Literature DB >> 22429209

Reconciliation of diverse telepathology system designs. Historic issues and implications for emerging markets and new applications.

Ronald S Weinstein1, Anna R Graham, Fangru Lian, Beth L Braunhut, Gail R Barker, Elizabeth A Krupinski, Achyut K Bhattacharyya.   

Abstract

Telepathology, the distant service component of digital pathology, is a growth industry. The word "telepathology" was introduced into the English Language in 1986. Initially, two different, competing imaging modalities were used for telepathology. These were dynamic (real time) robotic telepathology and static image (store-and-forward) telepathology. In 1989, a hybrid dynamic robotic/static image telepathology system was developed in Norway. This hybrid imaging system bundled these two primary pathology imaging modalities into a single multi-modality pathology imaging system. Similar hybrid systems were subsequently developed and marketed in other countries as well. It is noteworthy that hybrid dynamic robotic/static image telepathology systems provided the infrastructure for the first truly sustainable telepathology services. Since then, impressive progress has been made in developing another telepathology technology, so-called "virtual microscopy" telepathology (also called "whole slide image" telepathology or "WSI" telepathology). Over the past decade, WSI has appeared to be emerging as the preferred digital telepathology digital imaging modality. However, recently, there has been a re-emergence of interest in dynamic-robotic telepathology driven, in part, by concerns over the lack of a means for up-and-down focusing (i.e., Z-axis focusing) using early WSI processors. In 2010, the initial two U.S. patents for robotic telepathology (issued in 1993 and 1994) expired enabling many digital pathology equipment companies to incorporate dynamic-robotic telepathology modules into their WSI products for the first time. The dynamic-robotic telepathology module provided a solution to the up-and-down focusing issue. WSI and dynamic robotic telepathology are now, rapidly, being bundled into a new class of telepathology/digital pathology imaging system, the "WSI-enhanced dynamic robotic telepathology system". To date, six major WSI processor equipment companies have embraced the approach and developed WSI-enhanced dynamic-robotic digital telepathology systems, marketed under a variety of labels. Successful commercialization of such systems could help overcome the current resistance of some pathologists to incorporate digital pathology, and telepathology, into their routine and esoteric laboratory services. Also, WSI-enhanced dynamic robotic telepathology could be useful for providing general pathology and subspecialty pathology services to many of the world's underserved populations in the decades ahead. This could become an important enabler for the delivery of patient-centered healthcare in the future.
© 2012 The Authors APMIS © 2012 APMIS.

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Year:  2012        PMID: 22429209     DOI: 10.1111/j.1600-0463.2011.02866.x

Source DB:  PubMed          Journal:  APMIS        ISSN: 0903-4641            Impact factor:   3.205


  15 in total

Review 1.  The Empirical Foundations of Telepathology: Evidence of Feasibility and Intermediate Effects.

Authors:  Rashid L Bashshur; Elizabeth A Krupinski; Ronald S Weinstein; Matthew R Dunn; Noura Bashshur
Journal:  Telemed J E Health       Date:  2017-02-07       Impact factor: 3.536

2.  Ten-year experience of remote medical education in Asia.

Authors:  Shuji Shimizu; Kuriko Kudo; Yasuaki Antoku; Min Hu; Koji Okamura; Naoki Nakashima
Journal:  Telemed J E Health       Date:  2014-10-01       Impact factor: 3.536

3.  3-dimensional digital reconstruction of the murine coronary system for the evaluation of chronic allograft vasculopathy.

Authors:  László Fónyad; Kazunobu Shinoda; Evan A Farkash; Martin Groher; Divya P Sebastian; A Marcell Szász; Robert B Colvin; Yukako Yagi
Journal:  Diagn Pathol       Date:  2015-03-28       Impact factor: 2.644

4.  American Telemedicine Association clinical guidelines for telepathology.

Authors:  Liron Pantanowitz; Kim Dickinson; Andrew J Evans; Lewis A Hassell; Walter H Henricks; Jochen K Lennerz; Amanda Lowe; Anil V Parwani; Michael Riben; Col Daniel Smith; J Mark Tuthill; Ronald S Weinstein; David C Wilbur; Elizabeth A Krupinski; Jordana Bernard
Journal:  J Pathol Inform       Date:  2014-10-21

5.  Real time blood testing using quantitative phase imaging.

Authors:  Hoa V Pham; Basanta Bhaduri; Krishnarao Tangella; Catherine Best-Popescu; Gabriel Popescu
Journal:  PLoS One       Date:  2013-02-06       Impact factor: 3.240

6.  Pigeons (Columba livia) as Trainable Observers of Pathology and Radiology Breast Cancer Images.

Authors:  Richard M Levenson; Elizabeth A Krupinski; Victor M Navarro; Edward A Wasserman
Journal:  PLoS One       Date:  2015-11-18       Impact factor: 3.240

7.  Subspecialty surgical pathologist's performances as triage pathologists on a telepathology-enabled quality assurance surgical pathology service: A human factors study.

Authors:  Beth L Braunhut; Anna R Graham; Fangru Lian; Phyllis D Webster; Elizabeth A Krupinski; Achyut K Bhattacharyya; Ronald S Weinstein
Journal:  J Pathol Inform       Date:  2014-05-26

8.  Digital pathology: A systematic evaluation of the patent landscape.

Authors:  Ioan C Cucoranu; Anil V Parwani; Suryanarayana Vepa; Ronald S Weinstein; Liron Pantanowitz
Journal:  J Pathol Inform       Date:  2014-05-26

Review 9.  Human Factors and Human-Computer Considerations in Teleradiology and Telepathology.

Authors:  Elizabeth A Krupinski
Journal:  Healthcare (Basel)       Date:  2014-02-19

10.  Working toward consensus among professionals in the identification of classical cervical cytomorphological characteristics in whole slide images.

Authors:  Odille Bongaerts; Paul J van Diest; Math Pieters; Marius Nap
Journal:  J Pathol Inform       Date:  2015-09-28
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