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Intercalation (chemistry)

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An extreme case of intercalation is the complete separation of the layers of the material. This process is called exfoliation. Typically aggressive conditions are required involving highly polar solvents and aggressive reagents.
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with graphitic carbon. The color is greyish, white, or yellow. The bond between the carbon and fluorine atoms is covalent, thus fluorine is not intercalated. Such materials have been considered as a
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By 2023, all commercial Li-ion cells use intercalation compounds as active materials, and most use them in both the cathode and anode within the battery physical structure.
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is the insertion of molecules between the bases of DNA. This process is used as a method for analyzing DNA and it is also the basis of certain kinds of poisoning.
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Treating graphite with strong acids in the presence of oxidizing agents causes the graphite to oxidise. Graphite bisulfate, , is prepared by this approach using
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are often molecules, whereas clathrates are typically polymeric. Intercalation compounds are not 3-dimensional, unlike clathrate compounds. According to
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that traps or contains molecules. Usually, clathrate compounds are polymeric and completely envelop the guest molecule.
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One of the largest and most diverse uses of the intercalation process by the early 2020s is in
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Wiberg, E.; Holleman, A.F.; Wiberg, N.; Eagleson, M.; Brewer, W.; Aylett, B.J. (2001).
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Nicolosi, V.; et al. (2013). "Liquid Exfoliation of Layered Materials".
195: 191: 138: 532: 468: 149:. The analogous graphite perchlorate can be made similarly by reaction with 841: 224: 146: 927: 677: 162: 142: 477: 662: 637: 234: 78:, which intercalates potassium as a guest. Intercalation expands the 27:
Reversible insertion of an ion into a material with layered structure
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W. Müller-Warmuth; R. Schöllhorn (6 December 2012).
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crystal swells, and charge transfers from Li to Ti.
58:Model of intercalation of potassium into graphite 972: 206:"for the development of lithium-ion batteries". 41:with layered structures. Examples are found in 398: 178:utility-scale battery electric storage stations 494:Ullmann's Encyclopedia of Industrial Chemistry 33:is the reversible inclusion or insertion of a 556: 492:Atwood, J. L. (2012). "Inclusion Compounds". 296: 265:: where a molecule is included into a lattice 420: 563: 549: 406:"Anode vs Cathode: What's the difference?" 476: 303:Stanley M Whittingham (2 December 2012). 