Archive for the ‘Reports’ Category

Teleradiology Solutions Celebrates its 10th Anniversary

February 29, 2012

Headquartered in Bangalore, Teleradiology Solutions (www.telradsol.com/) provides quality diagnosis to the world and much more.

Bangalore, India (PRWEB) February 24, 2012

Teleradiology Solutions, the #1 national teleradiology company in the United States, is happy to be celebrating the tenth anniversary of providing Teleradiology services to hospitals around the world. In a decade when a number of teleradiology vendors got sold or closed down, it is a matter of pride for TRS to still be standing and growing. It's special birthday gift was being awarded the title of "Best in KLAS" for Teleradiology Services in the USA 2011, by KLAS, a Utah-based research firm that specialises in monitoring healthcare vendors.

The company (www.telradsol.com) which started in a home office with 2 employees now has become a global group with radiologists based in Israel, USA, Europe and India. It covers over 150 hospitals in 20 countries globally. It recently started covering hospitals in Africa in Tanzania, Nigeria and Djibouti.

In 2005, the TRS became the first healthcare organisation outside Singapore to be accredited by the Ministry of Health of Singapore. In the same year it became one among the first teleradiology companies to be accredited by The Joint Commission, a U.S.-based organisation that accredits healthcare facilities. The Bangalore based company is growing and was showcased to US President Barack Obama during his visit to India in November 2010 as an example of innovation in action.

TRS not only provides teleradiology but is also involved in several other activities from training radiologists (www.radguru.net), to enabling teleradiology by other Radiologists/doctors by developing and marketing RadSpa, a new generation teleradiology workflow (http://teleradtech.com/), to helping poor patients in Asia get access to high quality diagnostics (www.teleradfoundation.org). The multispeciality clinic set up by it-RxDx (www.rxdx.in) uses Cisco's HealthPresence and provides telemedicine to poor patients living in villages in Raichur, located in North Karnataka in India. TRS has also become the managed service provider for Cisco's telemedicine in India in 2012.

Teleradiology Solutions is a company with a difference. It has evolved from being a pure nighthawk US teleradiology group to being at the forefront of several innovative technology and healthcare initiatives. For the coming decade, TRS aims at adhering to its new title -"Best in Klas" , innovating continuously, reaching needy patients around the world and widening its scope globally to include all facets of technology and health – teleradiology, telecardiology, tele-medical e-teaching, telemedicine and more.

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Blog App to be Launched

February 5, 2012

Coming to an iPhone near you soon.  The Digital Pathology Blog App.  Look for iPad and Android OS versions to follow.  Stay connected and up to date from your mobile device to the blog with Twitter (@tissuepathology) and Pathology 2.0 Facebook (http://www.facebook.com/pathology2.0) tabs.

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Regulators regulating digital scanners

January 24, 2012

In the words of Harry Caray – "Holy Cow!"  Karen Titus does an excellent job putting together this piece. Who else could use "Gentlemen, start your turtles", "Alan Greenspan" and also work in "From that perspective, a Class III, or even a Class II, classification, is overkill—like dropping a V8 engine into an Amish buggy" in the same article.

Turtle jockey

So much blog fodder here I have copied the entire article available for free from CAP Today with my comments below on some of my thoughts on this matter.

Courtesy of CAP Today - Regulators scanning the digital scanners by Karen Titus

A recent panel on whole-slide imaging launched a clear message from the Food and Drug Administration: The agency views WSI systems as Class III medical devices and plans to regulate them as such. Gentlemen, start your turtles.

- The FDA has about 1 million pages that are surprisingly easy to navigate on their website including a "How to Classify Your Device Page".  If I am reading this correctly, microscopes are Class I devices, as are colposcopes to diagnose cervical dysplasia and cancer, ditto for stethoscopes, holders for artificial heart valves and some defibrillators are Class 2 (roman numerals should only be used for really important things like Super Bowls). Defibrillators [CITE: 21CFR870.5300] are Class 2! 360 joules of energy that could save your life in a moment or cause death if you do not respond to the TV "CLEAR!". And a slide scanner is Class 3 because?  Oh, image quality, right. Apparently the FDA didn't look through the microscope I used today.  It was like rice crispies were stuck to the lenses. I am sure the article will provide clear detail on why and how these are Class 3 devices.  Let's read on.

While the FDA’s decision was clear, the next steps are anything but. Vendors, pathologists, the FDA, and the Centers for Medicare and Medicaid Services could head in any number of directions next, but they won’t be moving swiftly. In fact, those who were at the meeting are still dissecting the information presented at the panel, as if Alan Greenspan had delivered one of his famously tortured pronouncements from the Federal Reserve.

- Yeah, but unemployment was lower, at a nadir (don't get to use that word often) of 4% in the 1990s.  Double digit unemployment, financial collapse, Greece, Spain, housing crisis, fall of Lehman, etc… he only predicted once he started doing stand up to not be forgotten when the oft jovial and always comical Bernake took the chairmanship. Those tortured pronouncements in retrospect weren't as bad as this.

Depending on one’s view, the news will slow efforts to bring WSI for primary diagnosis into U.S. laboratories, with some vendors looking to Europe for regulatory relief; have virtually no impact on large vendors, who, while not necessarily enamored of the FDA’s decision, concede it’s one they can live with; kill the market completely; choke innovation among vendors, especially component makers; possibly put laboratories in jeopardy if they try to validate these systems as laboratory-developed tests under CLIA; or encourage laboratories to use WSI for other, already approved purposes, readying themselves for the inevitable day when whole-slide imaging transforms surgical pathology.

- Sprechen Sie Deutsch? - Come è il tuo italiano?

- I predict no impact, no choking, killing, or jeopardy or pocket translators needed to replace US sales; pathologists are conservative folks with supportive industry innovators and inventors; we will test, test and re-test, then test again and we will transform safely and accurately. 

What most agree on is that for the first time, the FDA, which regulates the vendor portion of the vendor-laboratory equation, has “put a stake in the sand regarding digital pathology,” says David Wilbur, MD, professor of pathology, Harvard Medical School, and chair, CAP Technology Assessment Committee.

Note that the stake is in sand. “I suspect there’s going to be a whole lot of give-and-take that comes about in the future,” says Dr. Wilbur, who was in the audience at the panel discussion, held at the annual Digital Pathology Association meeting last fall in San Diego.

