Home
Search History
Clear History
{{item.search_key}}
Hot Searches
Change
{{item.name}}
{{item.english_name}}
Subscribe eNews
Once A Week Once Every Two Weeks
{{sum}}
{{sum}}
Log in

Please Login

Subscribe To Tags, See What You Want To See

Sign Up For Events, Expand your network

Unlock Private Messages, Participate In Interactions

 Register

Hi.{{userInfo.company_name_english||userInfo.truename_english}} Hi.{{userInfo.truename||userInfo.phone||userInfo.email}}

Applications

Global trust in Chinese material suppliers: Excellence in innovation and quality

Report: Unraveling the secrets to a thriving plastic recycling sector

Röhm invests in chemical recycling

Products

Chinese extrusion machinery manufacturers boosts customer competitiveness

Product Profile of Blue Asia Chemical

TianRui Mould- UPVC Extrusion Tooling

Activities

  • Must-attend: CHINAPLAS x CPRJ Plastics Recycling and Circular Economy Conference in Shanghai

  • Beyond procurement: Exploring the concurrent events at CHINAPLAS 2026

  • Chinaplas2026 Preview Webinars | Smart Blow Moulding & AI Inspection (FREE)

Pictorial

News Videos

Brückner presents new member and debut of NoSho technology at CHINAPLAS 2026

ENGEL: Injection molding, interconnection of all areas

ALPLA: Global packaging, empowering China

Conference Videos

【Replay】YUZEN: AI-Driven Vision Inspection Technology: Spearheading the Intelligent Transformation of Packaging Production Lines

【Mandarin session: Webinar playback】HUSKY：From Injection Molding Machines to Temperature Controllers – Diversified Product Portfolio Breaks Through Molding Challenges and Empowers Advanced Applications in End-Use Segmented Markets – Pre-Show Analysis for Chinaplas

[Live Replay] ST BlowMoulding Group: How Smart, Energy-Efficient Blow Moulding Technology Drives Sustainability

Corporate/Product Videos

Innovative PVC Compounds for Global Manufacturing | Visit Us Booth 6.2A 39 at CHINAPLAS

CovationBio®bioPTMEG brand video

Is Your Mold Supplier Really Giving You Peace of Mind?

News
NEW
HOT
 Events
NEW
HOT
 SPE Asia
NEW
HOT
 Special
NEW
HOT
 Live
NEW
HOT
 eNews
NEW
HOT
 Essential Guide
NEW
HOT
 Event Calendar
NEW
HOT
 Survey
NEW
HOT
 CHINA INSIGHT
NEW
HOT

Home > News > Market News

Is the Transition from Pilot Testing to industrialization Really Just the "Last Mile"? Unveiling the Preparations on the Eve of Industrialization

Shanghai DODGEN Chemical Technology Co., Ltd.
Source：https://www.dgchemtech.com/is- Date ：2025-02-26 Editor ：DODGEN
Copyright： The content was uploaded and published by members of Adsale Plastics Network (AdsaleCPRJ.com). It represents the opinion of the author or the organization; Adsale Plastics Network provides the platform for information release only. For membership registration, please log in on a desktop computer:adsalecprj.com/shor/dMpPW0

Pilot testing, often referred to as the “last mile” on the path from research and development to full industrial production in chemical projects, involves much more than a final step. Transitioning from pilot testing to industrialization requires a comprehensive set of preparations: finalizing the process route, simulating the entire chemical process flow, and calculating material and energy balances. It also demands an in-depth evaluation of start-up and shutdown scenarios, choosing auxiliary process routes (such as solvent recovery, bulk solid transport, high-melting-point material transfer, product purification, and utility systems), selecting and designing key equipment for reaction and separation, optimizing equipment layout and preliminary plant structure, deciding on the final setup (whether skid-mounted or traditional plant design), selecting instruments and planning for automation, drafting operating and analytical procedures, and preparing contingency plans and technical support for start-up and shutdown issues.Only with experienced engineers carefully considering and designing each of these aspects in advance can the entire chemical system run efficiently, safely, and reliably, providing robust support for chemical production. DODGEN is dedicated to incubating industrial technology and guiding clients through every step of the industrialization process, ensuring a smooth transition to large-scale production.


