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Patient registration

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229:. This system correlates three different coordinate sets: CT data set, surface laser scan data set and the dataset produced by a small guiding transmitter, placed on the patient's head. The Laboratory Unit for Computer-Assisted Surgery (LUCAS) is used for planning surgery in the laboratory. This technological and surgical advance has permitted the elimination of mechanical guidance systems and improved the accuracy of the determinations, and thus the surgical act. 143: 202: 210: 138:
The bony structures can provide a much better stability and reproducibility of the landmarks for patient registration. Based on this concept, a further technique was used: to implant temporary markers into bone structures that are superficial to the skin, under local anestesia. This was also combined
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Since 1998, new procedures have been developed by Marmulla and co-workers, using a different approach to the problem. Both during CT dataset gathering and surgical intervention, the patient registration was made by registering complete areas and surfaces, instead of distinctive surface markers. This
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The first attempts, based on the identification of anatomical landmarks were made by Caversaccio and Zulliger. The method was based on identifying certain antropometrical points and other anatomical landmarks on the skull, in correlation with the CT registration. But the landmarks cannot be exactly
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Patient registration for the head area has developed for nearly two decades on the same principle of combining CT scans with mechanical reference devices such as headframes or halo rings. But the clinical experience showed that headgear is very uncomfortable to wear and even impossible to apply on
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In 1986, a different approach was developed by Roberts und Strohbehn. They have used as landmarks several markers on the patient's skin both preoperative CT registration, and intraoperatively. This was a new current of the time in patient registration. Still, the method is time-consuming, and the
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scans of that region. The role of patient registration is to obtain a close-to-ideal reference reproducibility of the dataset – in order to correlate the position (offset) of the gathered dataset with the patient's position during the surgical intervention. Patient registration (1) eliminates the
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headframe that had to be fixed to the head. It was based on cartesian principles and allowed them to accurately and reproductibly guide needle-like electrodes for neurophysiological experiments. They have experimented animals and were able to contribute to the mapping of the cerebellum. Improved
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necessity of maintaining the same strict position of the patient during both preoperative scanning and surgery, and (2) provides the surgical robot the necessary reference information to act accurately on the patient, even if he has (been) moved during the intervention.
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and, during time, its applicability was extended for the surgical treatment of tumors, vascular malformations, functional neurosurgery etc. The system was based both on headframes and X-ray images taken for all three planes of space.
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Patient registration was used mostly in head surgery – oral and maxillofacial surgery, neurosurgery, otolaryngology. With the advent of marker- and markerless-registration, the concept has been extended for abdominal surgery.
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Caversaccio M, Zulliger D, Bächler R, Nolte LP, Häusler R (November 2000). "Practical aspects for optimal registration (matching) on the lateral skull base with an optical frameless computer-aided pointer system".
54:, the first step is to gather a 3D dataset that reproduces with great accuracy the geometry of the normal and pathological tissues in the region that has to be operated on. This is mainly obtained by using 139:
with surface markers and CT registration. The technique has the disadvantage of a further minimal surgical procedure of placing the bone implants, with some risk of infection for the patient.
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Roberts DW, Strohbehn JW, Hatch JF, Murray W, Kettenberger H (October 1986). "A frameless stereotaxic integration of computerized tomographic imaging and the operating microscope".
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Heilbrun MP, Roberts TS, Apuzzo ML, Wells TH, Sabshin JK (August 1983). "Preliminary experience with Brown-Roberts-Wells (BRW) computerized tomography stereotaxic guidance system".