In a follow-up interview with CAP TODAY, the FDA’s presenter on the panel, Tremel Faison, noted that her remarks reflect the agency’s current thoughts on digital pathology as it works through the issues, rather than an official announcement. “We anticipate eventually having another public meeting, and/or publishing the guidance,” possibly in the next year, she says.

- I think a formal document would minimize confusion on this matter and time is of the essence, particularly since this issue was first addressed in public forum in October of 2009 and mention of pre-market requirements was stated at that time which are similar in many ways to slides and comments from a few months ago. 

Download Faison_DPDevicesPanelMeeting2009

Nonetheless, this was not the usual runic message coming out of a federal bureaucracy. Faison, a former cytotechnologist who is now a regulatory scientist in the FDA’s Office of In Vitro Diagnostics, drew praise from those at the meeting. “There was some clarity from the FDA,” says Walter H. Henricks, MD, who represented the CAP on the panel. Until now, he says, industry and labs have largely been in the dark about how the FDA planned to regulate WSI systems for primary diagnosis. “This was the biggest piece of news coming out of the panel — and it was a big piece of news, even if not entirely unexpected,” says Dr. Henricks, medical director, Center for Pathology Informatics, and staff pathologist, Pathology and Laboratory Medicine Institute, Cleveland Clinic.

- A few editor's notes at this point: Tremel taught me everything I know about cytology as a pathology resident at The National Naval Medical Center (now The Walter Reed National Naval Medical Center) and I know she is doing what she can on this and we will all come out the other end better for doing so. I made some comments in November regarding what the CAP did, should have done and could do to help facilitate what is mentioned below as a several year process.  See:

http://www.tissuepathology.com/weblog/2011/11/did-the-cap-do-enough-for-digital-pathology-and-discussions-with-the-fda.html

http://www.tissuepathology.com/weblog/2011/12/what-pathologists-and-the-cap-can-do-to-assist-with-pma-process.html

The Class III label is used for devices the FDA deems as highest risk; to be approved, such devices require general controls (such as quality system regulation and good manufacturing procedures) and premarket approval. A lower level of clearance, Class II, refers to moderate risk devices that already have a predicate device on the market. The lowest-risk device, Class I, requires no pre-market notification.

Dr. Henricks sees no gain in dwelling on the FDA’s reasoning in classifying WSI systems as Class III. “The facts are what were presented,” says Dr. Henricks, who is also a member of the CAP’s Council on Accreditation and of the Diagnostic Intelligence and Health Information Technology Committee.

- In seeking absolute truth we aim at the unattainable and must be content with broken portions.

- One of the first duties of the physician is to educate the masses not to take medicine.

Sir William Osler

A couple of the larger vendors also show an unwillingness to engage in debate; they prefer to keep plugging away, like infantrymen, to bring their systems to market. The Class III announcement barely made them look up. And while it may have opened a door, no one expects to pass through it anytime soon. The last time the FDA participated in a public forum to discuss WSI regulation was 2009, says Dirk Soenksen, president of Aperio. At that time, observers say, the agency appeared to be gathering information. “Now, two years later, we’re finally able to hear some of the learnings they’ve digested. That shows you the pace at which FDA is working,” says Soenksen, who was at the recent DPA panel.

- A snail's pace?  Already used "turtle" twice in this post.  Besides, he beats the hare so not sure we are good using turtle (OK, 4 times in this post).

Soenksen says the Class III label didn’t surprise him. “But the fact that it surprised some shows you the confusion that exists in the marketplace,” he says.

The confusion exists even at the most basic level, particularly among those who think the FDA’s regulatory hand smacks a little too hard. Faison says she’s routinely asked about the agency’s reach by those who say the microscope isn’t regulated—and since it’s not, they argue, why should devices performing similar functions be tightly regulated? From that perspective, a Class III, or even a Class II, classification, is overkill—like dropping a V8 engine into an Amish buggy.

In fact, Faison explains, microscopes are regulated as Class I devices. That astounds some pathologists, who think, “Nobody regulates my microscope . Why would they regulate my scanner? It’s doing the same thing,” says Anil Parwani, MD, PhD, who spoke at the DPA meeting about the CAP’s recommendations for validating WSI. Digital pathology may be a familiar topic, having been around for a decade or so, but until now regulatory oversight hasn’t been a big part of the conversation.

That’s especially true at trade shows, says Dr. Parwani, where the mushrooming presence of digital devices over the last five years is devoid of anything as mundane as regulatory information. “Not many people know that FDA is even looking at regulating whole-slide imaging,” says Dr. Parwani, division director of pathology informatics, University of Pittsburgh Medical Center.

Those who expected WSI systems to be Class II devices can debate all they want, Soenksen says, but, “That ship has sailed. They’ve made up their mind that this is a Class III, which is why most people are going to Europe with this technology, not the U.S.”

For vendors committed to the U.S. market, the pace to market will be somewhat stately. “You’re talking five years at the earliest when someone’s going to get an approval,” Soenksen says. “People don’t like to face up to that truth, but that’s the timeline.” The FDA will need to clear a vendor to do a clinical study; the vendor will need to do the study; and the FDA will have to approve the PMA.

- Propose 5 pathologists, 5,000 cases, 5 days to achieve "ground truth/panel/consensus disgnosis", then 5 different pathologists each looking at 1,000 cases on both screen and (exempt) microscopes with 5 week washout.  Get cheap monitors from BestBuy as to establish minimal technical equipment needed and microscopes with rice krispies dessicating on objectives, typical of many clinical laboratories to replicate "real life".  5 years too long.  Eli and Tom will be in the Superbowl again.

Faison declined to comment on when the FDA anticipated receiving vendor submissions.

- After football season is over and before baseball begins.  Also known as "February".

Aperio had been talking with the FDA about clinical studies even before the Class III announcement, and it hopes to have an acceptable study design soon. “We’re going to be the first company to get FDA approval,” Soenksen predicts.

Another large vendor, Omnyx, has been in talks with the FDA as well, says Michael Montalto, PhD, one of the company’s founders and vice president of clinical and regulatory affairs. The Class III billing didn’t surprise him, either. “We have a pretty good sense of what we need to do,” says Dr. Montalto, who also attended the panel. “But that’s not as a result of the announcement—it’s because of our continued back and forth with the FDA.”

Dr. Montalto puts a positive spin on the news. “The device will be safe when it comes out. You have to be happy about that.”

