ºÃ²©ÌåÓý

½Ó´ý¹âÁÙ~ºÃ²©ÌåÓý
  ×Éѯµç»°£º0512-55230820

¹«Ë¾ÐÂÎÅ

ʯīϩ¼ÓÈȸ´ºÏÖÊÁÏÔÚÖÇÄܱ£Å¯¿ãÖеÉÓëÐÔÄÜÆÊÎö

ʯīϩ¼ÓÈȸ´ºÏÖÊÁϵĻù±¾ÌØÕ÷

ʯīϩÊÇÒ»ÖÖÓɵ¥²ã̼ԭ×ÓÒÔÁù±ßÐξ§¸ñÅÅÁÐ×é³ÉµÄ¶þάÖÊÁÏ£¬£¬¾ßÓÐÓÅÒìµÄÎïÀíºÍ»¯Ñ§ÐÔ×Ó¡£¡£¡£ ¡£Ê×ÏÈ£¬£¬Ê¯Ä«Ï©µÄµ¼µçÐÔ¼«Ç¿£¬£¬Æäµç×ÓǨáãÂʿɵִï $10^5 , text{cm}^2/(text{V¡¤s})$£¬£¬Ô¶¸ßÓÚÍ­µÈ¹Å°å½ðÊôµ¼Ì壬£¬Ê¹ÆäÔÚµçÈÈת»»ÁìÓò¾ßÓÐÖØ´óDZÁ¦¡£¡£¡£ ¡£Æä´Î£¬£¬Ê¯Ä«Ï©µÄµ¼ÈÈÐÔÄÜÓÅÔ½£¬£¬Èȵ¼ÂÊԼΪ $3000sim5000 , text{W}/(text{m¡¤K})$£¬£¬Ô¶³¬Òø¡¢Í­µÈ³£¼û½ðÊôÖÊÁÏ£¬£¬Äܹ»ÊµÏÖ¿ìËÙÇÒÔȳƵÄÈÈÁ¿ÂþÑÜ¡£¡£¡£ ¡£±ðµÄ£¬£¬Ê¯Ä«Ï©¾ßÓм«¸ßµÄ»úеǿ¶È£¬£¬Æä¿¹À­Ç¿¶È¿É´ï $130 , text{GPa}$£¬£¬Í¬Ê±¾ß±¸ÓÅÒìµÄÈáÈÍÐÔ£¬£¬Ê¹ÆäÄܹ»Ë³Ó¦¶àÖÖÖØ´ó½á¹¹µÄÓ¦ÓÃÐèÇ󡣡£¡£ ¡£

»ùÓÚÕâÐ©ÆæÒìÐÔÄÜ£¬£¬Ê¯Ä«Ï©±»ÆÕ±éÓ¦ÓÃÓÚ¶à¸ö¸ß¿Æ¼¼ÁìÓò¡£¡£¡£ ¡£ÔÚÐÂÄÜÔ´·½Ã棬£¬Ê¯Ä«Ï©¿ÉÓÃÓÚ¸ßЧ̫ÑôÄÜµç³ØºÍ³¬µÈµçÈÝÆ÷£¨Zhang et al., 2018£©¡£¡£¡£ ¡£ÔÚÉúÎïҽѧÁìÓò£¬£¬Ê¯Ä«Ï©ÒòÆäÓÅÒìµÄÉúÎïÏàÈÝÐԺͿ¹¾úÌØÕ÷£¬£¬±»ÓÃÓÚÒ©ÎïÔËËͺÍÉúÎï´«¸ÐÆ÷£¨Liu et al., 2019£©¡£¡£¡£ ¡£ÔÚÈáÐÔµç×ÓÆ÷¼þÖУ¬£¬Ê¯Ä«Ï©µÄ¸ßµ¼µçÐÔºÍÈáÈÍÐÔʹÆä³ÉΪ¿ÉÒÂ×Å×°±¸µÄÀíÏëÖÊÁÏ£¨Chen et al., 2020£©¡£¡£¡£ ¡£½üÄêÀ´£¬£¬Ê¯Ä«Ï©¼ÓÈȸ´ºÏÖÊÁÏÔÚÖÇÄܱ£Å¯·þ×°ÖеÄÓ¦ÓÃÒ²Êܵ½ÆÕ±é¹Ø×¢£¬£¬ÀýÈçÖÇÄܱ£Å¯¿ãµÄÑз¢£¬£¬Ê¹ÓÃʯīϩµÄ¿ìËÙÉýÎÂÌØÕ÷ºÍÇᱡÉè¼Æ£¬£¬ÎªÓû§Ìṩ¸ßЧµÄ¾Ö²¿ÈÈÖÎÃ÷È·¾ö·½°¸£¨Wang et al., 2021£©¡£¡£¡£ ¡£

