Showing posts with label nuclear. Show all posts
Showing posts with label nuclear. Show all posts

Thursday, August 12, 2010

Pre-owned 2009 GE VENTRI, Dual-Head Cardiac Camera Available

General Electric’s (GE) Ventri is a fixed 90ยบ dual-head system optimized for cardiac stress perfusion studies, PET/CT, and cyclotron business.  Ventri incorporates design elements intended to increase patient comfort, such as a table with a 440-lb weight limit that can be lowered to a point where any patient can sit in it easily.   


For more information, please visit ADN Canada’s Refurbished Equipment listing.  

Tuesday, July 27, 2010

Managing Nuclear Medicine Images Gets a Little Easier

"Managing Images Gets a Little Easier" was published by Health Imaging & IT | June 1, 2007 | Inside Molecular Imaging and was written by Jamie Bellavance

The typical PACS doesn’t always cut it when it comes to nuclear medicine.  Mainstream medical imaging technologies have not been designed to handle nuclear medicine’s unique demands, proprietary protocols, or programs, which make them incompatible with radiology PACS.  Hospitals nationwide are finding they have to explore new options when it comes to needs such as display functionality to support nuclear medicine studies. Some nuclear medicine departments have invested in pioneering nuclear medicine solutions or interfaced to radiology department PACS, while others prefer an enterprise-wide, integrated solution.

Nuclear medicine requires specific display capabilities, such as grayscale or color, functional, quantitative and fusion data. Static displays just won’t do for dynamic nuclear medicine studies, planar gated studies, SPECT, PET or PET/CT. PET/CT image review involves viewing of transaxial, coronal and sagittal and maximum intensity projection (MIP) images. For that, physicians need a separate solution to translate data among different file formats.

Nuclear medicine departments across the country have integrated new image management models that facilitate nuclear medicine data flow to benefit department and enterprise workflow.

A solution for all needs
The University of Miami Hospital and Clinics (UMHC) in Miami, Fla., house a total of 120 beds, and conduct approximately 6,000 nuclear medicine procedures each year. UMHC has used Thinking Systems Corp.’s ThinkingPACS for image management in nuclear medicine since 2002. The system includes an MDStation for physicians to perform review of images, quantifications, and image fusion; a QC station for the technologists; and an archive system for archiving all the nuclear medicine images, including SPECT and PET/CT. The ThinkingPACS sends all the images to the radiology RIS-PACS, a GE Healthcare/IDX ImageCast for enterprise-wide access and archival.

UMHC has two ADAC Genesys dual-head SPECT cameras, one Philips Medical Systems Skylight dual-head SPECT camera, and a Philips Gemini PET/CT scanner. ThinkingPACS receives the image data from the SPECT cameras and the PET/CT scanner through proprietary and DICOM connectivity for the purpose of processing, quantification, display and review using the MDStation, and also for archiving.

UMHC chose ThinkingPACS because it is an open architecture, Windows-based system with a robust clinical software package with “the clinical programs, tools, utilities and all necessary functionality that we need in order to perform our work,” says Mike Georgiou, PhD, assistant professor of Radiology and nuclear medicine physicist at UMHC.

The MDStation is used by the nuclear medicine physicians for review of all general nuclear medicine studies (bone, renal, liver/spleen, parathyroid, gastric, lung), SPECT processing and review, quantification for nuclear cardiac studies, and PET/CT fusion for oncology, neurology and cardiology studies. It has all the necessary display/review functions and analysis programs for nuclear medicine studies. For example, the physician has the ability to easily and efficiently manipulate the image data, perform comparisons with current and prior studies, and capture interesting cases for slide presentations, Georgiou says.

The technologists use the QC station to check images that have been acquired, and to ensure that the patient demographic information is accurate. Subsequently, the images are shipped to the university GE/IDX PACS for enterprise-wide access. The QC station also makes CDs.

Currently, UMHC is in the process of purchasing the Thinking Systems “plug-in” solution for its hospital PACS to meet the nuclear medicine needs — including PET and PET/CT — of referring physicians. The plug-in for third-party enterprise PACS, which they hope to install in a few months, will bring the nuclear medicine image programs, functions and tools to the hospital PACS in seamless fashion. The Thinking Systems web server will provide remote access to nuclear medicine images, allowing physicians to read studies from home or any remote location. “Most PACS lack the necessary functionality for nuclear medicine imaging,” Georgiou says. “The Thinking Systems plug-in can provide this functionality and offer a complete PACS solution for nuclear medicine.”

Eliminating manual intervention
Saint Joseph’s Hospital in Marshfield, Wis., stored all nuclear medicine department quality control and patient data on optical disc until December 2004. They knew they needed to change that, says Mike Bull, manager of nuclear medicine, they just needed to figure out how. They also wanted to make sure that their solution would obscure raw data that shouldn’t be seen by physicians.