90:. Two potassium graphite compounds are KC 955:Polyhedral skeletal electron pair theory 156: 120: 53: 14: 973: 491: 485: 125:Diagram of intercalation of Li into a 544: 434:from the original on 8 December 2019 218: 202:, and Yoshino were awarded the 2019 428:"The Nobel Prize in Chemistry 2019" 24: 570: 520:Compendium of Chemical Terminology 340:Progress in Intercalation Research 25: 992: 74:One famous intercalation host is 747: 741: 735: 106:F)) are prepared by reaction of 47:transition metal dichalcogenides 377:. Academic Press. p. 794. 269:Graphite intercalation compound 82:between sheets, which requires 508: 446: 364: 209: 166:electrochemical energy storage 98:. Carbon fluorides (e.g., (CF) 13: 1: 274:Intercalation (biochemistry) 129:cathode. One axis of the TiS 7: 256: 186:In 2012 three researchers, 69: 64: 10: 997: 653:Metal–ligand multiple bond 917: 894: 825: 787: 767: 756: 733: 716: 698: 589: 578: 981:Supramolecular chemistry 502:10.1002/14356007.a14_119 289: 204:Nobel Prize in Chemistry 533:10.1351/goldbook.C01097 496:. Weinheim: Wiley-VCH. 469:10.1126/science.1226419 306:INTERCALATION CHEMISTRY 284:Hydrogen embrittlement 134: 59: 157:Lithium-ion batteries 124: 57: 18:Exfoliation corrosion 643:Coordinate (dipolar) 430:. Nobel Foundation. 279:Stacking (chemistry) 817:C–H···O interaction 599:Electron deficiency 374:Inorganic Chemistry 247:Inclusion compounds 239:chemical substances 802:Resonance-assisted 263:Clathrate compound 135: 127:titanium disulfide 60: 968: 967: 919:Electron counting 890: 889: 779:London dispersion 731: 730: 708:Metal aromaticity 384:978-0-12-352651-9 350:978-94-011-0890-4 316:978-0-323-14040-9 219:Related materials 174:electric vehicles 116:lithium batteries 80:van der Waals gap 39:layered materials 16:(Redirected from 988: 960:Jemmis mno rules 812:Dihydrogen bonds 765: 764: 751: 745: 739: 673:Hyperconjugation 587: 586: 565: 558: 551: 542: 541: 535: 512: 506: 505: 489: 483: 482: 480: 450: 444: 443: 441: 439: 424: 418: 417: 415: 413: 402: 396: 395: 393: 391: 368: 362: 361: 359: 357: 334: 328: 327: 325: 323: 300: 241:consisting of a 170:mobility devices 21: 996: 995: 991: 990: 989: 987: 986: 985: 971: 970: 969: 964: 913: 886: 829: 821: 783: 770: 760: 752: 746: 740: 727: 712: 694: 582: 574: 569: 539: 538: 513: 509: 490: 486: 451: 447: 437: 435: 426: 425: 421: 411: 409: 404: 403: 399: 389: 387: 385: 369: 365: 355: 353: 351: 335: 331: 321: 319: 317: 301: 297: 292: 259: 221: 212: 159: 151:perchloric acid 132: 105: 101: 97: 93: 72: 67: 28: 23: 22: 15: 12: 11: 5: 994: 984: 983: 966: 965: 963: 962: 957: 952: 951: 950: 945: 940: 935: 924: 922: 915: 914: 912: 911: 906: 900: 898: 892: 891: 888: 887: 885: 884: 879: 874: 869: 864: 859: 849: 844: 839: 833: 831: 823: 822: 820: 819: 814: 809: 804: 799: 793: 791: 785: 784: 782: 781: 775: 773: 762: 758:Intermolecular 754: 753: 734: 732: 729: 728: 726: 725: 722: 720: 714: 713: 711: 710: 704: 702: 696: 695: 693: 692: 691: 690: 685: 675: 670: 665: 660: 655: 650: 645: 640: 635: 630: 629: 628: 618: 617: 616: 611: 606: 595: 593: 584: 580:Intramolecular 576: 575: 572:Chemical bonds 568: 567: 560: 553: 545: 537: 536: 507: 484: 445: 419: 397: 383: 363: 349: 329: 315: 294: 293: 291: 288: 287: 286: 281: 276: 271: 266: 258: 255: 220: 217: 211: 208: 158: 155: 130: 103: 99: 95: 91: 71: 68: 66: 63: 62: 61: 37:(or ion) into 26: 9: 6: 4: 3: 2: 993: 982: 979: 978: 976: 961: 958: 956: 953: 949: 946: 944: 941: 939: 936: 934: 933:Hückel's rule 931: 930: 929: 926: 925: 923: 920: 916: 910: 907: 905: 902: 901: 899: 897: 896:Bond