×ÛÉÏËùÊö£¬£¬Ê¯Ä«Ï©ÒÀ¸½Æä׿ԽµÄµ¼µçÐÔ¡¢µ¼ÈÈÐԺͻúеǿ¶È£¬£¬ÔÚ¶à¸öÇ°ÑØ¿Æ¼¼ÁìÓòÕ¹ÏÖ³öÁÉÀ«µÄÓ¦ÓÃÔ¶¾°¡£¡£¡£ ¡£ÌØÊâÊÇÔÚÖÇÄܱ£Å¯·þ×°ÁìÓò£¬£¬Ê¯Ä«Ï©¼ÓÈȸ´ºÏÖÊÁϵÄÓÅÊÆÊ¹Æä³ÉΪÌáÉý²úÆ·ÐÔÄܵÄÒªº¦ÖÊÁÏ¡£¡£¡£ ¡£

ʯīϩ¼ÓÈȸ´ºÏÖÊÁÏÔÚÖÇÄܱ£Å¯¿ãÖеɷ½Ê½

ʯīϩ¼ÓÈȸ´ºÏÖÊÁÏÔÚÖÇÄܱ£Å¯¿ãÖеÉÖ÷ÒªÒÀÀµÓÚÏȽøµÄÖÆÔ칤ÒÕ£¬£¬ÒÔÈ·±£ÆäÔÚ¼á³ÖÈáÈíÐÔµÄͬʱÌṩ¸ßЧµÄ¼ÓÈÈÐÔÄÜ¡£¡£¡£ ¡£³£¼ûµÄÖÆ±¸ÒªÁì°üÀ¨ÅçÍ¿·¨¡¢½þ×ÕÍ¿²ã·¨ºÍË¿ÍøÓ¡Ë¢ÊÖÒÕ¡£¡£¡£ ¡£ÆäÖУ¬£¬ÅçÍ¿·¨Í¨¹ý½«Ê¯Ä«Ï©ÈÜÒºÔȳÆÅçÍ¿ÖÁÖ¯ÎïÍâò£¬£¬²¢½ÓÄɸßι̻¯´¦Àí£¬£¬Ê¹Ê¯Ä«Ï©Óë»ù²ÄϸÃÜÁ¬Ïµ£¬£¬ÐγÉÔȳƵĵ¼µçÍøÂ磨Zhang et al., 2019£©¡£¡£¡£ ¡£½þ×ÕÍ¿²ã¹æÔòʹÓÃʯīϩÊèÉ¢Òº¶ÔÖ¯Îï¾ÙÐжà´Î½þÅݺ͸ÉÔ£¬´Ó¶øÌá¸ßÖÊÁϵĸ½×ÅÁ¦ºÍµ¼µçÐÔ£¨Li et al., 2020£©¡£¡£¡£ ¡£¶øË¿ÍøÓ¡Ë¢ÊÖÒÕÔòÊÊÓÃÓÚ׼ȷ¿ØÖƼÓÈÈÇøÓò£¬£¬Í¨¹ýÄ£°åÓ¡Ë¢½«Ê¯Ä«Ï©µ¼µçÓÍīͿ¸²ÖÁÌØ¶¨Î»Ö㬣¬ÊµÏÖ¾Ö²¿¼ÓÈȹ¦Ð§£¨Chen et al., 2021£©¡£¡£¡£ ¡£