NumaStore from Numa Inc. was the perfect choice, Bull says. The specialized PACS storage and image management system is designed for nuclear medicine data and studies. It offers secure, long-term storage of patient studies acquired over separate visits and the cataloging of those studies. It also supplies efficient retrieval in a way that facilitates and encourages comparative analysis. These abilities encourage a change in the way nuclear medicine is used, from simply a diagnostic snapshot to a long-term care patient management tool.

NumaStore receives information, or queries the workstation to get all the data, and stores them on the NumaStore server. Then NumaList — a DICOM modality worklist manager — sends only the screen-saved images to the PACS, which is all the referring physicians need to see. NumaList enables importing of vital hospital information system (HIS) and radiology information system (RIS) information into nuclear medicine DICOM headers. Following this, the patient file can be forwarded on to an imaging workstation or PACS. 

For image and data storage, NumaStore eliminated the need for manual invention. Previously, if technologists needed to retrieve data, they had to manually locate the optical disc and load it in the drive. “Now, it’s as easy as querying it back from NumaStore to any of our workstations,” Bull says.  They also don’t misplace as many studies as they did with optical disc. Now that everything’s automated, all studies get pulled or pushed to NumaStore.

An enterprise-wide solution
While some facilities favor a nuclear medicine department solution for image management, an enterprise solution is the choice of others. The radiologists at Diagnostic Radiology Consultants (DRC) wanted an enterprise-wide integrated solution to help read and interpret approximately 200,000 cases per year from the 11 facilities that they service across Chattanooga, Tenn., and northern Georgia. For this job, Specialty Networks, LLC was created as the information technology arm of the radiology practice. Specialty Networks is run by DRC, a private practice group of 10 radiologists who review images in nuclear medicine, MR, CT, and ultrasound for facilities that range from a 300-bed community hospital, to a single CT scanner owned by a urology group.

Three years ago, Specialty Networks was dealing with three PACS and two RIS platforms, all from different vendors, and each with a separate workstation, logon and password. To improve efficiency, they researched a seamless, integrated solution from one vendor that would keep all their databases in sync, using one logon, one keyboard and one mouse.

In 2005, they chose Siemens Medical Solutions syngo Suite to integrate RIS, PACS, post processing and transcription. Syngo Workflow manages the exchange and distribution of patient data and images. Syngo Imaging covers the PACS applications for diagnostic preparation, quality assurance and interpretation. Syngo Voice provides voice recognition and transcription. Specialty Networks also chose Siemens’ partner NextGen Healthcare Information Systems to provide its electronic practice management (EPM) solution. In all, Specialty Networks implemented seven workstations at facilities throughout their network.

With syngo Suite, dedicated workstations for nuclear medicine imaging aren’t necessary, allowing smoother integration while reading other radiology images such as CT and MR. “We weren’t looking for a specific nuclear medicine solution. What we wanted was the solution that brought nuclear medicine into the normal workflow. The last thing you want as a radiologist is a separate workflow for separate types of exams,” says Jim Busch, MD, CEO of Specialty Networks. The nuclear medicine gamma cameras, including the Siemens’ Biograph 16, Symbia T6, Symbia S, and Orbitor gamma camera, as well as a Philips Forte gamma camera, simply plug into syngo Suite, and transfer images to the PACS, Busch says.

The syngo Suite worklist allows radiologists to search for patient images by patient name, medical record number, date, facility, or referring physician. Worklists are organized by priority, need and the radiologist’s physical location, Busch says. For example, while Busch may be located at Tennessee Imaging, half of the exams could be from another facility 50 miles away.

Specialty Networks brought 10 facilities onboard with syngo Suite in about nine months. And the results are impressive: Volume has increased about 15 percent, while workflow efficiency has jumped 27 percent. Report turn-around time also has been cut considerably — dropping to just an hour from 24 hours.

Keeping up with NM
Since radiology PACS often struggle to manage nuclear medicine image needs, vendors have come to the table with specific nuclear medicine solutions that can seamlessly relay data to the department or enterprise-wide hospital PACS. Nuclear medicine departments can now provide fast, accurate image interpretation across proprietary vendor image formats while boosting efficiency and workflow.

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About Thinking Systems Corporation
Thinking Systems is an innovative medical software developer and marketer that brings the power of digital technology to advanced clinical, as well as image management applications, creating highly functional and fully automated imaging environments. With a unique vision of comprehensive enterprise-wide digital image workflow, Thinking Systems’ product portfolio supports the most complete spectrum of imaging modalities available today. Providing truly customized implementations, Thinking Systems translates the power of its versatile product portfolio and expertise into highly effective solutions tailor-made for each installation. Founded in 1996, Thinking Systems’ cutting edge ThinkingPACS and ThinkingRIS have been helping prestigious hospitals and freestanding imaging centers, both large and small, enjoy a fully digital environment. To learn more about Thinking Systems, visit www.thinkingsystems.com.