I. Process Design

1) Process Flow Determination: This includes selecting the appropriate production method, defining the raw material handling approach, and designing the reaction and separation processes. For instance, in chemical engineering design, process design requires selecting suitable reaction equipment and flow based on the catalyst and reaction conditions used in the lab-scale development phase, as well as industrial design experience, to ultimately convert raw materials into the target product.

2) Simulation Calculations for the Entire Process Flow: Advanced process simulation software is used to conduct simulation calculations for all involved processes. This is based on operating conditions, conversion rates, reaction times, and physical property data obtained from lab and pilot-scale testing, with adjustments made to the software’s physical property data accordingly. This process yields energy and material balance data, providing a foundation for the next steps in process design.


3) Equipment Selection and Layout: Based on process requirements, suitable chemical equipment is chosen, and the layout between equipment is designed to ensure smooth material transfer. For materials like solids and high-melting-point substances, shorter transfer paths are prioritized. Large-diameter pipelines require careful consideration in the initial equipment layout to ensure efficient and smooth production flow. Additionally, special attention is given to the lifting and maintenance of specific equipment, ensuring ease of installation and maintenance during subsequent operational stages. This includes deciding on the types of machinery to use, equipment placement, and material flow direction.

4) Safety Measures and Environmental Protection: During the design process, it is essential to consider safety issues, such as fire and explosion prevention. For processes involving highly toxic, high-temperature, or high-pressure conditions, careful attention is given to ensure worker safety during operation, and measures are taken to reduce environmental pollution during production.


5) Optimized Resource Utilization: Process design enables the optimization of raw material usage, reducing waste and improving resource efficiency. For example, in refining engineering, optimizing reaction conditions can increase raw material conversion rates and reduce by-product generation.

6) Control and Monitoring: The design process must also include the selection of instruments and the implementation of an efficient automated control system to ensure production stability and consistent product quality. Key process quality control points should be equipped with adequate sampling locations, and, when necessary, online analytical equipment can be used to monitor various parameters in real-time during production.

Process design determines the overall efficiency, product quality, and production cost of the entire production line. An excellent process design ensures smooth production, reduces energy and material consumption, and enhances the market competitiveness of the product.

II. Key Equipment Design

Based on the process design, the design of key equipment is central to ensuring the efficient operation of the production line. Key equipment typically includes polymer reactors, separators, and compressors, with their design directly determining the capacity and stability of the production line. DODGEN has many years of experience in designing critical equipment for reaction and separation processes, with outstanding achievements in polymerization reactors, microreactors, falling film absorbers, packing and tower internals, melt crystallizers, falling film evaporators, and forced heat exchangers.


Equipment design includes:

1) Equipment Structure and Dimension Design

●Structure Design: Based on process requirements, material properties, and separation principles, design a suitable equipment structure. For example, for storage tanks and towers holding high-melting-point materials, add a jacket or half-pipe heating; for distillation columns with heat-sensitive materials, reduce the column base diameter to lower residence time.

●Dimension Design: Determine key dimensions such as the diameter, height, and wall thickness of the equipment to ensure it can hold sufficient material while meeting strength and stability requirements.


2) Material Selection and Strength Verification

●Material Selection: Choose appropriate materials based on the properties of the materials being processed (such as corrosiveness, temperature, pressure, etc.) and the operating environment of the equipment, such as stainless steel, titanium alloy, non-metallic materials, or carbon steel.

●Strength Verification: Perform strength verification to ensure that the equipment will not deform or rupture under working pressure, temperature, and other conditions.3) Fluid Dynamics Design

●Inlet Velocity: Design an appropriate inlet velocity to ensure uniform material entry into the equipment, avoiding local overloading or blockages. For materials with specific requirements, design an inlet distributor at the equipment inlet.

●Flow Velocity and Pressure Distribution: Optimize the internal flow velocity and pressure distribution within the equipment to enhance separation efficiency while reducing energy consumption and wear.

4) Control System and Automation Design

●Control System: Design a reliable control system to monitor the operating conditions of the equipment, such as temperature, pressure, and flow rate, and to enable automatic adjustments.