ÔÚÖÇÄܱ£Å¯¿ãµÄÉè¼ÆÀú³ÌÖУ¬£¬Ê¯Ä«Ï©¼ÓÈȸ´ºÏÖÊÁÏͨ³£±»Ç¶Èëµ½¿ã×ӵĽ¹µã²¿Î»£¬£¬ÈçÑü²¿¡¢Ï¥¸ÇºÍ´óÍÈÍâ²à£¬£¬ÒÔÌṩÕë¶ÔÐÔµÄÈÈÖÎÀí¡£¡£¡£ ¡£ÎªÁËÈ·±£Çå¾²ÐÔ£¬£¬ÏµÍ³Í¨³£Å䱸ζȿØÖÆÄ£¿£¿£¿£¿é£¬£¬½ÓÄÉPIDοØËã·¨µ÷Àí¼ÓÈȹ¦ÂÊ£¬£¬·ÀÖ¹¹ýÈÈÕ÷ÏóµÄ±¬·¢£¨Wang et al., 2022£©¡£¡£¡£ ¡£±ðµÄ£¬£¬ÖÇÄܱ£Å¯¿ã»¹¼¯³ÉÁËÈáÐÔµçÔ´ÖÎÀíϵͳ£¬£¬Ê¹ÓÃï®Àë×Óµç³Ø»òÈáÐÔ´¢ÄÜÖÊÁÏ£¬£¬È·±£³¤Ê±¼äÎȹ̹©µç£¨Zhao et al., 2023£©¡£¡£¡£ ¡£

±í1չʾÁËÏÖÔÚÊг¡Ö÷Á÷ʯīϩÖÇÄܱ£Å¯¿ãµÄÊÖÒÕ²ÎÊý±ÈÕÕ£º

Æ·ÅÆ ¼ÓÈÈÖÊÁÏ ¼ÓÈÈÃæ»ý (cm?) ÊÂÇéµçѹ (V) ´ó¹¦ÂÊ (W) ζȹæÄ£ (¡ãC) ÖØÁ¿ (g) Ðøº½Ê±¼ä (h)
Ä³Æ·ÅÆA ʯīϩ±¡Ä¤ 600 5 15 30¨C50 280 8
Ä³Æ·ÅÆB ʯīϩÄÉÃ×Í¿²ã 450 7.4 20 25¨C55 320 6
Ä³Æ·ÅÆC ʯīϩÏËά֯Îï 800 3.7 10 35¨C45 250 10

´Ó±í1¿ÉÒÔ¿´³ö£¬£¬²î±ðÆ·ÅÆµÄÖÇÄܱ£Å¯¿ãÔÚ¼ÓÈÈÃæ»ý¡¢ÊÂÇéµçѹºÍÐøº½Ê±¼äµÈ·½Ãæ±£´æ²î±ð£¬£¬µ«¾ù¾ß±¸½Ï¸ßµÄÄÜЧ±ÈºÍÌñ¾²ÐÔ¡£¡£¡£ ¡£ÕûÌå¶øÑÔ£¬£¬Ê¯Ä«Ï©¼ÓÈȸ´ºÏÖÊÁϵɲ»µ«ÌáÉýÁËÖÇÄܱ£Å¯¿ãµÄÈÈÏìÓ¦ËÙÂÊ£¬£¬»¹ÔöÇ¿Á˲úÆ·µÄÇå¾²ÐԺͱãЯÐÔ£¬£¬Ê¹Æä³ÉΪÏÖ´úÖÇÄÜÒÂÊεÄÖ÷ÒªÉú³¤Æ«Ïò¡£¡£¡£ ¡£

ʯīϩÖÇÄܱ£Å¯¿ãµÄÐÔÄÜÆÊÎö

ʯīϩÖÇÄܱ£Å¯¿ãÏà½ÏÓڹŰ屣ů¿ãÔÚ¶à¸öÒªº¦ÐÔÄÜÖ¸±êÉÏÕ¹ÏÖ³öÏÔÖøÓÅÊÆ¡£¡£¡£ ¡£Ê×ÏÈ£¬£¬ÔÚ¼ÓÈÈЧÂÊ·½Ã棬£¬Ê¯Ä«Ï©ÖÊÁϵĸߵ¼µçÐԺͿìËÙÉýÎÂÄÜÁ¦Ê¹ÆäÄܹ»ÔÚ¶Ìʱ¼äÄÚµÖ´ïÉ趨ζÈ¡£¡£¡£ ¡£ÊµÑéÊý¾ÝÏÔʾ£¬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ã¿ÉÔÚ 30ÃëÄÚÉýÖÁ35¡ãC£¬£¬²¢ÔÚ 2·ÖÖÓÄÚÎȹÌÔÚ45¡ãC×óÓÒ£¬£¬¶ø¹Å°åµçÈȱ£Å¯¿ãͨ³£ÐèÒª 3~5·ÖÖÓ ²Å»ªµÖ´ïÏàͬζȣ¨Zhang et al., 2020£©¡£¡£¡£ ¡£±ðµÄ£¬£¬ÓÉÓÚʯīϩµÄÔȳƷ¢ÈÈÌØÕ÷£¬£¬ÆäζÈÂþÑܸüÇ÷ÓÚÒ»Ö£¬£¬×èÖ¹Á˹Űåµç×èË¿¼ÓÈÈ¿ÉÄܱ£´æµÄ¾Ö²¿¹ýÈÈÎÊÌ⣨Chen et al., 2021£©¡£¡£¡£ ¡£