THINKING SYSTEMS solutions are installed at over twenty sites across Canada and are proudly distributed by Alliance Distribution Network (ADN) Canada. For more information please contact your local ADN Canada sales consultant Toll-Free in Canada at 877-434-5311 or e-mail.  

Note: Any / all product names mentioned in this document may be trademarks or registered trademarks of their respective companies and are hereby acknowledged.

Tuesday, June 15, 2010

THINKING SYSTEMS WHITEPAPERS

Thinking Systems for Cardiovascular
 PACS (CV-PACS) were the winner of Frost + Sullivan’s Technology Leadership Award for demonstrating “excellence in technology within ones industry”.  The prestigious award further recognizes “excellence in all stages of the technology life cycle – incubation, adaptation, take-up, and maturity – to ensure a continuous flow of improvements, innovation, leading-edge concepts, and pioneering client applications”.  

THINKING SYSTEMS were also the highest rated CVPACS vendor by independent KLAS and are (proudly) some of the industry’s most comprehensive and feature-rich suite of general and specialized PACS and RIS (Radiology Information System) solutions available today.  We encourage you to find out how Thinking Systems technology can help to change the way you manage your practice.  

Thinking Systems WhitepaperS

+ VIEW BROCHURE
+ VIEW REFERENCES


THINKING SYSTEMS solutions are installed at over twenty sites across Canada and are proudly distributed by Alliance Distribution Network (ADN) Canada. For more information please contact your local ADN Canada sales consultant Toll-Free in Canada at 877-434-5311 or e-mail.  Note: Any / all product names mentioned in this document may be trademarks or registered trademarks of their respective companies and are hereby acknowledged.

Tuesday, April 27, 2010

NORFOLK NUCLEAR MEDICINE SERVICES CHOOSES THINKING SYSTEMS RADIOLOGY INFORMATION SYSTEM (RIS)



Alliance Distribution Network (ADN) Canada is pleased to announce that in April 2010, Thinking Systems’ RADIOLOGY INFORMATION SYSTEM (RIS) was proudly installed at Norfolk Nuclear Medicine Services. 

ThinkingRIS is Thinking Systems’ Web-based RIS (Radiology Information System) product that is merged with ThinkingPACS (i.e., they share one single database). It offers the advantage of centralized storage for both images and patient information. ThinkingRIS allows clinicians or staff members to perform key tasks such as patient registration, scheduling, exam tracking, staff and resource management, report generation and distribution, etc., from any Windows computer on the network (Intranet or Internet).

ThinkingPACS and ThinkingRIS are both scalable to fit the needs of institutions of all sizes, from a single-doctor practice to a large hospital.  ThinkingPACS and ThinkingRIS are also based on an open architecture, using standard Microsoft Window operating systems (Windows 2000, Windows XP, Windows 2003, etc), and off-the-shelf hardware.

KLAS-Award Winning ThinkingPACS and ThinkingRIS are proudly installed worldwide in leading hospitals, research institutes, imaging centers, and advanced doctors offices, including notables Yale-New Haven Hospital, Massachusetts General Hospital, University of Miami, Toronto Western Hospital (Canada), Weigong Hospital (Taiwan), Oklahoma Cardiovascular Associates, Radiologix, State University of New York at Stony Brook, and many more.

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With over ten years in business in Canada and twenty PACS sites installed in Canada, Alliance Distribution Network (ADN) Canada distributes KLAS Award winning Thinking Systems PACS and RIS solutions across Canada, as well as both Digirad and Medi-Link.  For additional information please contact ADN directly.   Alternatively, please feel free to join the discussion on our new Facebook Page.

REFURBISHED PHILIPS ADAC DUAL-HEAD CARDIO MD


DESCRIPTION:
This Refurbished PHILIPS - ADAC DUAL-HEAD CARDIO MD (2002) is a fixed 90-degree Cardiology Camera designed to optimize office-based practices. Featuring excellent image quality, high throughput, and a small footprint.

FEATURES:
+ Hardware- Philips/ADAC Cardio MD
+ Fixed 90-degree gamma camera, LEHR collimators. 400lb supine / prone patient table, ECG gate, UPS
+ Software – AutoSPECT Cedar-Sinai processing
+ Full detector calibration
+ Like-new interior and exterior of system – fully reconditioned
+ Supported by a comprehensive one-year warrantee
+ AVAILABLE: 
 30-90 Days

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ADN Canada offers fully refurbished (pre-owned) gamma cameras. Systems selected for refurbishment are carefully chosen, refurbished, tested, and warranteed to ensure you receive a high quality nuclear medicine system.  Every refurbished unit provided is fully warranted and supported, virtually guaranteeing a risk-free investment and ensuring the most cost-effective maintenance.

