Concepts stall in engineering
Beautiful concepts stall when the electronics and engineering partner takes over.
Industrial design studios
Keep the design intent. Flux adds the electronics, the mechanical fit, and the firmware.
Beautiful concepts stall when the electronics and engineering partner takes over.
Surface quality must stay intact through engineering changes.
Clients want working prototypes, not only renders.
Industrial design studios
Zebra stripes, curvature maps, and curvature combs show surface quality in the Flux 3D view.
See the boards, harness and parts inside your enclosure in the Flux 3D view.
Flux adds the board, the mechanical fit and the firmware to your concept.
Flux fits the electronics inside your surfaces. You approve every change to the form.
Go from concept to a board you can order, with the enclosure and firmware, in one project.
One AI engineer does the schematic, the layout and the firmware. Your designers stay on the form.
Hand off STEP files and manufacturing files to your client's engineers and factories.
End to end
Flux handles each development stage inside a single project. One AI engineer guides hardware from product specs to release packages. Your team reviews every step.
Start from a written brief, a block diagram, or a written requirements document.
Flux selects purchasable parts and generates the schematic diagrams.
Flux places components and routes board traces adhering to your studio guidelines and fabricator limits.
Flux models mounting points, the physical housing, and internal wiring harnesses to fit the actual circuit boards.
Flux produces and validates the embedded firmware written for the engineered board.
Flux executes simulation and rule validations on every update. It then exports Gerber, ODB++, IPC-2581, STEP, and the bill of materials.
Model-agnostic AI
Flux combines frontier AI models with a state-of-the-art agent execution harness created for CAD and EDA. Models contribute raw reasoning. Flux supplies the domain toolsets, project context, and workflows to turn those ideas into working physical hardware.
Adaptive divides each engineering job into individual tasks, routing each one to the model that does it best for the price. Tough design decisions route to frontier models. Repetitive work heads to quick, low-cost engines. Separate tasks run concurrently, bringing complete devices together faster. Your studio interfaces with a single AI engineer while Flux directs delegation behind the scenes.
Access the advanced models your studio relies on, directly inside Flux.
Each model connects to Flux's specialized engineering toolsets, design context, and methods.
Whenever updated models release, your designers gain access without changing design platforms.
Avoid relying on a solitary model provider to support your engineering capacity.
Adaptive pairs each engineering phase with the model that does it best, from deep design choices to standard checks.
Kernel-agnostic CAD
Standard CAD tools lock your work to one geometric engine, passing its limitations to every component. Flux works across kernels just as it works across models. The AI engineer selects the right kernel per part, switches engines when a geometry fails, and unites every component into a unified model.
Precise standard geometry that CAM and external CAD tools parse cleanly. Well suited for machined parts and multi-part assemblies.
Smooth, curvature-continuous surfaces designed for handheld products and consumer products.
The modeling engine inside SolidWorks, NX, Solid Edge, and Onshape, for native-grade exchange across those platforms.
Visual proof of surface quality. Before the part reaches tooling, zebra stripes, curvature maps, and curvature combs confirm each surface is smooth.
Verification lab
Flux goes beyond drafting geometry and circuits. The AI engineer tests its own output using professional solvers and presents the findings to you.
The AI engineer executes and reviews SPICE analysis across analog, power, and mixed-signal circuitry.
Full-wave electromagnetic evaluation on finished PCB layouts: impedance, S-parameters, crosstalk, and antennas.
Heat and airflow modeling across boards and enclosures before building physical prototypes.
Airflow analysis through the housing, confirming that vents, fans, and heat sinks perform before physical prototyping.
Finite-element stress checks on enclosures, brackets, and mounts.
Electrical and fabrication rule audits run across every schematic and circuit board.
Extracts every part's datasheet details to verify the design against its pinouts, ratings, and limits.
Orchestration
Provide Flux with your complete product brief. The lead AI engineer separates it into distinct workstreams, starts parallel threads across projects, oversees execution, and provides progress updates.
Each sub-task runs in its own agent thread. The main PCB, daughterboards, and physical housing progress side by side.
The supervising engineer initiates tasks across connected projects and monitors progress from a central view.
