EHTO TELMED: The Impact of Telematics on the Healthcare Sector
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Updated: Sep 17, 97 

ANNEX II:
Country by Country Summary of Implementation of Applications

Introduction:

This Annex provides a summary of current applications implementation and development in telematics for healthcare for those EU states where current provision is extensive, or where major developments are currently taking place.

Countries representing extensive existing coverage are:

- UK, France, Netherlands.

Countries typifying examples of current developments are:

- Germany, Italy, Greece, Spain, Portugal.

1. United Kingdom

The UK represents a significant contribution to European telematics for health implementation, accounting for 20% of current activity, across a wide spectrum of areas. The main concentrations of activity have been in basic infrastructure provision, with an emphasis on creating a national EDI-based network, and in promoting the widespread use of electronic administration and patient recording systems, primarily to support organisational reforms within the National Health Service.

These developments have been co-ordinated through the National Health Service Executive's 'National Information Management and Technology Strategy'. The IM&T strategy is intended to support the re-structuring of the national health service via the development of a 'business culture' that has been reflected, for example, in semi-privatised 'hospital trusts'; the devolution of control over purchasing to GPs acting in the role of 'fund holders' or business managers of their clinical practices, and the setting of a national policy context for health care provision within a 'performance criteria' framework. Key initiatives of these national programmes include:

Outside the national programmes, there has been significant activity in teletraining for medicine; decision support applications and in telediagnosis. Much of this work has focused on centres of existing expertise in medical research and practice, notably in the larger cities with established medical schools, such as London, Edinburgh, Leeds, Birmingham and Manchester. Examples include INSURRECT, a teletraining application connecting the five main UK medical schools; MATS, a remote telediagnosis application using videoconferencing to connect a minor injuries unit run by nurse practitioners to a large London hospital; and EPIC, a decision support system utilising medical imaging recording and transmission for ophthalmic medicine in Bristol.

As with Europe as a whole, emerging trends are moving away from closed systems based on single application areas in single sites towards open systems architectures primarily targeting networks of specialist centres across the country; inter-site networks in urban areas or regional-based initiatives to provide integrated 'telehealth' provision. In the latter case, regional initiatives have been focused on overcoming problems associated with access to care in remote and rural areas. Examples include TEAM, a set of initiatives operating in rural Wales including teletraining; decision support systems connecting GPs with specialist hospitals and medical imaging and telediagnosis applications in domains such as dermatology; DIALECTS, providing community-based surveillance and care for diabetics again in rural Wales; tele-emergency and telediagnosis for North Sea offshore platforms around the Scottish coast, and teleradiology services in Orkney and the Shetland Isles.

2. France

The main area of telematic application in France has been medical imaging, followed closely by remote diagnosis. However, telemedicine is developing around two major axes:

i) National infrastructure

The French general practitioners are, like their English counterpart, in the midst of substituting paper-based patients records for electronic dossiers. Most of the French hospitals and private clinics are now computerised.

The Midi-Pyrenees Region is the leading region in France in the telematics field. It has established links with the Regional Council network (continuous training for all health professionals) in order to foster the development of the existing network. In addition, it has set up a pilot regional telemedicine healthcare network under the aegis of the French Government, the creation of a well-co-ordinated network including Midi-Pyrenees hospitals and general practitioners.

ii) Inter-regional initiatives

There are some inter-regional initiatives, for example, a network of neurosurgery using medical imaging and telediagnosis in Gironde, Dordogne, Lot et Garonne, Landes and the Pyrenees-Atlantic. Home Telecare is an established service of tele-measurement of arterial tension. This project involves ten hospitals and thirty general practitioners in Lyons, Marseilles, Paris, Dinars and Nevers. Oreip is trying to establish an electronic patient records network between hospitals and general practitioners in the Lille region. Othello is a project linking GPs, hospitals and health insurance providers for billing purposes.

iii) Regional initiatives

In the Aquitaine region, a project linking twenty-one hospitals has established a network of telediagnosis in specialist radiology. In the Nord-Pas-de-Calais, the Loginat Project has established videoconferences for perinatal subjects and another project has implemented remote consultations for neurological emergencies. If the initial phase is successful, this network will be extended to other Nord-Pas-de-Calais regional hospitals where emergencies units are available. The current goal is to extend the scope of videoconferences in order to strengthen co-operation between the various hospitals in the technical, medical and management fields.