- The best interest of the patient is the only interest to be considered

William J. Mayo

Safety, after all, is at the heart of the Class III label. Listing the potential risks of WSI systems, Faison says, “We’re very concerned that the image quality is as good or better than when using the light microscope. Is it like that for all surgical pathology specimens or only for a segment of surgical pathology specimens? What are the differences in human interaction between viewing under the microscope and navigating on the computer screen?”

To answer such questions, the FDA will require clinical studies to validate performance. Here’s where confusion re-enters the room, forcing players to engage in, if not quite brinkmanship, at least a little blinkmanship.

It’s not clear, for example, what types of clinical studies vendors will need to conduct as part of their PMA submissions. Faison gave some general guidelines at the panel, but until the agency receives its first vendor submission, the FDA’s specific desires are likely to be a mystery. “We don’t have all the answers,” Faison says. The more specific vendors can be with their proposed clinical studies, observers say, the easier it will be for the agency to decide whether to grant a green light.

Another unanswered question: How broad or narrow can an intended use be? Will approval be given for diagnosing, say, breast cancer, but not colon cancer? Prostate biopsies but not endometrial biopsies? Or cancer, but not inflammatory skin conditions? “A huge question,” Dr. Henricks says. “I wish I could give you more clarity. I wish I could give me more clarity.”

“This is a tough question,” Faison says. “We don’t want to see a submission for just one organ system—say, breast.” That’s not a realistic intended use, she says, “and we realize that a laboratory would not buy for just that indication.

“On the other hand,” she continues, “performing a study for all of surgical pathology, including frozens, special stains, etc., would be one huge and hardly manageable submission. We are encouraging sponsors to take a hard look at how these devices will most likely be used in the laboratory, employ a ‘fit for purpose’ mentality, and frame their intended use (and therefore clinical studies) around that.” She adds that vendors will need to define the physical and technical characteristics, such as focus, resolution, and color, prior to beginning their clinical studies; in addition, they’ll need to look at what she calls a clinically balanced population.

- Paul Valenstein, MD I think gives the best talk on the issues raised in the last 6 paragraphs.  I heard him speak on these issues at a talk several of us gave at USCAP last year.

Download Valenstein_companion06handout

I recall something about needing 65,000 cases but not hemepath, cytology or pigmented lesions

Vendors are dropping few clues themselves. Regarding Aperio’s submission, “It will be as broad as FDA allows it to be,” Soenksen says, punctuating that sentence with laughter.

Vendors are struggling with this issue, Dr. Montalto says, and some are irked that they’ll need to make the first move. But he reminds his industry colleagues that this is a relatively new field. Previous summary statements and clearances aren’t useful guides; every device will have its own nuances, and it’s up to vendors to discuss them with the FDA. “I think they learn a lot from their discussion with vendors. They’re getting educated on this process, too,” he says.

While vendors and the agencies continue their parry, Soenksen sees an opportunity for pathologists to step up. “My personal view is the College needs to lead this,” he says. He suggests that the FDA is looking for cover from the pathology community—if pathologists, and the CAP, made it clear they support WSI and are ready to use it, he says, the FDA would feel more comfortable bringing the systems to market.

The FDA has also irked some pathologists, Dr. Montalto observes, though he speaks diplomatically, gently pointing out that the AP community, in comparison to CP and other clinical specialties, may be less familiar with the demands of bringing new technologies to the marketplace, including the regulatory environment and its requirements for technical validation and understanding the risk profiles of every device.

The FDA will look at the accuracy of the whole-slide imaging approach and the accuracy of the traditional light microscopy approach, comparing both to an adjudicated standard. This reference standard will likely be determined by a panel of three pathologists; agreement by two of the three creates the reference diagnosis. Dr. Wilbur’s preference would have been to consider the glass slide interpretation the de facto gold standard, and then compare digital to that. This approach is more in line with submitting a 510(k) rather than a PMA, showing essential equivalence to a similar, standard technology. “The glass slide is the current gold standard—this type of PMA approach tests not only WSI interpretation, but also the glass slide standard. It will be interesting to see how this sorts out. WSI could turn out to be better with this approach—who knows?” says Dr. Wilbur.

- A growing number of studies have shown superiority of virtual microscopy versus light microscopy (See: http://www.tissuepathology.com/weblog/2011/10/superiority-of-virtual-microscopy-versus-light-microscopy-in-transplantation-pathology.html)

- This could be bad for microscope manufacturers and what about all the diagnoses made on these barbarian, exempt devices?

The FDA’s approach also requires a so-called washout period, during which the pathologist theoretically forgets the initial diagnosis before making a diagnosis on the second technology. “How long do you need to make the study not biased?” Faison asks. “I think randomizing the read order may help with that.”

- I may not remember your name, but I never forget a face.  Excuse me, have we met somewhere before?  But if you change the read order you already know that the first case is not the first case, or the last the last, unless of course it actually is which sounds like something Dr. House would say but most of us know if you are playing Monopoly and you are the thimble and on Connecticut Avenue and roll a nine then you go to Tennesse Avenue and a subsequent 7 puts you on B&O railroad and 8 more gets you Community Chest.  With enough cases (see reference to 65,000 cases above), this might work.

If all this sounds familiar, that’s because it’s similar to the FDA’s approach to regulating automated cytology, says Dr. Wilbur. But it may be more problematic for WSI systems, he says, especially the washout period. “Cytology slides are more difficult to remember, but I would suspect that memory of surgical pathology specimens will be more difficult to wash out,” he says. The FDA’s proposed washout period is a week minimum, Faison says, though she adds that two to three weeks would be optimal. (A CAP workgroup on WSI validation said it has found no widely accepted washout length and has recommended a three-week period.)

- Propose minimum of 2 weeks.  Absolute minimum.  More than 3 weeks ideal. Increases the chances the slides could be lost, broken, misfiled, destroyed or reused. Usually still in the pathologists office for 2 weeks and cannot be uncovered or identifed as broken or destroyed.

“In addition,” queries Dr. Wilbur, “what about other important aspects of a surgical pathology case?” Compared to cervical cytology, he says, where each case has only one reference diagnosis, surgical pathology specimens may have many aspects to test. In addition to a diagnosis of, say, colon cancer, the pathologist is also expected to grade the cancer, assess the margins, the depth of invasion, and so on. If these parts of the case do not match, how will the FDA handle that? Such patient care issues will make design of the studies potentially complicated, he says.

Beyond this, Dr. Wilbur fears that the FDA’s proposed studies will be too expensive and too difficult for smaller companies to conduct. With the advantage falling to larger companies, it could curb innovation.