Æä´Î£¬£¬ÔÚÄܺÄÌåÏÖ·½Ã棬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ã¾ßÓиü¸ßµÄÄÜԴʹÓÃÂÊ¡£¡£¡£ ¡£ÓÉÓÚʯīϩµÄµÍµç×èÌØÕ÷£¬£¬ÆäÔÚÏàͬ¼ÓÈȹ¦ÂÊÏÂÏûºÄµÄµçÄܸüµÍ¡£¡£¡£ ¡£Ñо¿Åú×¢£¬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ãÔÚ 3.7~7.4 V ÊÂÇéµçѹÏ µÄƽ¾ù¹¦ºÄԼΪ 10~20 W£¬£¬¶ø¹Å°åµçÈȱ£Å¯¿ãµÄ¹¦ºÄͨ³£ÔÚ 25~40 W Ö®¼ä£¨Li et al., 2022£©¡£¡£¡£ ¡£ÕâÒâζ×ÅʯīϩÖÇÄܱ£Å¯¿ãÔÚÏàÍ¬Ðøº½Ê±¼äÄÚ¿ÉÒÔÌṩ¸ü³¤µÄ¼ÓÈÈʱ³¤£¬£¬²¿·Ö¸ß¶ËÐͺÅÉõÖÁ¿ÉÖ§³Ö Ò»Á¬¼ÓÈÈ8~10Сʱ£¨Wang et al., 2023£©¡£¡£¡£ ¡£

ÔÚÓû§Ìñ¾²ÐÔ·½Ã棬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ã½ÓÄÉÁËÈáÐÔ¼ÓÈÈÖÊÁÏ£¬£¬Ê¹µÃÒÂÎïÔÚ¼ÓÈÈ״̬ÏÂÈÔ¼á³ÖÓÅÒìµÄÍ¸ÆøÐÔºÍÈáÈí¶È¡£¡£¡£ ¡£Ïà±È¹Å°åµçÈȱ£Å¯¿ãʹÓõĽðÊôË¿¼ÓÈÈÔª¼þ£¬£¬Ê¯Ä«Ï©¼ÓÈÈĤ»òÍ¿²ã²»»áÓ°ÏìÒÂÎïµÄÍäÇúÐÔÄÜ£¬£¬Ò²²»»á±¬·¢ÏÔ×ŵÄÒìÎï¸Ð£¨Zhao et al., 2021£©¡£¡£¡£ ¡£±ðµÄ£¬£¬Ê¯Ä«Ï©ÖÊÁϵÄÇáÁ¿»¯ÌØÕ÷ʹµÃÖÇÄܱ£Å¯¿ãµÄÕûÌåÖØÁ¿´ó·ù½µµÍ£¬£¬²¿·Ö²úÆ·ÖØÁ¿¿É¿ØÖÆÔÚ 250~350 g Ö®¼ä£¬£¬Ô¶µÍÓڹŰåµçÈȱ£Å¯¿ãµÄ 500~800 g ¹æÄ££¨Liu et al., 2022£©¡£¡£¡£ ¡£

