Knowledge (XXG)

Pulse duplicator

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A pulse duplicator is categorized as a lump parameter model, also known as a Windkessel model, if it uses a limited set of compliance chambers and resistance tubing to model the sum of circulatory compliance and resistance. A pulse duplicator is a wave propagation model if it physically replicates
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A simplified diagram of one common pulse duplicator design. A piston is used to create and release pressure, simulating blood flow. Note that both valves would not be fully open at the same time in actual
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A pulse duplicator replicates parts of the circulatory system. Many pulse duplicators model only half the heart, commonly the left atrium and ventricle, in order to test the
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to simulate the contraction and expansion of the heart. An alternate design uses a flexible plastic heart model, or an ex vivo heart, and applies
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The circulatory system blood vessels are typically modeled using tubing. Compliance chambers and narrow tubing can be used to model the
224:"Hemodynamic Testing of Patient-Specific Mitral Valves Using a Pulse Duplicator: A Clinical Application of Three-Dimensional Printing" 198: 588: 545: 578: 45: 492: 437: 374: 308: 255: 172: 36:. It is used to research the conditions of heart disease. Pulse duplicators can be used to conduct 583: 396:"Soft robotic patient-specific hydrodynamic model of aortic stenosis and ventricular remodeling" 480: 425: 362: 296: 243: 222:
Mashari A, Knio Z, Jeganathan J, Montealegre-Gallegos M, Yeh L, Amador Y; et al. (2016).
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is a device used to duplicate the pulsing flow of the human heart and the associated
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Rosalia L, Ozturk C, Goswami D, Bonnemain J, Wang SX, Bonner B; et al. (2023).
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Vernon MJ, Mela P, Dilley RJ, Jansen S, Doyle BJ, Ihdayhid AR; et al. (2024).
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Rotman OM, Kovarovic B, Sadasivan C, Gruberg L, Lieber BB, Bluestein D (2018).
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Redesign and performance evaluation of a cardiac pulse duplicator
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compared to blood. One such blood analog is a mixture of water,
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the circulatory system in a more anatomically correct manner.
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A pulse duplicator is filled with a fluid with a similar
533: 333:"Realistic Vascular Replicator for TAVR Procedures" 228:Journal of Cardiothoracic and Vascular Anesthesia 457:Westerhof N, Lankhaar JW, Westerhof BE (2009). 326: 324: 124: 122: 79:pressure to induce contraction and expansion. 553: 8: 497:: CS1 maint: multiple names: authors list ( 442:: CS1 maint: multiple names: authors list ( 379:: CS1 maint: multiple names: authors list ( 313:: CS1 maint: multiple names: authors list ( 260:: CS1 maint: multiple names: authors list ( 177:: CS1 maint: multiple names: authors list ( 192: 190: 188: 560: 546: 71:A common design to model the heart uses a 44:testing. Common uses include testing new 474: 419: 356: 337:Cardiovascular Engineering and Technology 154: 197:Rodriguez, Reynaldo (December 1, 2017). 118: 490: 435: 372: 306: 253: 170: 50:transcatheter aortic valve replacement 131:"A Simple Versatile Pulse Duplicator" 7: 514: 512: 532:. You can help Knowledge (XXG) by 14: 129:Duran, Gunning, McMillan (1964). 