ABOUT Alliance Distribution Network (ADN) Canada - Celebrating it’s 10 year Anniversary, Alliance Distribution Network (ADN) Canada distributes KLAS Award winning Thinking Systems PACS and RIS solutions across Canada, as well as both DIGIRAD and Medi-Link.   Alternatively, please feel free to join the discussion on our new Facebook Page.










Pre-owned (Refurbished) SIEMENS e.cam Dual-Head 180° Gamma Camera

Available:
Refurbished Siemens e.cam Dual-Head Variable Angle Gamma Camera

DESCRIPTION:
The Siemens e.cam Dual-Head Variable Angle nuclear camera enables 180°, 90° and 76° detector positions allowing the system to optimize sensitivity and throughput for general purpose, cardiology, oncology and neurology studies.  The systems full range of motion allows for caudal and cephalic detector tilt.

Features
  • Dual-head solution with variable angulations (180°, 90°, 76°)
  • Open gantry design
  • 3/8" crystal
  • Automatic body contouring
  • Whole body acquisition
  • Wide range of collimators
  • 12 months warranty
  • Service contract to meet your needs.
View Siemens e.cam Brochure 

Full View - Refurbished SIEMENS e.cam Dual-Head Variable Angle Gamma Camera




Looking for a specific refurbished modality or unit?  We can likely source it for you. For additional information please contact ADN directly.

ABOUT Alliance Distribution Network (ADN) Canada 
Celebrating it’s 10 year Anniversary, Alliance Distribution Network (ADN) Canada distributes KLAS Award winning Thinking Systems PACS and RIS solutions across Canada, as well as both Digirad and Medi-Link.     Alternatively, please feel free to join the discussion on our new Facebook Page.


Saturday, April 18, 2009

GOOGLE HEALTH ACCUSED OF INACCURACY IN ELECTRONIC MEDICAL RECORDS



Google Health, Google's health care IT solution, has been taken to task by physicians who say the billing information it uses for some patients' electronic medical records can give an inaccurate picture of their health conditions. Since rolling out in Feb. 2008, Google Health has been positioned as competition for Microsoft's health care IT offerings, as well as sites such as WebMD.

Google is encountering protests from users who say the information its Google Health beta Website presents has the potential to be inaccurate when it comes to electronic medical records. Much of the online traffic over the issue has stemmed from one particular case, that of kidney cancer survivor Dave deBronkart, who transferred his medical records from Beth Israel Deaconess Medical Center to Google Health, only to find that the latter had taken information from his billing records to incorrectly state that he had chronic lung disease and other conditions.

"I've been discussing this with the docs in the back room here, and they quickly figured out what was going on before I confirmed it: The system transmitted insurance billing codes to Google Health, not doctors' diagnoses," deBronkart wrote on his personal blog on April 4. "And as those in the know are well aware, in our system today, insurance billing codes bear no resemblance to reality."

He also wrote, "I suspect processes for data integrity in health care are largely absent, by ordinary business standards. I suspect there are few, if any, processes in place to prevent wrong data from entering the system, or tracking down the cause when things do go awry." deBronkart took care to say the post was not "a slam on Google Health."

However, the story reached the Boston Globe on April 13 under the title "Electronic Health Records Raise Doubt." The article quotes deBronkart's primary physician, Dr. Daniel Sands, as saying the information from billing records, incorporated into Google Health, should never be used clinically.

When contacted by eWEEK, a Google spokesperson referred to the Globe article's quoting of Dr. Roni Zeiger, product manager for Google Health, as saying having such information available online will benefit users in the long term as the solution's accuracy improves.

"That's something I think we could do better on," the article quotes Zeiger as saying with regard to whether Google Health indicates the source of data for each diagnosis.

A number of online pundits have stated that physicians and other health care providers should be concerned about the importing of insurance billing records into Google Health precisely because of this lack of accuracy. Google has not posted a response on its blogs yet. 

Google upgraded Google Health in March 2009 to allow users to share medical records and other personal health information with doctors and trusted contacts. The announcement was greeted with skepticism by some users, who voiced privacy concerns.

That same month, Google unveiled that it was participating in a pilot program with the CMS (Centers for Medicare & Medicaid Services) that would let Medicare beneficiaries in Arizona and Utah import their Medicare claims data into Google Health. First introduced in February 2008, Google Health allows Google to share competitive space with Microsoft's health care IT offerings, as well as Websites such as WebMD.

Read original article.

Thursday, September 18, 2008

CLINICAL INFORMATION ACCESS IMPACTS RADIOLOGY INTERPRETATION




September 18, 2008 | Clinical Studies

The majority of radiologists at eight academic medical centers are dissatisfied with their ability to access clinical patient information at the time of interpretation, according to results from a report published online before print in the Journal of Digital Imaging. The report also indicates that the lack of access to pertinent clinical patient data may be a critical element that limits the accuracy of the radiologist’s diagnostic decision-making process.