●Automation Design: For complex equipment, such as melt crystallizers, integrate automation technologies like PLC and DCS to enhance automation levels, reduce operational complexity, and lower labor costs.

5) Economic feasibility and Cost Analysis

●Economic feasibility Evaluation: Conduct a comprehensive assessment of the equipment's investment cost, operating cost, and maintenance cost to ensure economic feasibility.

●Cost Optimization: Reduce equipment costs by optimizing the design and selecting cost-effective materials and components.


III. Skid-mounted Design


Skid-mounted and modular design are key trends in the application of modern industrial technology. By breaking down complex production processes into multiple independent and interchangeable modules, construction time can be significantly shortened, costs reduced, and production flexibility improved. This design approach not only facilitates transportation and installation but also simplifies future maintenance and upgrades, providing the potential for rapid deployment and flexible adjustments of technology. Skid-mounted design includes:

1) Module Division:

●Based on process functional units, divide the system into multiple single-function units, forming a series of modular units.

●Assess the maximum size and weight of equipment within each individual module, while considering the feasibility of transportation and the convenience of on-site installation.


2) Pipeline and Equipment Integration:

●Design the pipelines within the module to be as contained within the module boundary as possible, with valves preferably welded directly to the piping for compact installation.

●Focus on integrating key equipment as the main component, with supporting equipment as auxiliary, including all associated pipelines, instruments, and valves, to facilitate subsequent skid assembly.

3) Electrical Instrumentation and Control System Integration:

●The control circuits for the module units and the electrical instrumentation circuits are pre-wired and orderly connected to the device control cabinet.

●After power is supplied on-site, simple debugging and confirmation are required before the system can be put into use.

4) Skid Design and Manufacturing:

●According to the process flow, all equipment, pipelines, instruments, etc., within each module unit are assembled into skids, forming multiple skid units.

●Determine the base dimensions, position of load-bearing beams, and steel structure model.

●On the steel structure base, determine the positions of pipe supports, aiming to minimize the pipeline connections between skids.

5) Transportation and Installation Considerations:

●The design should fully consider factors such as lifting and transportation, on-site installation, ease of operation, and maintenance.

● After the skid design drawings are completed, manufacturing and assembly will take place at the factory. Once finished, multiple tests will be conducted to ensure the quality and reliability of the skid.

IV. Turnkey Project

Turnkey Project Services refer to a comprehensive engineering service that includes the installation, commissioning, operation guidance, equipment maintenance, troubleshooting, and addressing bottlenecks as part of after-sales services.

●Equipment Installation: A professional installation team ensures that equipment is transported to the client's site by a designated carrier, with the materials and performance meeting quality standards. Installation and acceptance are carried out, with detailed records kept of each installation step to ensure completeness and traceability.

●Commissioning and Operation: The system is commissioned strictly according to procedures, including following the operating sequence and adjusting parameters as required. Every operation is recorded to ensure proper documentation and control.

●Personnel Training: To ensure the client can seamlessly take over and operate the production line, training is provided to help personnel master relevant technologies and operating methods.

●After-Sales Service: Similar to general technical licensing, after-sales services include equipment maintenance, troubleshooting, and resolving bottlenecks, ensuring the stable operation of the production line and continuous improvement.

DODGEN offers a full range of services from small-scale trials to pilot tests, industrial-scale production, including engineering technology development, process and equipment design, and key equipment manufacturing. The project undergoes long-term incubation and accumulation during the early phase, ensuring a smooth transition from theory to practice.