In Paris, the "Assistance Publique des Hopitaux de Paris" is involved in the transmission of radio imaging data for neurosurgical emergencies. The Hospital Trousseau looks at the transmission of pediactric radio imaging. A protocol of telesurveillance and teleobservance at home for patients suffering from chronic respiratory failure is being studied at Paris and in the Mid-Pyrenees region.

iv) European infrastructure

France is involved in several European projects. Nord-Pas-de-Calais has set up a French/Belgian ophthalmologic network. The Midi-Pyrenees is involved in four European projects: MAC-NET - European programme (Lisbon, Madrid, Athens, Rome, Toulouse) focusing on medical aids at sea; TOX-NET (Munster, London, Milan, Brussels, Toulouse) dealing with toxicology; SAMENET: (Athens, Toulouse) dealing with emergency care in remote location; and ETELNET: activities conducted at Toulouse University Hospital in collaboration with French overseas territories, Hanover, Brussels, Barcelona, Athens, Lisbon and Andorra. In Paris, TELEMED (a RACE programme) using videoconferencing for remote diagnosis of psychiatric illness is linked with London. The RETAIN project, supported by the TEN-IBC program, focuses on teleworking sessions between radiologists in Rennes and Barcelona using ATM equipment. Based in Aquitaine PROMPT, is aiming to help GPs improve consistency in quality of patient care in France, the Netherlands and England by using intelligence electronic guidelines.

v) Smart cards

There are five smart cards being tested in France at the moment. Vitale, is a healthcard interfacing with patient health insurance company, hospital and general practitioner medical record, emergencies services, hospital administration, hospital pharmacy and laboratories. SANTAL contains the patient details and the medical history. Unlike SANTAL, VITALE will, in addition, look after the patient billing between the health insurance companies and the hospital or the GPs and the pharmacies. SANTAL is being tested in eight sites in the Saint-Nazaire region: Le Croisis, Guerand, Pontchateau, Savenay, Paimboeuf, Pornic Saint-Nazaire and La Baule. VITALE card, distributed by a health insurance for civil servants, is being tested on four sites: Boulogne-sur-mer, Charleville-Mezieres, Bayonne and Rennes/Vitre. They link GPs, pharmacies and laboratories. The "Health professional card" is to be carried by dentists, pharmacists, GPs, mid-wives, nurses, orthopaedist, and other health professionals to access electronic patient records. It has a built-in security code. This card is compatible with all the GPs, hospitals, health insurance providers and pharmacists systems. This card is being tested in four sites chosen by the Groupement d'Interet Public.

The fifth smart card is a part of a European project for the implementation of an interoperable emergency dataset on a smart card. One of the five pilot sites involved in CARDLINK is Saint-Nazaire, which is managed by the SANTAL Association, the prime contractor of the consortium. The others are Dublin, Milan, Rome and Valencia.

3. Netherlands

Much of the activity in the Netherlands has been concentrated in infrastructure schemes involving EDI, and primarily run through government programmes. These have targeted three main types of stakeholder:

i) National infrastructure

One major initiative, promoted by the Ministry for Welfare, Health and Culture is the 'Transparent' programme, directed at:

However, as with other states, the real level of implementation of EDI is extremely low, estimated at between 0.5 - 1% of current information traffic flow within the healthcare sector. The main applications areas using EDI for the interchange of data include: referral/discharge letters between GPs and hospitals; despatching test results from laboratories to GPs; digital exchange of X-rays between hospital departments.