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Maurer Jr CR, Aboutanos GB, Dawant BM, Margolin RA, Maciunas RJ, Fitzpatrick JM (May 1995). "Registration of CT and MR brain images using a combination of points and surfaces.".
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Further development of stereotactic surgery was made by Brown, Roberts and Wells in 1980. They have developed a halo ring that was applied on the skull, during a
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developed a method to use optical topographical imaging (OTI) to create a 3D model of the surface of open surgical sites and perform surface registration to
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was achieved by using laser scanners and a small guiding transmitter. The precision of the patient registration was significantly improved with this method.
589:"High Speed, High Density Intraoperative 3D Optical Topographical Imaging with Efficient Registration to MRI and CT for Craniospinal Surgical Navigation" 108:
scan and neurosurgical interventions. This method provided improved surgical guidance and was in fact the first development of computer guided surgery.
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The first stereotactic device for humans was also developed in neurosurgery, by E. Spiegel and H. Wycis in 1947. It was used for surgical treatment of
649:"Optical Topographic Imaging for Spinal Intraoperative 3-Dimensional Navigation in the Cervical Spine: Initial Preclinical and Clinical Feasibility" 179:
and orthognathic surgery. By applying several infrared markers on the splints and using an infrared camera, a better registration was obtained.
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Marmulla R, LĂĽth T, MĂĽhling J, Hassfeld S (July 2004). "Markerless laser registration in image-guided oral and maxillofacial surgery".
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Clarke RH, Horsley V (1906). "On a method of investigating the deep ganglia and tracts of the central nervous system (cerebellum)".
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Dental splints have been traditionally used for transferring and reproducing 3D reference landmarks for positioning cast models in
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Alp MS, Dujovny M, Misra M, Charbel FT, Ausman JI (January 1998). "Head registration techniques for image-guided surgery".
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pointed out and reproduced during patient dataset registration and surgery, therefore the method is not precise enough.
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Spiegel EA, Wycis HT, Marks M, Lee AJ (October 1947). "Stereotaxic Apparatus for Operations on the Human Brain".
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Hassfeld S, Mühling J, Zöller J (February 1995). "Intraoperative navigation in oral and maxillofacial surgery".
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Based on this concept, several registration and navigation systems were built by the same team. The
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Guha D, Jakubovic R, Alotaibi NM, Deorajh R, Gupta S, Fehlings MG, et al. (August 2019).
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Marmulla R, Niederdellmann H (December 1998). "Computer-assisted bone segment navigation".
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little children, because their lack of cooperation; furthermore, the headframes can create
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Jakubovic R, Guha D, Gupta S, Lu M, Jivraj J, Standish BA, et al. (October 2018).
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with the reference position of the patient. This procedure is crucial in
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exact reproducitibility of the marker positions is questionable.
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The first attempts in 3D mapping of human tissues were made by
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Ryerson University (now Toronto Metropolitan University)
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International Journal of Oral and Maxillofacial Surgery
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are still in used today in experimental neurosurgery.
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and R. Clarke in 1906. They have built a rectangular
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Actual usage of the SSN system in the operating room
