Electronics & IoT Industry Brief
Doc No HO-IND-003 Rev B Updated 2026-08 Document Industry Brief · Electronics & IoT Classification Public Release
Technical Library · 8-page PDF · free download, no form

Electronics & IoT Industry Brief

For electrical, mechanical and manufacturing engineers designing compact connected devices — and the NPI and sourcing teams moving them from prototype into volume assembly.

01
1.0–6.5 W/m·K
Gap-filler range
Thermal families for millimeter-scale device gaps, per ASTM D5470.
02
Grams of force
Fabric-over-foam contact
EMI closure at forces thin housings tolerate without bowing.
03
Kiss-cut
Peel-and-place formats
Rolls and sheets with tabs and liner systems built for the line.
04
1 part
Multiple jobs
Constructions that seal, insulate and place fast — selected as a stack.
Family-Owned Since 1971 · Winsted, CT · 55+ Years of American Manufacturing · ISO 9001:2015 Certified
30-second read

In compact hardware there is no room for four separate solutions: the thermal pad also insulates, the gasket also controls light leakage, and every part must place in seconds. This brief covers the converted stack for sealed handhelds, wearables and edge devices — thermal interface, EMI shielding, environmental sealing and PSA assembly components — kiss-cut in-house in Winsted, CT by an ISO 9001:2015 certified organization. Skip to the quote form →

The document

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Cover of the Electronics & IoT Industry Brief PDF
HO-IND-003 · Rev B · 08/2026 · PDF

8-page engineering brief on thin die-cut and kiss-cut components for compact connected hardware: thermal pads, low-profile EMI gasketing, dust and light seals, and PSA assembly parts.

What’s inside

Key topics covered

  • Thermal pads for millimeter-scale gaps that close at low pressure without bowing thin housings
  • Fabric-over-foam and soft conductive foams that make contact at grams of closure force
  • Thin dust, splash and light seals selected on compressed thickness, rebound and color
  • Acrylic vs. silicone PSA selection by surface energy, temperature and liner requirement
  • Tabs, split liners and roll or sheet presentation that cut seconds from every placement
  • An example gap-filler drawing note combining isolation and heat path in one part
Questions this document helps answer

Before you send the RFQ

How thin can die-cut and kiss-cut components go?

Fractional-millimeter parts — thin films, foams and adhesive layers measured in mils — are routine when the liner system is designed for the part. Thin parts are handled on rolls or sheets with tabs so the assembly line, or a placement machine, receives them positioned and repeatable.

What decides between an acrylic and a silicone PSA on a device part?

Surface energy of the substrate, service temperature and whether the adhesive must bond low-energy plastics or survive elevated bake temperatures. Acrylic transfer tapes cover most general bonding; silicone PSAs take the high-temperature and silicone-substrate cases. The brief lists what to verify before tooling for each.

Can one converted part handle both heat and electrical isolation?

Yes — dielectric gap-filler grades combine the thermal path and the isolation layer in a single thickness, which is often the only way to fit both functions in a sealed device. Selection runs on gap, conductivity per ASTM D5470 supplier data, and mounting pressure. Where the problem runs the other way — keeping heat away from a housing skin, display or battery instead of conducting it out — Blueshift AeroZero® polyimide-aerogel film insulates in the same mil-scale stack, with graphite-faced grades that spread heat along the face while blocking it through the thickness.

How do converted parts speed up device assembly?

Presentation is engineered with the part: kiss-cut on rolls for peel-and-place, extended tabs so operators never touch the adhesive, split liners for two-stage placement, and kitted sets where one operator installs several parts. Seconds per placement compound across a production run.

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