Consumer Electronics. Built for the Launch Window
CNC aluminum unibodies in 7 days. Tooled injection-molded enclosures in 3–4 weeks. Bead-blast + Type II anodize, electropolish, PVD, laser etching all in-house. We work to your industrial designer’s CMF spec, not a generic finish chart
From EVT to Mass Production
A typical wearable or audio program runs 4 to 6 months from EVT to mass production. That window fits 3 to 5 ID revisions, 2 to 3 mechanical revisions, and a CMF lock before tooling cut. Each stage below maps to what we build and how fast it ships.
First functional parts. The geometry is still moving. Speed matters more than finish. We build CNC-machined aluminum housings, SLA/SLS appearance shells, and vacuum-cast CMF models with Pantone-matched paint.
Lead time: 7 business days for machined parts. Vacuum-cast urethane models in 10 to 14 days.
Geometry locked. The part now has to survive testing: drop, thermal shock, IP, and EMC pre-scan. We build soft-tool injection-molded parts in production-intent resin and CNC-machined parts in production material with final CMF.
Lead time: Single-cavity P20 mold with T1 samples in 3 to 4 weeks. CNC in 7 days.
Production tooling is running. Parts must match the mass-production process exactly. We build multi-cavity 718H steel tooling parts, fully finished to CMF spec, with first articles and a CMM dimensional report.
Lead time: Multi-cavity production mold in 8 to 12 weeks. First article report ships with the first T1 batch.
Retail samples, crowdfunding fulfillment, regional compliance testing. 200 to 2,000 pieces before the mass-production line runs. Production-tooling parts with full cosmetic inspection, packaged per your retail spec.
Lead time: Parts from an approved production tool in 3 to 5 weeks per batch.
Production line running, tooling qualified, quality plan locked. Bridge-machined parts from billet stay available during any tooling revision so validation builds keep going. Ongoing CMF lot verification and AQL inspection per batch.
Lead time: Per-batch schedule confirmed at order. No retooling cost on repeat orders from approved drawings.
Typical Parts & Applications
We support a wide range of consumer electronics parts that are closely tied to product development, fit checks, validation testing, and early production.


Full-body front-load washer-dryer mockup with metal housing, touch-display panel, and large glass viewing door, used for industrial design review and assembly fit checks
Slim soundbar housing with perforated metal speaker grille for acoustic, structural, and aesthetic validation of TV and desktop audio products.


Ultra-thin induction cooker with ceramic-glass top and capacitive touch controls, full functional appearance prototype for small-appliance development.
French-door refrigerator mockup with multi-tier drawers and door bins, used to validate layout, ergonomics, door swing, and interior structure before tooling.
Industry Challenges
Bead-blast + Type II anodize, electropolish, PVD, laser etching all in-house. We work to your industrial designer’s CMF spec, not a generic finish chart.
Recommended Capabilities
Quality That Survives the Cosmetic Inspection
On consumer products, the part either looks right under store lighting or it doesn’t. A scratch invisible at the shop floor jumps out under a 6500K LED at retail. We run dimensional, cosmetic, and functional QC in three passes, and the cosmetic pass is where most consumer electronics defects actually live.
Consumer Electronics Manufacturing FAQ
Q1: Can you build a USB-C compliant enclosure for the EU market, and what does that involve on the mechanical side?
The USB-C mandate covers mechanical fit and port placement, not just the connector chip. Since December 28, 2024, phones, tablets, headphones, speakers, and handheld game consoles sold in the EU carry USB-C. Laptops joined April 28, 2026. On the housing side, the USB-C cutout holds 1.6 ±0.05 mm wall thickness against the inner spec. Machine it loose and the cable will not seat clean.
We machine and mold the port opening to that tolerance and verify it on the first article with a CMM. Connector electrical certification (USB-IF, IEC 62680) stays with your electronics team. We control the mechanical interface: cutout position, wall thickness, draft on the opening, and the surrounding boss geometry that takes insertion cycles without cracking. Send the mating connector drawing with your STEP file so the datum reference on the cutout lines up with your PCB placement.