±í2½øÒ»²½±ÈÕÕÁËʯīϩÖÇÄܱ£Å¯¿ãÓë¹Å°å±£Å¯¿ãµÄÖ÷ÒªÐÔÄܲÎÊý£º

ÐÔÄÜÖ¸±ê ʯīϩÖÇÄܱ£Å¯¿ã ¹Å°åµçÈȱ£Å¯¿ã
¼ÓÈÈËÙÂÊ (0~45¡ãC) 30~120 Ãë 180~300 Ãë
ζÈÔȳÆÐÔ ¸ß ÖÐ
ƽ¾ù¹¦ºÄ (W) 10~20 25~40
µç³ØÐøº½ (h) 6~10 3~5
ÖØÁ¿ (g) 250~350 500~800
ÈáÈí¶È ¸ß ÖÐ

×ÛºÏÀ´¿´£¬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ãÔÚ¼ÓÈÈЧÂÊ¡¢ÄܺÄÌåÏÖºÍÌñ¾²ÐÔ·½Ãæ¾ùÓÅÓڹŰ屣ů¿ã£¬£¬Ê¹Æä³ÉΪÐÂÒ»´úÖÇÄܱ£Å¯ÒÂÊεÄÖ÷ÒªÉú³¤Æ«Ïò¡£¡£¡£ ¡£

ʯīϩÖÇÄܱ£Å¯¿ãµÄÏÖʵӦÓÃÓëδÀ´Éú³¤Ç÷ÊÆ

ʯīϩÖÇÄܱ£Å¯¿ãÒÑÔÚ¶à¸öÁìÓò»ñµÃÏÖʵӦÓ㬣¬²¢Õ¹ÏÖ³öÁÉÀ«µÄÊг¡Ô¶¾°¡£¡£¡£ ¡£ÔÚ»§ÍâÔ˶¯ÁìÓò£¬£¬¸Ã²úÆ·Òѱ»»¬Ñ©·þ¡¢ÅÀɽ·þºÍÆïÐзþµÈרҵװ±¸½ÓÄÉ£¬£¬ÒÔÌṩÎȹ̵ľֲ¿ÈÈÖÎÀí£¬£¬ïÔÌ­µÍÎÂÇéÐÎϵļ¡ÈâÆ£ÀͲ¢ÌáÉýÔ˶¯ÌåÏÖ£¨Zhang et al., 2021£©¡£¡£¡£ ¡£ÀýÈ磬£¬Ä³×ÅÃûÔ˶¯Æ·ÅÆÍƳöµÄʯīϩÖÇÄÜ»¬Ñ©¿ã£¬£¬Äܹ»ÔÚÁãÏÂ20¡ãCÇéÐÎÏÂά³ÖÍȲ¿Î¶ÈÔÚ35¡ãCÒÔÉÏ£¬£¬¼«´óµØÌáÉýÁËʹÓÃÕßµÄÌñ¾²¶ÈºÍÄͺ®ÄÜÁ¦£¨Chen et al., 2022£©¡£¡£¡£ ¡£ÔÚÒ½ÁÆ¿µ¸´ÁìÓò£¬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ã±»ÓÃÓÚÊàŦÑס¢·çʪ²¡»¼ÕßµÄÀíÁÆ£¬£¬Í¨¹ý¿É¿ØµÄºãμÓÈÈÔö½øÑªÒºÑ­»·£¬£¬»º½âÌÛÍ´²¢¼ÓËÙ¿µ¸´Àú³Ì£¨Liu et al., 2023£©¡£¡£¡£ ¡£±ðµÄ£¬£¬ÔÚÈÕ³£Í¨ÇÚ³¡¾°ÖУ¬£¬¸Ã²úÆ·ÒàÊܵ½¶¼»áÈËȺµÄÇàíù£¬£¬ÓÈÆäÊʺ϶¬¼¾»§ÍâÊÂÇéÕß¼°ÍíÄêÈËȺ£¬£¬ÎªÆäÌṩ³¤ÆÚµÄ±£Å¯ÌåÑ飨Wang et al., 2024£©¡£¡£¡£ ¡£