He’s particularly concerned about how component makers will fit into the picture. Right now, they don’t. The FDA regards WSI as a system, and that’s the regulatory pathway it’s providing. Dr. Montalto suggests the FDA will eventually take another look at this. But near term, it will likely have a chilling effect on component providers, Soenksen says.

Some fear the decision could be stifling. Pathologists won’t be able to mix and match components as they see fit, and large vendors will have little if any incentive to design flexible systems. “What the FDA presented is the easiest solution,” says Dr. Wilbur, who wants more thought devoted to this issue. How will makers of scanners, image-management systems, or viewing stations break into the primary interpretation market? “They’ll be left out in the cold. This has to be addressed.”

Dr. Wilbur’s concerns point to another mudslide in the making. By recognizing WSI as a system, rather than individual components, the FDA also stated it did not see whole-slide imaging as a laboratory-developed test, which originates in the lab and is put together from initial components. Where does that leave labs that want to validate a non-approved WSI system?

“I’m doing my best to piece this together,” says Dr. Henricks, who adds that the matter has now been tipped into CMS’ lap. “What is CMS going to do about this if they find a laboratory using it? What if the laboratory has done a good validation for its intended use in the lab? What happens?”

- Take home message: We are not actually talking about regulators regulating whole slide scanners (without a predicate device), we are actually talking about regulating whole slide systems.  Entire ecosystems – stainers?, scanners, monitors, servers, viewers, pathologists?

It’s not hard to extrapolate further and ask about the implications for CAP inspectors enforcing CLIA. The answers could be scary.

“It’s a panic issue right now,” says Dr. Parwani.

- A perfection of means, and confusion of aims, seems to be our main problem.

Albert Einstein

Attempts to clarify matters further at the panel failed, attendees and panel members say. It wasn’t clear, for example, whether WSI systems that have already received FDA clearance for select use (for example, automated image analysis of breast markers) or for research use only can be validated as LDTs, Dr. Henricks says. FDA regulates manufacturers of medical devices, whereas CMS/ CLIA regulates testing that occurs in clinical laboratories. “I think sometimes it’s a misperception that the FDA directly regulates clinical laboratories, outside of blood bank,” Dr. Henricks says.

Dr. Montalto says that in his conversations with the FDA, the agency appears understandably uncomfortable with the idea of labs employing WSI systems for off-label use. He says the potential for this is a major reason the FDA wants vendors to move quickly on their submissions, so the devices can be proven safe for their intended uses.

- I hope not too quickly here we still need another public meeting and possibly a guidance document possibly in the next year.

Dr. Henricks makes it clear that the CAP accreditation program is not taking a public position on this and will harmonize with the FDA and CLIA and their requirements. “We look to them for some guidance on how to approach this topic,” he says. At the same time, he says, it appears that the CMS would welcome input from the CAP on how to address WSI for clinical purposes.

- I recognize CAP is in a tough spot here and everyone is looking to everyone else for guidance. Please give these folks enough guidance to make the decisions we need them to make. A blocked path also offers guidance.  (Last 2 lines with apologies to Mason Cooley and Jimmy Johnson.  Who else can use these 2 names in the same sentence, huh?). See if CMS would welcome input from the CAP on additional billing codes for some of these services.

In the meantime, the CAP has already begun addressing WSI via the aforementioned workgroup, which was convened by the College’s Pathology and Laboratory Quality Center. The group (Dr. Parwani and Dr. Henricks are members) put together 13 draft statements for laboratories that want to validate WSI systems. The CAP currently has no accreditation program checklists on WSI validation, but the recommendations might be part of a future such checklist.

- The only question then is who drives this may be, could be, future such checklist, The College’s Pathology and Laboratory Quality Center, CAP’s Council on Accreditation, Diagnostic Intelligence and Health Information Technology Committee or The CAP Technology Assessment Committee. I think a committee should be formed to organize these committees.  

The CMS representative on the panel, Debra Sydnor, CT(ASCP), says CLIA is interested in the workgroup’s recommendations. “That is very helpful to us,” she says. But it’s hard to know how that interest will translate into practical action and, ultimately, regulatory compliance.

- One should avoid using the terms "practical" and "regulatory" in the same sentence.  Kind of like saying "Notre Dame" and "football" for the past decade and a half.  It doesn't sound right.  And are we talking about regulations or compliance with said regulations.

Ideally, labs should consider holding off on using WSI for clinical purposes until a system has FDA approval for the appropriate intended use, says Sydnor, cytologist, CMS Division of Laboratory Services. She realizes this is a quixotic notion. Sydnor says she’s been fielding calls from laboratories that intend to use—or are already using—WSI for testing that involves H&E. Most of the questions concern the holder of the CLIA certificate—i.e. where is the final testing done?—rather than validation. For CLIA purposes, the pathology test is the specimen grossing and the microscopic slide interpretation; therefore, the location where they are performed must have the appropriate CLIA certificate and meet the applicable requirements.

- Increasingly grossing/histology services are becoming consolidated and where the tissue is grossed and slide read are different facilities. And a third location could be where the image being used to render the diagnosis is reviewed.  

She advises laboratories to look to CLIA regulation 42 CFR 493.1253 for guidance regarding off-label use of the device under CLIA, but notes that additional formal guidance, specific to WSI, will be forthcoming from the agency.

- Until then go to http://edocket.access.gpo.gov/cfr_2010/octqtr/pdf/ 42cfr493.1254.pdf for the aforementioned reference above.

What will happen if a CLIA inspector encounters a laboratory using WSI for clinical purposes? The lab will have to demonstrate appropriate validation, policies and procedures, and other CLIA-related quality assurance practices, as it would for any test, she says, but that’s not the end of the story. “This will involve training and instruction within CLIA,” Sydnor says. “This area of automation is all new to them [CLIA inspectors] as well.”

- What?  Level of automation? What level of automation? Validate the slide scanning, disk spinning, pixel transfer?  What is being manufactured that will reduce the need for hard physical labor and/or monotonous work.  We are actually adding additional steps and work and effort in this process.  What humans are being replaced by what instrumentation that would justify the sheer mention of "automation".

She makes clear that CLIA is neither granting permission nor encouraging laboratories to use WSI imaging for clinical purposes right now. At the same time, “CLIA is not out to witch hunt anyone,” she says. “We basically want to know what you’re doing, how you’re ensuring quality testing, and what it is you’d like to do.” Like everyone else at the table, she says, CLIA is seeking data about how well, and how safely, these systems perform.