It monitors each thread, corrects work that strays from instructions, and compiles the final results.
Any update that shifts an interface or alters board dimensions waits for your sign-off.
Flux defines specifications for each circuit board, detailing board outlines, mounting holes, connectors, and corresponding enclosure cutouts. An isolated project and assigned AI engineer develop each board in parallel. Flux inserts the completed boards into the master 3D model, measuring connector alignment and clearances in millimeters.
Collaboration
Flux operates entirely inside the browser. Everyone opens the identical project, monitors the live design, and works together synchronously without sending files back and forth.
Designers, stakeholders, and AI agents collaborate within a single file concurrently. Active collaborators and their current selections remain visible.
Flux records every edit, the contributor, and when it happened. Revisit any earlier iteration, or spin it off into a fresh project.
Consolidate your firm's hardware files, component libraries, and design rules in one place. Grant view, comment, or edit permissions across your studio.
Add outside contributors to individual projects via email with view, comment, or edit rights. They see only that project, keeping the rest private.
Leave feedback on the live model and @mention colleagues. Feedback stays tied directly to the design.
Branch a project to evaluate a new idea. The master design remains unchanged.
Customizable
Every studio approaches hardware development differently. Supply your design rules to Flux, integrate your preferred software, and let it build tailored apps for each program.
Train Flux just like a new designer. Enter your design guidelines, preferred components, and historical lessons once, and every AI engineer adheres to them on every project.
Set up your layout standards and vendor manufacturing capabilities once. Flux validates every subsequent update against those values every time.
Link any MCP server, or furnish credentials for a web API. Push code updates to your repo, inspect crash reports from devices in the field, or connect custom in-house software.
Admins add API tokens once across the workspace. The AI engineer works through them without seeing them. Flux routes tokens solely to approved tools.
Request project utilities, and Flux creates them as interactive project views: real-time power budgets that update with load changes, bring-up trackers, or 3D assemblies you can turn and take apart.
Control Flux via Cursor or third-party AI assistants supporting its tools. External agents can read and edit Flux files and assign engineering tasks to the Flux AI engineer.
Works with the services your team currently uses.
Octopart Sourcing
Flux connects directly to major electronic and mechanical parts distributors. The AI engineer selects in-stock microchips, connectors, screws, and standoffs, checks prices across suppliers, and substitutes parts that are at end of life before production begins.
Manufacturing
Flux obtains direct manufacturing quotes for PCB fabrication, assembly, plastic and metal 3D printing, CNC machining, sheet metal, laser cutting, injection molding, casting, and wiring harnesses. The AI engineer compares unit costs and lead times, verifies the design against vendor manufacturing rules, and updates quotes as the design changes.
AISLER
MiniProto Interoperability
Import files from your current design applications. Prompt Flux to update features using ordinary sentences. Download your files whenever you want.
The request, as typed in Flux
“The holder must cover a much taller power supply. Make the bent side flange 40 mm deeper. Keep the 4.4 mm hole in the flange where it is. Then cut five 5 x 30 mm vertical vent slots in the new part of the flange, 15 mm apart and centered on the flange width.”
Bring in legacy project archives, component libraries, and CAD models. Schematics, components, and part placements come across, including board routing from most formats.
Imported files are ready for immediate revisions. Ask to "shift the USB cutout 3 cm left" or "tighten the housing profile", and Flux adjusts the model.
Flux generates the files your production partners need: Gerber, ODB++, IPC-2581, BOM, and pick-and-place for boards, alongside STEP, STL, or 3MF for the mechanical parts.
Enterprise adoption
Flux collaborates directly with product development teams to integrate AI on active hardware programs, backed by hands-on support from Flux engineers.
Book a DemoWe identify where AI engineering saves your studio the most time, from initial part research to complete devices.
We link Flux with the existing component libraries, rules, and internal development methods your team uses.
We help you establish consistent AI engineering practices your designers can run on every project.
NVIDIA SMLib, with zebra stripes, curvature maps, and curvature combs.
Boards, connectors, batteries, and screws.
Electronics and firmware in the same project, so the prototype works.
Equip your studio with the tools and AI engineering capacity to build what once required an entire organization.