cleavage 893: 883: 880: 878: 875: 873: 870: 868: 865: 863: 862:Intercalation 860: 857: 853: 852:Metallophilic 850: 848: 845: 843: 840: 838: 835: 834: 832: 828: 824: 818: 815: 813: 810: 808: 805: 803: 800: 798: 795: 794: 792: 790: 786: 780: 777: 776: 774: 772: 769:Van der Waals 766: 763: 759: 755: 750: 744: 738: 724: 723: 721: 719: 715: 709: 706: 705: 703: 701: 697: 689: 686: 684: 681: 680: 679: 676: 674: 671: 669: 666: 664: 661: 659: 656: 654: 651: 649: 646: 644: 641: 639: 636: 634: 631: 627: 624: 623: 622: 619: 615: 612: 610: 607: 605: 602: 601: 600: 597: 596: 594: 592: 588: 585: 581: 577: 573: 566: 561: 559: 554: 552: 547: 546: 543: 534: 530: 526: 522: 521: 516: 511: 503: 499: 495: 488: 479: 474: 470: 466: 462: 458: 457: 449: 433: 429: 423: 407: 401: 386: 380: 376: 375: 367: 352: 346: 342: 341: 333: 318: 312: 308: 307: 299: 295: 285: 282: 280: 277: 275: 272: 270: 267: 264: 261: 260: 254: 252: 248: 244: 240: 236: 232: 230: 229:intercalation 226: 216: 207: 205: 201: 197: 193: 189: 184: 181: 179: 175: 171: 167: 164: 154: 152: 148: 144: 141:and a little 140: 139:sulfuric acid 128: 123: 119: 117: 113: 109: 89: 85: 81: 77: 56: 52: 51: 50: 48: 44: 40: 36: 32: 31:Intercalation 19: 938:Baird's rule 861: 658:Charge-shift 621:Hypervalence 518: 510: 493: 487: 460: 454: 448: 436:. Retrieved 422: 410:. Retrieved 400: 388:. Retrieved 373: 366: 354:. Retrieved 339: 332: 320:. Retrieved 309:. Elsevier. 305: 298: 233: 225:biochemistry 222: 213: 185: 182: 160: 147:chromic acid 136: 73: 30: 29: 928:Aromaticity 904:Heterolysis 882:Salt bridge 827:Noncovalent 797:Low-barrier 678:Aromaticity 668:Conjugation 648:Pi backbond 210:Exfoliation 200:Whittingham 163:lithium-ion 143:nitric acid 114:in various 856:aurophilic 837:Mechanical 525:clathrates 478:2262/69769 408:. BioLogic 235:Clathrates 188:Goodenough 948:spherical 909:Homolysis 872:Cation–pi 847:Chalcogen 807:Symmetric 663:Hapticity 975:Category 877:Anion–pi 867:Stacking 789:Hydrogen 700:Metallic 591:Covalent 583:(strong) 463:(6139). 432:Archived 390:12 March 257:See also 108:fluorine 76:graphite 70:Graphite 65:Examples 43:graphite 35:molecule 842:Halogen 688:bicyclo 633:Agostic 456:Science 243:lattice 196:Yoshino 112:cathode 943:Möbius 771:forces 761:(weak) 438:4 June 412:25 May 381:  356:18 May 347:  322:18 May 313:  192:Yazami 176:, and 102:and (C 94:and KC 84:energy 921:rules 830:other 718:Ionic 626:3c–4e 614:8c–2e 609:4c–2e 604:3c–2e 515:IUPAC 290:Notes 251:IUPAC 88:redox 683:homo 638:Bent 440:2023 414:2023 392:2021 379:ISBN 358:2016 345:ISBN 324:2016 311:ISBN 237:are 194:and 45:and 529:doi 527:". 498:doi 473:hdl 465:doi 461:340 223:In 145:or 977:: 517:, 471:. 459:. 227:, 190:, 180:. 172:, 153:. 118:. 96:24 49:. 858:) 854:( 564:e 557:t 550:v 531:: 504:. 500:: 481:. 475:: 467:: 442:. 416:. 394:. 360:. 326:. 131:2 104:4 100:x 92:8 20:)

Index

Exfoliation corrosion
molecule
layered materials
graphite
transition metal dichalcogenides

graphite
van der Waals gap
energy
redox
fluorine
cathode
lithium batteries

titanium disulfide
sulfuric acid
nitric acid
chromic acid
perchloric acid
lithium-ion
electrochemical energy storage
mobility devices
electric vehicles
utility-scale battery electric storage stations
Goodenough
Yazami
Yoshino
Whittingham
Nobel Prize in Chemistry
biochemistry

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