Select Committee on Health Minutes of Evidence


Memorandum by the Department of Health (MT 1)

CONTENTS

1.  Introduction.

2.  Government policy objectives.

3.  Context for change.

4.  Meeting the challenge of change.

5.  The Healthcare Industries Task Force (HITF) and its recommendations.

6.  The utilisation of telemedicine (including telecare) and its future potential for improving services.

7.  The speed of and barriers to the introduction of new technology.

8.  The effectiveness and cost benefit of new technologies.

ANNEXES

A.  —  Sector definition, metrics and performance indicators.

B.  —    Competitiveness analysis of six key sub-sectors of the UK medical devices industry: interim findings.

C.  —  DH research—Health Technology Assessment (HTA) findings and applications.

D.  —  Healthcare Industries Task Force (HITF) Terms of Reference.

E.  —  Examples of telemedicine and telecare applications.

1.  INTRODUCTION

  1.1  The term "new medical technologies" embraces a wide range of products, systems and techniques used in health and social care. There is no readily accessible definition of this term—it is usually applied to new and emerging technologies in any field which may be have a medical application. Examples of technologies that offer potential for better healthcare solutions include digitalisation, tissue engineering, nanotechnology (particularly bionanotechnology), robotics, information and communication technologies (ICTs), materials engineering, pharmacogenetics and pharmacogenomics and point of care testing devices (miniaturisation). Technological advances in these areas are being utilised to develop higher quality imaging equipment, tissue implants and wound management products, tumour destruction techniques, precision surgery, genetic screening tests, tests to predict adverse drug reactions, and more rapid turnaround times for a variety of pathology tests, moving diagnostics closer to patients.

  1.2  The producers of these medical technologies are loosely grouped together according to the technology within the healthcare industries sector. Further information, compiled by the Department of Trade and Industry (DTI), about the scope of the UK-based sector and its characteristics is at Annexes A and B.

  1.3  Technology has never evolved more quickly than at the present time and it is increasingly at the centre of innovation in the field of human health, as well as in other industrial and social areas. The medical technology industry operating in the UK is highly diversified and innovative. It is a significant component of the national economy and has considerable potential for growth. It also has the capability of transforming the way in which health and social care services are delivered.

  1.4  For all these reasons, Government is pleased to note the Committee's interest in this area.

2.  GOVERNMENT POLICY OBJECTIVES

  2.1  The Government's policy objective in relation to the use of new medical technologies is to harness the benefits that they can bring to all stakeholders. This means provision of improved healthcare for patients and service users, whilst continuing to safeguard public health, and fostering a vibrant commercial environment in which the industry can grow, increase its competitiveness and its contribution to the UK economy.

3.  CONTEXT FOR CHANGE

  3.1  The Wanless report[2] stated that the NHS was a "late and slow adopter of medical technology". Since its publication in April 2002 DH has been considering the reasons for this and developing ways of improving patient access to new technologies. Up to 2003-04 expenditure on the NHS has increased by an average of 6.2% in real terms each year since 1997 and is set to further increase by an average of 7.2% in real terms over the period from 2003-04 to 2007-08. This investment is resulting in increases in workforce numbers and NHS capacity, new and better treatments for patients, shorter waiting times and greater choice. By 2008 there will be increases above the September 2001 staffing figures of 15,000 more consultants and GPs, 35,000 more nurses, midwives and health visitors, and 30,000 more therapists and scientists.

  3.2  The changing demographic profile is another significant factor which influences health and social care needs. People are living longer and surviving some previously life-threatening illnesses, due in part to advances in medical science. The proportion of older people is growing and they need a different range of services eg to help manage long term conditions and to support independent living.

  3.3  DH is also in the process of developing policies to ensure that patients and services users are at the heart of the health and social care system. Strategies are underway to devolve NHS decision-making, budgets and commissioning of services to front-line staff and to drive forward a programme of service modernisation eg increasing the number Foundation Trusts, integrating health and social care services, introducing specialist Independent Treatment Centres (ITCs), decreasing waiting times for some operations through the establishment of local day surgery units, extending the role of pharmacists in the community, etc. Combined with other central and local initiatives, the aim is to deliver responsive, patient-centred services within a flexible framework capable of providing speedy, convenient and modern healthcare solutions.

  3.4  Changes to central structures are also necessary to reflect the new balance of power. The DH review of its Arm's Length Bodies (ALBs) [3]which is already starting to take effect, will ensure that the Departmental structure reflects and supports the new roles and ways of working centrally, in the remaining ALBs and in the NHS.