- Translation: We work for the government and we are here to help.  We are not saying that you can't, but we are not saying that you can either.

Meanwhile, what’s a less-adventurous lab to do?

A surprising amount, as it turns out. As Dr. Henricks notes, digital pathology remains viable for uses other than primary diagnosis, including quality assurance, secondary consultations, education and research, and automated image analysis.

Labs should continue using WSI in approved ways, Dr. Parwani says, which will let them move quickly once the systems earn approval for primary diagnostic use. Here the CAP working group guidelines will be valuable, he says, since they’re extensively annotated and draw on available data as well as user experience. Labs can use the guidelines to ensure they have all the components in place and the right workflow as they prepare for the eventual shift to WSI.

- In 5 years we can jump on this right away.

Dr. Wilbur and his colleagues mostly use WSI for continuing education, but in mid-December they inked a contract with an image-management system company, setting them up to do what he calls “intramural” consultation. This will allow pathologists to share cases in the system across multiple desktops, including those at regional affiliates, and enable second opinion consultations to flow into the institution from outside sources.

At UPMC, Dr. Parwani and his colleagues continue to use digital pathology, as they have for the past couple of years, for education, research, QA, and getting opinions from colleagues. They use it for image analysis of breast markers, and they are starting to accept consults from other countries and institutions for second opinions. “We’re trying to use it for all the intended uses that are approved,” he says. They’re participating with a vendor in clinical trials to prepare its system for premarket approval, and their interest in primary diagnostic use looms large. “Most of our pathologists are very comfortable with looking at digital images and looking at digital slides,” he says.

- Who mentioned anything related to pathologists actually being able to read these images and help providers take care of people.  When was pathologists abilities to do their jobs to the best of their abilities with the right training, experience and equipment discussed in this process? You mean pathologists can actually do this today? Read images?  Like through a microscope?  Or a gross photo?  Or an electron micrograph?

“There are so many things you can do,” he adds. “This should not stop your march toward digital pathology.” The DPA panel, in his view, was merely one step in the process. He, like Dr. Montalto, even sees it as a positive one. “FDA is looking at it, and we’re going to have a good product in the end.”

- “Everything will be all right in the end. If it’s not all right, then it’s not the end.”

 Karen Titus is CAP TODAY contributing editor and co-managing editor.

Of the FDA’s decision to regulate whole-slide imaging systems as Class III devices, Aperio president Dirk Soenksen says, “They’ve made up their mind. . . . You’re talking five years at the earliest when someone’s going to get approval.” How broad will Aperio’s submission be? “As broad as FDA allows,” he says.

 

Faison

 

Dr. Henricks

 

Dr. Montalto

 

Dr. Wilbur

 

Dr. Parwani

Usefulness of Software for Analyzing Digital Pathology Images Highlighted

January 17, 2012
Hard to miss this news item which I saw reproduced on dozens of media outlets and sites.

Ul Balis and his team, including Jason Hipp using their SVIQ technology were able to differentiate benign from malignant bladder tissue in cases of micropapillary urothelial carcinoma.
 
This type of technology which uses concentric rings to identify key features for recognition rather than square blocks in the query is a welcome addition to the surgical pathologist's toolkit and I think the tip of the iceberg in the type of value added propositions digital pathology will offer over analogue.  
Reproduction of the glass slide is just the beginning.  The ability to differentiate normal from malignant and dozens of other applications helps add science to the "art and science" practice of pathology. 

This is the 11th of what could become hundreds of publications looking at a wide variety of anatomic pathology differential diagnoses and clinical situations.  
Look for more to come from this game changing technology.

As tissue slides are more routinely digitized to aid interpretation, a software program whose design was led by the University of Michigan Health System is proving its utility. malignancy from background tissue in digital slides of micropapillary urothelial carcinoma, a type of bladder cancer whose features can vary widely from case to case and that presents diagnostic challenges even for experts.

In a new study, a program known as Spatially Invariant Vector Quantization (SIVQ) was able to separate malignancy from background tissue in digital slides of micropapillary urothelial carcinoma, a type of bladder cancer whose features can vary widely from case to case and that presents diagnostic challenges even for experts.

The findings by U-M and Rutgers University researchers were published online in Analytical Cellular Pathology ahead of print publication.

"Being able to pick out cancer from background tissue is a key test for this type of software tool," says U-M informatics fellow Jason Hipp, M.D., Ph.D., who shares lead authorship of the paper with resident Steven Christopher Smith, M.D., Ph.D. "This is the type of validation that has to happen before digital pathology tools can be widely used in a clinical setting."

To test the software's ability to identify cancer in a digital slide, a group of human pathologists first pinpointed the cancer the old fashioned way, by hand. Their work was then used as the gold standard for grading the program's results. Researchers then systematically tested which settings within the program produced the most accurate results – which can serve as a blueprint for optimizing the software to detect other types of cancer and disease.

The findings by U-M and Rutgers University researchers were published online in Analytical Cellular Pathology ahead of print publication.

Diagnosing cancer and other pathologies from tissue slides has always been part science and part art. Pathologists pore over samples looking for certain structural anomalies or counting microscopic features.

"Being able to pick out cancer from background tissue is a key test for this type of software tool," says U-M informatics fellow Jason Hipp, M.D., Ph.D., who shares lead authorship of the paper with resident Steven Christopher Smith, M.D., Ph.D. "This is the type of validation that has to happen before digital pathology tools can be widely used in a clinical setting."

News-digital-pathology-2012

To test the software's ability to identify cancer in a digital slide, a group of human pathologists first pinpointed the cancer the old fashioned way, by hand. Their work was then used as the gold standard for grading the program's results. Researchers then systematically tested which settings within the program produced the most accurate results – which can serve as a blueprint for optimizing the software to detect other types of cancer and disease.

Diagnosing cancer and other pathologies from tissue slides has always been part science and part art. Pathologists pore over samples looking for certain structural anomalies or counting microscopic features.

But different pathologists – or even the same pathologist at different times – may come to different conclusions based on a number of factors, including whether a slide is viewed at high or low magnification, or even whether the pathologist is fatigued from examining dozens of other slides that day, the researchers say.

Digital tools like SIVQ can help pathologists to quickly, accurately and efficiently identify features on a slide with just a few clicks; to quickly calculate the area of an irregularly shaped feature; or to eliminate the slow and painstaking tallying of tiny elements.

Still, the authors stress, the program isn't intended to replace the skill and art of human pathologists, but to provide an additional resource.