“Given the increasing volume of radiological exams, the decreasing frequency of direct communication with the referring provider, and the distribution of patient data over many clinical systems, radiologists often do not have adequate clinical information at the time of interpretation,” the authors wrote.

William W. Boonn, MD, and Curtis P. Langlotz, MD, PhD, of the department of radiology at the Hospital of the University of Pennsylvania in Philadelphia, designed the survey. Among its 27 questions were an assessment of the IT environment in which the respondent practiced, including how radiology orders were typically processed and how images were displayed for interpretation. In addition, opinions about acquisition and access to relevant clinical patient information, both at the time of the examination and in follow-up, were obtained.

A total of 139 radiologists responded to the survey, with the vast majority (90 percent) practicing in an academic setting. Slightly more than half (54 percent) were attending radiologists; the remainder of the survey cohort was comprised of radiology fellows and residents.

The survey found that 72 percent of the respondents reported that they frequently needed more clinical information about their patients than was available at the time of study interpretation. More importantly, 87 percent acknowledged that additional clinical information was significant and that this information could change or modify the interpretive report.

“Of the available sources of information, radiologists reported that outside radiology reports, admission notes and progress notes typically yielded their preferred clinical information,” the authors stated. “However, despite their desire for these information sources, they reported using them less than 15 percent of the time.”

More than half (53 percent) of the respondents indicated that their reasons for not seeking access to additional clinical information was that such efforts were too time consuming.

Obtaining follow-up data on patients proved to be equally problematic for radiologists. The authors reported that clinical follow-up information was predominantly obtained either through discussions with the referring clinician or through subsequent imaging or pathology reports.

“Our findings demonstrate that most radiologists want more clinical information when interpreting images and that this information would impact their report, but they are discouraged by the time it takes to access this information,” the authors noted. “In addition, current mechanisms for monitoring necessary patient follow-up are inadequate.”

Boonn and Langlotz observed that many hospitals have multiple different systems used to access clinical data, which presents challenges to radiologists through multiple logins and user interfaces. In addition, legacy systems may not be fully integrated throughout the healthcare enterprise due to nonstandard, proprietary interfaces.

The pair believes that their survey indicates the critical need for an integrated application for the automatic identification, selection, retrieval and display of pertinent patient information at the time of interpretation. In addition, this application needs to provide alerts and reminders for patient follow-up.

“Together, these applications would have a significant impact on the satisfaction of radiologists, the quality of radiology interpretations, and thereby on the quality of care,” they wrote.

Read Original Article

Friday, July 20, 2007

Lessons from the Past: How other disruptive technologies became mainstream

In the increasingly wired world of healthcare, there are hundreds of technologies designed to improve patient care and ease the workload of healthcare providers. The proliferation of information and communications technologies over the past five years has been overwhelming. Yet the rate of adoption of some of these technologies has been slow.

The introduction of new technologies has always represented an uneasy shift. Welcomed by some, it has been rejected by others who see it as disrupting the accustomed way of doing things and creating new demands. I am a firm believer that the past can offer many insights to those who are trying to introduce new ideas or concepts. Therefore, to better understand the factors influencing the uptake of new technologies it is helpful to look back in time. Looking at the printing press, the telegraph, the radio, the automobile, the telephone, the fax machine, the cell phone, the Internet, and the World Wide Web, we asked some key questions. What were the conditions that permitted the adoption of technology? What was the pace at which technologies were dispersed, and why? What role did the government play?

What is a disruptive technology?
Most new technology is self-sustaining and improves performance along dimensions that the mainstream customers in major markets have historically valued. By contrast, disruptive technologies typically have worse performance, at least in the near term. But:
* They have features that a few fringe and generally new customers (mavens) value and which represent a key source of competitive value in the future;
* Products based on them are typically cheaper, simpler, smaller and frequently more convenient to use -often representing a new product architecture.
* They often bring a new and different value proposition.
(Adapted from The Innovator's Dilemma: When New Technologies Cause Great Firms to Fail by Clayton Christensen)

Applying an analytical framework to the adoption of nine significant technologies from our past allows us to observe key elements and uncover lessons from history that may hold true for the adoption of healthcare technology today.

"Several variables seem essential to the successful uptake of technology: providing an infrastructure, finding a function, establishing the right price point, and becoming a necessity."


There's no question that these "disruptive" technologies have changed the way we work. But from the printing press to the telephone, the telegraph to the World Wide Web, this analysis identifies the common attributes and conditions which determine how fast a technology is adopted, how quickly it is diffused, and how well it is received.