Outside the national policy framework, applications development is largely being conducted in small-scale pilot projects involving universities and medical schools, mainly funded through EC R&D Programmes. There is little evidence of emerging new partnerships between private and public sector organisations in healthcare telematics, an isolated example being HISCOM, a collaborative partnership between the Dutch government, medical schools and RAET, a computer system manufacturer, to develop mainly Hospital Management Systems.

ii) Hospitals

With regard to it policies the following observations can be made:

The following statements can be made in relation to the telematics applications currently being used within hospitals

The following conclusions about future developments can be drawn:

iii) Primary care/General Practitioners

Most general practitioners are using a general practitioners information system (HIS); with the implementation of a HIS, in the view of GPs, the desired degree of automatisation has been accomplished. The HISs are mainly used for financial administration purposes. Although most of the GPs have a modem, it is hardly being used for external communication and exchange of information. Most GPs use the modem if they want to contact the provider of the HIS in situations in which technical problems occur. Only a minority of GPs use the modem to send messages to a hospital or pharmacy. The EDI with especially secondary care is considered as one of the most interesting and relevant opportunities with regard to future developments in telematics applications.

Only a minority of the GPs are using it technology for information and education purposes. The direct use of it technology in function of medical practice is rarely existing. Although almost all of the GPs have the equipment at their exposal to develop and implement electronic medical records. In practice less than one third is using this module within their HIS and in the cases that EPRs are being used it is for internal purposes and not for EDI; diversity in hard- and software is one of the main problems in relation to the implementation of EDI on a practical, non-experimental basis.

iv) Pharmacies

The degree of automatisation within pharmacies is nearly 100%. Almost every pharmacist uses a modem linked for the communication with suppliers and whole sale. In only few cases there exists information exchange with GPs, banks or insurance companies.

4. Germany

i) Present state and perspectives of the application of information and telecommunication systems

Basically it has to be stated that there is no national strategy behind the introduction of information and telecommunication systems in the German health care system. Both in the private practice and in hospitals only such technology is applied which on one hand side makes the health care system more effective for the users and on the other hand is cost-effective for them, too. Since, in addition, patient related clinical data exchange in Germany is restricted by law, there is no common strategy concerning data communication. On the other hand a lot of certain elements are already established in particular concerning the data flow between the Regional and National Sick Funds Physicians Association (KV, KZV, KBV, KZBV) and the insurance companies. It may be possible of course that regulations concerning for instance documentation or reimbursement procedures will stimulate certain information technologies. Another problem arises from the separation between the hospital domain and the private practice. Therefore there is no general coordination between both groups of health care providers concerning the introduction of information and telecommunication techniques.

ii) Outpatient care (private practice)

At the present time around 70-80% of general practitioners and office-based specialists (in former West Germany) use computers in their practices, mainly for reimbursement purposes. Use of a programme licensed by the Regional Sick Funds Physicians Association programme is a condition for reimbursement. At present about 55% of doctors in ambulatory care routinely send their reimbursement data on diskette to their Association but the intention is to replace this with an EDI (electronic data interchange) system.

The Federal Sick Funds Physicians Association has made some software available, including a drug information system on diskettes which is updated monthly. Doctors wishing to become affiliated members of their Regional Sick Funds Physicians Association are required to use standard administrative and medical data formats. These have therefore been incorporated by software manufacturers into their products. This facilitates the exchange of information and also makes it relatively easy for a doctor to change his system.

Therefore, today's overall goal is to establish first a telematic infrastructure in this domain. This is supported by local associations and in particular by the federal bodies of private physicians (KV, KZV, KBV, KZBV). All software offered for physicians use, which is available on the German market, has to be validated and licensed. On the other hand the software companies receive recommendations for specific innovations concerning, for instance, diagnosis coding systems, drug documentation systems of the patients medical record from the KBV or the KZBV, respectively.

Some other service offered by the KBV are certain data banks with different purpose. Since the infrastructure is not sufficiently developed, information is offered usually on computer disks. For example there is a data bank on pharmaceutical products, which is updated every 3 month available form the KBV. The data banks also include closed documentation's on all the private practices and case related physician services. Today a nation-wide ISDN network between the federal body (KBV), local associations (KV) of the private physicians and the practices for sharing general information is thinkable if all practitioners are technically able to participate in data exchange.

Another step forward was taken with the decision to choose EDIFACT for the medical information exchange at least between insurance companies and the local associations of private physicians. First efforts had already been taken to adapt EDIFACT to the specific needs of health care information exchange.

