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Dynamic scaling

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generally changes over time. The question is: what happens to the corresponding dimensionless variables? If the numerical values of the dimensional quantities change, but corresponding dimensionless quantities remain invariant then we can argue that snapshots of the system at different times are
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Many of these systems evolve in a self-similar fashion in the sense that data obtained from the snapshot at any fixed time is similar to the respective data taken from the snapshot of any earlier or later time. That is, the system is similar to itself at different times. The litmus test of such
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obtained at different times collapse onto a single universal curve then it is said that the systems at different time are similar and it obeys dynamic scaling. The idea of data collapse is deeply rooted to the
276:(1977), namely they suggested " that the wave vector- and frequency dependent susceptibility of a ferromagnet near its Curie point may be expressed as a function independent of 688: 523: 210: 360: 317: 250: 723: 130: 874: 609: 763: 743: 649: 629: 574: 554: 230: 175: 383: 1427:
Hassan, M Kamrul; Hassan, M Zahedul; Pavel, Neeaj I (2011-04-04). "Dynamic scaling, data-collapse and self-similarity in Barabási–Albert networks".
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Hassan, Md. Kamrul; Hassan, Md. Zahedul; Islam, Nabila (2013-10-24). "Emergence of fractals in aggregation with stochastic self-replication".
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provided that the length and frequency scales, as well as the magnetization and magnetic field, are rescaled by appropriate powers of
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Kreer, Markus; Penrose, Oliver (1994). "Proof of dynamical scaling in Smoluchowski's coagulation equation with constant kernel".
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Kreer, Markus (2022). "An elementary proof for dynamical scaling for certain fractional non-homogeneous Poisson processes".
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Hassan, M.K.; Pavel, N.I.; Pandit, R.K.; Kurths, J. (2014). "Dyadic Cantor set and its kinetic and stochastic counterpart".
838: 770:. Essentially such systems can be termed as temporal self-similarity since the same system is similar at different times. 911:(1985). "Scaling of the active zone in the Eden process on percolation networks and the ballistic deposition model". 810: 798:
where degradation does not occur in a blink of an eye but rather over quite a long time. Spread of biological and
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Hassan, M. K.; Hassan, M. Z. (2009-02-19). "Emergence of fractal behavior in condensation-driven aggregation".
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Many phenomena investigated by physicists are not static but evolve probabilistically with time (i.e.
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Ziff, R M; McGrady, E D (1985-10-21). "The kinetics of cluster fragmentation and depolymerisation".
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van Dongen, P. G. J.; Ernst, M. H. (1985-04-01). "Dynamic Scaling in the Kinetics of Clustering".
782:). The universe itself is perhaps one of the best examples. It has been expanding ever since the 1597:
D'souza, Raissa M. (1997). "Anomalies in Simulations of Nearest Neighbor Ballistic Deposition".
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Many other seemingly disparate systems which are found to exhibit dynamic scaling. For example:
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Hassan, M. K.; Hassan, M. Z. (2008-06-13). "Condensation-driven aggregation in one dimension".
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Vicsek, Tamás; Family, Fereydoon (1984-05-07). "Dynamic Scaling for Aggregation of Clusters".
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The term "dynamic scaling" as one of the essential concepts to describe the dynamics of
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proposed the idea of dynamic scaling in the context of diffusion-limited aggregation (
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the marginal probabilities of fractional Poisson processes exhibits dynamic scaling.
377:) of clusters in two dimensions. The form of their proposal for dynamic scaling was: 273: 1535: 1474: 1413: 1344: 1275: 1206: 1659: 1614: 1570: 1515: 1454: 1385: 1316: 1247: 1194: 1143: 1098: 1090: 1013: 966: 928: 468:{\displaystyle f(x,t)\sim t^{-w}x^{-\tau }\varphi \left({\frac {x}{t^{z}}}\right),} 370: 269: 816: 787: 24: 1519: 1147: 970: 366: 1574: 1389: 1320: 1251: 834: 799: 1663: 1618: 1017: 102:{\displaystyle f(x,t)\sim t^{\theta }\varphi \left({\frac {x}{t^{z}}}\right).} 1693: 1671: 1626: 1527: 1466: 1397: 1328: 1259: 1155: 1112: 978: 1059: 27:. In general a function is said to exhibit dynamic scaling if it satisfies: 1582: 1405: 1336: 1267: 1163: 725:
of the data extracted at various different time. Then if all the plots of
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One way of verifying dynamic scaling is to plot dimensionless variables
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similar. When this happens we say that the system is self-similar.