Q2: How do you verify IP68 sealing on a wearable or portable device?
IP68 follows IEC 60529: full dust protection plus continuous immersion past 1 meter at conditions you specify. The dimension that decides pass or fail is the O-ring groove tolerance, held to ±0.05 mm. Machine the groove loose and the seal shifts under compression. Water finds the path.
Verification runs in two stages. During first-article, we measure groove dimensions and the sealing-face surface finish with a CMM and profilometer. On production lots, sealed assemblies go through IP verification per IEC 60529. Designs with ultrasonic-welded seams instead of gaskets get the weld parameters dialed on limit samples first, then a pressure check on the joint. Send the seal cross-section and the mating half drawing at quote stage. The sealing surface finish and groove depth both trace back to which datums have to be tight.
Q3: What is your minimum order quantity, and can you do a bridge run before production tooling is ready?
No MOQ on CNC-machined parts or vacuum-cast appearance models. Single-piece prototypes get quoted and accepted. Injection molding starts at soft-tool quantities and scales up. A single-cavity P20 mold covers early production while the multi-cavity tool gets cut.
The bridge path solves the gap between design freeze and production tooling. A single-cavity P20 mold ships in 3 to 4 weeks. A multi-cavity 718H production mold runs 8 to 12 weeks. During that window, we machine parts from billet or run soft tooling so your EVT and DVT builds keep moving. No stalling on steel.
Q4: How do you match our industrial designer’s CMF spec instead of a generic finish?
CMF gets treated as a program requirement, not a finishing afterthought. A Type II anodize matches a Pantone target within ΔE < 1.5, checked per lot with a spectrophotometer. Anodize thickness gets measured with an eddy-current gauge: Type II at 8 to 13 µm, Type III at 25 to 50 µm. A bead-blast texture reads uniform under raking light because the blast media and pressure stay locked on limit samples before production.
Every cosmetic part gets inspected under 6500K daylight LED at 1000 lux. That lighting shows the defects retail lighting shows. Before mass production, golden, accept, and reject limit samples get signed off by your ID lead, so there is a physical standard on file, not a verbal one. Send your CMF spec with Pantone or RAL targets, gloss level, and texture callout, and the inspection plan gets built around it.
Q5: How do you handle EMC and thermal requirements on a compact enclosure?
EMC compliance to FCC Part 15 Class B and CISPR 32 needs grounded EMI gaskets and conductive coating on the inside of plastic housings. We apply the conductive coating and control the gasket groove geometry so the shield makes continuous contact around the seam. An in-house EMC pre-scan runs before parts go to the certification lab, which catches gross shielding gaps before a failed lab booking.
Thermal drives the wall thickness, vent placement, and alloy choice. Take a 65 W GaN charger packed into 70 cm³ with a 50°C surface limit at 35°C ambient. That part gets 6063 extrusion for the fins, not 6061, because 6063 extrudes thinner sections clean. Send the power dissipation figure and the ambient target so the housing gets designed around real numbers.
Q6: What documentation ships with a consumer electronics order?
Standard output: dimensional report, cosmetic AQL summary set to 0.65 major and 1.5 minor per ANSI/ASQ Z1.4, material RoHS and REACH declarations, conflict minerals statement. First-article inspection runs on every new tooling shot, with CMM verification on the CTQ features flagged in your drawing.
Products routed to a CE notified body get an EU Declaration of Conformity drafted on request. Reliability records ship when those gates sit in scope: high-temp/high-humidity at 85°C and 85% RH for 168 hours, thermal shock from -20°C to +60°C across 100 cycles, drop test from 1.5 m on six faces per IEC 60068-2-32. List the documentation set in your purchase order so the inspection and record-keeping steps go into the schedule instead of getting bolted on after parts ship
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