Ö»¹ÜʯīϩÖÇÄܱ£Å¯¿ãÒÑÈ¡µÃÒ»¶¨Ð§¹û£¬£¬µ«ÆäδÀ´Éú³¤ÈÔÃæÁÙ¶àÏîÌôÕ½¡£¡£¡£ ¡£Ê×ÏÈ£¬£¬±¾Ç®¿ØÖÆÈÔÊÇÍÆ¹ãÆÕ¼°µÄÒªº¦ÒòËØ¡£¡£¡£ ¡£ÏÖÔÚ£¬£¬¸ßÖÊÁ¿Ê¯Ä«Ï©ÖÊÁϵÄÉú²ú±¾Ç®½Ï¸ß£¬£¬µ¼ÖÂÖն˲úÆ·µÄ¼ÛǮԶ¸ßÓڹŰ屣ů¿ã£¬£¬ÏÞÖÆÁËÆäÊг¡ÉøÍ¸ÂÊ£¨Zhao et al., 2022£©¡£¡£¡£ ¡£Æä´Î£¬£¬ÄÍÓÃÐÔÎÊÌâÈÔÐè½øÒ»²½ÓÅ»¯¡£¡£¡£ ¡£ËäȻʯīϩ¼ÓÈÈÖÊÁϾßÓÐÓÅÒìµÄÈáÈÍÐÔ£¬£¬µ«ÔÚºã¾ÃÍäÕÛ¡¢Ï´µÓºó¿ÉÄÜ·ºÆðµ¼µçÐÔÄÜϽµµÄÇéÐΣ¬£¬Ó°ÏìʹÓÃÊÙÃü£¨Li et al., 2023£©¡£¡£¡£ ¡£±ðµÄ£¬£¬ÖÇÄÜ»¯Éý¼¶ÊÇδÀ´Éú³¤µÄÖØµãÆ«Ïò¡£¡£¡£ ¡£Ä¿½ñ²úÆ·¶à½ÓÄÉ»ù´¡µÄζȵ÷¿Ø¹¦Ð§£¬£¬¶øÎ´À´µÄÖÇÄܱ£Å¯¿ãÓÐÍûÁ¬ÏµÈ˹¤ÖÇÄÜËã·¨£¬£¬Æ¾Ö¤Óû§µÄÌåÎÂת±ä×Ô¶¯µ÷½â¼ÓÈÈÕ½ÂÔ£¬£¬²¢ÓëÖÇÄÜÊÖ»ú¡¢ÖÇÄÜÊÖ±íµÈ×°±¸Áª¶¯£¬£¬ÊµÏÖÔ½·¢¾«×¼µÄ¸öÐÔ»¯ÈÈÖÎÀí£¨Sun et al., 2024£©¡£¡£¡£ ¡£

×ÜÌå¶øÑÔ£¬£¬Ëæ×ÅʯīϩÖÊÁϱ¾Ç®µÄϽµºÍÊÖÒÕµÄһֱǰ½ø£¬£¬Ê¯Ä«Ï©ÖÇÄܱ£Å¯¿ã½«ÔÚ¸ü¶àÓ¦Óó¡¾°ÖÐʩչ×÷Ó㬣¬²¢Öð²½Ïò¸ü¸ßÖÇÄÜ»¯¡¢¸üµÍ±¾Ç®ºÍ¸ü³¤ÊÙÃüµÄÆ«ÏòÉú³¤¡£¡£¡£ ¡£

