Beston Group

Blackgold P30 Official Launch Event

Beston Group — Fri, 24 Jul 2026 01:00:24 +0000

Coming October 2026

Blackgold P30 Launch Event

On October 15, 2026, Beston Group will unveil a global breakthrough in continuous pyrolysis — “Blackgold P30” — in Zhengzhou, Henan, China. We cordially invite you as our honored guest to witness the new era in continuous pyrolysis technology.

Become a Participant

DATEOct 15, 2026

LOCATIONZhengzhou, Henan, CN

FormatLive Plant Demo

400_{Million Tons}Plastic Waste
Generated Globally
Every Year

1.5-2_BillionEnd-Of-Life Tires
Discarded Annually

Pyrolysis has become the inevitable path to waste-to-resource conversion. However, the industry still faces four core critical challenges:

Wax Oil Clogging

Wax oil buildup leads to plugging and unstable operation.

Frequent Downtime

Unplanned shutdowns reduce productivity and increase costs.

Coking

Carbon deposits affect efficiency, yield, and equipment lifespan.

Environmental Compliance

Stricter emission rules require better environmental performance

Meet the Next-Generation Blackgold P30

Min Manual Labor

Oil Quality Upgrading

0 Clogging & Coking

100% Compliance

Tire Rubber Granules

Plastic Pellets

High Quality Fuel Oil

What Awaits You at the Launch Event?

See It Run Live

Witness the full P30 operation process (continuous feeding – pyrolysis –
continuous oil output) live on site. And verify real-time oil yield and
product indicators for yourself.

Experience Next-Generation Automation

Watch our fully automated intelligent control system in action. See how
it minimizes manual intervention, reduces energy consumption, and
ensures full compliance.

Dive Deep into the Core Breakthroughs

Our Chief Engineer will break down P30’s latest advances in wax-blockage
prevention, anti-coking design, oil quality upgrading, and safety sealing
— and show you what 24/7 continuous, high-safety operation really looks like.

Explore the Industry’s Future With Experts

Industry-leading experts will guide you through the latest trends and
market outlook for chemical recycling of waste tires and plastics.

Moments from Previous Exchange Conferences

A series of Beston pyrolysis technical exchange events have consistently appealed to global industry leaders across the solid waste recycling sector. We gathered to discuss the latest technical innovations and foster deep collaboration.

“That was a very valuable experience. We learned a lot about the equipment, the processes, and the startup.”

Rimvydas MatijošaitisCEO · Energy Industry · Europe

“Seeing the equipment running in person gave us a completely different perspective. We left with a much clearer plan for the next phase. Thank you for your explanation, thank you for your hospitality.”

Mortaza AghbashloProfessor · Energy Resources Sector · Middle East

Secure Your Participation

We sincerely invite you once again to join Blackgold P30 New Product Launch. The Blackgold P30 represents more than just a technological breakthrough in tire and plastic waste recycling — it is a commitment to a cleaner, more efficient, and sustainable future. Together, let’s unlock the hidden value in waste and lead the industry into new era of continuous pyrolysis.

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Beston Group Becomes Rainbow Partner for Industrial Pyrolysis Manufacturers

Beston Group — Thu, 23 Jul 2026 06:25:26 +0000

Big news for the biochar carbon removal industry! Beston BST-50 and BST-06Quicker models have been vetted under Rainbow’s Biomass Carbon Removal and Storage (BiCRS) V1.1 methodology. Beston Group has officially become one of the first Industrial Pyrolysis Manufacturers in the Rainbow Partner Program. This milestone collaboration gives developers under the Rainbow Standard a proven technology pathway. They can now choose either model for biochar carbon removal projects implementation.

2 Rainbow Vetted Biochar Production Equipment Models

BST-50: Industrial-scale

Continuous operation: Guarantees 7200+ hours of annual continuous operation
Biochar Output: Produce 5,400+ tonnes of biochar per year at 5% moisture content (wet basis)

Download Vetting Decision

BST-06Quicker: Pilot-scale

Quick-installation and lightweight design: 8-hour rapid installation and deployment
Movable design: Quickly disassemble and redeploy to a new production site.

Download Vetting Decision

Together, the two models allow developers to move from concept validation to commercial-scale production on a single Rainbow-endorsed technology pathway. Beston Group will host the BST-06Quicker Global Launch Event on October 15, 2026, formally introducing the pilot-scale machine to the biochar CDR industry.

What Rainbow Endorsed Equipment Brings to CDR Project Developers?

Getting a biochar CDR project from equipment selection to its first issued carbon credit involves several steps — technical assessment, compliance review, and certification documentation. Rainbow endorsed Beston equipment helps developers move through this process more smoothly:

Lower Risk

Using endorsed biochar machine, developers can skip the technology verification step, thereby reducing uncertainty regarding technology compliance.

Faster Certification

Rainbow-endorsed equipment can be put into production faster, saving some approval time. Thus, it accelerates project certification and credit issuance.

Less Time Wasted

Without the need for lengthy market research, developers can directly select from the Rainbow vetted device list, saving project startup time.

Looking Ahead

Becoming a Rainbow Partner, Beston Group takes another step forward in supporting biochar carbon removal developers. With the BST-06Quicker and BST-50 covering pilot validation and industrial-scale production, developers can access a clearer path from initial testing to commercial deployment under the Rainbow Standard. Beston Group will continue to provide reliable pyrolysis equipment and tailored solutions to help developers bring biochar carbon removal projects into operation.

