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}}
Log in Register

Applications

Toray Toraypearl spherical PA12 powder for 3D printing

Polyplastics, Colgate-Palmolive and PTI unveil new technology for lightweight HDPE bottles

KHS SUPREME PET bottle for oxygen-sensitive beverages

Products

Breakthrough in Lubrizol’s LED Chlorination Technology to elevate CPVC resin performance

3000BPH 2cavity jar blowing machine will show in 2026 Chinaplas Shanghai

NOVA Chemicals commercializes two new SYNDIGO rPE grades

Activities

  • CHINAPLAS 2026: Government blueprint for emerging industries driving new plastics innovation

  • Fakuma to celebrate 30th anniversary edition in October 2026

  • Italy pavilion at Plast Eurasia proves its rising presence in Turkish market

Pictorial

Industry Topic

ASEAN: The Next Manufacturing Hub

Innovative and Sustainable Packaging

Green Plastics: News & Insights

CHINAPLAS

CHINAPLAS 2026 Focus

CHINAPLAS 2025 Focus

CHINAPLAS 2024 Focus

Exhibition Topic

K 2025 FOCUS

CHINA INSIGHT

Fakuma 2024 Highlights

News Videos

Automatic 5L 120mm neck PET jar blowing machine

YZ-ECO2000-4 6000BPH full automatic 4cavity bottle blowing machine

Opening Ceremony of Bechton's New Factory

Conference Videos

【Mandarin session: Webinar playback】SACMI: Your Digitalized Manufacturing, Your Future Today

[Live Replay] LK Group: Smart Manufacturing, New Chapters in Southeast Asia: High-Efficiency Solutions in PET Preform & Thin-Wall Packaging

[Live Replay] Fu Chun Shin (FCS): Data-Driven Digital Rebirth and Intelligent Future of Injection Molding

Corporate/Product Videos

QINGDAO BOUNI introduction video

PVC-O160-400 Production Line Trial Run Video

PVC-O630 production line testing

Exhibition

Playback TECHHUB 2025@CPRJ Live Streaming for CHINAPLAS

Playback TECHHUB@CPRJ Live Streaming for CHINAPLAS

Events

Playback On April 14, the "6th Edition CHINAPLAS x CPRJ Plastics Recycling and Circular Economy Conference and Showcase" at the Crowne Plaza Shenzhen Nanshan is currently being livestreamed!

Playback 5th Edition CHINAPLAS x CPRJ Plastics Recycling and Circular Economy Conference and Showcase

Home > News > Recycling

Researchers build robotic disassembly system for battery recycling

Source:Adsale Plastics Network Date :2021-08-19 Editor :JK

Researchers at the Department of Energy’s Oak Ridge National Laboratory (ORNL) of the U.S. have developed a robotic disassembly system for spent electric vehicle battery packs to safely and efficiently recycle and reuse critical materials while reducing toxic waste.

 

According to Tim McIntyre, principal investigator in ORNL’s Electrification and Energy Infrastructures Division, only a small percentage of lithium-ion vehicle batteries are recycled today, and the majority of the processes used to do so are not automated.

 

Whether a recycler simply wants to get through the outer housing to access batteries and replace worn components, or completely recycle battery stacks for recovery of cobalt, lithium, metal foils and other materials, the first step is battery diagnostics for safe and efficient handling and disassembly.


“With our system, when the robot picks up the battery pack and puts it on the production line, it marks the last time a human will touch it until it’s in pieces and parts,” introduced Tim McIntyre.


1_web.jpg

Researchers at Oak Ridge National Laboratory developed a robotic disassembly system for used electric vehicle batteries.


Limiting human interaction is important for both safety and efficiency. The robots swiftly remove bolts and other housing regardless of any remaining charge, whereas human operators must undertake an exacting, lengthy process to discharge used batteries before breaking them down manually.