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Hohenberg, Pierre Claude; Halperin, Bertrand Israel (1 July 1977).
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Kardar, Mehran; Parisi, Giorgio; Zhang, Yi-Cheng (3 March 1986).
841:(KPZ) universality class; one find that the width of the surface 556:. We are interested in computing the probability distribution of 212:
should remain invariant despite the unit of measurement of
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In such systems we can define a certain time-dependent
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Scaling, self-similarity, and intermediate asymptotics
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where the exponents satisfy the following relation:
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self-similarity is provided by the dynamic scaling.
1429:Journal of Physics A: Mathematical and Theoretical 1134:(13). American Physical Society (APS): 1396–1399. 1044:. Cambridge New York: Cambridge University Press. 957:(19). American Physical Society (APS): 1669–1672. 868: 794:are also ever growing systems. Another example is 757: 737: 717: 682: 643: 623: 603: 568: 548: 517: 467: 354: 311: 244: 224: 204: 169: 124: 101: 1548: 1426: 1357: 991: 1691: 1125: 1605:(4). World Scientific Pub Co Pte Lt: 941–951. 1297:(6). American Physical Society (APS): 061404. 1075:Journal of Physics A: Mathematical and General 913:Journal of Physics A: Mathematical and General 1288: 1219: 1176: 948: 944: 942: 903: 879:the area size distribution of the blocks of 1596: 1072: 268:seems to originate in the seminal paper of 1039: 1653: 1599:International Journal of Modern Physics C 1501: 1440: 1371: 1302: 1233: 1102: 939: 881:weighted planar stochastic lattice (WPSL) 132:is fixed by the dimensional requirement 1551:"Dynamic Scaling of Growing Interfaces" 1692: 994:"Theory of dynamic critical phenomena" 1639: 809:kinetics of aggregation described by 1642:Statistics & Probability Letters 13: 14: 1716: 1081:(15). IOP Publishing: 3027–3037. 811:Smoluchowski coagulation equation 802:too does not happen over night. 631:and the typical or mean value of 576:at various instants of time i.e. 232:is changed by some factor since 1633: 1590: 1542: 1481: 1420: 1351: 1490:Chaos, Solitons & Fractals 1459:10.1088/1751-8113/44/17/175101 1435:(17). IOP Publishing: 175101. 1282: 1213: 1179:Journal of Statistical Physics 1170: 1119: 1066: 1033: 985: 897: 883:also exhibits dynamic scaling. 863: 851: 598: 586: 506: 494: 402: 390: 348: 327: 305: 284: 252:is a dimensionless quantity. 164: 151: 145: 139: 52: 40: 1: 1648:(61). Elsevier B.V.: 109296. 890: 683:{\displaystyle f/t^{\theta }} 518:{\displaystyle w=(2-\tau )z.} 205:{\displaystyle f/t^{\theta }} 7: 1520:10.1016/j.chaos.2013.12.010 1148:10.1103/physrevlett.54.1396 1095:10.1088/0305-4470/18/15/026 971:10.1103/physrevlett.52.1669 826:the kinetic and stochastic 773: 10: 1721: 1575:10.1103/PhysRevLett.56.889 1390:10.1103/physreve.88.042137 1321:10.1103/physreve.77.061404 1252:10.1103/physreve.79.021406 1040:Barenblatt, G. I. (1996). 933:10.1088/0305-4470/18/2/005 259: 1664:10.1016/j.spl.2021.109296 1619:10.1142/s0129183197000813 1018:10.1103/RevModPhys.49.435 998:Reviews of Modern Physics 876:exhibits dynamic scaling. 611:. The numerical value of 355:{\displaystyle |T-T_{C}|} 312:{\displaystyle |T-T_{C}|} 177:. The numerical value of 245:{\displaystyle \varphi } 1555:Physical Review Letters 1128:Physical Review Letters 951:Physical Review Letters 786:. Similarly, growth of 718:{\displaystyle x/t^{z}} 528: 125:{\displaystyle \theta } 1496:. Elsevier BV: 31–39. 