Tyre Pyrolysis Plants
Waste issues, fuel and environment concerns have created an increased interest in tyre pyrolysis machines. There are vast amounts waste rubber vehicle tyres worldwide, often in huge piles waiting to be processed. Although involving some capital investment, waste tyre pyrolysis plants are an increasingly attractive option. Likely to cost six figures or higher these machines are a large investment, however disposal of rubber tyres has increasing associated costs, and charcoal and biofuel outputs have increasing value both environmentally and as an alternative fuel.
Pyrolysis plants are also used to process different types of waste, such as oil sludge, plastic waste, agricultural waste, municipal solid waste, however tyre recycling is one of the most popular uses.
In continuous tyre pyrolysis plants, valuable materials can be recovered from scrap tyres that would otherwise be incinerated or buried. Both incineration and burial of rubber-based waste has damaging environmental impacts.
A semi-continuous pyrolysis machine has screw automatic feeders as well as a rotary reactor. The intention of the screw automatic feeders is to ensure tyre waste is moved in the reactor chamber without introducing a great deal of air into the closed system. The machines may be operated with a relatively small labour force and are simple to maintain.
Continuous tyre pyrolysis machines have fixed (horizontal) reactors and automatic dischargers. The high level of automation means a reduction in manual labour costs. Furthermore, such machines take advantage of the combustible gas produced during tyre pyrolysis for reactor furnace reheating whilst maintaining state-of-the-art safety functions to ensure a safe working environment.
A continuous rubber pyrolysis plants can generate vast amounts of tyre oil, combustible gas, carbon black, and steel wire daily from waste. The plants can operate 24/7 and are made to maximise oil yields and minimise energy input. Plant configurations can also include automatic grinders.
Emission cleaning modules help reduce emissions. The initial stage cools any smoke using water cooling condensers, in the second stage, smoke cleaning occurs via water spraying, water washing, and ceramic ring adsorption techniques, activated carbon absorption towers and de-dusting finalise the process. This process ensures machines can meet strict emission standards.
--ecolife
[edit] Related articles on Designing Buildings
- Advanced bioenergy.
- Biochar.
- Biogas.
- Biomass CHP.
- Biomass.
- Biomethane.
- Combined heat and power (CHP).
- District energy.
- Drop-in hydrocarbon fuels.
- Energy.
- Environmental impact of biomaterials and biomass (FB 67).
- Feed in tariff.
- Fossil fuel.
- Methane pyrolysis.
- Pyrolysis.
- Solid biomass.
- Stove.
- Renewable heat incentive.
- Types of boiler.
- Types of fuel.
- Wood pellet mill basics.
Featured articles and news
Tackle the decline in Welsh electrical apprenticeships
ECA calls on political parties 100 days to the Senedd elections.
Resident engagement as the key to successful retrofits
Retrofit is about people, not just buildings, from early starts to beyond handover.
What they are, how they work and why they are popular in many countries.
Plastic, recycling and its symbol
Student competition winning, M.C.Esher inspired Möbius strip design symbolising continuity within a finite entity.
Do you take the lead in a circular construction economy?
Help us develop and expand this wiki as a resource for academia and industry alike.
Warm Homes Plan Workforce Taskforce
Risks of undermining UK’s energy transition due to lack of electrotechnical industry representation, says ECA.
Cost Optimal Domestic Electrification CODE
Modelling retrofits only on costs that directly impact the consumer: upfront cost of equipment, energy costs and maintenance costs.
The Warm Homes Plan details released
What's new and what is not, with industry reactions.
Could AI and VR cause an increase the value of heritage?
The Orange book: 2026 Amendment 4 to BS 7671:2018
ECA welcomes IET and BSI content sign off.
How neural technologies could transform the design future
Enhancing legacy parametric engines, offering novel ways to explore solutions and generate geometry.
Key AI related terms to be aware of
With explanations from the UK government and other bodies.
From QS to further education teacher
Applying real world skills with the next generation.
A guide on how children can use LEGO to mirror real engineering processes.
Data infrastructure for next-generation materials science
Research Data Express to automate data processing and create AI-ready datasets for materials research.
Wired for the Future with ECA; powering skills and progress
ECA South Wales Business Day 2025, a day to remember.
AI for the conservation professional
A level of sophistication previously reserved for science fiction.






