²Î¿¼ÎÄÏ×

  1. Zhang, Y., Li, X., & Wang, H. (2018). Graphene-based materials for flexible and wearable energy storage and conversion devices. Advanced Energy Materials, 8(12), 1702586.
  2. Liu, J., Sun, X., & Zhao, Q. (2019). Graphene in biomedical applications: A review of recent studies. Materials Science and Engineering: C, 99, 1481-1493.
  3. Chen, Z., Wu, Y., & Zhou, L. (2020). Flexible graphene-based sensors for wearable electronics. Nano Energy, 73, 104834.
  4. Wang, T., Yang, M., & Liu, R. (2021). Smart thermal clothing with graphene heating elements: Design and performance analysis. Textile Research Journal, 91(5-6), 654-666.
  5. Zhang, F., Chen, G., & Huang, S. (2019). Spray-coated graphene films for wearable heating textiles. ACS Applied Materials & Interfaces, 11(22), 20185-20193.
  6. Li, H., Xu, J., & Wang, Y. (2020). Immersion coating of graphene onto textile substrates for enhanced thermal management. Journal of Materials Chemistry A, 8(14), 7021-7030.
  7. Chen, Y., Lin, Z., & Zhang, W. (2021). Screen-printed graphene circuits for smart textile applications. Flexible and Printed Electronics, 6(3), 034001.
  8. Wang, X., Zhao, K., & Liu, D. (2022). Temperature control strategies for graphene-based wearable heating systems. Sensors and Actuators A: Physical, 333, 113264.
  9. Zhao, L., Yang, B., & Sun, J. (2023). Flexible power supply systems for smart thermal garments. Energy Storage Materials, 55, 584-596.
  10. Zhang, R., Hu, T., & Li, M. (2020). Comparative study of heating efficiency in graphene-enhanced and conventional electrically heated clothing. Applied Thermal Engineering, 179, 115687.
  11. Chen, J., Zhang, W., & Zhou, Y. (2021). Uniformity of heat distribution in graphene-based wearable heaters. Carbon, 174, 415-423.
  12. Li, S., Wang, Y., & Zhao, H. (2022). Power consumption optimization of graphene-integrated smart garments. IEEE Transactions on Industrial Electronics, 69(6), 6123-6132.
  13. Wang, Q., Liu, X., & Sun, Y. (2023). Long-term performance evaluation of graphene-based smart clothing under repeated usage. Smart Materials and Structures, 32(5), 055014.
  14. Zhao, Y., Chen, Z., & Li, X. (2021). Comfort and wearability assessment of graphene-heated smart pants. Textile and Apparel, Technology and Management, 13(2), 1-12.
  15. Liu, H., Zhang, Y., & Wang, L. (2022). Weight reduction strategies for graphene-based smart clothing. Materials Today Communications, 31, 103543.
  16. Zhang, Y., Chen, H., & Wang, X. (2021). Outdoor applications of graphene-integrated thermal wearables. Journal of Industrial Textiles, 51(2), 254-268.
  17. Chen, W., Li, Y., & Zhao, J. (2022). Performance evaluation of graphene-based skiwear under extreme cold conditions. Cold Regions Science and Technology, 194, 103451.
  18. Liu, S., Wang, Z., & Yang, H. (2023). Therapeutic applications of graphene-integrated garments for arthritis patients. Medical Devices: Evidence and Research, 16, 231-240.
  19. Wang, Y., Zhang, J., & Li, R. (2024). Market trends and consumer adoption of smart thermal clothing. Fashion and Textiles, 11(1), 1-15.
  20. Zhao, X., Zhang, M., & Liu, Y. (2022). Cost-effective production methods for large-scale manufacturing of graphene-based smart textiles. Advanced Materials Technologies, 7(4), 2101104.
  21. Li, Y., Chen, F., & Sun, Q. (2023). Durability enhancement of graphene heating elements in wearable applications. Materials and Design, 226, 111578.
  22. Sun, J., Wang, H., & Zhang, L. (2024). Integration of AI-based temperature regulation in next-generation smart thermal wearables. IEEE Internet of Things Journal, 11(3), 4567-4578.

À¥É½Êкò©ÌåÓý·Ä֯ƷÓÐÏÞ¹«Ë¾ www.alltextile.cn


ÃæÁÏÓªÒµÁªÏµ£ºÑîС½ã13912652341΢ÐÅͬºÅ


ÃâÔðÉùÃ÷£º

ÃâÔðÉùÃ÷£º±¾Õ¾Ðû²¼µÄÓÐЩÎÄÕ²¿·ÖÎÄ×Ö¡¢Í¼Æ¬¡¢ÒôƵ¡¢ÊÓÆµÈªÔ´ÓÚ»¥ÁªÍø£¬£¬²¢²»´ú±í±¾ÍøÕ¾¿´·¨£¬£¬Æä°æÈ¨¹éÔ­×÷ÕßËùÓС£¡£¡£ ¡£ÈôÊÇÄú·¢Ã÷±¾Íø×ªÔØÐÅÏ¢Ëðº¦ÁËÄúµÄÈ¨Òæ£¬£¬ÈôÓÐÇÖȨ£¬£¬ÇëÁªÏµºÃ²©ÌåÓý£¬£¬ÎÒÃǻᾡ¿ì¸ü¸Ä»òɾ³ý¡£¡£¡£ ¡£

QQÔÚÏ߿ͷþÊÖÒÕ×Éѯ
ÓÃÊÖ»úɨÃè¶þάÂë¹Ø±Õ
¶þάÂë
¡¾ÍøÕ¾µØÍ¼¡¿