054E69B5-BC2F-4317-8CA6-0326020A1E3F-25942-000003E6A0326D8A.jpg


DODGEN Marketing Department Contact Information 18016058776 (same WeChat account)

CHINAPLAS 2025

From April 15th, 2025 to April 18th, 2025

Booth K01 in Hall 16

 Like 丨  {{details_info.likes_count}}
Research institute Recycling
Recycled plastics
Recycling
Recycling platform
Plastics recycling
 SACMI (SHANGHAI) MACHINERY EQUIPMENT CO., LTD.      
 DONGGUAN DEHUA PRECISION MOLD CO., LTD      
 ZHANGJIAGANG XINRONG MACHINERY CO.,LTD      
 JUHESHUN ADVANCED MATERIALS CO., LTD.      
 HEFEI TAIHE INTELLIGENT TECHNOLOGY GROUP CO.,LTD.      
 BEIJING ENERGY ENGINEERING TECHNOLOGIES CO.,LTD.      
 WINDORA MATERIALS LLC      
 GREENWICH (CHINA) TECHNOLOGY DEVELOPMENT LIMITED      
 GREENCORE RESOURCES LIMITED      
 LINKER NEW MATERIALS CO., LTD      
 Coperion GmbH      
 SHANGHAI HAWKWAY PROCESS SOLUTIONS CO., LTD      
 GUANGXI HENGYI NEW MATERIALS CO., LTD.      
 TAIZHOU MIXIN MACHINERY CO., LTD.      
 ZHEJIANG ROTOUN PLASTIC TECHNOLOGY CORP.      
 GUANGDONG GUOHENG YOUHE ADVANCED MATERIALS CO., LTD.      
 KADIDE      
 GUANGXI WUZHOU GUOLONG RECYCLABE RESOURCES DEVELOPMENT CO., LTD.      
 HUIZHOU LITUO ADVANCED MATERIALS CO.,LTD.      
 SUZHOU BECHTON PLASTIC MACHINERY CO., LTD      
 YUYAO KAWAGUCHI Manufacturing Co., Ltd.      
 LINYI HUASU ELECTRONIC TECHNOLOGY CO., LTD.      
 GUANGDONG ENMEI CHEMICAL TECHNOLOGY CO., LTD      
 XIAMEN XINWANCAI POLYMER TECHNOLOGY CO.,LTD      
 ANHUI ZHONGXIN HONGWEI TECHNOLOGY CO.,LTD      
 SOJITZ（SHANGHAI）CO.,LTD.      
 FUJIAN NAN'AN STAR RUBBER&PLASTIC MACHINERY CO., LTD.      
 ZHANGJIAGANG GREENLANDPLAST MACHINERY CO.,LTD      
 FUJIAN YANGZHU NEW MATERIAL SCIENCE & TECHNOLOGY CO., LTD      
 HUBEI XINJIANSHI MACHINERY TECHNOLOGY CO.,LTD      
 HEBEI GELIA PLASTIC MACHINERY SALES COMPANY      
 FOSHAN SHUNDE MINGSANFENG MOULD CO., LTD.      

The content you're trying to view is for members only. If you are currently a member, Please login to access this content.   Log in

Shanghai DODGEN Chemical Technology Co., Ltd.
Source：https://www.dgchemtech.com/is- Date ：2025-02-26 Editor ：DODGEN
Copyright： The content was uploaded and published by members of Adsale Plastics Network (AdsaleCPRJ.com). It represents the opinion of the author or the organization; Adsale Plastics Network provides the platform for information release only. For membership registration, please log in on a desktop computer:adsalecprj.com/shor/dMpPW0

Pilot testing, often referred to as the “last mile” on the path from research and development to full industrial production in chemical projects, involves much more than a final step. Transitioning from pilot testing to industrialization requires a comprehensive set of preparations: finalizing the process route, simulating the entire chemical process flow, and calculating material and energy balances. It also demands an in-depth evaluation of start-up and shutdown scenarios, choosing auxiliary process routes (such as solvent recovery, bulk solid transport, high-melting-point material transfer, product purification, and utility systems), selecting and designing key equipment for reaction and separation, optimizing equipment layout and preliminary plant structure, deciding on the final setup (whether skid-mounted or traditional plant design), selecting instruments and planning for automation, drafting operating and analytical procedures, and preparing contingency plans and technical support for start-up and shutdown issues.Only with experienced engineers carefully considering and designing each of these aspects in advance can the entire chemical system run efficiently, safely, and reliably, providing robust support for chemical production. DODGEN is dedicated to incubating industrial technology and guiding clients through every step of the industrialization process, ensuring a smooth transition to large-scale production.