  3.5  Alongside developments in public policies and structures, an explosion is taking place of new technologies which have considerable potential in the medical field to improve treatments. Information and Communications Technology (ICT) already has many recognised medical applications and continues to evolve as further advances are made. Similarly, tissue engineering promises to bring improved therapies in a range of medical conditions, as do breakthroughs in pharmacogentics, nanotechnology, robotics and new device/drug combinations. It is necessary to keep up-to-date with all these developments to help ensure that patients have access to better treatments.

4.  MEETING THE CHALLENGE OF CHANGE

  4.1  The Government aims to meet its objectives in optimising the benefits of new technologies for all stakeholders via a number of processes and initiatives.

4.1.1  DH research in the NHS

  The DH budget for NHS research and development is over £600 million in 2004-05, of which £480 million is allocated to NHS providers. Some 75% of the money from these allocations meets the service costs to the NHS of research funded by research councils and charities.

  Research is fundamental to the introduction of new products, technologies and services to the health and social care system. DH funds research specifically to support policy initiatives through its Policy Research Programme, and provide the evidence needed to underpin quality improvement and service development in the NHS through three main national programmes:

    —  New and Emerging Applications of Technology (NEAT).

    —  Health Technology Assessment (HTA).

    —  Service Delivery and Organisation.

  Both the HTA and NEAT programmes have commissioned work of relevance to the Committee's Inquiry.

Policy Research Programme

  The Policy Research Programme aims to underpin policy development by commissioning high quality research-based evidence. Its remit extends across the full range of DH's responsibilities, including health and social care services, healthy living and well-being, disease prevention, the role of the environment in health, the organisation of the NHS and strategies for treating particular diseases and conditions.

  Horizon scanning reviews of both telemedicine and telecare were commissioned in 1997 and 1998, and these informed a developing research agenda within DH. This built upon earlier involvement in European research programmes (Technology Initiative for Disabled and Elderly People, and Advanced Informatics in Medicine), and was closely linked to policy making in a number of areas, including the potential for the technologies to support elderly and disabled people. In 2000 DH commissioned a report on The Use of Information and Communication Technologies (ICTs) in Assistive Technology.[4]

  Further research is being planned that will provide evidence in relation to the most cost-effective approaches. Some of the more sophisticated electronic technology options will be studied further within a wider programme of research currently out to tender and aimed at investigating technological support for chronic disease management, for self-care and for healthy living. The invitation to tender has been timed to coincide with the latest call by the DTI in their Technology Programme, and we are encouraging joint proposals to the DH call and to the pervasive computing section of the DTI call. The Department has also been discussing with the Engineering and Physical Sciences Research Council and Economic and Social Research Council their interest in joint research in this area.

NEAT

  The HITF report Better health through partnership: a programme for action (see also section 5) recognised that an NHS aiming to innovate should capture the benefits of emerging technologies and, in so doing, provide an engine for industrial development based on the knowledge economy. NEAT aims to promote this concept by supporting applied research and development that will apply recent advances in fundamental knowledge and technology to the development of new products and interventions for improved health and social care or for disease prevention and treatment.

  The NEAT programme provides funding for applied research and development in all areas of the medical sciences where new or innovative technological approaches can be used to enhance the quality, efficiency and effectiveness of health and social care. The research is strategic and applied in nature, and has the potential (although not necessarily the direct aim) for generating both intellectual property and cost reducing products and interventions. Its outputs are general; they have wide applicability and are capable of exploitation.

  Projects supported by NEAT have for example been concerned with the use of new technology in quantitative 3-D ultrasound breast imaging, speech recognition for people with severe dysarthria, and the development of a practical recycling device to permit cost effective application of Xenon anaesthesia.

  The NEAT programme has been in operation for some five years and has an annual budget of approximately £1.5 million. As indicated in the HITF report, this commitment is to be increased by DH through the UK Clinical Research Collaboration (UKCRC) (see paragraph 5.5.4). The NEAT programme is open to all research providers in the academic and NHS communities. It aims to overcome the funding gap for research that is basic in nature and fundable by the Research Councils, and that which is towards market and driven by industry along commercial lines. The NEAT programme helps to fill this gap and support speculative applied research which may have benefit to the NHS but which does not have immediate commercial application and return.