"Not only do our findings show that SIVQ has the potential to be a useful tool in surgical pathologists' toolkits when optimized to aid detection of such a highly variable disease, but the case is an excellent example for how the same approach might be applied to a variety of clinical areas," says Ulysses Balis, M.D., director of the division of pathology informatics at U-M and the paper's senior author.

Balis led the software's design at U-M along with Hipp and former informatics fellow Jerome Cheng, M.D.

Unlike other pattern recognition software, SIVQ bases its matches on a set of concentric rings rather than the usual square block. This allows features to be identified no matter how they're rotated or whether they're flipped, as in a mirror.

An example of the program's flexibility was recently demonstrated by Bruce P. Levy, M.D., a research fellow in pathology at Harvard Medical School. Testing the program's utility in a forensic pathology setting, SIVQ was used to calculate the area of bullet wounds and to identify and quantify stippling, which are small scrapes surrounding some gunshot wounds that help to determine the distance from which a gun was fired.

"Being able to use software like SIVQ to analyze forensic images helps to bring the practice of forensic pathology closer to the high-tech fictional world of CSI," Levy says.

Since the computer-aided analysis of micropapillary urothelial carcinoma might contribute to patient care, the group is making all of their primary data freely available to other doctors and researchers at U-M's online digital imaging repository, www.WSIrepository.org.

This paper marks the researchers' 11th SIVQ-related publication, including two editorials. Several others are currently in progress.

Source: University of Michigan

New Articles Published in Journal of Pathology Informatics

January 9, 2012

 

Telecytology: Clinical applications, current challenges, and future benefits
Michael Thrall, Liron Pantanowitz, Walid Khalbuss
J Pathol Inform 2011, 2:51 (26 December 2011)
[ABSTRACT]   [HTML FULL TEXT]   [PDF]   [Mobile HTML Full text ]   [EPub]

 

An open-source software program for performing Bonferroni and related corrections for multiple comparisons
Kyle Lesack, Christopher Naugler
J Pathol Inform 2011, 2:52 (26 December 2011)
[ABSTRACT]   [HTML FULL TEXT]   [PDF]   [Mobile HTML Full text ]   [EPub]

 

Heterogeneity of publicly accessible online critical values for therapeutic drugs
Colt M McClain, Richard Owings, Joshua A Bornhorst
J Pathol Inform 2011, 2:53 (26 December 2011)
[ABSTRACT]   [HTML FULL TEXT]   [PDF]   [Mobile HTML Full text ]   [EPub]
Source (click image to go to full journal):
Jpicover

 

Baylor’s Cancer Genetics Lab to Offer Ion AmpliSeq Cancer Panel on PGM

December 2, 2011

November 30, 2011 in GenomeWeb – Clinical Sequencing News
By Julia Karow <mailto:jkarow@genomeweb.com>

Baylor College of Medicine's Cancer Genetics Laboratory is about to launch a sequencing-based test on the Ion Torrent PGM that uses the firm's Ion AmpliSeq Cancer Panel to target mutations in 46 cancer genes.
The lab is among the first in the country to use targeted next-gen sequencing in a clinical setting for cancer. Washington University School of Medicine's Genomics and Pathology Services Laboratory recently introduced a similar test on the Illumina HiSeq, targeting 28 cancer genes (CSN 11/22/2011 <http://www.genomeweb.com/sequencing/wash-u-med-school-offers-28-gene-cancer-dx-panel-hiseq-through-clia-lab> ).
Baylor's test, which the CLIA- and CAP-certified CGL will start offering in December, targets 739 mutations in 46 commonly mutated cancer genes. It will be priced under $2,000, and its turnaround time will be around seven to 10 days, although it is possible to complete the test within a day or two, according to Marilyn Li, the lab's director and a professor of molecular and human genetics at Baylor.

While Baylor will offer the test on a research basis, it can be ordered by both basic researchers and doctors. "It's truly a research tool at this point in time," said Condie Carmack, the lab's general manager. And while insurance will not initially pay for it, the CGL will look into whether the test could be reimbursable. The panel could replace, at a lower cost, existing tests that sequence small numbers of genes, he said.
Initially, the test will be based on the Ion AmpliSeq Cancer Panel that Ion Torrent launched for the PGM in October (CSN 10/12/2011 <http://www.genomeweb.com/sequencing/life-tech-launches-cancer-panel-amplicon-sequencing-kit-ion-pgm-plans-510k-filin> ). That panel uses single-tube PCR to amplify 190 amplicons in 46 cancer genes from 10 nanograms of DNA in 3.5 hours, according to the company, and can detect mutations down to a frequency of 5 percent.

According to Li, the coverage for the targeted mutations varies between less than 100x to close to 10,000x, with an average coverage of about 2,000x.So far, the CGL has not had problems with homopolymer regions, which the PGM is said to have trouble with. "We are aware that it could be a problem [but] it does not seem to be an issue with this AmpliSeq product," Carmack said.
Ion Torrent selected the genes for the panel after seeking input from several cancer researchers, including the Baylor team. It includes somatic mutations in genes commonly mutated in cancer as well as germline mutations found in inherited forms of the disease.The reason CGL chose the Ion Torrent platform for the test is its quick turnaround time and low cost per run. At the moment, the lab has two Ion Torrent sequencers that share one Ion Server, but it considering purchasing "a couple" more PGMs.

 
The Illumina MiSeq did not exist at the time they were developing the test, according to Carmack, and while the lab also has a HiSeq, its turnaround time was too slow and its throughput too large. "We really wanted something quick, inexpensive, and compact," he said.
Another advantage of the Ion Torrent panel is that it can be customized, and in future versions of the test, the CGL plans to add or omit genes or to sequence some genes with greater depth. "That is very appealing to a lot of researchers, as well as to clinical trials," Li said. According to Ion Torrent, AmpliSeq custom panels can include "hundreds of genes" or DNA regions up to 500 kilobases in size.
Initially, the test will run on the Ion 314 chip, though CGL is considering moving it over to the higher-throughput 316 or 318 chips. This would allow them to deepen the coverage, add more genes to the panel, or multiplex samples.
While the lab is currently not using the Ion OneTouch to prepare samples for the PGM, it already has the instrument in house and is planning to test it.

Focusing on the 'Clinically Useful'
There are several reason why CGL opted for a targeted cancer gene panel, rather than analyzing whole cancer exomes or genomes, Li said.