I. Process Design

1) Process Flow Determination: This includes selecting the appropriate production method, defining the raw material handling approach, and designing the reaction and separation processes. For instance, in chemical engineering design, process design requires selecting suitable reaction equipment and flow based on the catalyst and reaction conditions used in the lab-scale development phase, as well as industrial design experience, to ultimately convert raw materials into the target product.

2) Simulation Calculations for the Entire Process Flow: Advanced process simulation software is used to conduct simulation calculations for all involved processes. This is based on operating conditions, conversion rates, reaction times, and physical property data obtained from lab and pilot-scale testing, with adjustments made to the software’s physical property data accordingly. This process yields energy and material balance data, providing a foundation for the next steps in process design.


3) Equipment Selection and Layout: Based on process requirements, suitable chemical equipment is chosen, and the layout between equipment is designed to ensure smooth material transfer. For materials like solids and high-melting-point substances, shorter transfer paths are prioritized. Large-diameter pipelines require careful consideration in the initial equipment layout to ensure efficient and smooth production flow. Additionally, special attention is given to the lifting and maintenance of specific equipment, ensuring ease of installation and maintenance during subsequent operational stages. This includes deciding on the types of machinery to use, equipment placement, and material flow direction.

4) Safety Measures and Environmental Protection: During the design process, it is essential to consider safety issues, such as fire and explosion prevention. For processes involving highly toxic, high-temperature, or high-pressure conditions, careful attention is given to ensure worker safety during operation, and measures are taken to reduce environmental pollution during production.


5) Optimized Resource Utilization: Process design enables the optimization of raw material usage, reducing waste and improving resource efficiency. For example, in refining engineering, optimizing reaction conditions can increase raw material conversion rates and reduce by-product generation.

6) Control and Monitoring: The design process must also include the selection of instruments and the implementation of an efficient automated control system to ensure production stability and consistent product quality. Key process quality control points should be equipped with adequate sampling locations, and, when necessary, online analytical equipment can be used to monitor various parameters in real-time during production.

Process design determines the overall efficiency, product quality, and production cost of the entire production line. An excellent process design ensures smooth production, reduces energy and material consumption, and enhances the market competitiveness of the product.

II. Key Equipment Design

Based on the process design, the design of key equipment is central to ensuring the efficient operation of the production line. Key equipment typically includes polymer reactors, separators, and compressors, with their design directly determining the capacity and stability of the production line. DODGEN has many years of experience in designing critical equipment for reaction and separation processes, with outstanding achievements in polymerization reactors, microreactors, falling film absorbers, packing and tower internals, melt crystallizers, falling film evaporators, and forced heat exchangers.


Equipment design includes:

1) Equipment Structure and Dimension Design

●Structure Design: Based on process requirements, material properties, and separation principles, design a suitable equipment structure. For example, for storage tanks and towers holding high-melting-point materials, add a jacket or half-pipe heating; for distillation columns with heat-sensitive materials, reduce the column base diameter to lower residence time.

●Dimension Design: Determine key dimensions such as the diameter, height, and wall thickness of the equipment to ensure it can hold sufficient material while meeting strength and stability requirements.


2) Material Selection and Strength Verification

●Material Selection: Choose appropriate materials based on the properties of the materials being processed (such as corrosiveness, temperature, pressure, etc.) and the operating environment of the equipment, such as stainless steel, titanium alloy, non-metallic materials, or carbon steel.

●Strength Verification: Perform strength verification to ensure that the equipment will not deform or rupture under working pressure, temperature, and other conditions.3) Fluid Dynamics Design

●Inlet Velocity: Design an appropriate inlet velocity to ensure uniform material entry into the equipment, avoiding local overloading or blockages. For materials with specific requirements, design an inlet distributor at the equipment inlet.

●Flow Velocity and Pressure Distribution: Optimize the internal flow velocity and pressure distribution within the equipment to enhance separation efficiency while reducing energy consumption and wear.

4) Control System and Automation Design

●Control System: Design a reliable control system to monitor the operating conditions of the equipment, such as temperature, pressure, and flow rate, and to enable automatic adjustments.

●Automation Design: For complex equipment, such as melt crystallizers, integrate automation technologies like PLC and DCS to enhance automation levels, reduce operational complexity, and lower labor costs.