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Waste Tires into Fuel Oil: African Pyrolysis + Distillation Project Powers Factory Fuel Self-Sufficiency

Beston Group — Thu, 23 Jul 2026 02:19:15 +0000

A major step forward in East Africa’s circular economy! A waste tire pyrolysis plant and a set of oil distillation equipment were successfully installed and commissioned in East Africa under the technical guidance of Beston Group. This project processes 8–10 tons of end-of-life tire waste daily into fuel oil, which enables the client to achieve industrial energy self-sufficiency while creating an extra commercial revenue stream.

Stage 1: Crude Tyre Pyrolysis Oil

Stage 2: Light Distillate Oil

Stage 2: Heavy Distillate Oil

Project Background: Breaking Free from Rising Energy Costs

The client owns and operates multiple industrial factories in the local region. As business operations continued to expand, the demand for industrial fuel across various production lines kept rising. High and persistent energy costs had become a core issue constraining overall profitability. Recognizing that tire pyrolysis oil could serve as a cost-effective alternative fuel, the client invested in this tire-to-energy project to significantly cut fuel expenses.

Stockpiled end-of-life tires at the site in East Africa (October 2025).

Shredded waste tire strips loaded into pyrolysis reactor.

Solution: Tire Pyrolysis + Distillation

Based on in-depth communication with the client, we designed a customized solution with a processing capacity of 8-10 tons per day, consisting of one tyre pyrolysis unit and one distillation unit.

1. 8-10 TPD Tyre Pyrolysis Plant

End-of-life tires are efficiently processed into pyrolysis oil, carbon black, and steel wire. The system features an advanced reactor design, a efficient condensing system for maximum oil recovery, an advanced flue gas purification unit for environmental compliance, and a water-cooling discharging system to ensure safe operations.

Processing capacity: 8-10 tons waste tires
Configuration: Standard configuration
Output: Crude tyre pyrolysis oil

2. BZJ-10 Distillation Equipment

The crude pyrolysis oil is fed directly into the distillation system, where precise temperature control separates it into light oil and heavy oil.

Output 1: Heavy Distilled Oil (Fractionated at 250–280°C)

With high calorific value, heavy oil will be used as alternative industrial fuels in the client’s own factories to reduce factory energy expenses.

Output 2: Light Distilled Oil (Fractionated at <250°C)

With lower impurity content, light oil will be sold into the local market to create new revenue stream that accelerates ROI.

8-10 TPD waste tire pyrolysis plant successfully installed in east africa, awaiting official operation. (Credit: beston group)

Dedusting System Installation

Pyrolysis Reactor Installation

Pyrolysis Reactor and Oil Storage Tank Installed in Installation

Condensing System Installation

Results and Long-Term Value

After installation and commissioning, the system run smoothly and its oil yield satisfies expected standards. Self-sufficiency in fuel oil sinificantly reduce the client’s overall fuel procurement costs across its factories by more than 30%.

For energy-intensive industries, the value of such a tire pyrolysis recycling project goes far beyond “eco-friendly processing waste tires.” It offers a practical path to lowering costs, stabilizing fuel supply, and even generating incremental revenue. This is also why we continue to provide sustainable pyrolysis solutions to clients around the world.

The post Waste Tires into Fuel Oil: African Pyrolysis + Distillation Project Powers Factory Fuel Self-Sufficiency appeared first on Beston Group.

BST-06Quicker Official Launch Event

Beston Group — Mon, 20 Jul 2026 04:09:11 +0000

BST-06Quicker Official Launch Event

To explore new possibilities in biomass carbon removal and accelerate the adoption of innovative solutions, Beston Group is hosting the official launch event of BST-06Quicker on 15th, October.

Join industry professionals, partners, and experts to witness the unveiling of our latest innovation, exchange insights, and explore future opportunities in the evolving carbonization market.

Become a Participant!

Key Challenges in BCDR Exploration

High initial investment, lengthy validation processes, and operational complexity remain key challenges for carbonization projects. Beston introduces BST-06Quicker to provide a more flexible approach for exploring BCDR opportunities and accelerating project validation.

Uncertain Project Feasibility

Businesses often hesitate to make large-scale investments without first validating project potential.

Long Time from Planning to Operation

Long preparation and deployment cycles can slow down project validation and development.

Meeting Carbon Project Requirements

Long preparation and deployment cycles can slow down project validation and development.

Empowering BCDR: The Grand Debut of BST-06Quicker

Join us as Beston officially unveils BST-06Quicker, a new-generation carbonization solution designed to support businesses exploring BCDR opportunities!

Common Concerns from Investors:

Want to enter the BCDR market but unsure whether the project is worth investing in?

Worried about waiting too long before the project starts operating?

Worried that biochar quality may not meet project requirements?

BST-06Quicker

Enable small-scale validation to reduce initial investment risks

Continuous operationLow investment costMeets certification requirements

8-hour rapid installation and deployment for faster project setup

High-quality biochar production to meet EBC standards

Why This Launch Matters?

Witness the BST-06Quicker Official Launch:

Be the first to discover BST-06Quicker and witness the debut of Beston’s latest innovation in carbonization technology.

