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高 科等:复合铜集流体制造工艺及其支撑层改性方案综述                                         15


                  rior thermal stability and enhanced hardness[J]. Acta Mate-  [48]   TAMURA  S, KANAI  T.  Control  of  well-defined  crater
                  rialia,2015,98:17−28.                             structures on the surface of biaxially oriented polypropylene
              [37]   HU J Q,LI Y Z,LIAO S Y,et al. Ultralight and high ther-  film  by  adding  nucleators[J].  Journal  of  Applied  Polymer
                  mal conductive current collector derived from polyimide for  Science,2013,130(5):3555−3564.
                  advanced  LIBs[J].  ACS  Applied  Energy  Materials, 2021,  [49]   CHOI J Y,LEE D J,LEE Y M,et al. Silicon nanofibrils on
                  4(9):9721−9730.                                   a flexible current collector for bendable lithium-ion battery
              [38]   YE Y,CHOU L Y,LIU Y,et al. Ultralight and fire-extin-  anodes[J].  Advanced  Functional  Materials, 2013, 23(17):
                  guishing current collectors for high-energy and high-safety  2108−2114.
                  lithium-ion batteries[J]. Nature Energy,2020,5(10):786−  [50]   OUYANG Z,WANG S,WANG Y,et al. An ultralight com-
                  793.                                              posite  current  collector  enabling  high-energy-density  and
              [39]   PHAM M T M,DARST J J,WALKER W Q,et al. Preven-  high-rate  anode-free  lithium  metal  battery[J].  Advanced
                  tion of lithium-ion battery thermal runaway using polymer-  Materials,2024,36(33):2407648.
                  substrate  current  collectors[J].  Cell  Reports  Physical  Sci-  [51]   XUEYANG D,MINGYONG W,HAOTIAN S,et al. Com-
                  ence,2021,2(3):100360.                            posite copper foil current collectors with sandwich structure
              [40]   LI J,ADEWUYI K,LOTFI N,et al. A single particle model  for  high-energy  density  and  safe  lithium-ion  batteries[J].
                  with  chemical/mechanical  degradation  physics  for  lithium  Energy Storage Materials,2024,74:103936.
                  ion  battery  state  of  health  (SOH)  estimation[J].  Applied  [52]   AKDOGAN  E, SIRIN  H  T.  Plasma  surface  modification
                  Energy,2018,212:1178−1190.                        strategies for the preparation of antibacterial biomaterials:A
              [41]   NGUYEN C C,SONG S W. Interfacial structural stabiliza-  review of the recent literature[J]. Materials Science & Engi-
                  tion on amorphous silicon anode for improved cycling per-  neering C-Materials for Biological Applications,2021,131:
                  formance  in  lithium-ion  batteries[J].  Electrochimica  Acta,  112474.
                  2010,55(8):3026−3033.                         [53]   KWON O J,MYUNG S W,LEE C S,et al. Comparison of
              [42]   YAO W,ZHENG Z,ZHONG G,et al. Polyethylene tereph-  the surface characteristics of polypropylene films treated by
                  thalate-based cathode current collectors coated by ultrathin  ar and mixed gas (Ar/O 2 ) atmospheric pressure plasma[J].
                  aluminum metal layers for commercial lithium-ion batteries  Journal  of  Colloid  and  Interface  Science, 2006, 295(2):
                  with high security and long-term cycling stability[J]. Jour-  409−416.
                  nal of Alloys and Compounds,2023,941:168937.  [54]   CHYTROSZ-WROBEL P,GOLDA-CEPA M,STODOLAK-
              [43]   GOR G Y,CANNARELLA J,LENG C Z,et al. Swelling  ZYCH E,et al. Effect of oxygen plasma-treatment on sur-
                  and softening of lithium-ion battery separators in electrolyte  face  functional  groups, wettability, and  nanotopography
                  solvents[J]. Journal of Power Sources,2015,294:167−172.  features of medically relevant polymers with various crys-
              [44]   ADAMSON A,TUUL K,BOTTICHER T,et al. Improv-    tallinities[J]. Applied Surface Science Advances,2023,18:
                  ing lithium-ion cells by replacing polyethylene terephthala-  100497.
                  te jellyroll tape[J]. Nature Materials,2023,22(11):1380−  [55]   DUFOUR T. From basics to frontiers:A comprehensive re-
                  1386.                                             view  of  plasma-modified  and  plasma-synthesized  polymer
              [45]   BUECHELE S,ADAMSON A,ELDESOKY A,et al. Iden-   films[J]. Polymers(Basel),2023,15(17):3607.
                  tification  of  redox  shuttle  generated  in  LFP/graphite  and  [56]   SARANI A,NIKIFOROV A Y,DE GEYTER N,et al. Sur-
                  NMC811/graphite  cells[J].  Journal  of  the  Electrochemical  face  modification  of  polypropylene  with  an  atmospheric
                  Society,2023,170(1):010511.                       pressure plasma jet sustained in argon and an argon/water
              [46]   BOETTICHER  T, ADAMSON  A, BUECHELE  S, et  al.  vapour mixture[J]. Applied Surface Science,2011,257(20):
                  Understanding the self-discharge redox shuttle mechanism  8737−8741.
                  of  dimethyl  terephthalate  in  lithium-ion  batteries[J].  Jour-  [57]   YUN Y I,KIM K S,UHM S J,et al. Aging behavior of
                  nal of the Electrochemical Society,2023,170(6):60507.  oxygen plasma-treated polypropylene with different crysta-
              [47]   KIM D W,YOSHINO K. Morphological characteristics and  llinities[J].  Journal  of  Adhesion  Science  and  Technology,
                  electrical conduction in syndiotactic polypropylene[J]. Jour-  2004,18(11):1279−1291.
                  nal of Physics D-Applied Physics,2000,33(4):464−471.  [58]   NEMANI S K,ANNAVARAPU R K,MOHAMMADIAN B,
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