HTA

  The aim of the HTA programme is to ensure that high quality information on costs, effectiveness and broader health impact of health technologies is produced in the most effective way and is bought to the attention of those who use, manage and work in the NHS. The HTA programme considers the effectiveness and appropriateness of technologies by asking four fundamental questions:

    —  does the technology work?

    —  for whom?

    —  at what cost?

    —  how does it compare to alternatives?

  Examples of HTA findings and the uses to which they have been put are given in Annex C.

LINK collaborative research

  The Department has used the LINK collaborative research scheme (formerly overseen by the Office of Science and Technology) as a means of sponsoring the pre-commercial or strategic development and assessment of new technology. The MedLINK programme, which ran from 1996 to 2001, supported projects with the potential to lead to new medical devices for prevention, diagnosis, monitoring or treatment of illness or injury. A total of 48 projects received Government support of £15 million.

  The LINK Health Technology Devices programme is currently supporting the research into innovative healthcare technologies needed to develop new medical devices. A further £15 million of government funding will be available throughout the programme to support collaborative R&D projects involving industry, universities and the NHS. Public investment will be matched by industry. As well as medical devices, the programme covers healthcare devices for use in the community and the home.

National Horizon Scanning Centre (NHSC)

  The NHSC, funded through the NHS R&D Programme, aims to provide advance notice to DH of new and emerging health technologies likely to impact on the NHS. Where such technologies require evaluation, including consideration of clinical and cost effectiveness, they are passed to the Health Technology Assessment Programme for prioritisation. Where there are implications for the development or modification of clinical guidance, topics are referred to NICE.

Assistive technology

  A report on Research and Development Work Relating to Assistive Technology is prepared annually for Parliament under Section 22 of the Chronically Sick and Disabled Persons Act 1970. The report is funded by DH and currently prepared by the Foundation for Assistive Technology, whose database of research projects is used both to highlight gaps and to identify funding sources.

4.1.2  The National Institute for Clinical Excellence (NICE)

  NICE has made a positive contribution to improving NHS understanding of the clinical and cost effectiveness of new medical technologies and has led to faster uptake where there is evidence of benefits. DH recognises that more needs to be done to improve implementation of NICE guidance and work is ongoing to address this. (See also section 8.)

4.1.3  Regulation of medical devices

  The regulations and controls on medical devices provide a stable framework for product development and use. They derive largely from EU legislation.

European Directives

  A series of five European Directives regulating the marketing of medical devices throughout the EU started to come into effect from 1 January 1993:

    —  the Active Implantable Medical Devices Directive (AIMD) covers powered implants (such as pacemakers) or partial implants which are left in the body. This Directive was transposed into UK law by the Active Implantable Medical Devices Regulations (SI 1992 No 3146, as amended), subsequently consolidated into The Medical Device Regulations (SI 2002 No 618);

    —  the Medical Devices Directive (MDD) covers a broad range of products from sticking plasters to X-ray machines and was transposed into UK law by the Medical Devices Regulations (SI 1994 No 3017, as amended), subsequently consolidated into The Medical Devices Regulations (SI 2002 No 618);

    —  the In Vitro Diagnostic (IVD) Medical Devices Directive covers test kits and instruments used in vitro for examining specimens taken from the human body (eg blood grouping reagents, pregnancy and Hepatitis B test kits). It was transposed into UK law by the In Vitro Medical Devices Regulations (SI 2000 No 1315), subsequently consolidated into The Medical Devices Regulations (SI 2002 No 618); and

    —  the Directive amending the MDD to include medical devices which incorporate stable derivatives of human blood or human plasma (eg albumin, thrombin, fibrinogenor immunoglobulin) which can be incorporated into medical devices such as stents, leads, heart valves, vascular grafts, catheters, filters and haemostats) was transposed into UK law by the Medical Devices Regulations 2002 (SI 2002 No 618).

  These Directives are single market measures designed to remove technical barriers to trade by harmonising safety and performance requirements for medical devices. The Directives replace former national controls of Member States. The CE mark is applied to devices to denote conformity with the requirements of the Directives and manufacturers may then market their products freely throughout the European Community without having to abide by any further national controls.

