
3D printed fiber optic device holders — precision mounts for optical breadboard
Laser source to rotating detector test setup with 3D printed mounts and rotation stages
Laser-to-rotating-detector test setup — 3D printed mounts, rotation stages, and photodetector arm

Our Process

From requirement to finished instrument

01

Define the measurement requirement

What needs to be measured, at what resolution, in what environment? We start with the physical question, not the available parts.

02

Electronics and firmware design

Sensor selection, signal conditioning, microprocessor selection, and purpose-written firmware. We don't adapt generic code — we write for the application.

03

Enclosure and mechanical design

3D model the enclosure around the electronics. Design for assembly, thermal management, connector placement, and the actual deployment environment.

04

Fabricate, assemble, validate

Print, cut, assemble, and test. We validate performance against the original measurement requirement before the instrument leaves the bench.

Examples of what we've built for our own research

Need instrumentation for your solar or optics research?

We're open to discussing custom instrumentation projects that align with our work in solar and optics. Tell us what you're trying to measure.

Discuss Your Project →