Gain cutting-edge industry insights

Listen to industry experts share the latest trends, market opportunities, and future directions in the carbonization industry.

Connect & Explore Cooperation Opportunities:

Exchange ideas with industry professionals, potential partners, and innovative companies to explore future cooperation opportunities.

Experience the Carbonization Process Firsthand:

Experience the complete carbonization process firsthand, from biomass feedstock input to high-quality biochar production through live equipment operation.

Detailed Event Information

Strategic partner of Exomad, the world’s largest carbon sink supplier.

Technology partners of Puro.earth & Isometric

100+ Countries Installation Sites

Time limit:87Days

Date:October 15, 2026

Location:Beston Factory, Zhengzhou City, China

Book a seat now!

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Feedstock Contaminant Limits for Plastic Pyrolysis: Key Data Shared from AEPW Guidelines

Beston Group — Fri, 17 Jul 2026 02:59:23 +0000

Source Attribution & Disclaimer: The technical metrics in this article are objectively compiled and adapted from the global report “Feedstock Quality Guidelines for Pyrolysis of Plastic Waste” published by the Alliance to End Plastic Waste (AEPW) and Eunomia Research & Consulting (August 2022). This article is intended solely as a non-commercial technical reference and industry knowledge-sharing resource for global partners in the chemical recycling sector, and shall not be used for any commercial resale or profit-making purposes. Readers are highly encouraged to visit the official AEPW Report Page or the website of Eunomia Report Page to access the full text of the original report.

1. Why Develop this Pyrolysis Feedstock Guideline?

1.1 Global Context: Rise of Chemical Recycling

Stakeholder groups ranging from packaging manufacturers to government agencies are interested in the potential of advanced recycling to add new dimensions to plastic waste recycling, particularly with expectations that the technologies will complement mechanical recycling. Among various chemical recycling pathways, pyrolysis plays a leading role in build a closed-loop plastic circular system. Through thermal depolymerisation, waste plastics are converted into naphtha, which can then re-enter plastic production chains.

1.2 Core Challenge: Lack of Uniform Feedstock Standards

Rapid expansion of the pyrolysis sector has laid bare a fundamental industry challenge: the long-standing absence of unified quality specifications for feedstock.

For waste sorting operators: Sorting facilities are accustomed to feedstock specifications for mechanical plastic recycling. They lack clear guidance on preparing qualified mixed plastic feedstock for pyrolysis plants.
For pyrolysis equipment suppliers and plant operators: Uncertain feedstock composition can cause undesirable effects including lowered process yield, reduced output quality, and wear on equipment, which all add cost burdens.

1.3 Objective of the Guideline

To address these issues, AEPW and Eunomia jointly developed this report. The purpose of this study is to help to provide clarity around the input feedstock requirements for pyrolysis and to propose a model feedstock specification that can be used as a starting point for discussions between pyrolysis operators and material suppliers.

2. Pyrolysis Feedstock Specification

Main Composition	Minimum Threshold/Contamination Limit	Potential Impact and Process Limitation Explanation
PE and PP Content	≥ 85%	Polyethylene (PE) and polypropylene (PP) are the principal desired feedstock of pyrolysis operators. Lower portions of combined PE and PP content in feedstock generally mean higher presence of heteroatoms5 such as oxygen and nitrogen. A high heteroatom content might lead to lower yield and/or the need for post-process hydrotreating to meet the offtake specifications which has economic implications on the process.
PVC / PVDC Content	≤ 1%	Polyvinyl chloride (PVC) and polyvinylidene chloride (PVDC) films introduce chlorine atoms into the pyrolysis process, which can cause corrosion to equipment and persist into the finished hydrocarbon product as heteroatoms. Pyrolysis operators have limited cost-effective means of removing PVC/PVDC or circumventing the challenges it poses.
PET / EVOH / Nylon Content	≤ 5%	Polyethylene terephthalate (PET), ethylene vinyl alcohol (EVOH), and nylon are problematic contaminants because they contain molecules that include oxygen and more complex hydrogen-carbon structures. The presence of oxygen atoms in the feedstock results in oxygenated products, which reduces yield and negatively impact the quality of pyrolysis oil. Some more complex hydrogen-carbon structures, such as nylon and PET do not break down as easily as those of PE and PP, and some by-products of their decomposition will act as impurities in the finished product.
PS Content	≤ 7%	Polystyrene (PS) is generally not viewed as a prohibitive contaminant. Nonetheless, individual operator tolerances for PS may vary significantly. Some operators expressed very loose thresholds for maximum PS content, while others indicated tighter thresholds that still may be within the expected range for PS occurrence in mixed plastic feedstock streams.
Metal / Glass / Dirt / Fines Content	≤ 7%	This family of contaminants is problematic for two reasons. First, these materials tend to be abrasive and can significantly damage equipment. Second, they are relatively heavy, which increases cost burden to pyrolysis operators—since input feedstock is typically purchased on a per-unit-weight basis.
Paper / Organics Content	≤ 10%	Paper and other organic materials containing oxygen and more complex molecule structures which may reduce the quality of the end product. This may increase post-treatment requirements and cost such as hydroprocessing. Operators indicated a fairly broad range of thresholds for these materials, with some operators expressing a relatively relaxed limit. These thresholds may be correlated with pre-sorting technologies.
Maximum Water Content	≤ 7%	Water absorbs reaction heat and increases energy consumption. Although it can be removed through pretreatment drying, excessive moisture increases investment and operating costs.
Maximum Total Ash Content	≤ 15%	Provided that individual impurity components do not exceed their respective limits, the combined total ash content shall not exceed 15%.