For one, the mutations targeted by the panel are interpretable, whereas large-scale sequencing yields many variants that "may not be clinically useful," and confirming them all takes a long time. "That doesn't meet the need of cancer diagnosis," she said. In addition, the cost of targeted sequencing is still much lower than that of whole-exome or whole-genome sequencing, and the turnaround time is shorter.
Also, because the test is less complex than exome or genome sequencing, it was easier to implement it in the clinical lab, she said. Lab technicians were able to achieve the same results as the R&D lab relatively easily.
For whole-exome or whole-genome sequencing for cancer to become practical in a clinical setting, she said, its cost will have to come down to that of a single-gene test, and the data analysis will need to be able to extract relevant results quickly.

Another Baylor lab, however, is already forging ahead with clinical whole-exome sequencing, albeit for inherited diseases rather than cancer. Earlier this month, Baylor announced the opening of the CLIA-certified Whole Genome Laboratory, which offers a whole-exome sequencing test for the diagnosis of genetic disorders, with plans to move to whole-genome sequencing in the future (IS 11/16/2011 <http://www.genomeweb.com/sequencing/baylor-whole-genome-laboratory-launches-clinical-exome-sequencing-test> ). Like the CGL, the WGL is affiliated with Baylor's department of molecular and human genetics and its Medical Genetics Laboratory, but it also closely collaborates with the Human Genome Sequencing Center.

There are some types of mutations that the CGL's current cancer panel, which focuses on point mutations and small insertions and deletions, cannot detect — for example, translocations, copy number variants, or epigenetic changes. "There is no one technology that is going to cover it all," Li said. But CGL is hopeful that further improvements of the Ion Torrent platform will enable it to analyze both copy number variants and translocations.
The cancer panel is only one of more than 135 tests the CGL offers, including sequencing of single genes, deletion and duplication testing, chromosome analysis, FISH, and chromosomal microarray analysis.
Many of these tests, which target mutations found in inherited cancers, were already offered by Baylor's Medical Genetics Laboratory, from which the CGL split off about a year ago. "We are moving them over under the CGL banner and expanding our content in somatic and acquired cancers," Carmack said. The reason CGL was founded as a separate entity is that its focus on both non-inherited and inherited forms of cancer required special expertise in cancer genetics, he explained.

The CGL — a joint project of the department of molecular and human genetics, the department of medicine's hematology and oncology division, the department of pathology, the Dan L. Duncan Cancer Center at BCM, and the Texas Children's Hospital Pathology Laboratory — still works closely with the MGL, which shares the same location, about a mile and a half from the main Baylor campus.
Besides molecular testing for guiding patient treatment and prognosis, the CGL offers clinical trial services to companies and conducts research to discover new cancer genes, markers, and tests for them, both on its own and in collaboration with industry.

 

 

FREE White Paper: A CEO’s Guide to Next Generation Revenue Cycle Management: What Service Providers Need to Know to Survive the Changing Diagnostic Healthcare Environment

October 13, 2011

A CEO’s Guide to Next Generation Revenue Cycle Management: What Service Providers Need to Know to Survive the Changing Diagnostic Healthcare Environment

FREE Special Edition White Paper

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cover white paper changing diagnostics healthcare

Macroeconomic pressure, increased governance, organizational changes, and technological advances are driving pervasive and lasting changes in the fabric of the healthcare system. Because diagnostic services influence the majority of healthcare decisions, changes to healthcare are magnified in the diagnostic services segment. Failure to aggressively adapt to this dynamic environment can easily imperil diagnostic service providers.

The system of record and the lifeblood of diagnostic service providers is the Revenue Cycle Management (RCM) system. A dramatic rethinking of the role of RCM systems is critical to ensuring service providers are able to successfully compete in the marketplace.

The Dark Report is happy to offer our readers a chance to download our recently published FREE White PaperA CEO’s Guide to Next Generation Revenue Cycle Management: What Service Providers Need to Know to Survive the Changing Diagnostic Healthcare Environment” at absolutely no charge. This free download will provide readers with a detailed explanation on the next generation of RCM.

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  1. How Changes Impact Diagnostic Healthcare
  2. Next Generation RCM
  3. How the Diagnostic Market Reacted to the Diagnostic Change
  4. Costs of Not Changing

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Table of Contents

Introduction — Page 3

Chapter 1.
The Perfect Storm of Healthcare Change — Page 4

 -Macroeconomic Pressure — Page 4

-Governance — Page 5

-Organizational Changes — Page 7

-Technological Changes — Page 9

 -How Changes Impact Diagnostic Healthcare — Page 11


Chapter 2.
Diagnostic Market Reaction to Changes — Page 14

-Interoperable — Page 14

-Informative — Page 15

-Intelligent — Page 15

 -Intantaneous — Page 16

 Chapter 3. What Does this Mean for Your Business?— Page 17

-Clean Claims Up Front — Page 17

-Costs of Not Changing — Page 18

 Chapter 4. Options for Change— Page 20

-Purchase vs. Patch — Page 20

-Interoperable vs. Integrated — Page 20

-SaaS vs. ASP — Page 21

-Partner vs. Vendor — Page 22

Conclusion — Page 24

References — Page 25


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OMNYX: Meet the Startup with Big Backing that is Digitizing Pathology

August 23, 2011

By Matt Pross, TEQ Staff Writer

Nice piece on Omnyx and their approach.  Digital pathology is often cited as a $2 billion market as is mentioned a couple times in this story.  

"Leave it to the big boys to go and carve out a $2 billion global market with the goal to redefine pathology worldwide. That’s exactly what GE Healthcare and the University of Pittsburgh Medical Center (UPMC) set out to do when they partnered to form Omnyx™. Focused on developing an entirely digital, integrated pathology solution, the joint venture has made significant progress toward this formidable goal since its founding in March 2008.

OMNYX_5951

“The technology that was in use before OMNYX had a very niche focus and was used mainly in low volume/niche applications,” Tony Melanson, Vice President, Strategy & Marketing for OMNYX, said. “We saw the shortcomings of this technology and asked ourselves ‘what would it take to create a solution that would enable the high quality and high throughput necessary for pathology to evolve from an analog workflow into a digital practice?’ With its foundation in information technology systems for radiology, GE saw digitizing pathology as a natural progression and a great fit into the company’s existing portfolio. 

We also knew pathology was uncharted territory and decided to solicit the help of Carnegie Mellon University and their leading Human Computer Interaction teams to help us design an efficient workflow and appealing user interface with the help of UPMC pathologists.""

Read full story.