Key features

    —  the Competent Authority (CA) in each Member State must ensure effective implementation. In the UK, the CA is the Secretary of State for Health acting through the Medicines and Healthcare products Regulatory Agency (MHRA). The main responsibilities of the CA involve enforcing compliance with the implementing regulations, maintaining a register of manufacturers, assessing notifications for clinical investigations, monitoring and designating Notified Bodies (NBs) (independent organisations responsible for assessing the conformity of certain classes of devices) and authorising use of non-CE marked medical devices on humanitarian grounds;

    —  the Directives seek to match the level of control to the perceived risk associated with the product. In the MDD, this is achieved by a classification system whereby devices are grouped into one of three classes according to a series of rules. Class I covers products generally regarded as low risk such as spectacles, bandages and non-invasive products. Manufacturers of these devices are required to assess themselves that they comply, make a declaration to this effect and register their details with the CA. For medium risk products (Class II a and b), eg contraceptive devices, contact lens care products and for high risk products (Class III), eg intra-uterine contraceptive devices and devices combined with a medicinal product, the manufacturer must apply to an NB to assess conformity. Only when the NB certifies that the manufacturing processes or the products meet the requirements may the manufacturer CE-mark these devices and place them on the market. A similar system based on risk applies in the IVD Directive which groups IVDs into four categories reflecting an increasing risk. These are general IVDs; those intended for self-testing, that is for use by lay people; Annex II List B—which amongst others includes test kits for German measles, toxoplasmosis and phenylketonuria test kits as well as self-test kits for blood glucose; and Annex II List A—which includes test kits for HIV, HTLV I and II, most hepatitis viruses, and some blood grouping products, including those used to test donated blood. As the risk increases through these categories, so too does the involvement of the NB in ensuring that the devices have met the relevant requirements of the Directive before they are placed on the market. All devices covered by the AIMD are regarded as being high risk and subject to the highest conformity assessment controls. All devices covered by the AIMD are regarded as being high risk and subject to the highest conformity assessment controls; and

    —  a vigilance system which requires serious adverse incidents to be reported to the relevant CA where they are evaluated and, if appropriate, the results communicated to other Member States and the European Commission to help prevent similar incidents from occurring elsewhere in the Community.

  The medical devices Directives do not include controls on advertising.

MHRA

  In the UK, the MHRA is responsible for ensuring manufacturers comply with the Regulations. It investigates all allegations of non-compliance received and carries out a pro-active compliance exercise on selected manufacturers from the Class I Register and on focussed projects selected because of some safety concern. Member States have the power to withdraw from the market any device which it considers is a danger to public health.

Clinical investigations

  To place their product on the market in the EU, manufacturers must demonstrate that it complies with relevant Essential Safety Requirements. To demonstrate such compliance, it will sometimes be necessary to carry out a specifically designed clinical investigation. The clinical investigation must be designed to establish that the performance claims of the manufacturer can be adequately demonstrated, and that the device may be judged safe to use on a patient, taking into account any risks associated with its use when weighed against the expected benefits.

  Before a clinical trial can be held, the manufacturer must notify the CA of his intention and submit a detailed trial protocol. The CA has 60 days to assess the notification and raise any objections on grounds of public health or policy. In the absence of a formal objection from the CA, the trial may be held.

4.1.4  Procurement

  Part of the wider Government agenda includes ensuring efficient public procurement which also allows for innovation. Relevant reports include DTI's Innovation Review Competing in the Global Economy: The Innovation Challenge[5] published in December 2003, the Office of Government Commerce (OGC) report Capturing Innovation: Nurturing Suppliers' Ideas in the Public Sector published in May 2004,[6] Sir Peter Gershon's Efficiency Review of the Public Sector[7] published in July 2004, OGC's report to the Chancellor of the Exchequer Increasing Competition and Improving Long-term Capacity Planning in the Government Market Place published in December 2003[8] and the OGC and Cabinet Office report Making a Difference—Reducing Bureaucracy in Central Civil Government Procurement published in December 2003.[9]

  NHS procurement is being brought into line with Government policy with the aim of ensuring the purchase of high-value products that perform effectively. The sharing of best practice between local purchasers and commissioners is improving the quality of decision-making, and the development of regional procurement hubs is enabling better value-for-money procurement. Centrally-managed procurement of high investment medical equipment continues to ensure that the NHS benefits from such programmes.

  To underpin this more professional approach to procurement, NHS budgeting arrangements are being reformed so that funding is directly linked to the treatment provided to the patient. The new system is designed to take account of the costs and savings throughout the complete care programme, wherever they occur.

  4.2  Most recently, bringing many of these streams of activity together and initiating new collaborative work, government and industry have published the Healthcare Industries Task Force (HITF) report (see section 5 below).

