PYROLYSIS EQUIPMENT COST

Batch and continuous pyrolysis equipment costs.

Compare indicative batch equipment ranges from 750 to 15,000 kg per load and a continuous system rated at 30 tonnes per day. Plastic configurations add 15% for the additional equipment required.

01 / INDICATIVE PRICES

Base batch range and plastic conversion by nominal size.

Use these ranges for early planning. A formal proposal converts them into a project-specific quotation. The base column is for a tire-oriented batch configuration; the plastic column applies a 15% planning allowance for the additional equipment required.

Nominal loading sizeBase batch range · tirePlastic batch · +15%Package basis
750 kgUSD 25,000–40,000USD 28,750–46,000Reactor + condensing equipment
4,000 kgUSD 40,000–75,000USD 46,000–86,250Reactor + condensing equipment
10,000 kgUSD 55,000–110,000USD 63,250–126,500Reactor + condensing equipment
15,000 kgUSD 80,000–140,000USD 92,000–161,000Reactor + condensing equipment

02 / CONTINUOUS SYSTEM

Continuous pyrolysis equipment rated at 30 tonnes per day.

The reviewed 30-TPD reference configuration is rated at 1.25 tonnes per hour. Its budget is set by the feedstock basis, environmental requirements, metallurgy and project-specific equipment scope.

Reference throughput30 tonnes / dayPricing basis

Reference equipment system · final scope dependent

30-TPD continuous equipment systemUSD 900,000–2,200,000
Continuous plastic · +15%USD 1,035,000–2,530,000

The range depends on feedstock type and form, pretreatment interface, reactor and product-recovery technology, site environmental requirements, automation, materials, redundancy and required documentation. Plastic service adds 15% for additional feeding and product-handling equipment. The formal proposal defines exactly what is included; installation, civil works, utilities, freight, commissioning and turnkey guarantees remain separate unless stated.

PLASTIC EQUIPMENT RANGE = BASE RANGE × 1.15
30-TPD REFERENCE CONFIGURATION

How the 30-tonne-per-day equipment train is organized.

This manufacturer-neutral summary consolidates the reviewed technical packages into a reference configuration. The final design and equipment list are defined for the project feedstock, site and contracted performance basis.

Throughput
1.25 t/h · 30 t/day
Electrical basis
120 kW installed · ≈70 kW running
Operator basis
3 operators / shift
Reference envelope
≈31 × 15 × 10 m

Typical 30-TPD modules

  • Sealed, metered feeding with weighing and screw-transfer equipment
  • Two-section continuous reactor train with hot-air circulation heating
  • Multi-condenser product recovery, collection tanks and closed cooling loop
  • Two-stage sealed solids discharge and product transfer
  • Process-gas safety, pressure stabilization and reuse as process fuel
  • Central PLC controls with pressure, temperature and level instrumentation
SIMPLIFIED PROCESS FLOWContinuous equipment boundary
  1. 01Feed interfacePrepared material
  2. 02Sealed meteringWeighing + feed screw
  3. 03Thermal conversionContinuous reactor
  4. 04Product recoveryMulti-condenser train
  5. 05Liquid handlingCollection tanks
Reactor solidsSealed two-stage discharge
Non-condensable gasSafety module + process fuel
Cooling loopClosed-circuit cooling

This functional overview develops into a project P&ID and final arrangement based on feedstock, emissions requirements, site conditions and contracted scope.

03 / DOCUMENTED BATCH EQUIPMENT

Typical equipment details for the reviewed batch sizes.

These manufacturer-neutral profiles summarize reviewed equipment configurations for 750, 4,000 and 15,000 kg nominal batch loads. They illustrate the planning scope, which Pyrtherm develops into the final proposal.

COMPACT · PRE-ASSEMBLED750 kg

Compact integrated batch package

A transportable frame combines the small reactor and its main vapor, liquid-product and control equipment.

Reactor
Ø 1.20 m × 3.00 m
Drive
2.2 kW reducer motor
Format
Integrated pre-assembled frame

Core reactor + condensation

  • Rotary reactor with gear and reducer
  • Tubular and rectangular condensation stages
  • Oil-gas purification, oil-water separation, two oil tanks, product pump and syngas collector

Common auxiliaries and options

  • Heating, draft and ceramic-filter emission package
  • Instrumentation and internal solids discharge
  • Integrated structure and project-specific site connections
BATCH · AUTOMATIC FEED OPTION4,000 kg

Mid-size batch reactor package

A longer rotary reactor is paired with staged condensation and can be supplied with hydraulic feed and cooling auxiliaries.