870: 869:{\displaystyle W(L,t)} 759: 739: 719: 684: 645: 625: 605: 604:{\displaystyle f(x,t)} 570: 550: 519: 469: 356: 313: 246: 226: 206: 171: 126: 103: 871: 821:Barabasi–Albert model 768:Buckingham Pi theorem 760: 740: 720: 685: 646: 626: 606: 571: 551: 520: 470: 357: 314: 247: 227: 207: 172: 127: 104: 21:Family–Vicsek scaling 845: 749: 729: 694: 659: 635: 615: 580: 560: 540: 485: 384: 323: 280: 236: 216: 181: 136: 116: 34: 19:(sometimes known as 1611:1997IJMPC...8..941D 1567:1986PhRvL..56..889K 1512:2014CSF....60...31H 1451:2011JPhA...44q5101K 1382:2013PhRvE..88d2137H 1313:2008PhRvE..77f1404H 1244:2009PhRvE..79b1406H 1191:1994JSP....75..389K 1140:1985PhRvL..54.1396V 1087:1985JPhA...18.3027Z 1010:1977RvMP...49..435H 963:1984PhRvL..52.1669V 925:1985JPhA...18L..75F 839:Kardar–Parisi–Zhang 796:polymer degradation 535:stochastic variable 1700:Physical phenomena 1199:10.1007/BF02186868 866: 780:Stochastic process 755: 735: 715: 680: 641: 621: 601: 566: 546: 515: 465: 352: 309: 266:critical phenomena 242: 222: 202: 167: 122: 112:Here the exponent 99: 1705:Stochastic models 1360:Physical Review E 1291:Physical Review E 1222:Physical Review E 1051:978-0-521-43522-2 758:{\displaystyle x} 738:{\displaystyle f} 690:as a function of 644:{\displaystyle x} 624:{\displaystyle f} 569:{\displaystyle x} 549:{\displaystyle x} 456: 274:Bertrand Halperin 225:{\displaystyle t} 170:{\displaystyle =} 90: 1712: 1684: 1683: 1657: 1637: 1631: 1630: 1594: 1588: 1586: 1546: 1540: 1539: 1505: 1485: 1479: 1478: 1444: 1424: 1418: 1417: 1375: 1355: 1349: 1348: 1306: 1286: 1280: 1279: 1237: 1217: 1211: 1210: 1174: 1168: 1167: 1123: 1117: 1116: 1106: 1070: 1064: 1063: 1037: 1031: 1029: 989: 983: 982: 946: 937: 936: 901: 875: 873: 872: 867: 817:complex networks 800:computer viruses 764: 762: 761: 756: 744: 742: 741: 736: 724: 722: 721: 716: 714: 713: 704: 689: 687: 686: 681: 679: 678: 669: 650: 648: 647: 642: 630: 628: 627: 622: 610: 608: 607: 602: 575: 573: 572: 567: 555: 553: 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Vicsek 364: 263: 254: 111: 20: 16: 15: 837:within the 1694:Categories 1655:2103.07381 909:Vicsek, T. 905:Family, F. 891:References 828:Cantor set 1680:232222701 1672:0167-7152 1627:0129-1831 1528:0960-0779 1503:1401.0249 1467:1751-8113 1442:1101.4730 1398:1539-3755 1373:1307.7804 1329:1539-3755 1304:0806.4872 1260:1539-3755 1235:0901.2761 1156:0031-9007 1113:0305-4470 1026:122636335 979:0031-9007 790:like the 676:θ 504:τ 501:− 435:φ 430:τ 427:− 414:− 406:∼ 335:− 292:− 240:φ 198:θ 160:θ 120:θ 69:φ 64:θ 56:∼ 1583:10033312 1536:14494072 1475:15700641 1414:30562144 1406:24229145 1345:32261771 1337:18643263 1276:26023004 1268:19391746 1207:17392921 1164:10031021 1060:33946899 792:Internet 788:networks 784:Big Bang 774:Examples 1607:Bibcode 1563:Bibcode 1508:Bibcode 1447:Bibcode 1378:Bibcode 1309:Bibcode 1240:Bibcode 1187:Bibcode 1136:Bibcode 1083:Bibcode 1006:Bibcode 959:Bibcode 921:Bibcode 260:History 1678:  1670:  1625:  1581:  1534:  1526:  1473:  1465:  1412:  1404:  1396:  1343:  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Index

self-similarity
critical phenomena
Pierre Hohenberg
Bertrand Halperin
Tamás Vicsek
Fereydoon Family
DLA
stochastic variable
Buckingham Pi theorem
Stochastic process
Big Bang
networks
Internet
polymer degradation
computer viruses
Smoluchowski coagulation equation
complex networks
Barabasi–Albert model
Cantor set
growth model
Kardar–Parisi–Zhang
weighted planar stochastic lattice (WPSL)
Family, F.
Vicsek, T.
Bibcode
1985JPhA...18L..75F
doi
10.1088/0305-4470/18/2/005

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