3. Drivers that Determine the Feedstock Specification

Image Source: Alliance to End Plastic Waste (AEPW) & Eunomia. Adapted from “Feedstock Quality Guidelines for Pyrolysis of Plastic Waste” (Figure 2.2).

Front-End Pre-Sorting Capability

More Pre-sorting → Less Prescriptive Feedstock Standards: Plastic pyrolysis plants equipped with robust sorting system (e.g., optical sorters, magnetic separators) can accept lower-grade, highly mixed plastic waste, since the sorting system filters out PVC, PET, and other unsuitable materials.
Less Pre-sorting → More Prescriptive Feedstock Standards: If lacking robust sorting lines, pyrolysis plant operators must purchase expensive clean plastic waste to avoid reactor damage and compromised oil quality

Back-End Post-Treatment Configuration

More Post-treatment → Less Prescriptive Feedstock Standards: With advanced refining system (catalytic, de-chlorination, distillation), pyrolysis plant operatiors has a much higher tolerance of contaminants (like chlorine and silicon) in the raw plastic. Since impurities in oil can be refined out later.
Less Post-treatment → More Prescriptive Feedstock Standards: With basic or simplified purification, there’s little room for error. Feedstock impurities must be tightly controlled upfront to ensure the output oil meets basic market standards.

Downstream Offtaker Specifications

Less Restrictive Offtaker Specs → Less Prescriptive Feedstock Standards: If your downstream buyer (offtaker) only requires low-grade pyrolysis oil for industrial heating, marine fuel, or basic blending, your feedstock input requirements can be significantly relaxed.
More Restrictive Offtaker Specs → More Prescriptive Feedstock Standards: If your goal is to sell premium pyrolysis oil to petrochemical giants (like Dow, BASF, or Shell) for circular plastics (steam crackers), their chemical-grade specifications are extremely tight. To meet their standard, your input plastics must be virtually free of PVC, halogen, and metals.

Value Equation & Cost-Revenue Model

Lower Cost/Revenue → Less Prescriptive Feedstock Standards: In regions with low processing costs, high gate fees (tipping fees), or where the revenue model leans heavily on government waste treatment subsidies rather than oil sales, the plant can tolerate a wider, less-prescriptive range of low-quality waste.
Higher Cost/Revenue → More Prescriptive Feedstock Standards: When high-purity pyrolysis oil commands a massive premium (high revenue), or when operational and purification costs are extremely high, it becomes highly profitable to use precise, high-quality feedstock specifications to maximize high-value oil yield and minimize equipment downtime.

Concluding Remarks

The pyrolysis of waste plastics (advanced recycling) is a rigorous science where “Input Dictates Output.” By understanding this international feedstock quality guide, global customers can, when conducting project feasibility studies and equipment procurement, more scientifically align local waste plastic composition and economics to customize the most efficient, stable, and commercially profitable pyrolysis solution.

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Biomass Pyrolysis to Biochar Test Reports

Beston Group — Wed, 15 Jul 2026 09:13:22 +0000

Beston Group’s laboratory regularly conducts pyrolysis tests on different types of biomass feedstock to verify equipment performance and evaluate biochar quality. This page presents real test data from our lab, including process parameters and basic physicochemical properties of the resulting biochar. The data is updated regularly as new tests are completed, giving you a general reference for how different feedstocks behave during pyrolysis. Before reviewing the specific data, please note the following points to help you interpret and use these results more accurately.

General Notes of Test Report Data

Comparability of Results:

Results for the same feedstock type may vary depending on variety, origin, physical form (pellet/powder/chunk), and pre-treatment. The data shown here reflects only the specific sample tested and should not be taken as a fixed value for that feedstock category in general.

Lab Results vs. Industrial Operation:

The data comes from small-scale laboratory equipment under ideal conditions. However, industrial-scale equipment subjects to interfering factors. Thus, this data is for reference only and does not represent a performance guarantee for full-scale equipment.

Note on Wood Vinegar & Tar Yield:

They are measured using a laboratory condensation setup. Industrial-scale operation combusts wood vinegar & tar directly as syngas for process heating. This yield data is intended to illustrate the mass balance of the reaction, not collected in actual production.

Scope of Testing:

The data comes from our laboratory only covers basic indicators. For more in-depth quality or safety parameters, such as H/C molar ratio, PAHs, or heavy metal content, samples should be sent to a qualified third-party laboratory for testing under recognized standards.