Reactor
Ø 1.60 m × 8.00 m
Drive
5.5 kW reducer motor
Condensing
Tubular + rectangular units

Core reactor + condensation

  • Reactor gear, reducer, feed port, vapor outlet and four support rollers
  • Tubular condenser, rectangular condenser and product-oil handling
  • Purification device, oil-water separator, two tanks, 2.2 kW oil pump and syngas collector

Common auxiliaries and options

  • 60-ton hydraulic automatic feeder and cooling tower
  • Dual-fuel burners, blowers, draft system, stack and ceramic filtration
  • Internal carbon-black discharge and process instrumentation
LARGE BATCH · EXPANDED CONDENSING15,000 kg

Large front-discharge batch package

A heavy-duty reactor and extended condensation train support a larger batch and a wider selection of feed, discharge and metallurgy options.

Reactor
Ø 2.80 m × 8.10 m
Shell
18 mm quoted thickness
Condensing
39 × 6 m pipes · 234 m total

Core reactor + condensation

  • Front-discharge rotary reactor with internal screw and dual-door arrangement
  • First-stage cooling, insulated oil-gas purification, oil-water separation and anti-backfire protection
  • Large rectangular condenser, two nominal 3-ton oil tanks, interconnections and controls

Common auxiliaries and options

  • 15CrMo metallurgy upgrade and prefabricated steel furnace foundation
  • 80-ton hydraulic feeder on an electric sliding track
  • Automatic front-door solids discharge, ceramic filtration, stack and cooling tower

The 10,000 kg range remains available for budgeting. Its detailed equipment list is issued after feedstock and operating requirements are defined.

04 / METALLURGY OPTIONS

Reactor metallurgy changes price, service limits and expected life.

Correct steel selection combines nominal capacity with feedstock contaminants, maximum metal temperature, vapor and condensate chemistry, pressure, corrosion allowance, fabrication route and governing code.

COMMON BASE MATERIALBASELINE COST

Q345 / carbon-manganese steel

Typical role
Main shell, casing and structural sections when the service and governing code permit.
Why select it
A common lower-cost starting point with good strength and practical fabrication. Q345 is frequently specified in international equipment proposals.
Engineering check
Confirm the current grade and governing standard; provide corrosion allowance or protection where condensates, chlorine, sulfur or metal temperature require it.
HOT-SERVICE UPGRADEINCREASED COST

High-Cr / Cr-Mo alloy steel

Typical role
Pressure-bearing reactor shells and hot zones requiring better elevated-temperature strength.
Why select it
Chromium-molybdenum grades offer improved elevated-temperature and creep performance compared with conventional carbon steel.
Engineering check
Select the exact grade, heat treatment, welding procedure and PWHT under the project code. 15CrMo and ASTM A387 are example families whose equivalency is confirmed during engineering.
GENERAL CORROSION UPGRADEHIGHER COST

Stainless steel 304 / 304L

Typical role
Condensers, tanks, separators, piping and product-contact surfaces with moderate corrosion duty.
Why select it
Good general corrosion resistance, availability and weldability; 304L improves resistance to intergranular attack after welding.
Engineering check
Verify 304/304L for hot or acidic zones; 316L provides additional resistance to chloride-driven pitting and crevice corrosion.
WET / CHLORIDE UPGRADEPREMIUM COST

Stainless steel 316 / 316L

Typical role
Demanding wet-condensate and product-contact duties with higher localized-corrosion service.
Why select it
Molybdenum improves pitting and crevice-corrosion resistance compared with 304-series stainless steel.
Engineering check
The added nickel and molybdenum raise cost; actual chloride, acidity, sulfur species and temperature still require project-specific verification.
HIGH-TEMPERATURE STAINLESSHIGH-TEMP PREMIUM

Stainless steel 310 / 310S

Typical role
Hot internals, furnace transitions, hot-gas ducting and components exposed to oxidation and thermal cycling.
Why select it
High chromium and nickel content provides strong oxidation resistance and elevated-temperature capability.
Engineering check
Evaluate wet-acid and chloride service separately, and design thermal expansion and welding details for the selected operating temperature.
SPECIALTY HOT-ZONE ALLOYHIGHEST RELATIVE COST

High-temperature nickel alloys

Typical role
Selected hot spots or severe carburizing, oxidizing, sulfidizing or thermal-cycle environments.
Why select it
Families such as 800H/800HT or 600/625-class alloys extend high-temperature strength and corrosion capability for the most demanding service.
Engineering check
Use selectively after a corrosion and temperature review; material, qualified fabrication, filler metal, inspection and lead time can dominate equipment cost.