5) Economic feasibility and Cost Analysis

●Economic feasibility Evaluation: Conduct a comprehensive assessment of the equipment's investment cost, operating cost, and maintenance cost to ensure economic feasibility.

●Cost Optimization: Reduce equipment costs by optimizing the design and selecting cost-effective materials and components.


III. Skid-mounted Design


Skid-mounted and modular design are key trends in the application of modern industrial technology. By breaking down complex production processes into multiple independent and interchangeable modules, construction time can be significantly shortened, costs reduced, and production flexibility improved. This design approach not only facilitates transportation and installation but also simplifies future maintenance and upgrades, providing the potential for rapid deployment and flexible adjustments of technology. Skid-mounted design includes:

1) Module Division:

●Based on process functional units, divide the system into multiple single-function units, forming a series of modular units.

●Assess the maximum size and weight of equipment within each individual module, while considering the feasibility of transportation and the convenience of on-site installation.


2) Pipeline and Equipment Integration:

●Design the pipelines within the module to be as contained within the module boundary as possible, with valves preferably welded directly to the piping for compact installation.

●Focus on integrating key equipment as the main component, with supporting equipment as auxiliary, including all associated pipelines, instruments, and valves, to facilitate subsequent skid assembly.

3) Electrical Instrumentation and Control System Integration:

●The control circuits for the module units and the electrical instrumentation circuits are pre-wired and orderly connected to the device control cabinet.

●After power is supplied on-site, simple debugging and confirmation are required before the system can be put into use.

4) Skid Design and Manufacturing:

●According to the process flow, all equipment, pipelines, instruments, etc., within each module unit are assembled into skids, forming multiple skid units.

●Determine the base dimensions, position of load-bearing beams, and steel structure model.

●On the steel structure base, determine the positions of pipe supports, aiming to minimize the pipeline connections between skids.

5) Transportation and Installation Considerations:

●The design should fully consider factors such as lifting and transportation, on-site installation, ease of operation, and maintenance.

● After the skid design drawings are completed, manufacturing and assembly will take place at the factory. Once finished, multiple tests will be conducted to ensure the quality and reliability of the skid.

IV. Turnkey Project

Turnkey Project Services refer to a comprehensive engineering service that includes the installation, commissioning, operation guidance, equipment maintenance, troubleshooting, and addressing bottlenecks as part of after-sales services.

●Equipment Installation: A professional installation team ensures that equipment is transported to the client's site by a designated carrier, with the materials and performance meeting quality standards. Installation and acceptance are carried out, with detailed records kept of each installation step to ensure completeness and traceability.

●Commissioning and Operation: The system is commissioned strictly according to procedures, including following the operating sequence and adjusting parameters as required. Every operation is recorded to ensure proper documentation and control.

●Personnel Training: To ensure the client can seamlessly take over and operate the production line, training is provided to help personnel master relevant technologies and operating methods.

●After-Sales Service: Similar to general technical licensing, after-sales services include equipment maintenance, troubleshooting, and resolving bottlenecks, ensuring the stable operation of the production line and continuous improvement.

DODGEN offers a full range of services from small-scale trials to pilot tests, industrial-scale production, including engineering technology development, process and equipment design, and key equipment manufacturing. The project undergoes long-term incubation and accumulation during the early phase, ensuring a smooth transition from theory to practice.

054E69B5-BC2F-4317-8CA6-0326020A1E3F-25942-000003E6A0326D8A.jpg


DODGEN Marketing Department Contact Information 18016058776 (same WeChat account)

CHINAPLAS 2025

From April 15th, 2025 to April 18th, 2025

Booth K01 in Hall 16

全文内容需要订阅后才能阅读哦~
立即订阅
信百勒 英文横幅 CPS LIVE HSE AD EN
JC times button ad EN XIAMEN XINWANCAI POLYMER TECHNOLOGY CO.,LTD rongsheng