EFB Fiber Pyrolysis to Biochar Test on 2026-05-14

EFB Fiber

Test Report of Experimental Process

Material Weight	120 g
Pyrolysis Time	3 hours 3 minutes
Maximum Pyrolysis Temperature	634°C
Biochar Yield	33.33%
Wood Vinegar & Tar Yield	43.33%
Syngas Yield	23.33%

Download Test Report

EFB Fiber Biochar

Test Report of Biochar

Fixed Carbon	76.91%
Ash Content	17.14%
Volatiles	5.84%
Moisture	1.02%
High Calorific Value	6237 Kcal/kg
Low Calorific Value	6195 Kcal/kg

Download Test Report

Rice Husk Pyrolysis to Biochar Test on 2026-05-07

Rice Husk

Test Report of Experimental Process

Material Weight	180 g
Pyrolysis Time	3 hours 0 minutes
Maximum Pyrolysis Temperature	650°C
Biochar Yield	43.33%
Wood Vinegar & Tar Yield	34.44%
Syngas Yield	22.22%

Download Test Report

Rice Husk Biochar

Test Report of Biochar

Fixed Carbon	45.48%
Ash Content	45.51%
Volatiles	8.90%
Moisture	1.12%
High Calorific Value	4324 Kcal/kg
Low Calorific Value	4282 Kcal/kg

Download Test Report

Wood Chip Pyrolysis to Biochar Test on 2026-05-06

Wood

Test Report of Experimental Process

Material Weight	150 g
Pyrolysis Time	3 hours 49 minutes
Maximum Pyrolysis Temperature	631°C
Biochar Yield	30.67%
Wood Vinegar & Tar Yield	43.33%
Syngas Yield	26.00%

Download Test Report

Wood Biochar

Test Report of Biochar

Fixed Carbon	78.10%
Ash Content	13.16%
Volatiles	8.57%
Moisture	1.60%
High Calorific Value	6321 Kcal/kg
Low Calorific Value	6185 Kcal/kg

Download Test Report

Walnut Shell Pyrolysis to Biochar Test on 2026-04-26

Walnut Shell

Test Report of Experimental Process

Material Weight	150 g
Pyrolysis Time	2 hours 58 minutes
Maximum Pyrolysis Temperature	528°C
Biochar Yield	29.33%
Wood Vinegar & Tar Yield	39.33%
Syngas Yield	31.33%

Download Test Report

Walnut Shell Biochar

Test Report of Biochar

Fixed Carbon	87.47%
Ash Content	3.80%
Volatiles	8.65%
Moisture	0.82%
High Calorific Value	7519 Kcal/kg
Low Calorific Value	7456 Kcal/kg

Download Test Report

EFB Pellet Pyrolysis to Biochar Test on 2026-04-16

EFB Pellets

Test Report of Experimental Process

Material Weight	200 g
Pyrolysis Time	3 hours 10 minutes
Maximum Pyrolysis Temperature	488°C
Biochar Yield	28.50%
Wood Vinegar & Tar Yield	48.50%
Syngas Yield	23.00%

Download Test Report

EFB Pellets Biochar

Test Report of Biochar

Fixed Carbon	71.04%
Ash Content	12.02%
Volatiles	16.79%
Moisture	1.56%
High Calorific Value	6611 Kcal/kg
Low Calorific Value	6476 Kcal/kg

Download Test Report

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Beston Group Successfully Hosted Oil Sludge Pyrolysis Site Visit in Hubei, China

Beston Group — Wed, 15 Jul 2026 07:03:09 +0000

On June 26, 2026, Beston Group successfully hosted a live operation demonstration at our oil sludge pyrolysis project site in Hubei, China. The clients witnessed the equipment’s efficient performance firsthand and engaged in deep technical discussions with our engineering team.

Clients Visited Beston’s Oil Sludge Pyrolysis Site in China on June 26, 2026

On-Site Visit Video Review

Deep Into the Site: A Transparent Site Journey

Inspecting Raw Oil Sludge Feedstock

Since oil sludge has a very complex composition, the clients closely inspected the raw material on-site. Seeing this actual waste provided them with a valuable practical reference for managing and treating their own material in future projects.

Witness Live Machine Operations

Equipped with safety helmets, the visitors were guided into the heart of the sludge pyrolysis site. Stepping onto the production floor allowed the clients to observe the thermal desorption unit closely, gaining a transparent, authentic understanding of how oil sludge is processed safely at scale.

Explore PLC Full-Process Monitoring

Inside the control room, the client explored our “digital brain”—the PLC monitoring system. We showcased how every critical metric, from temperature zones to pressure levels, is tracked in real time, proving the high automation, safety, and stability of our technology.

Interactive Technical Q&A Sessions

The visit tour concluded with an in-depth technical Q&A. Our technical engineers provided comprehensive explanations of the pyrolysis mechanics, engaging in a highly productive dialogue that thoroughly addressed the client’s specific operational and economic queries.

Moving Forward: Shaping a Greener Future Together

We would like to express our heartfelt thanks to the visiting clients for their trust and to our Hubei project client for their incredible support in making this live demonstration a success. Moving forward, Beston Group will continue to deep-dive into oil sludge pyrolysis technology, drive green innovation, and host more technical exchange events worldwide. Click here to explore more about our site visits and upcoming technical exchange!

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Two Shipments, One Destination: Biochar Production Equipment Head to SE Asia for Carbon Removal

Beston Group — Tue, 14 Jul 2026 02:55:05 +0000

Another carbon removal project is about to be launched! 2 sets of BST-50S HM biochar production equipment have completed shipment to Southeast Asia. The equipment supports a palm kernel shell biochar carbon removal project developed locally by a European client, built in two phases. The equipment processes byproducts from the region’s palm processing industry through pyrolysis. Below are photos and details from the shipping site.

