Mini Muse desk robot
A desk robot with a display, audio, and USB power. Its boards, internal wiring harness, and PETG enclosure were designed in Flux.
Flux designs wireless earbuds, wearables, and consumer devices. Electronics, shell, firmware, acoustics, and charging come together in one project.
Devices built in Flux, with the electronics and the mechanical parts together.
A desk robot with a display, audio, and USB power. Its boards, internal wiring harness, and PETG enclosure were designed in Flux.
A controller with 11 knobs, a button, and LEDs, in a white enclosure designed around the board.
A distortion pedal with true bypass, in a purple enclosure with three knobs.
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Flux uses ear anthropometry to make S/M/L left and right shells and ear tips. It fits the PCB, cell, and driver inside. Get STEP and STL files for printed fit prototypes.
Flux installs the SoC vendor SDK on its own computer. It writes LE Audio streaming, touch input, and battery monitoring firmware. It builds both cores and runs unit tests.
Flux designs a 2.4 GHz antenna and matching network on the earbud PCB. It simulates S11, input impedance, efficiency, gain, and radiation pattern.
Flux models the driver, front and back chambers, vent, and ear canal. It simulates response at the eardrum and sizes the chambers and vent for your target curve.
Flux designs feedforward and feedback ANC filters. It simulates attenuation and stability across acoustic path variations. Get DSP coefficients and a C header.
Flux selects charger and protection ICs and simulates charge cycles and fault cases. It prepares the safety analysis and validation test plan.
A cross section through the enclosure and the board shows how they fit.
Zebra stripes, curvature maps, and curvature combs show surface quality in the Flux 3D view.
Flux picks parts that are in stock, compares prices across distributors, and replaces parts before they stop your line.
One AI engineer designs the board, the enclosure, the internal wiring harness and the firmware at the same time. No team waits for another.
Change the enclosure or the board late in the program. Flux updates the other side, so they still fit.
Boards, enclosure, harness and firmware are designed together in one model, so you can pack the product tight and know it fits.
Flux runs circuit, thermal and electromagnetic simulation, plus design rule and datasheet checks, before you order boards.
Flux gets quotes from your fabricators as the design changes, so cost is never a surprise at the end.
The AI engineer fits the board to the enclosure and the enclosure to the board.
NVIDIA SMLib for curvature-continuous surfaces, with zebra stripes and curvature combs.
Stock and price checks, and part swaps when a part is not available.
Yes. Flux designs complete wireless earbuds: electronics, Bluetooth audio firmware, antenna, acoustics, ANC, shell, and battery charging. It uses ear anthropometry for S/M/L shells and ear tips, checks component clearances, and exports STEP and STL fit prototypes.
Yes. Flux installs the SoC vendor SDK, such as nRF Connect SDK for nRF5340 LE Audio. It writes streaming, touch, and battery firmware, fixes pin conflicts against the schematic, builds both cores, and runs host unit tests. You get source, build logs, firmware files, and flashing instructions.
Yes. Flux designs meander or chip antennas with a π matching network and DNP tuning footprints. It calculates antenna length and uses full-wave electromagnetic simulation for S11, input impedance, efficiency, gain, and radiation pattern. You get simulation plots and the matching network.
Yes. Flux builds an electroacoustic model of the driver, chambers, vent, leak, nozzle, ear canal, and eardrum. It sizes the chambers and vent to your target response and runs sensitivity sweeps. You get model files, response plots, CSV data, and a PDF report.
Yes. Flux models the primary and secondary acoustic paths. It designs feedforward FIR and feedback IIR filters, simulates attenuation versus frequency and stability margins, and exports coefficient JSON and a compiled C header for your DSP.
Yes. Flux selects the charger, protection IC, NTC, case charger, and boost converter. It simulates charge cycles, open-NTC faults, over-temperature, and timeout. It prepares a safety analysis for the charger, board, and enclosure, and a validation test plan that lists the IEC 62133-2, UN 38.3, and IEC 62368-1 tests.
Chargers, converters, and battery systems, from idea to tested board.
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