516: 48:and simulating procedures like 1: 293:10.1016/j.tibtech.2023.11.001 277:"3D printing of heart valves" 412:10.1126/scirobotics.ade2184 605: 511: 240:10.1053/j.jvca.2016.01.013 476:10.1007/s11517-008-0359-2 459:"The arterial Windkessel" 349:10.1007/s13239-018-0356-z 524:This article related to 105:, and a small amount of 589:Medical equipment stubs 46:artificial heart valves 25: 22: 147:10.1136/thx.19.6.503 16:Medical testing tool 463:Med Biol Eng Comput 26: 579:Medical equipment 541: 540: 526:medical equipment 281:Trends Biotechnol 84:Windkessel effect 596: 562: 555: 548: 520: 513: 503: 502: 496: 488: 478: 454: 448: 447: 441: 433: 423: 406:(75): eade2184. 391: 385: 384: 378: 370: 360: 328: 319: 318: 312: 304: 272: 266: 265: 259: 251: 219: 213: 212: 210: 208: 194: 183: 182: 176: 168: 158: 126: 99:specific gravity 30:pulse duplicator 604: 603: 599: 598: 597: 595: 594: 593: 569: 568: 567: 566: 509: 507: 506: 489: 456: 455: 451: 434: 393: 392: 388: 371: 330: 329: 322: 305: 274: 273: 269: 252: 221: 220: 216: 206: 204: 196: 195: 186: 169: 128: 127: 120: 115: 107:sodium chloride 58: 17: 12: 11: 5: 602: 600: 592: 591: 586: 581: 571: 570: 565: 564: 557: 550: 542: 539: 538: 521: 505: 504: 449: 386: 343:(3): 339–350. 320: 287:(5): 612–630. 267: 234:(5): 1278–85. 214: 184: 117: 116: 114: 111: 57: 54: 15: 13: 10: 9: 6: 4: 3: 2: 601: 590: 587: 585: 582: 580: 577: 576: 574: 563: 558: 556: 551: 549: 544: 543: 537: 535: 531: 527: 522: 519: 515: 510: 500: 494: 486: 482: 477: 472: 469:(2): 131–41. 468: 464: 460: 453: 450: 445: 439: 431: 427: 422: 417: 413: 409: 405: 401: 397: 390: 387: 382: 376: 368: 364: 359: 354: 350: 346: 342: 338: 334: 327: 325: 321: 316: 310: 302: 298: 294: 290: 286: 282: 278: 271: 268: 263: 257: 249: 245: 241: 237: 233: 229: 225: 218: 215: 202: 201: 193: 191: 189: 185: 180: 174: 166: 162: 157: 152: 148: 144: 140: 136: 132: 125: 123: 119: 112: 110: 108: 104: 100: 96: 91: 87: 85: 80: 78: 74: 69: 67: 66:aortic valves 63: 55: 53: 51: 47: 43: 39: 35: 31: 21: 534:expanding it 523: 508: 493:cite journal 466: 462: 452: 438:cite journal 403: 399: 389: 375:cite journal 340: 336: 309:cite journal 284: 280: 270: 256:cite journal 231: 227: 217: 205:. Retrieved 199: 173:cite journal 141:(6): 503–6. 138: 134: 92: 88: 81: 70: 59: 34:hemodynamics 29: 27: 584:Cardiology 573:Categories 113:References 24:operation. 400:Sci Robot 95:viscosity 77:hydraulic 485:18543011 430:36812335 421:10280738 367:29654509 301:38238246 248:27179613 165:14238387 103:glycerol 38:in vitro 358:6095732 207:June 4, 156:1018869 42:ex vivo 483:  428:  418:  365:  355:  299:  246:  163:  153:  135:Thorax 73:piston 62:mitral 56:Design 528:is a 530:stub 499:link 481:PMID 444:link 426:PMID 381:link 363:PMID 315:link 297:PMID 262:link 244:PMID 209:2024 179:link 161:PMID 97:and 64:and 471:doi 416:PMC 408:doi 353:PMC 345:doi 289:doi 236:doi 151:PMC 143:doi 68:. 40:or 575:: 495:}} 491:{{ 479:. 467:47 465:. 461:. 440:}} 436:{{ 424:. 414:. 402:. 398:. 377:}} 373:{{ 361:. 351:. 339:. 335:. 323:^ 311:}} 307:{{ 295:. 285:42 283:. 279:. 258:}} 254:{{ 242:. 232:30 230:. 226:. 187:^ 175:}} 171:{{ 159:. 149:. 139:19 137:. 133:. 121:^ 109:. 86:. 52:. 28:A 561:e 554:t 547:v 536:. 501:) 487:. 473:: 446:) 432:. 410:: 404:8 383:) 369:. 347:: 341:9 317:) 303:. 291:: 264:) 250:. 238:: 211:. 181:) 167:. 145::

Index

A simplified diagram of a common pulse duplicator design.
hemodynamics
in vitro
ex vivo
artificial heart valves
transcatheter aortic valve replacement
mitral
aortic valves
piston
hydraulic
Windkessel effect
viscosity
specific gravity
glycerol
sodium chloride


"A Simple Versatile Pulse Duplicator"
doi
10.1136/thx.19.6.503
PMC
1018869
PMID
14238387
cite journal
link



Redesign and performance evaluation of a cardiac pulse duplicator

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