BST-50S biochar production equipment successfully arrives at port, ready to be shipped to Southeast Asia(Credit: Beston Group)

Project Background: Cross-Regional Synergy Between Policy and Feedstock

In February 2026, the EU formally adopted the first certified methodologies under the Carbon Removal and Carbon Farming Certification Framework (CRCF), classifying biochar carbon removal as a permanent removal pathway. Yet scaling biochar projects ultimately depends on sustained feedstock supply — a constraint in Europe itself. Southeast Asia, backed by abundant agricultural residues, has become one of the regions with the highest concentration of biochar carbon removal projects worldwide.
Our client, a European carbon removal developer, recognized this gap: policy recognition was already in place in Europe, while feedstock supply capacity sat in Southeast Asia. The developer partnered with a local Southeast Asian government, selecting palm kernel shell (PKS) — a byproduct of the region’s palm processing industry — as feedstock, launching a biochar carbon sink project that connects policy certainty in Europe with feedstock supply in Southeast Asia.

Project Information: Customized Configuration Based on PKS Characteristics

This PKS biochar carbon sink project is being built in two phases, with all biochar production equipment now fully manufactured. Both phases use an identical configuration, providing a consistent standard for future capacity expansion and equipment maintenance. Once complete, the project will produce 12,000 tons of biochar and remove 24,000 tons of CO₂ annually. Based on PKS characteristics, our engineering team designed the following customized configuration:

PKS Feedstock Characteristic	Corresponding Configuration	Function
Moisture content around 50%	Dryer	Reduces moisture to below 15%, preventing batch variation from affecting carbonization thermal efficiency
Uneven feedstock particle size	Trommel screen	Removes fine particles to prevent dust and oversized particles to prevent incomplete carbonization
Shell-based feedstock requires high carbonization temperature	BST-50S HM continuous reactor	Stainless steel main furnace withstands temperatures up to 650°C, ensuring the feedstock is fully carbonized

Reactor

Dryer

Trommel Screen

Project Timeline: Tightly Controlled Delivery Execution

Stage	Phase 1	Phase 2
Order date	Jan 22, 2026	Feb 24, 2026
Stocking completed	Apr 15, 2026	May 25, 2026
Shipping date	May 8, 2026	Jul 12, 2026
Arrival	Jun 8, 2026	Mid-August (estimated)
Installation	September 2026 (estimated, both phases simultaneously)

Both phases followed a unified project management process from order to delivery:

Production scheduling: Pyrolysis equipment manufacturing scheduled by order sequence to lock in delivery timelines
Progress tracking: Regular checks on installation progress during production, with updates shared promptly with the client
Factory inspection: Each unit undergoes quality inspection before leaving the factory, confirming operating parameters meet specification
Shipping verification: Parts and components checked against packing lists before shipment to prevent missing items on arrival
Ocean freight coordination: Shipping logistics coordinated centrally, with transit milestones tracked to keep arrival times on schedule

Next Steps: From Equipment Installation to Carbon Credit Realization

Both biochar machines are scheduled for simultaneous installation in September 2026, with Beston engineers traveling on-site to guide installation and commissioning. Equipment and supporting facilities construction marks only the midpoint of the project cycle. Once both production lines reach full processing capacity, the annual 12,000 tons of biochar still need MRV data collection and third-party verification. Only then does it convert into 24,000 tons of tradable carbon credits. We will continue to update you on-site installation and commissioning information, so please stay tuned.

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Biochar Production: A Practical Path to Global Wildfire Prevention

Beston Group — Sat, 11 Jul 2026 03:31:39 +0000

In recent years, global wildfire-affected areas have repeatedly reached new records in satellite monitoring data. The cause is not a single accidental spark, but the continuous accumulation of untreated combustible materials, forestry biomass. Biochar production offers a different approach: converting forest biomass into carbon-storing products through pyrolysis. This helps forest management agencies address biomass removal challenges while turning the process into a source of carbon credits and soil improvement benefits. Continue reading to explore how this technology provides a practical pathway for global wildfire management.

Forest Wildfire Warning: The Numbers You Need to Know

3.4billion tons/yr		Average annual carbon emissions from global wildfires, 2002–2024. Source: Global Fire Emissions Database (GFED5)
3.3million ha		Area burned in the Amazon rainforest in 2024, larger than Belgium, releasing roughly 791 million tons of CO2. Source: EU Joint Research Centre (JRC)
Natural forest 15.7M ha	Plantation 1.4M ha	Natural production forest and timber plantation area lost to wildfire worldwide, 2015–2022. Brazil, the US, and Australia were hit hardest. Source: Global risk of wildfire across timber production systems
13.5million ha		Global forest area burned in 2024, the worst year on satellite record, up 13% from 2023’s 11.9 million hectares. Source: World Resources Institute / Global Forest Watch
$106billion		Global economic losses caused by wildfires, 2014–2023. Source: UNDRR Global Assessment Report (GAR) 2025

What Causes Wildfires?

Two independent factors determine whether a wildfire starts and how large it becomes: an ignition source and fuel, which refers to the biomass accumulated in forests. Meanwhile, worsening climate conditions, including drought, extreme heat, and El Niño cycles, amplify both factors year after year.

Ignition Sources

Natural (less common but highly destructive)

Dry thunderstorms: Lightning strikes during dry conditions. Rain evaporates before reaching the ground, so lightning ignites dry trees.
Spontaneous combustion: During prolonged droughts and extreme heat, deep organic matter can generate enough heat through decomposition to ignite.