Recommended Articles

Corporate News
Struggling with Elastomer Material Compatibility? VERYONE’s Custom Formulas Win Industry Recognition!
 2026-04-03
  Guang Dong Veryone Technology Co.,Ltd. 标准会员
Corporate News
Low Efficiency & High Consumption in Paper-Plastic Production? HANSON Makes Eco-Friendly Production Easier!
 2026-04-03
  HANSON PULP MOLDING TECHNOLOGY CO.,LTD. 标准会员
Corporate News
Tired of Film Waste & Subpar Performance? YINFENG Delivers Reliable Film Blowing Solutions!
 2026-04-03
  WUHAN YINFENG PLASTIC MACHINE CO., LTD. 标准会员
Corporate News
Troubled by Low Precision & Failures in Film Blowing & Bag Making? HUANA MACHINERY Boosts Yield with Intelligent Control!
 2026-04-02
  RUIAN HUANA MACHINERY CO.,LTD. 标准会员
Corporate News
Tired of Issues with Injection Blow Molding Machines? AIBIM Simplifies Molding for You
 2026-04-02
  ZHANGJIAGANG AIBIM TECHNOLOGY CO.,LTD 标准会员
Corporate News
WENZHOU DETAI – Valve Bags: A Reliable Choice for Packaging
 2026-04-02
  WENZHOU DETAI PLASTICS CO., LTD 精英会员
AdsaleCPRJ.com A1 420x90 EN AdsaleCPRJ.com A1 - EMP - EN
金纬 Haitian button ad EN ANHUI SHAFENG ADVANCED MATERIAL CO., LTD.
  • Must See
    • News
    Images
    Watch it
1
CHINAPLAS 2026: Extended Ultrason® P portfolio by BASF enables compliant re-qualification of food‑contact articles affected by EU Regulation 2024/3190
2
40% surge in a week: Middle East conflict ignites global plastics storm
3
Bekum to show packaging solutions for technically demanding markets at CHINAPLAS 2026
4
Inodrama Ventures and partners to develop one of Africa’s largest rPET production facilities
5
W&H to highlight sustainable flexible packaging technologies at CHINAPLAS 2026
1
BASF: Next-generation solid-state battery pack unlocks electrical driven new dimension
2
Kingfa: Creation . Reproduce . Innovation
3
[Live Replay] ST BlowMoulding Group: How Smart, Energy-Efficient Blow Moulding Technology Drives Sustainability
4
Evonik: Going beyond chemical boundary, innovations for limit-less future
5
Jwell Machinery: Plastic machinery hard power in six major areas
  • Hot Specials

You May Be Interested In

Change
  • People
  • Company
loading... No Content
{{[item.truename,item.truename_english][lang]}} {{[item.company_name,item.company_name_english][lang]}} {{[item.job_name,item.name_english][lang]}}
{{[item.company_name,item.company_name_english][lang]}} Company Name    {{[item.display_name,item.display_name_english][lang]}}  

Polyurethane Investment Medical Carbon neutral Reduce cost and increase efficiency CHINAPLAS Financial reports rPET INEOS Styrolution Evonik Borouge Polystyrene (PS) mono-material Sustainability Circular economy BASF SABIC Multi-component injection molding machine All-electric injection molding machine Thermoforming machine

Is the Transition from Pilot Testing to industrialization Really Just the "Last Mile"? Unveiling the Preparations on the Eve of Industrialization

识别右侧二维码，进入阅读全文
下载
x 关闭
订阅
亲爱的用户，请填写一下信息
I have read and agree to the 《Terms of Use》 and 《Privacy Policy》
立即订阅
Top
Feedback
Chat
News
Market News
Applications
Products
Video
In Pictures
Specials
Activities
eBook
Front Line
Plastics Applications
Chemicals and Raw Material
Processing Technologies
Products
Injection
Extrusion
Auxiliary
Blow Molding
Mold
Hot Runner
Screw
Applications
Packaging
Automotive
Medical
Recycling
E&E
LED
Construction
Others
Events
Conference
Webinar
CHINAPLAS
CPS+ eMarketplace
Official Publications
CPS eNews
Media Kit
Social Media
Facebook
Linkedin
Adsale Group ｜  About Us ｜  Terms of Use ｜  Privacy Policy ｜  Contact Us ｜  Media Kit ｜  Consent Letter for Processing Personal Data ｜