Material names indicate families. Final selection uses feedstock and contaminant data, design metal temperature, corrosion review and the governing fabrication code, including project-specific equivalency review across GB, ASTM/ASME and EN grades.

05 / SCOPE BOUNDARY

Equipment price and complete plant cost are different numbers.

The price sections describe equipment budgets. A commercial project requires additional systems and execution scope that must be budgeted separately.

BASE

Price-table basis

  • Pyrolysis reactor equipment specified for the selected size
  • Condensing equipment specified for the selected technology
  • Base batch equipment range for tire service
  • Continuous equipment-system range for 30 tonnes per day
  • 15% additional-equipment allowance for batch and continuous plastic configurations
  • Exact inclusions confirmed only in the formal equipment proposal
FULL

Additional scope for a complete plant

  • Feedstock preparation, shredding, drying, storage or conveying
  • Civil works, foundations, buildings and site infrastructure
  • Utilities, electrical distribution, site-wide emissions treatment and fire protection
  • Freight, insurance, duties, taxes and inland logistics
  • Installation, commissioning, training and operating labor
  • Full EPC, LSTK or turnkey project delivery and performance guarantees

06 / RANGE DRIVERS

Why two reactors of the same size can cost differently.

The selected technology and specification determine where a package falls inside the range.

01

Process technology

Batch, semi-continuous and continuous configurations require different feeding, sealing, discharge and control systems.

02

Feedstock basis

Plastic and tire feedstocks impose different vapor, solids, contamination and product-handling duties.

03

Materials & fabrication

Metallurgy, plate thickness, refractory, welding requirements and manufacturing standards affect cost.

04

Condensing configuration

The number of stages, heat-transfer area, cooling basis, product phase behavior and separation requirements change the equipment list.

05

Controls & automation

Instrumentation, PLC scope, safety interlocks, data logging and remote support vary by project.

06

Environmental basis

Local emissions limits, monitoring, permitting and treatment scope can materially change the continuous equipment package.

07

Commercial basis

Origin, lead time, documentation, inspection, Incoterm, warranty and currency exposure affect the final quotation.

07 / QUOTE INPUTS

What Pyrtherm needs to issue a useful quotation.

A short technical basis is enough to replace the broad range with a project-specific equipment proposal.

01

Plastic or tire feedstock and its physical form

02

Target loading size and desired daily production

03

Preferred batch, semi-continuous or continuous technology

04

Expected operating hours and availability

05

Applicable emissions limits and environmental permit basis

06

Project country, delivery point and required commercial term

07

Required documentation, manufacturing code and automation level

08 / QUESTIONS

Key factors for comparing quotations.

01How much does a 30-tonne-per-day continuous pyrolysis system cost?

The indicative 30-TPD equipment-system range is USD 900,000–2,200,000, depending on feedstock, environmental requirements, metallurgy and configuration. A continuous plastic configuration adds 15% for additional equipment, resulting in an indicative USD 1,035,000–2,530,000 range.

02Why does a plastic configuration add 15%?

The 15% is a preliminary allowance for the additional equipment required to convert a tire-oriented batch or continuous configuration for plastic service. The formal proposal defines the exact scope after feedstock evaluation.

03How does reactor metallurgy change the price?

Q345 or another approved carbon-manganese steel generally anchors the lower end. Cr-Mo, 304/304L, 316/316L, 310/310S and high-temperature nickel alloys increase material, fabrication, heat-treatment and inspection costs. Full-alloy construction may exceed the displayed range, so Pyrtherm can specify selective upgrades only where the service requires them.

04Is the 15,000 kg package a complete turnkey plant?

The two price columns cover reactor and condensing equipment. Pyrtherm develops a complete installed plant by adding the required process, utility, civil, environmental and execution scope.

05Does 10,000 kg mean production per day?

It identifies the nominal equipment loading size. Daily output is calculated from the material loaded, cycle time, operating mode, uptime and number of production cycles or trains.

06Can Pyrtherm also deliver the complete plant?

Yes. Pyrtherm can separately define and execute equipment supply, EPCM, EPC or turnkey / LSTK delivery, including commissioning and contract-defined performance testing.

REQUEST A FORMAL QUOTE

Turn the range into a defined equipment package.

Share the feedstock, loading size, desired production, project location and technology preference. Pyrtherm will define the correct reactor and condensation scope before issuing a commercial proposal.

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