Electrolytic Coatings TRIZ Cases
- Silver-Carbon Composite Plating for Wear-Resistant Sliding Contacts
Carbon-filled silver plating with fine crystallites improves wear and heat resistance in sliding contacts without antimony-related resistance rise.
- hBN Composite Coatings for Wear-Resistant Electrical Contacts
Nanoparticulate hBN in gold-coated nickel contacts improves wear and high-temperature stability while preserving electrical performance.
- Silver Terminal Material Coating for Fretting Wear Resistance
Non-conductive organic particles in a silver terminal coating reduce fretting wear and short-circuit risk while keeping contact resistance low.
- MuSEP Porous Coating for Immersion Cooling Dry-Out Limits
A multi-scale electroplated porous coating boosts pool boiling on CPUs and GPUs by improving wicking, delaying dry-out, and lowering thermal resistance.
- Chromium Oxide-Coated Stainless Steel for Low-Reflectance Heat Retention
A smooth electropolished stainless steel surface plus a chromium oxide film cuts ppt-level metal impurities while lowering near-IR reflectance.
- Silver-Carbon Composite Film for Wear-Resistant Bendable Contacts
Carbon-dispersed silver plating with controlled crystallite size and hardness improves contact wear resistance while preventing bending cracks and peeling.
- Silver-Carbon Composite Coating to Prevent Nodule Shedding
Polymer-treated carbon particles and controlled silver electrodeposition suppress nodules, improving wear resistance and reducing silver shedding.
- Laser Chip Micropipe Cooling for Compact Heat Dissipation
Built-in micropipe liquid channels remove laser chip heat without added heat sinks, cutting size and manufacturing cost for microdevices.
- Silver-Carbon Composite Coating for Low-Friction Connector Terminals
Oxygen plasma and dispersed carbon in a silver coating cut terminal friction and insertion force while preserving conductivity and oxidation resistance.
- Silver-Containing Film With Reactive Layer for Abrasion-Safe Contacts
Non-conductive organic particles form a reactive carbon layer during sliding, improving silver film wear resistance without raising short-circuit risk.