225:is such a system, developed for the first time for 116:in preoperative data gathering, or during surgery. 182: 29:is used to correlate the reference position of a 16:Aligns 3D medical imaging with patient's position 686: 154:of the jaw bones, based on models fixed into an 271: 545: 642: 640: 510: 482: 284: 447: 397: 362: 327: 251:. The OTI technology is being licensed by 223:Surgical Segment Navigator (SSN and SSN++) 205:Schematic representation of the SSN system 664: 620: 554:Journal of Oral and Maxillofacial Surgery 637: 519:Journal of Cranio-Maxillo-Facial Surgery 208: 200: 162: 158:(registration based on infrared devices) 141: 196: 187: 687: 119: 75: 13: 14: 726: 580: 492:The American Journal of Otology 255:for their navigation platform. 183:Markerless patient registration 432: 418:10.1080/01616412.1998.11740481 265: 227:oral and maxillofacial surgery 66: 1: 531:10.1016/s1010-5182(98)80067-x 468:10.1016/s0901-5027(05)80871-9 258: 666:10.1097/BSD.0000000000000795 313:10.1126/science.106.2754.349 7: 10: 731: 613:10.1038/s41598-018-32424-z 566:10.1016/j.joms.2004.01.014 383:10.3171/jns.1986.65.4.0545 348:10.3171/jns.1983.59.2.0217 18: 710:Computer-assisted surgery 52:computer assisted surgery 45:computer assisted surgery 146:Surgical planning using 91:Horsley–Clarke apparatus 19:Not to be confused with 371:Journal of Neurosurgery 336:Journal of Neurosurgery 274:British Medical Journal 148:bone segment navigation 133: 124: 653:Clinical Spine Surgery 214: 206: 159: 406:Neurological Research 212: 204: 163:Dental splint markers 145: 39:gathered by computer 232:A research group at 197:Surface registration 188:Anatomical landmarks 27:Patient registration 705:Otorhinolaryngology 605:2018NatSR...814894J 305:1947Sci...106..349S 98:Parkinson's disease 715:Health informatics 593:Scientific Reports 215: 207: 173:dental prosthetics 160: 462:(1 Pt 2): 111–9. 120:Reference markers 722: 679: 678: 668: 644: 635: 634: 624: 584: 578: 577: 549: 543: 542: 514: 508: 507: 486: 480: 479: 451: 445: 444: 436: 430: 429: 401: 395: 394: 366: 360: 359: 331: 325: 324: 299:(2754): 349–50. 288: 282: 281: 269: 89:versions of the 76:Using headframes 21:Patient check-in 730: 729: 725: 724: 723: 721: 720: 719: 685: 684: 683: 682: 645: 638: 585: 581: 550: 546: 515: 511: 487: 483: 452: 448: 441:Medical Imaging 437: 433: 402: 398: 367: 363: 332: 328: 289: 285: 270: 266: 261: 199: 190: 185: 165: 136: 127: 122: 78: 69: 41:medical imaging 24: 17: 12: 11: 5: 728: 718: 717: 712: 707: 702: 697: 681: 680: 659:(7): 303–308. 636: 579: 544: 509: 481: 446: 431: 396: 361: 326: 283: 263: 262: 260: 257: 244:data sets for 198: 195: 189: 186: 184: 181: 164: 161: 135: 132: 126: 123: 121: 118: 77: 74: 68: 65: 15: 9: 6: 4: 3: 2: 727: 716: 713: 711: 708: 706: 703: 701: 698: 696: 693: 692: 690: 676: 672: 667: 662: 658: 654: 650: 643: 641: 632: 628: 623: 618: 614: 610: 606: 602: 598: 594: 590: 583: 575: 571: 567: 563: 560:(7): 845–51. 559: 555: 548: 540: 536: 532: 528: 525:(6): 347–59. 524: 520: 513: 505: 501: 498:(6): 863–70. 497: 493: 485: 477: 473: 469: 465: 461: 457: 450: 442: 435: 427: 423: 419: 415: 411: 407: 400: 392: 388: 384: 380: 376: 372: 365: 357: 353: 349: 345: 342:(2): 217–22. 341: 337: 330: 322: 318: 314: 310: 306: 302: 298: 294: 287: 279: 275: 268: 264: 256: 254: 250: 247: 246:neurosurgical 243: 239: 235: 230: 228: 224: 219: 211: 203: 194: 180: 178: 174: 170: 157: 153: 149: 144: 140: 131: 117: 115: 109: 107: 102: 99: 94: 92: 87: 83: 73: 64: 61: 57: 53: 48: 46: 42: 38: 35: 32: 28: 22: 700:Neurosurgery 656: 652: 599:(1): 14894. 596: 592: 582: 557: 553: 547: 522: 518: 512: 495: 491: 484: 459: 455: 449: 440: 434: 409: 405: 399: 377:(4): 545–9. 374: 370: 364: 339: 335: 329: 296: 292: 286: 280:: 1799–1800. 277: 273: 267: 231: 220: 216: 191: 177:orthodontics 169:articulators 166: 137: 128: 110: 103: 95: 86:stereotactic 79: 70: 49: 26: 25: 412:(1): 31–7. 253:7D Surgical 156:articulator 67:Application 689:Categories 259:References 249:navigation 82:V. Horsley 152:osteotomy 114:artifacts 675:30839418 631:30291261 574:15218564 539:10036650 504:11078077 321:17777432 150:for the 695:Surgery 622:6173775 601:Bibcode 476:7782645 426:9471100 391:3531430 356:6345727 301:Bibcode 293:Science 37:dataset 31:virtual 673:  629:  619:  572:  537:  502:  474:  424:  389:  354:  319:  171:– in 671:PMID 627:PMID 570:PMID 535:PMID 500:PMID 472:PMID 422:PMID 387:PMID 352:PMID 317:PMID 240:and 134:Bone 125:Skin 661:doi 617:PMC 609:doi 562:doi 527:doi 464:doi 414:doi 379:doi 344:doi 309:doi 297:106 242:MRI 60:MRI 58:or 50:In 691:: 669:. 657:32 655:. 651:. 639:^ 625:. 615:. 607:. 595:. 591:. 568:. 558:62 556:. 533:. 523:26 521:. 496:21 494:. 470:. 460:24 458:. 420:. 410:20 408:. 385:. 375:65 373:. 350:. 340:59 338:. 315:. 307:. 295:. 276:. 238:CT 175:, 106:CT 56:CT 34:3D 677:. 663:: 633:. 611:: 603:: 597:8 576:. 564:: 541:. 529:: 506:. 478:. 466:: 428:. 416:: 393:. 381:: 358:. 346:: 323:. 311:: 303:: 278:2 23:.

Index

Patient check-in
virtual
3D
dataset
medical imaging
computer assisted surgery
computer assisted surgery
CT
MRI
V. Horsley
stereotactic
Horsley–Clarke apparatus
Parkinson's disease
CT
artifacts

bone segment navigation
osteotomy
articulator
articulators
dental prosthetics
orthodontics


Surgical Segment Navigator (SSN and SSN++)
oral and maxillofacial surgery
Ryerson University (now Toronto Metropolitan University)
CT
MRI
neurosurgical

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