In Diffusion of Innovation (1995), Everett Rogers defines the five following attributes as being important variables in determining how fast a technology is adopted:

Relative Advantage: the degree to which an innovation is perceived as better than the idea it supersedes

Compatibility: the degree to which an innovation is perceived as consistent with existing values, past experiences, and needs of potential users

Complexity: the degree to which an innovation is perceived as relatively difficult to use and understand

Trialability: the degree to which an innovation may be experimented with on a limited basis

Observability: the degree to which the results of an innovation are visible to others

To begin, is the technology perceived as being better than the idea that preceded it, thereby having a relative advantage? Is it compatible with existing values, needs, and past experiences? What about complexity -- how difficult is it to learn, understand and use? Can the idea be piloted, on a limited basis, to demonstrate its trialability? And finally, can the results be observed by those who may use it or be affected? These are the attributes that determine how successful an innovation will be. But what about the conditions which can nudge a technology along and get the ball rolling? Several variables seem essential to the successful uptake of technology: providing an infrastructure, finding a function, establishing the right price point, and becoming a necessity.

Change takes time
In a world where we have become impatient with delays and accustomed to rapid change, the slow embrace of new technologies can be frustrating, but we shouldn't be surprised, or discouraged. It has always been that way, despite the pervasive belief that change is instantaneous.

Take the telephone. We are so dependent on this technology it is difficult to imagine that when it was first introduced in 1877, people had to be convinced that it was useful. Despite its simple design and seemingly obvious value, it took 75 years for the telephone to reach 50 million users, and it wasn't until the 1960s that users saw a residential phone as a necessity.

Even the printing press, with its obvious advantage over laborious copying by hand, was not an instant success. Although the technology was seized on quickly by the Protestant Church, which encouraged literacy, it took centuries for the technology to be used for a mass publication newspaper -- the New York Sun took to the streets on September 3, 1833, more than 300 years after Gutenberg invented the first printing press.

The printing press has important parallels to today's revolution in information technologies. Like the Internet, it suddenly made information available to many more people, and the increase in the spread of information led to confusion and mis-information. Different scientific and religious theories appeared simultaneously -- which one was right? There was no peer review necessary to publish, no infrastructure in place to regulate the publishing industry.

The healthcare community and patients themselves face similar issues as medical information proliferates on the Net. Whose research is correct? Which is credible? How can people sort out the truth from the quackery? Many patients believe it would help if they received medical information online from their own doctors, someone they could trust.

Comparison: Rates of Diffusion
Although it's difficult to define exactly when a technology is fully "diffused", it is interesting to compare how quickly technologies were adopted.

The printing press: 400 years following its invention it was finally used to reach a wide public audience with the publication of the first mass newspaper in 1833.

The automobile: 75 years from the introduction of the first internal combustion engine in 1885 to the point of market saturation in 1960

The telephone: 85 years from 1876 when Bell applied for his patent to full saturation in the 1960s

The fax machine: 144 years from its invention in 1843 to 1987, when enough people were using fax machines for it to make sense for everyone to get one

The Internet: 30 years, from 1968 to mid-2000 when an estimated 130 million Americans had access to the Internet

The diffusion of the telegraph was somewhat faster than the printing press. Samuel Morse presented his prototype of the electric telegraph to the US Congress in 1838, and by 1873 Western Union had carried more than twelve million messages. One of the reasons for the telegraph's rapid success was the creation of the infrastructure which supported it -- reliable connections, cheap and predictable rates, and a shared language. Common standards and a high degree of inter-operability made the telegraph a relatively easy sell.

"...any new technology must eventually be seen as a necessity. It must become part of the everyday way of doing things,...It's hard to remember life before 'What's your e-mail address?' "

But what about more recent technologies? It took five decades for the telephone to reach 10 per cent of U. S. households, but it took only five years for the Web to do the same. In fact, the Internet has reached 330 million users in only 30 years, arguably the fastest diffusion rate in history.

This is partly because the Internet builds on an existing communications infrastructure, and its speed and efficiency are easily observed. In the case of the Internet and the Web, users can develop their own functions, and generate their own content. These decentralized conditions allowed technology to spread quickly.

So what can we learn from these experiences, and how can we apply this knowledge to the health sector?

FROM STRUCTURE AND FUNCTION TO NECESSITY
One of the most important lessons is the importance of providing the critical underpinnings that will support a technology as it attempts to break new ground. This infrastructure varies, from the entire political and social structure, as with the printing press, to the regulatory environment in the case of the telegraph, the telephone and the radio.

For technologies to succeed, they must also find their function, sometimes creating a need where none existed before. With technologies that basically did the same thing, only faster, like the printing press or the fax machine, function wasn't really an issue. But the social function of the residential telephone was largely ignored by industry for the first half of its history.