 

Automated disassembly reduces human exposure to toxic chemicals found inside the batteries and high power levels that are approaching the 900-volt level in some newer vehicles.

 

The automated system, developed as part of DOE’s Critical Materials Institute, or CMI, can be easily reconfigured to any type of battery stack. It can be programmed to access just the individual battery modules for refurbishment or reuse as stationary energy storage, or the batteries can be taken apart down to the cell level for separation and materials recovery.

 

The work builds on expertise developed in previous ORNL projects for the CMI that focused on robotic disassembly of hard drives for recovery of rare-earth magnets. Engineers also proved that those magnets can be directly reused in electric motors.


2_web.jpg

The newly developed line aims to make battery recycling safer, faster.


“Automatic disassembly of components containing critical materials not only eliminates labor-intensive manual disassembly, but provides for an efficient process to separate the components into higher value streams where the critical materials are concentrated into individual feedstocks for recycle processing,” said CMI Director Tom Lograsso.

 

The researchers follow the same protocol each time: breaking down the used component manually and collecting data on that process to create the robotic tools and controls needed to drive an automated system, stated Jonathan Harter, ORNL project team member.

 

“Industry is not limited on the amount of batteries they can take into this process. There is a significant backlog already accumulated. The limiting factor is the time it takes to perform the electrical discharge and perform disassembly manually,” said Jonathan Harter. He estimated that in the time it takes in some processes to disassemble 12 battery stacks by hand, the automated system could handle 100 or more.

 

The next step could be building the process up to commercial scale, and the team also sees opportunities to apply the same kind of disassembly system to electric vehicle drive trains for recovery of materials such as rare earth magnets, copper, steel and intact power electronics.

 

To make recycling more economically feasible, it must be done at high throughput and be flexible enough to process multiple consumer products in a single facility, Jonathan Harter added.

 Like 丨  {{details_info.likes_count}}
Automotive
Recycling
 Tangshan Zhonghao Chemical Co., Ltd      
 SACMI (SHANGHAI) MACHINERY EQUIPMENT CO., LTD.      
 DONGGUAN DEHUA PRECISION MOLD CO., LTD      
 Guang Dong Veryone Technology Co.,Ltd.      
 JUHESHUN ADVANCED MATERIALS CO., LTD.      
 HEFEI TAIHE INTELLIGENT TECHNOLOGY GROUP CO.,LTD.      
 WINDORA MATERIALS LLC      
 GREENWICH (CHINA) TECHNOLOGY DEVELOPMENT LIMITED      
 NINGBO YUFINE PRECISION INDUSTRY CO., LTD.      
 GREENCORE RESOURCES LIMITED      
 LINKER NEW MATERIALS CO., LTD      
 SHANGHAI HAWKWAY PROCESS SOLUTIONS CO., LTD      
 GUANGXI HENGYI NEW MATERIALS CO., LTD.      
 Chongqing Woerfu Chemical 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.      
 MOTAN TAICANG CO., LTD.      
 SUZHOU UNIKING NEW MATERIAL CO., LTD      
 SUZHOU BECHTON PLASTIC MACHINERY CO., LTD      
 YUYAO KAWAGUCHI Manufacturing Co., Ltd.      
 Beijing Chemical Industry Group CO.,LTD      
 LINYI HUASU ELECTRONIC TECHNOLOGY CO., LTD.      
 ANHUI ZHONGXIN HONGWEI TECHNOLOGY CO.,LTD      
 SUZHOU GELEFU M&E TECHNOLOGY CO., LTD.      
 FUJIAN NAN'AN STAR RUBBER&PLASTIC MACHINERY CO., LTD.      
 GUANGDONG HTASO NEW MATERIALS TECHNOLOGY CO.,LTD      
 CHUZHOU SEP MATERIAL CO,LTD.      
 BRUECKNER MASCHINENBAU GMBH      
 ZHANGJIAGANG GREENLANDPLAST MACHINERY CO.,LTD      
 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

Source:Adsale Plastics Network Date :2021-08-19 Editor :JK

Researchers at the Department of Energy’s Oak Ridge National Laboratory (ORNL) of the U.S. have developed a robotic disassembly system for spent electric vehicle battery packs to safely and efficiently recycle and reuse critical materials while reducing toxic waste.

