China Bente Industry Group logoCHINA BENTEINDUSTRY GROUP
Menu
China Bente Industry Group

Activated Carbon Manufacturing Plant EPC

Indoor activated-carbon production with enclosed thermal processing and separate SMART warehousing and logistics interfaces.

Activated Carbon: Factory Photographs and Finished Products

Indoor rotary kiln
Indoor rotary kiln
Product collection and handling
Product collection and handling
Bagged activated-carbon products
Bagged activated-carbon products

Indoor activated-carbon production with enclosed thermal processing and separate SMART warehousing and logistics interfaces.

What it is

A complete factory for suitable physical or chemical activation routes, with core production installed inside an enclosed industrial building.

Production-Line Capacity Options

The ranges below are preliminary selection bands, not guaranteed output. Final sizing depends on feedstock moisture and ash, carbonization/activation yield, residence time, product specification, operating hours and required redundancy.

Line class Finished product Indicative hourly output Typical configuration Packaging
Compact line 1–3 t/day Approximately 0.05–0.15 t/h Single feed-preparation train, one thermal-processing line, basic grading and dust collection 20–25 kg bags; optional bulk bags
Standard industrial line 3–10 t/day Approximately 0.15–0.50 t/h Continuous preparation, carbonization/activation, cooling, washing where required, grading and semi-automatic packing 20–25 kg bags and 500–1,000 kg bulk bags
Large or parallel-line plant 10–30 t/day Approximately 0.50–1.50 t/h Parallel or enlarged thermal lines, heat recovery, centralized off-gas treatment, automatic conveying, storage and packing Automatic small-bag and bulk-bag systems

Common Product Specification Envelope

Feedstock Coconut shell, wood/biomass, coal or other qualified carbonaceous material
Product forms Powdered, granular or extruded/pellet activated carbon
Typical particle-size options Powder approximately 100–325 mesh; granular commercial mesh grades; pellet approximately 0.9–4 mm
Indicative iodine-number selection Approximately 600–1,200 mg/g, subject to raw material, activation route and verified test results
Automation PLC/HMI standard; SCADA, traceability, remote monitoring and SMART warehouse interfaces optional

Suitable feedstock / applications

Wood, biomass, coconut shell, coal-based or other carbonaceous feedstocks subject to proximate analysis, ash, moisture, contaminants and activation trials.

Process flow

1Indoor receiving and preparation
2Crushing, screening and drying
3Enclosed carbonization
4Steam or qualified chemical activation
5Cooling, washing and neutralization
6Dewatering and drying
7Sizing, forming and packaging

Main equipment and systems

  • Indoor carbonization and activation furnaces
  • Feed, conveying and storage systems
  • Washing, neutralization and dewatering
  • Dryers, mills, screens and forming equipment
  • Off-gas cleaning and waste-heat recovery
  • SMART warehouse, AGV and PLC/SCADA interfaces

System and layout diagram

Process hall
Utilities
Environmental controls
Warehouse & logistics
PLC / SCADA

Design basis and required tests

Feedstock trials, iodine or applicable adsorption testing, ash, moisture, particle size, strength and contaminant analysis establish the design basis.

Utilities and infrastructure

Power distribution, water, steam or thermal energy, cooling, compressed air, industrial gases, drainage, fire protection, buildings, roads, storage and maintenance access are sized from the verified design basis.

Environmental integration

Indoor dust capture, furnace off-gas treatment, waste heat, wash water, residues, fire protection and explosion-risk controls are integrated. Relevant interfaces are coordinated with Turnkey Factory EPC · Waste Recycling · Difficult Wastewater · Renewable Energy · SMART Solutions.

CAPEX / OPEX drivers

Feed variability, process route, throughput, materials of construction, energy demand, emissions limits, automation, redundancy, local construction, logistics and product acceptance criteria drive lifecycle cost.

Outputs and acceptance basis

Powdered, granular or extruded carbon is accepted against agreed sampling and adsorption, ash, moisture and size methods. No capacity, yield, quality or certification is assumed until supported by testing and an agreed design basis.

Customer engineering inputs

Representative samples and analyses, target products, operating schedule, site survey, climate, utility data, applicable codes, discharge limits, plot plan, logistics and acceptance protocol.

Delivery scope

Concept definition, feasibility, process and layout engineering, equipment selection, procurement, civil and construction interfaces, utilities, automation, environmental systems, installation support, FAT/SAT, commissioning, training, trial operation and lifecycle service can be included within the agreed boundary.

Frequently asked questions

What information is required to evaluate Activated Carbon Manufacturing Plant EPC?

Provide feedstock or product data, target throughput, operating hours, site conditions, utilities, local regulations, output specifications and available laboratory results.

Is one process route suitable for every project?

No. The route is selected from verified material characteristics, product requirements, environmental limits, local infrastructure and lifecycle economics.

How are capacity and equipment sizes confirmed?

They are established through a documented design basis, representative testing where needed, mass and energy balances, availability assumptions and agreed design margins.

Which utilities must be defined?

Electrical supply, process water, steam or heat, cooling, compressed air, industrial gases, drainage and clean utilities are confirmed for the selected process.

How are environmental systems integrated?

Wastewater, exhaust gas, dust, odour, residues, noise, heat recovery and water reuse are designed alongside the process rather than added after equipment selection.

Can automation be included?

Yes. PLC, HMI, SCADA, instrumentation, interlocks, traceability and optional MES interfaces are developed to the agreed operating philosophy.

What does acceptance cover?

Acceptance boundaries can include document review, FAT, installation checks, SAT, commissioning support, training and performance verification against agreed inputs and test methods.

How are CAPEX and OPEX controlled?

Major drivers are route complexity, materials of construction, utility demand, emissions controls, automation level, local construction, logistics, redundancy and output specification.

Start a Project Evaluation