What we can deduce from this is that frequently the consumer determines the use of a technology, not the inventor, the vendor, or the marketer. This is especially true of technologies like the Internet and the Web. Finding the right price is another important variable, although it would seem an obvious one. And finally, while it may take decades to get there, any new technology must eventually be seen as a necessity. It must become part of the everyday way of doing things, as "invisible" and as vital. It's hard to remember life before "What's your e-mail address? '

Cheaper, faster . . . better?
For many sectors, such as manufacturing and retail, the main contribution of information technologies has been to provide cheaper, faster handling of information. In other words, nothing particularly new, just a better way of doing it. A good example is the banking industry. For the cost of opening a branch to serve a single neighbourhood, a bank can set up a web site accessible to more than 15 million households. Cheaper, faster, an obvious function, and a ready-made infrastructure.

But most sectors share similar problems. Introducing a new technology can be a complex process, and it takes both time and effort to change the way people work. There are also issues of security and privacy -- a key issue in the transmission of sensitive information. Ironically, many sectors have found out that word -of -mouth is one of the most effective ways of persuading people to try out a new technology. Opinion leaders who act as champions play a key role in getting it adopted and creating a demand.

Applying the old to the new
By applying the analytical framework and deriving the lessons of history and the experiences of other sectors, we can shed light on how we expect the medical community to adopt information technologies, and on the role the government can play in making it work.

The government has frequently regulated a new technology, or created the rules that allow commerce to take place fairly. But the government has also played a larger role by developing appropriate policies for technology's use and distribution, by providing strategic funding, and by showcasing their own use of technology.

The government can also act as a catalyst. Apparently even the most skeptical critics of the telegraph were convinced of its advantages when the successful nominees at a United States' Whig National Convention, transmitted by telegraph, were announced to the crowd 64 minutes before the list arrived by train. It was the U. S. Congress that paid for the first of Morse's telegraph lines.

There's no question that the computerization of health data and the emergence of information technologies has created unprecedented opportunities for providing better health care services. But, like any other sector, and as with any new technology, the medical community has to be convinced the new way is better than the old. Remember relative advantage?

The Brookings Task Force on the Internet concluded that the US healthcare system could significantly reduce their costs by using the Internet to handle information faster and cheaper. Nothing new, but better. Other studies of information technologies applied to healthcare have shown that the benefits could include improved management of patient-care delivery, improved access to information, reduced medical and medication errors, more timely care, and a better quality of life for chronically-ill patients.

Information technologies applied to healthcare also stand a better chance at succeeding if they are compatible with the medical culture. For example, more than 50 per cent of US physicians use wireless or handheld devices -- a technology that fits comfortably into the working environment of hospitals. Government-funded sector councils can be pro-active in this area, making sure that the design, development and marketing of healthcare technologies takes the healthcare provider's needs into account.

"The medical community is not averse to new technology, but they need to see and understand how it fits into the way they work, without disrupting the care of patients."

For many in the health care system, the time crunch is a genuine barrier to the adoption of new technologies. So, the less complex the technology, the more likely it is to succeed. For health workers already struggling with the demands of paperwork, one more thing to learn can seem like too much. Of course sometimes a technology is perceived to be complex, when it really isn't, and here is where extensive trials and demonstrations can be useful. Tips and lessons on how to use a technology can be spread throughout a healthcare organization by an on-site "e-vangelist", someone within the organization who can also offer useful feedback to government.

The communication of the lessons learned from trial runs is a vital step in getting technology accepted. The government can use e-services directly to communicate with the health care sector, using technologies such as online conferencing. Outsourcing can also provide an excellent trial run for healthcare technologies -- for example, one online platform service where patients log on and pay by credit card for prescription renewals, non-urgent medical advice, sick notes etc, has already been picked up by hundreds of physicians. It's one thing to try a technology out, another to have it observed. Successful examples of information technologies being used in health care need to be promoted at all conferences, symposia and workshops, as well as models of the government's own success in using them. Marketing strategies can also make use of the mainstream and specialized press to get the message out, increasing public profile. Healthcare opinion leaders and champions must also speak up, widening the net of influence and acceptance.

Creating the right conditions
So far, the lessons on how certain attributes contribute to the adoption of technology apply as much to telemedicine as they did to the telephone or the automobile. But what about the essential conditions: providing the infrastructure, finding a function, finding the right price and becoming a necessity?

A significant legal and policy issue for the healthcare sector is privacy, and this is one of the most critical areas for government policy. Medical data is a sensitive area. Canadians will need to be reassured that the information technology used here is secure and reliable, before a corresponding infrastructure can be provided.

In addition, as with the telegraph, there also needs to be a common language, and standard definitions for data. The significance of this kind of infrastructure was borne out by the experience of the big three automakers in the US, who created the Automotive Industry Action Group to standardize processes. This group also started the Manufacturing Assembly Pilot Program, which ensured that everyone involved spoke the same language.

