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Dryicen

Industry

Tire-Mold Dry Ice Cleaning

Restore plugged vents in minutes — no teardown, no reheating.

  • 6–8 minTypical in-press clean
  • 0Secondary waste produced
  • 2 hDowntime avoided / change-over

Why Dry-Ice for Tire-Mold Dry Ice Cleaning?

Spring vents in tire molds (≈0.2–0.3 mm) plug quickly with cured compound and antiozonant. Legacy bead-blasting and scraping can take hours, peen vent edges, and still leave residue in siping and lettering, which drives blisters and surface defects.

Dry-ice blasting accelerates 3 mm CO₂ pellets to ~300 m/s. On impact they flash-sublimate, creating a micro-thermal shock and acoustic impulse that shear residue from steel or aluminum without abrasion and without secondary media. The process is dry and non-conductive, so molds remain hot and wired.

Cleaning in-press reduces change-over time, preserves vent geometry, and stabilizes airflow. The result is lower scrap, fewer defect callbacks, and higher OEE—while eliminating solvents, wet waste, and the handling risks of teardown and crane transport.

Key takeaways

  • Spring vents in tire molds (≈0.2–0.3 mm) plug quickly with cured compound and antiozonant.
  • Dry-ice blasting accelerates 3 mm CO₂ pellets to ~300 m/s.
  • Cleaning in-press reduces change-over time, preserves vent geometry, and stabilizes airflow.

6–8 min

Typical in-press clean

0

Secondary waste produced

2 h

Downtime avoided / change-over

4–6 %

Scrap reduction (blisters/voids)

Vent-hole life extension

$138k/yr

Avg. labor + downtime saved / press

Core Benefits

  • Clean hot & in-press

    Maintain cure temperature and wiring; restart the press in minutes.

  • Protect vent geometry

    CO₂ (~2 Mohs) avoids peening; preserves 0.25 mm vents and airflow.

  • Recover tread detail

    Micro-shock removes residue from fine lettering, logos and date codes.

  • Zero media cleanup

    CO₂ vaporizes on impact—no grit, slurry, or wastewater to dispose.

  • Cut change-over time

    Typical in-press cycle 6–8 minutes; avoid 2+ hours of teardown/cool-heat.

  • Lower quality costs

    Reduce gas-trapped blisters/voids for a measurable scrap delta.

  • Improve safety

    Eliminate solvents and manual scraping; reduce ergonomic and EHS risk.

  • Planable maintenance

    Short, repeatable cycles slot neatly into mold-change windows.

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

$327,000

Net annual benefit

$318,167

Payback

0.9 months

ROI (Year 1)

1308%

Downtime savings (annual)

$300,000

Consumable savings (annual)

$27,000

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

    Run a short trial on your mold. Watch vents clear and tread detail pop in under a minute.

  2. 2

    2. ROI model

    Quantify change-over time saved, scrap delta, and avoided solvent/media costs for your line rate.

  3. 3

    3. Go live

    Deploy a repeatable 6–8 minute clean during mold changes and track the OEE uplift.

We clean 12 molds a shift. In-press CO₂ put two extra production hours back in every change-over and vent life tripled.
Jordan M. logo

Jordan M.

Maintenance Manager, ACME Tires

Ready to restore vents in minutes?

Request a fast, no-obligation quote. We’ll validate your mold sizes and vent density, recommend the right blaster/nozzles, and outline payback for your press.

Technician performing in-press dry-ice cleaning of a tire mold