 

According to Tim McIntyre, principal investigator in ORNL’s Electrification and Energy Infrastructures Division, only a small percentage of lithium-ion vehicle batteries are recycled today, and the majority of the processes used to do so are not automated.

 

Whether a recycler simply wants to get through the outer housing to access batteries and replace worn components, or completely recycle battery stacks for recovery of cobalt, lithium, metal foils and other materials, the first step is battery diagnostics for safe and efficient handling and disassembly.


“With our system, when the robot picks up the battery pack and puts it on the production line, it marks the last time a human will touch it until it’s in pieces and parts,” introduced Tim McIntyre.


1_web.jpg

Researchers at Oak Ridge National Laboratory developed a robotic disassembly system for used electric vehicle batteries.


Limiting human interaction is important for both safety and efficiency. The robots swiftly remove bolts and other housing regardless of any remaining charge, whereas human operators must undertake an exacting, lengthy process to discharge used batteries before breaking them down manually.

 

Automated disassembly reduces human exposure to toxic chemicals found inside the batteries and high power levels that are approaching the 900-volt level in some newer vehicles.

 

The automated system, developed as part of DOE’s Critical Materials Institute, or CMI, can be easily reconfigured to any type of battery stack. It can be programmed to access just the individual battery modules for refurbishment or reuse as stationary energy storage, or the batteries can be taken apart down to the cell level for separation and materials recovery.

 

The work builds on expertise developed in previous ORNL projects for the CMI that focused on robotic disassembly of hard drives for recovery of rare-earth magnets. Engineers also proved that those magnets can be directly reused in electric motors.


2_web.jpg

The newly developed line aims to make battery recycling safer, faster.


“Automatic disassembly of components containing critical materials not only eliminates labor-intensive manual disassembly, but provides for an efficient process to separate the components into higher value streams where the critical materials are concentrated into individual feedstocks for recycle processing,” said CMI Director Tom Lograsso.

 

The researchers follow the same protocol each time: breaking down the used component manually and collecting data on that process to create the robotic tools and controls needed to drive an automated system, stated Jonathan Harter, ORNL project team member.

 

“Industry is not limited on the amount of batteries they can take into this process. There is a significant backlog already accumulated. The limiting factor is the time it takes to perform the electrical discharge and perform disassembly manually,” said Jonathan Harter. He estimated that in the time it takes in some processes to disassemble 12 battery stacks by hand, the automated system could handle 100 or more.

 

The next step could be building the process up to commercial scale, and the team also sees opportunities to apply the same kind of disassembly system to electric vehicle drive trains for recovery of materials such as rare earth magnets, copper, steel and intact power electronics.

 

To make recycling more economically feasible, it must be done at high throughput and be flexible enough to process multiple consumer products in a single facility, Jonathan Harter added.

全文内容需要订阅后才能阅读哦~
立即订阅

Recommended Articles

Recycling
WEIMA shredding technology turns 3D printing waste into new printing material
 2026-02-26
Recycling
POSSIBLE project for mechanically recycling rigid PU and GFRP composites
 2026-02-16
Recycling
Borealis and partners to build first fully integrated waste management ecosystem in Indonesia
 2026-02-13
Recycling
EREMA and Lindner Washtech establish subsidiary in India
 2026-02-10
Recycling
True circularity of PET packaging: Sorting food-grade PET or not with Sesotec smart sorting systems
 2026-02-05
Recycling
BoReTech opens subsidiary to tap into Indian recycling market
 2026-02-04

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

Researchers build robotic disassembly system for battery recycling

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