 

White Paper – Laboratory Information Systems (LIS) in the 21st Century: The Challenges and the Promises

August 22, 2011

FREE Special Edition White Paper

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Laboratory Information Systems (LIS) in the 21st Century: The Challenges and the Promises

Increasingly LIS’s offer what laboratories need: modular-based LIS’s with customizable functionality, scalability and a high level of adaptable connectivity for both institutional EMRs and physician access. In addition, laboratories increasingly expect high levels of customer service from LIS vendors. The environment for health information technology, specifically LIS’s, requires adherence to a number of national and international standards including CLIA, CCHIT, ANSI, HL7, HITSP, and LOINC.

A modern medium to large clinical diagnostic laboratory is made up of numerous specialized laboratory units – microbiology, chemistry, hematology, anatomic pathology, etc. – which all have unique needs and workflows. This presents challenges for LIS’s, which can be handled through modular systems that utilize a single database, are flexible and scalable, and can be customized for each laboratory unit or institution’s needs. Many laboratories also require customizable non-clinical applications like billing and client connectivity.

The Dark Report is happy to offer our readers a chance to download our recently published FREE White Paper “Laboratory Information Systems (LIS) in the 21st Century: The Challenges and the Promises” at absolutely no charge. This free download looks at all of these topics and present solutions presented by New Jersey-based NeTLIMS through two case studies involving NICL Laboratories in Illinois and Shiel Medical Laboratory in New York.

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Among other topics, this FREE White Paper specifically addresses:

  1. Unique lab work flow needs
  2. Some common interface challenges
  3. Off the shelf LIS vs custom LIS solutions
  4. Implementing LIS into your lab, a sample case study

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Table of Contents

Executive Summary & Objectives — Page 3

Chapter 1.
What is a Laboratory Information System? — Page 7

Chapter 2.
Standards and the Interface Challenge — Page 12

Chapter 3.
The Multiple Component Challenge — Page 18

Chapter 4.
Off-The-Shelf Versus Customizable LIS’s — Page 22

Chapter 5.
The Implementation Challenge — Page 24

Chapter 6.
Case Studies: Implementing a Laboratory Information System — Page 27

Chapter 7. Conclusion — Page 32

Appendices

A-1 About Gerald Choder — Page 36
A-2
About NeTLIMS — Page 37
A-3 About DARK DAILY— Page 38
A-4 About The Dark Intelligence Group, Inc., and The Dark Report — Page 39
A-5 About Executive War College on Laboratory and Pathology Management— Page 40
A-6 About Mark Terry — Page 42

Terms of Use — Page 44

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MikroScan Achieves Groundbreaking Footprint in Desktop Whole Slide Scanner for Digital Pathology

July 23, 2011

Courtesy of the San Francisco Chronicle via PRWeb

Vista, CA (PRWEB) July 22, 2011

Whole slide imaging (WSI) manufacturer, MikroScan Technologies, Inc., announces a breakthrough in size threshold of its ultra-small desktop whole-slide scanner, the MikroScan D2, which is designed for secondary diagnostic analysis and collaboration for digital pathology, clinical research, and education applications.

With workspace at a premium shortage in most laboratories, MikroScan has focused its design and development on instrumentation that innovates the advanced features of larger more expensive systems into smaller desktop, or "personal," scanning solutions. A few minor changes on the inside have created a stunning difference on the outside, and now the market's smallest whole-slide scanner is dramatically smaller.

The tiny desktop footprint of the MikroScan D2 is now only 11 by 13 inches (143 square inches) – a whopping 40% smaller footprint area than the previous version, which was 13 by 18 inches (234 square inches).

"It's about the size a shoe box," says Bob Goerlitz, president of MikroScan Technologies. "We've been working on these improvements for a while, and we are very excited to bring them to market. This type of design criteria has been our core value since launching the company. The goals have been simple; to provide the market with a scanner that meets the end-users' needs for features, capability, and price so the market will finally be able and willing to support and adopt cost-effective digital pathology technology."

The new, more compact MikroScan D2 still packs all the same powerful features and performance that pathologists are calling for, including excellent quality imaging, high-resolution scan speeds well under 2 minutes, and collaborative communications tools that allow remote sharing and control. The scanner is ideal for frozen section room, and cytology fine needle aspiration (FNA) cart applications.

Victor Casas, chief technology officer and applications specialist at MikroScan Technologies, said, "Nothing was sacrificed in the minor reengineering to achieve a smaller footprint. If anything, we have made further improvements to the solid design, increased overall accuracy, and enabled some features that were previously unused. The optics and imaging system are the same exceptional quality, which is a pathologist's main concern for quality medicine and diagnostic accuracy."

"The new smaller sized instrument will make a huge difference for a lot of pathology offices and laboratories where workspace is scarce," said Mr. Goerlitz. "People are quite shocked when they first see how small it is. They are even more amazed when they see first hand the superior image quality it produces and how its features, performance, and flexibility can dramatically improve their workflow and diagnostic communications, and allow end users to bridge the gap between digital slide scanning and remote telepathology. The MikroScan D2 is clearly the smallest, yet most advance scanner in its class."

Mr. Goerlitz was previously quoted, "In large facilities, our solution complements the high-throughput products on the market by filling in the 'gaps of convenience' through eliminating issues like consult travel time, lab wait time, slide shipping time, and of course MikroScan's small footprint allows easy operation from anyplace with Internet access including your desk, lab, frozen section room, or office."

About MikroScan Technologies, Inc.

MikroScan Technologies, Inc. founders have been engaged in the design, sales, and marketing of high quality laboratory instruments for more than 26 years. The company specializes in the development of cutting edge whole-slide imaging (WSI) systems and diagnostic communication tools designed for pathology, biology and research applications. With game changing technology and pricing, MikroScan products represent a leap in advancement and convenience in the evolution of WSI and digital pathology. MikroScan centers its product development on three primary criteria: 1) Speed of slide image acquisition: necessary to make scanning technology practical in scientific investigation and clinical applications. 2) High quality slide images: necessary for accurate visual or digital diagnostics and or collaboration. 3) Affordability: unprecedented economics that allows scanners on anyone's desktop or lab workstation. For further information visit: www.MikroScan.com

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For the original version on PRWeb visit: www.prweb.com/releases/prwebsmallest-whole-slide-scan/digital-pathology-imaging/prweb8662022.htm

Read more: http://www.sfgate.com/cgi-bin/article.cgif=/g/a/2011/07/22/prweb8662022.DTL#ixzz1SwabUfyY


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