Integration of Electrode Markings into the Manufacturing Process of Lithium-Ion Battery Cells for Tracking and Tracing Applications

被引:4
|
作者
Sommer, Alessandro [1 ]
Leeb, Matthias [1 ]
Weishaeupl, Lukas [1 ]
Daub, Ruediger [1 ]
机构
[1] Tech Univ Munich, Inst Machine Tools & Ind Management iwb, TUM Sch Engn & Design, Boltzmannstr 15, D-85748 Garching, Germany
来源
BATTERIES-BASEL | 2023年 / 9卷 / 02期
关键词
tracking and tracing; battery cell production; marking integration; laser marking; ink marking;
D O I
10.3390/batteries9020089
中图分类号
O646 [电化学、电解、磁化学];
学科分类号
081704 ;
摘要
One of the major challenges of battery cell manufacturing is the reduction of production costs. Production defects and manufacturing inaccuracies, combined with high value streams, cause cost-intensive scrap rates. Conventional batch tracing is insufficient to detect rejects at an early stage, since the quality-critical intermediate products are not considered in a differentiated manner. To address this deficiency, tracking and tracing approaches in battery cell production are becoming increasingly popular. To obtain sufficient resolutions of the production data, the allocation of process and product data must be performed at the electrode sheet level. An interface is required for this, which can be realized by marking the individual electrodes. This paper investigates the integration of two well-known marking technologies: laser and ink marking. Integrating these marking technologies requires the consideration of physical boundary conditions in the process chain. For this purpose, the necessary investigations are presented in a structured manner to ensure that the marking does not have a negative influence on the process chain and vice versa. A pilot production line is used as an example to demonstrate the necessary tests for the integration of laser or ink markings.
引用
收藏
页数:16
相关论文
共 50 条
  • [21] Tailored Digitalization in Electrode Manufacturing: The Backbone of Smart Lithium-Ion Battery Cell Production
    Haghi, Sajedeh
    Summer, Armin
    Bauerschmidt, Philipp
    Daub, Ruediger
    ENERGY TECHNOLOGY, 2022, 10 (10)
  • [22] In Situ Ultrasound Acoustic Measurement of the Lithium-Ion Battery Electrode Drying Process
    Zhang, Ye Shui
    Radhakrishnan, Anand Narayanan Pallipurath
    Robinson, James B.
    Owen, Rhodri E.
    Tranter, Thomas G.
    Kendrick, Emma
    Shearing, Paul R.
    Brett, Dan J. L.
    ACS APPLIED MATERIALS & INTERFACES, 2021, 13 (30) : 36605 - 36620
  • [23] Mechanics and deformation behavior of lithium-ion battery electrode during calendering process
    Wang, Dongcheng
    Wang, Guodong
    Xu, Chengjie
    Liu, Hongmin
    JOURNAL OF ENERGY STORAGE, 2024, 87
  • [24] Enhanced lithium-ion transport in organosilyl electrolytes for lithium-ion battery applications
    Lyons, Leslie J.
    Beecher, Scott
    Cunningham, Evan
    Derrah, Tom
    Su, Shengyi
    Zhu, Junmian
    Usrey, Monica
    Pena-Hueso, Adrian
    Johnson, Tobias
    West, Robert
    MRS COMMUNICATIONS, 2019, 9 (03) : 985 - 991
  • [25] Enhanced lithium-ion transport in organosilyl electrolytes for lithium-ion battery applications
    Leslie J. Lyons
    Scott Beecher
    Evan Cunningham
    Tom Derrah
    Shengyi Su
    Junmian Zhu
    Monica Usrey
    Adrián Peña-Hueso
    Tobias Johnson
    Robert West
    MRS Communications, 2019, 9 : 985 - 991
  • [26] An integrated simulation and experimental study of calendering process in water-based manufacturing of lithium-ion battery graphite electrode
    Wang, Yu
    Su, Boman
    Yuan, Chris
    JOURNAL OF MANUFACTURING PROCESSES, 2024, 131 : 861 - 865
  • [27] Microstructure evolutions in lithium ion battery electrode manufacturing
    Li, Maoyuan
    Zhang, Yun
    Wang, Zhengtang
    Tan, Penghui
    Liu, Xingpeng
    Zhang, Daoqi
    Li, Guang
    Xie, Jingying
    Zhou, Huamin
    CHINESE SCIENCE BULLETIN-CHINESE, 2022, 67 (11): : 1088 - 1102
  • [28] Virtual Electrode Design for Lithium-Ion Battery Cathodes
    Joos, Jochen
    Buchele, Alexander
    Schmidt, Adrian
    Weber, Andre
    Ivers-Tiffee, Ellen
    ENERGY TECHNOLOGY, 2021, 9 (06)
  • [29] Economic analysis of CNT lithium-ion battery manufacturing
    Hakimian, A.
    Kamarthi, S.
    Erbis, S.
    Abraham, K. M.
    Cullinane, T. P.
    Isaacs, J. A.
    ENVIRONMENTAL SCIENCE-NANO, 2015, 2 (05) : 463 - 476
  • [30] Restructuring the lithium-ion battery: A perspective on electrode architectures
    Lauro, Samantha N.
    Burrow, James N.
    Mullins, Buddie
    ESCIENCE, 2023, 3 (04):