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PYROLYSIS ENGINEERING MAP

36 engineering priorities. Reliability by design.

Industrial pyrolysis succeeds when technical, operating and commercial decisions work together. This map shows the criteria Pyrtherm manages to move from equipment selection to a reliable, market-ready plant.

36engineering criteria
5integrated disciplines
1integrated response

Choose a pathway

01 / PLASTIC

Engineering keys for reliable plastic pyrolysis

Polyolefin conversion reaches consistent performance when wax, heat transfer, feedstock, metallurgy, uptime and product acceptance are engineered together.

Long-chain hydrocarbons may gel or solidify as the product cools toward ambient temperature—often around 45 °C or higher, depending on composition. Temperature control, heat tracing, staged condensation and accessible cleaning keep vapor lines, condensers, filters and tanks productive.

Technical evidence[01][02]

WHY PYRTHERM

Engineer the complete system.

Pyrtherm connects the decisions vendors usually separate. The work starts with the real feedstock and ends with a product a real customer can accept.

Primary contact+57 301 640 4053
General & salessales@pyrtherm.comProjectsprojects@pyrtherm.comProcess engineeringprocess.engineering@pyrtherm.comMechanical engineeringmechanical.engineering@pyrtherm.comQualityquality@pyrtherm.com
01Qualify the feed02Protect the hardware03Stabilize operations04Condition the products05Secure market acceptance

RESEARCH / SOURCES

Technical foundation

Selected research supports this engineering map. Feedstock testing and site-specific engineering convert the criteria into project decisions.

  1. 01HDPE pyrolysis: wax as the dominant product
  2. 02Polypropylene wax buildup in condensation equipment
  3. 03Organic chlorine in oil from PVC-containing mixed plastic
  4. 04Pilot-scale plastic pyrolysis oil quality and contaminants
  5. 05High-temperature corrosion in simulated plastic pyrolysis service
  6. 06NREL-led techno-economic analysis of mixed-plastic pyrolysis
  7. 07Impurities and coke formation in steam cracking of plastic pyrolysis oils
  8. 08Sulfur and PAH challenges in waste-tire-derived oil
  9. 09Hydrogen sulfide removal from real waste-tire pyrolysis gas
  10. 10Demineralization and use of recovered tire carbon black
  11. 11Waste-tire oil, sulfur distribution and char activation
  12. 12Energy self-sufficiency of the tire pyrolysis process
  13. 13Experimental tire pyrolysis and recovered-solid ash