Human-caused (cause over 80% of wildfires worldwide)

Careless use of fire: Campfires left burning, discarded cigarette butts, agricultural burning, and transparent waste that concentrates sunlight can all ignite fires.
Infrastructure failures: Strong winds can bring down power lines. Sparks from fallen lines can ignite dry vegetation. This has triggered several of California’s most destructive wildfires.

Fuel

Ladder fuel accumulation: In North America and the Mediterranean, decades of fire suppression have allowed small trees and shrubs to accumulate instead of being cleared by periodic surface fires. Foresters call this ladder fuel. It allows fires to spread into the canopy and become destructive crown fires.
Poor land management: In South America and Southeast Asia, fuel accumulation comes from deforestation, slash-and-burn agriculture, and untreated logging residues. Together, these practices continuously create combustible biomass.
Dead trees caused by pests: In western North America, bark beetle outbreaks affected about 85,000 square miles of forest between 2000 and 2017. They left behind standing dead trees that became biomass fuel. Boreal forests across Europe, Canada, and Russia face similar fuel accumulation from insect infestations.

Takeaway: The severity of a wildfire depends far more on fuel accumulation than on the ignition source. An ignition source may start a fire. However, the amount, continuity, and density of combustible biomass determine whether that fire remains manageable or grows into an uncontrollable wildfire.

Why Traditional Forest Biomass Removal Delivers Limited Results

Thinning and prescribed burning are widely recognized as the two primary methods for reducing forest biomass.

Thinning physically removes excess small trees and shrubs.
Prescribed burning mimics the natural fire cycle and clears accumulated leaf litter, dead branches, and other surface fuels.

However, even though both methods are effective in principle, biomass continues to accumulate faster than it can be removed. In practice, three major challenges slow their implementation.

High Costs After Thinning

Thinning generates large amounts of branches and small-diameter wood with little commercial value. Transporting and disposing of this material often costs more than the wood is worth. As a result, forest agencies and private landowners often leave the residues on site instead of paying for removal.

Precise Conditions for Burning

Prescribed burning can only take place under specific combinations of humidity, wind speed, and temperature. As a result, the safe burning window often lasts only a few weeks. If managers miss that window, they must wait until the next season. Meanwhile, biomass continues to accumulate.

Lengthy Approval Process

Both thinning and prescribed burning require environmental reviews. Authorities must assess air quality, smoke dispersion, and biodiversity impacts, etc. The process often takes months or even years. In addition, burn bans during drought years further reduce the time available for implementation.

How Biochar Production Addresses Forest Waste Management Challenges

Facing the growing pressure of biomass accumulation in forests, the effective solution is not to eliminate biomass, but to transform it. Traditional management methods often end with biomass being burned and released into the atmosphere. Pyrolysis plant takes a different approach. It heats biomass in an oxygen-limited environment and locks the carbon into structurally stable biochar. This conversion process brings several natural advantages:

The process does not rely on continuous oxygen supply, so it avoids the uncontrolled spread risks associated with open flames.
It produces far less smoke and particulate matter than open burning.
The system can also recover pyrolysis gases for energy use, reducing external fuel consumption.

These characteristics allow biochar production to directly address the challenges of forest biomass management.

Turn Waste into Value

Branches and small-diameter wood from thinning have little commercial value. However, pyrolysis converts them into biochar for soil improvement or carbon credits. As a result, cleanup changes from a pure expense into a revenue-generating activity. This reduces the incentive to leave residues in the forest.

Enable Year-Round Processing

Unlike prescribed burning, biochar production does not depend on weather conditions. Operators can collect and store forest residues before transporting them to regional processing facilities. Once installed at a fixed site or industrial park, pyrolysis equipment can operate continuously year-round.

Shift Toward Policy Support

Prescribed burning often faces lengthy reviews due to air quality and smoke concerns. Meanwhile, agencies such as the U.S. Forest Service support diversified biomass management. They recognize biochar production as part of long-term wildfire mitigation. As a result, policy is shifting toward greater support.

Biochar Production Base for Forest Waste Biomass Processing

Equipment Selection: Fixed and Mobile Systems

Forest conditions and applications vary widely. Some areas support long-term operation of large-scale equipment, while others are remote and difficult to access. Routine thinning requires continuous management, whereas post-disaster biomass removal demands rapid deployment. Therefore, biochar equipment follows two different technical pathways, each addressing specific biomass management needs.

Fixed Industrial System

Operates at a fixed industrial site with supporting infrastructure and remains at the same location after commissioning. It is designed for large-scale commercial carbon removal projects, as well as agricultural & forestry biomass utilization projects.

Advantages

High automation reduces labor costs per unit of output.
Energy recovery enables near self-sufficient operation with minimal external fuel.
Regulate temperature and pressure in real time, keeping biochar carbon content, H/C ratio, and pore structure stable.

Limitations

As a fixed asset, it requires a stable nearby biomass supply. Otherwise, transportation costs increase.
Construction involves site planning, EIA, and dMRV integration, requiring significant upfront time and investment.
Systems require stable production schedules and lack the flexibility to handle scattered, remote, and complex forest conditions.