There are some topical developments based on new federal regulations stimulating the application of telematics in the German health care system. First of all an insurance card including a basic set of administrative data (name, address, insurance number) has been defined and the corresponding infrastructure (reader, printer) is introduced in Germany by law. Due to data protection today this data set can not be extended. In addition the KBV is offering a patient administration system free of charge referring to the basic data set on the chip card. Hence it is attractive for the physician to introduce the necessary hardware and for their useful software which contributes to a more effective data administration for every physician or dentist. Secondly starting from 1994 the ICD-diagnosis code has to be applied to every patient for documentation. This coding system will be implemented into the forthcoming software (supported by the KBV what again makes the introduction of telematic infrastructure more attractive. Thirdly the data exchange between the private practice the accounting units of the KV and the insurance companies will be based on new regulations. All data which have to be documented for describing the service profile for each patient are now exactly defined. In addition the data have to be provided in machine readable style. Hence, a first step forward concerning a universal interface for medical data communication is taken. Today's standard would be to exchange data by a computer disk or tape. Of course, if infrastructure will be developed, it would be useful to establish an ISDN network.

iii) Hospitals

The application of information techniques in the hospitals was initiated a couple of decades ago. Since that time the market of hospital hard- and software increased tremendously. Today computer systems and in-house networks are available in almost every hospital even in the smaller ones. Many of them are running an own mainframe. The areas of application are mostly restricted to administration, i.e. the documentation of general patients data for instance for reimbursement and the management of the hospital. As far as medical applications are concerned, there are only selected island solutions in particular in the area of laboratory services, image processing, acute care and in the decision making process for diagnosis and treatment. Describing the state of the art one can at least state that the informatic infrastructure concerning hospital administration is fairly well developed. Of course, this is only a first step in the process in introducing telematics.

In order to coordinate the application of informatics in German hospitals the German government, the federal states and local institutions have mutually been active in the development of common software products since the beginning of the seventies. In 1984, 67.7% of the hospitals applied this "public" software systems. Of course, also the industry as well as the hospital themselves are very active in the development of new software products.

Much progress in this area arises from activities of university hospitals run by the federal states. Quite often they have separate departments for medical informatics which spend much efforts in the development and validation of new telematic systems, which then is demonstrated as a pilot within university hospitals. On the other hand a diffusion depends on the specific decisions of every hospital which are largely restricted by their budget.

In parallel to the domain of the private practice, federal regulations stimulate the application of telematics in hospitals. Mainly this is due to the documentation rules defining the information flow between the hospitals and the health insurance companies. Here, the German social law gives the general framework, implemented by the representatives of regional health insurance companies and hospitals (LKG) on the level of the federal states. In particular the data which have to be provided and the way how they have to be provided are defined on the federal level. Every clinical case has to be documented by a clinical basis profile containing, for instance the reason for admission, the diagnosis and the treatment. Here, the ICD-diagnosis coding system and the ICPM-coding system for treatment has to be applied. Concerning inpatient care, the nursing efforts have to be documented for every department on a daily basis. Starting from 1995 all data have to be submitted in machine readable style. This again supports the diffusion of new generations of hospital administration systems.

iv) Communication between private practice and hospitals

Since the hospitals are not administered in a centralised way (even not on the level of the federal states) it is very difficult to introduce unique solutions for the communication between the private outpatient practice and the hospital. Therefore the "user" have to go a "bottom-up" approach to establish in a first step on a voluntary basis islands of communication networks. A few of such local networks are already present in Germany.

v) Insurance Cards

Following a recent change in the law, all legally insured German citizens (more than 90% of the population) have been issued with a chipcard containing details of their Insurance cover. 100,000 medical and dental practices and 50,000 hospitals have been equipped with card readers and printers. At present, use of the card is restricted to administrative data, and storage of medical data is prohibited, though it seems likely that this situation will evolve over time.

By making available administrative information and details of insurance coverage in a standard format, the introduction of the chipcards will simplify accounting procedures whilst establishing a nation-wide information and communication network. It will also encourage doctors to use a computer system more generally within the practice.

vi) Outlook

In Germany the foreseeable developments concerning telematics in health care are: