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Dryicen

Industry

Plastic Injection Dry-Ice Cleaning

Clean hot, protect geometry, cut change-over time

  • 6–10 minTypical in-press cycle
  • 0Secondary media or rinse water
  • 1–2 hTeardown/reheat avoided per clean

Why Dry-Ice for Plastic Injection Dry-Ice Cleaning?

Molds load up with release, plate-out, pigments, and material burn, choking vents and dulling finish. Solvents and bead-blast are slow, messy, and risk rounding edges and ruining polish.

Dry-ice pellets accelerate to high velocity and flash-sublimate on impact. The thermal/acoustic micro-impulse fractures residue and lifts it from steel or aluminum without abrasion, moisture, or conductivity.

Clean in place at temperature, keep geometry intact, restore venting and gloss, and put hours back into production windows—improving OEE, consistency, and safety while eliminating solvent handling.

Key takeaways

  • Molds load up with release, plate-out, pigments, and material burn, choking vents and dulling finish.
  • Dry-ice pellets accelerate to high velocity and flash-sublimate on impact.
  • Clean in place at temperature, keep geometry intact, restore venting and gloss, and put hours back into produ…

6–10 min

Typical in-press cycle

0

Secondary media or rinse water

1–2 h

Teardown/reheat avoided per clean

3–7 %

Scrap reduction (splay/drag/shorts)

2–3×

Polish life extension vs. abrasive methods

$45–90k/yr

Typical savings per press

Core Benefits

  • In-press, at temperature

    Skip crane moves and reheating—slot short cleans into mold-change windows.

  • Preserve polish & geometry

    Non-abrasive process avoids rounding edges, orange-peel, and vent damage.

  • Stabilize first-pass yield

    Clear vents and residue to reduce splay, drag, shorts, and cosmetic defects.

  • Zero wet cleanup

    CO₂ vaporizes on impact—no slurry, wastewater, or chemical residue.

  • Safer for electrics

    Dry, non-conductive stream around heaters, thermocouples, and wiring.

  • Shorter change-overs

    Typical cycle 6–10 minutes versus hours of cool-down and teardown.

  • Lower total cost

    Cut consumables, disposal, re-polish, and unplanned downtime.

  • Planable maintenance

    Repeatable, quick cycles simplify scheduling across multi-cavity tools.

ROI Calculator

ROI Calculator

This model estimates annual savings from downtime avoided, consumables reduced, and optional labor savings. It also shows annualized equipment cost, payback, and year-one ROI.

Quick inputs

Range: 0–10000

Range: 0–24

$

Range: 0–100000

$

Range: 0–1000000

Results

Total annual savings

$94,900

Net annual benefit

$87,733

Payback

2.5 months

ROI (Year 1)

475%

Downtime savings (annual)

$85,800

Consumable savings (annual)

$9,100

Labor savings (annual)

$0

Estimates only. For a formal model including utilities, logistics, and shift coverage, book a demo.

From Inquiry to Production in 3 Steps

  1. 1

    1. On-press demo

    Trial on your tool at operating temperature—watch residue lift while polish stays intact.

  2. 2

    2. Process & ROI model

    Quantify avoided teardown time, scrap delta, pellet use, and payback at your press rate.

  3. 3

    3. Go live

    Run a 6–10 minute clean per change-over and track OEE, defects, and maintenance savings.

We stopped bead blasting and solvent soaks. Venting is consistent, finishes are stable, and we reclaimed hours every mold change.
Rachel T. logo

Rachel T.

Manufacturing Engineer, Precision Plastics

Ready to clean in-press without harming polish?

Request a quick, no-obligation quote. We’ll size the right blaster/nozzles for your tools, estimate pellet usage, and outline payback per press.

Operator performing dry-ice cleaning on a hot injection mold in the press