With earlier technologies, function was king. But with healthcare technologies today, who determines the function? The patient. According to the Toronto Star, most Canadians want online communications with their care providers, while most providers do not. For physicians and other health workers, it's probably a question of time. For patients, it's a matter of convenience. But it's this interaction that will likely determine the ultimate function of e-mail in the healthcare setting.

The right price point is also a key condition for technology's success, and this applies as much today as it did a hundred years ago. Faced with tight budgets and a wide variety of competing innovations, the healthcare sector will certainly take price into consideration when considering the adoption of technology.

And finally, new technology must become a necessity. In the case of the Internet, the patient is determining what healthcare services will become essential. Some 84 per cent of Canadians who reported using the Internet in 2001 said they would like online access to their doctor to ask general health or education questions. In another survey, 62 per cent said they would also like to go online to make appointments or renew prescriptions.

The medical community is not averse to new technology, but they need to see and understand how it fits into the way they work, without disrupting the care of patients. Take the automobile, a technology that was quickly embraced by doctors who saw it as a better, faster way to reach the patients who needed them.

But if a laptop takes four minutes to boot up, and a doctor has only seven minutes with his first patient, the old hand-scribbled medical chart is going to seem like a more efficient way to enter patient information. Perhaps the key lies in integrating new technologies with established practices? For example, wired personal digital assistants can help doctors retrieve medical records quickly while they're consulting with their patients, and avoid mistakes in filling prescriptions that may be hard to read.

There are hundreds of examples, and the healthcare community needs to be selective in deciding which technologies work, and which don't. Their value must be clear, and where the function is patient care, there is a natural low tolerance for risk.

To sum up, if there is one vital lesson we have learned from the experiences of the past, it is this: change takes time. Solutions need to incubate, but we have discovered that as technologies are introduced, there are ways to influence the rate at which they are adopted. Governments, health care workers, patients themselves all have an active role to play in this process, especially in our increasingly inter-connected world. The rewards of this involvement will be an improved healthcare system, and better health for Canadians.

William Pascal, Director General
Office of Health and the Information Highway, Health Canada.
In Healthcare Information Management & Communications Canada, Vol. XVI, No. 2, 2nd Quarter, June 2002 http://www.hc-sc.gc.ca/hcs-sss/pubs/ehealth-esante/2002-lesson-lecon-pass/index_e.html

Monday, June 25, 2007

"Canadian Implementation of e-Health projects increases by 39 per cent"

Initiatives benefiting patients in every province and territory.

Toronto, ON 06/25/2007: -- Canadian patients are benefiting from a 39 per cent increase in electronic health initiatives that are modernizing the way clinicians deliver health care, announced Richard Alvarez, President and CEO, Canada Health Infoway (Infoway).

"In the past year, we've seen tremendous growth in the number of electronic health record initiatives that are delivering enhanced patient care, shorter wait times and a more productive health care system for Canadians," said Alvarez, who recently released Infoway's annual report. "While this growth is encouraging, momentum must be maintained so we can capitalize on the efficiencies generated through electronic health initiatives as our population continues to age and grow."

In 2006-07, Infoway approved investments of $518.9 million in EHR initiatives across Canada, surpassing its target of $335 million. The digitization of diagnostic imaging, Drug and Laboratory Information Systems projects and the interoperable electronic health record made significant progress. With 227 projects complete or underway across Canada, Infoway and its partners are investing in modern health information systems that are uncovering efficiencies in healthcare settings across Canada. The result is better patient care and outcomes, reduced wait times and cost savings. Infoway's plan for further electronic health progress is outlined in 2015 -- Advancing Canada's next generation of health care, its long-term strategic vision document. The document is available at www.infoway-inforoute.ca.

Sunday, May 21, 2006

What is EHR?

The Electronic Health Record (EHR) is a longitudinal electronic record of patient health information generated by one or more encounters in any care delivery setting. Included in this information are patient demographics, progress notes, problems, medications, vital signs, past medical history, immunizations, laboratory data and radiology reports. The EHR automates and streamlines the clinician's workflow. The EHR has the ability to generate a complete record of a clinical patient encounter, as well as supporting other care-related activities directly or indirectly via interface - including evidence-based decision support, quality management, and outcomes reporting. Other areas that fall within the EHR also include Auto ID and Bar Coding, e-Prescribing, Patient Safety and Quality/Outcomes, and Clinical Decision Support.

(More: http://www.himss.org/content/mindmaps/EHR/index.htm )

Saturday, May 20, 2006

e-HEALTH 2007 - May 27th-30th - QUร‰BEC CITY
The 2007 conference will be held at the Quรฉbec Convention Centre, Quรฉbec City, May 27-30, 2007.

(More at http://www.e-healthconference.com/)