Mobile Working Unit

Can be designed as either modular units for rapid assembly and transport, or trailer-mounted systems for direct relocation between forest sites. It enables rapid deployment for forest biomass management, wildfire prevention, and emergency cleanup.

Advantages

High mobility allows equipment to move directly to biomass sources, reducing transportation costs.
The system can relocate according to cleanup progress, making it suitable for scattered and small-scale operations.
Rapid deployment reduces the waiting time after forest disturbances, enabling faster biomass removal and site recovery.

Limitations

Single mobile unit usually has lower capacity and cannot independently handle large-scale, high-density biomass.
Frequent relocation creates additional transportation emissions, which must be included in net carbon removal calculations.
Operation efficiency depends on site accessibility, weather conditions, and the availability of local support facilities.

Choosing the Right Approach: The choice between fixed and mobile biochar systems depends on biomass availability, site conditions, and operational goals. Fixed systems maximize efficiency and output for stable biomass supply, while mobile systems provide flexibility for dispersed and hard-to-access forest areas. Together, these two approaches create a more adaptable pathway for converting forest biomass into valuable biochar and carbon removal solutions.

Added Value of Converting Forest Biomass into Biochar

Carbon Credits

Carbon revenue: Biochar carbon credits reached an average transaction price of $164 per ton in 2025, making biochar one of the few engineered carbon removal pathways with large-scale delivery capability. Forest residues often have no feedstock costs. Combined with the ecological value of forest management, these projects can achieve higher premiums.
Cost offset: Thinning residues have limited commercial value, and transportation costs often exceed their value. Carbon credit revenue can offset cleanup expenses, turning thinning projects from a financial burden into cost-neutral or revenue-generating activities and reducing reliance on public funding.

Soil Restoration

Post-fire soil restoration: After wildfires, high temperatures can destroy soil organic matter and microbial activity. Natural recovery often takes years. Returning biochar to burned areas helps rebuild soil organic matter, accelerates vegetation recovery, and supports ecological restoration efforts after wildfires.
Daily water retention: Biochar improves water-holding capacity in surface and root zones of forests, helping vegetation and surface litter retain moisture during dry seasons. Applying biochar to thinned forests or areas around firebreaks provides additional resilience during drought periods and supports long-term forest management.

A Sustainable Forest Management Cycle

Using forest waste biomass to produce biochar has become an important pathway for wildfire prevention. It transforms the biomass removal challenge faced by forest management agencies into a sustainable practice that restores value to forests. Instead of being burned as waste, processed branches and residues can return to forest soils or enter the carbon market, supporting long-term forest health. The technology is mature, and equipment solutions now include different pathways for various forest conditions and operational scenarios. For forest management agencies and landowners, the next step is to integrate this approach into routine forest management systems.

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Beston Group Hosted Factory Visit, Showcasing Next-Generation Continuous Plastic Pyrolysis Technology

Beston Group — Mon, 06 Jul 2026 08:42:58 +0000

JIAOZUO, CHINA — On May 27, 2026, Beston Group welcomed a global client delegation on an operation inspection tour of our continuous plastic pyrolysis plant. Clients toured the production workshop, witnessed machine operation firsthand, and held in-depth technical discussions with our technical team.

International Clients Visited Beston Continuous Pyrolysis Plant on May 27 2026.

10:10 – 11:30 | Pilot Base & Workshop Tour

The tour commenced at Beston Group’s Jiaozuo production base. Guided by senior engineers, clients explored the modernized fabrication workshops, gaining insight into Beston’s stringent material selection protocols, high-precision welding technologies, and rigorous quality control frameworks.

Material Storage Area Visit

Hands-on with Manufacturing Details

Witnessing the Quality Inspection Process

Finished Product Area Visit

12:30–14:30 | Networking Lunch

Following the morning sessions, the delegation and Beston Group’s team shared a casual lunch featuring local cuisine. The informal gathering allowed everyone to connect on a personal level and discuss market trends in a relaxed atmosphere.

Beston Team and Global Clients Share a Memorable Lunch on May 27 2026

14:30 – 16:00 | Continuous Pyrolysis Plant Introduction & Q&A

In the afternoon, the focus shifted to Beston’s latest continuous pyrolysis technology. Technical experts presented the system’s key performance metrics: 24/7 non-stop operation, advanced emission control, and fully automated safety overrides. The subsequent Q&A session was highly dynamic.

Project Manager Introducing Continuous Plastic Pyrolysis Solution

In-depth Technical Q&A

16:00 – 17:30 | Machine Operation Inspection & On-site Q&A

Later, clients returned to the pilot base to inspect the continuous plastic pyrolysis plant under live operational conditions. On-site, guests witnessed plastic granules being smoothly converted into high-value pyrolysis oil via an entirely enclosed, automated loop. The plant’s stable performance under the intelligent PLC control system drew strong interest from the prospective clients.

Hands-on Inspection of Plastic Granules

Witness Continuous Pyrolysis Plant in Operation

Plastic Pyrolysis Oil Display

Close-up Look at Intelligent PLC Control System

Onsite Visit Video

Shaping Tomorrow Together

Beston Group expresses its sincere appreciation to all international delegates who attended this exchange. As global demand for sustainable recycling expands, Beston remains dedicated to refining its continuous technological platforms to deliver high-ROI solutions for partners worldwide. To learn more about our continuous pyrolysis technology or to arrange a facility visit, please contact us.

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