  4.3  Following on from the HITF report and as a result of the DH ALB Review, the NHS University (NHSU) and the Modernisation Agency are to be merged to create a new NHS Institute of Learning, Skills and Innovation (NILSI). This new organisation will manage the Innovation Centre proposed under HITF.

4.3.1  NHS Institute of Learning, Skills and Innovation (NILSI)

  NILSI will promote excellence and innovation across the health and social care system. It will enhance service delivery in the NHS by focusing on innovation, learning and leadership development in an integrated and efficient manner.

  The institute will assume a leadership role in the implementation and delivery of change in the NHS and manage the new Innovation Centre. It will aim to engender a culture of innovation within front line staff by developing linked training and modernisation programmes for new medical technologies.

  An advisory board, under the Chairmanship of Sir David Brown (Chairman of Motorola), has been established to support the development of this new organisation. This board is to be advised by a Transition Team, who will manage the process of developing, reconstructing and merging the three entities into a single operational body by July 2005.


5.  HEALTHCARE INDUSTRIES TASK FORCE (HITF) AND ITS RECOMMENDATIONS

Background to HITF

  5.1  HITF was the first venture of its kind in this country at a strategic level between Government and the healthcare industries. It was a year-long initiative which was launched in October 2003 by the co-chairmen, Lord Warner, Under Secretary of State at DH, and Sir Christopher O'Donnell, Chief Executive of Smith & Nephew plc. Task Force members included Lord Sainsbury, Minister for Science and Innovation at the Department of Trade and Industry (DTI), Mike O'Brien (later succeeded by Douglas Alexander), Minister of State for Trade & Investment and Foreign Affairs, senior public policy makers and leading executives from the healthcare industries. The terms of reference are at Annex D, and the industry sector and products covered are defined in Annex A.

  5.2  The broad aim was to develop a better understanding of how Government and the industry interact and to identify opportunities where closer co-operation would benefit all stakeholders. Its agenda was wide-ranging and complex, but the key issue was how to improve patient access to healthcare products, particularly beneficial new medical technologies. The Task Force recognised that solving this particular issue would unlock ways forward in other areas of mutual interest—developing practical measures to stimulate more innovation in the industry and in the NHS, and modernising NHS procurement would underpin the central objective.

The HITF process

  5.3  The Task Force established four Working Groups to study the areas identified in the terms of reference:

    —  market access;

    —  R&D and the industrial base;

    —  regulatory issues;

    —  international trade.

  5.4  The Working Groups comprised representatives from industry, government and its agencies, the NHS, academia, patient groups and other key stakeholders. They identified the issues and barriers in each of the four areas, and in June 2004 put forward over 50 recommendations to the Task Force.

HITF recommendations

  5.5  The Task Force focused on nine key areas for action to optimise their impact across HITF's agenda:

5.5.1  Development of an enhanced Device Evaluation Service (DES)

  To provide independent, expert guidance on performance of devices and their value to purchasers. The existing service is to be transferred from MHRA to NHS Purchasing and Supply Agency (PASA) with effect from 1 April 2005, subject to any necessary amendments to legislation, where links to procurement will be strengthened. The new DES will establish a consistent "once-only" approach to evaluation, will be more responsive to industry and public health needs, disseminate expert advice to purchasers, be supported by strengthened horizon scanning so that it knows what developments are in the offing and in what area useful new medical applications are likely to appear. The new DES will be at the hub of a wide-ranging network, joining industry with NHS clinicians and purchasers, with access to expertise in the field, paving the way for patient access to modern healthcare solutions.

  The Task Force considered this new departure to be the cornerstone of its outputs, connecting NHS purchasers more closely to informed evaluations of novel products and medical technologies on the market and helping to promote the uptake of innovation.

5.5.2  Innovation Centre

  To stimulate innovation in the NHS and in the global industry, this new institution will be developed to provide a pathway into the NHS and the social care system for beneficial new products and ways of working. It will cover more than medical devices and technologies, and promote a more entrepreneurial culture in the NHS. It will co-ordinate the work programmes of the NHS Innovations Hubs, stimulate innovation within the NHS as well as the global industry, and develop a brokerage service and a "route-map" to signpost the pathway for successful product development. It will also work towards building up a fund for translational research to fill what is currently a gap in funding streams and why a number of useful ideas are not progressed. The Innovation Centre will be a visible portal to the NHS with expertise to advise NHS staff and private companies on how best to proceed with their inventions.

5.5.3  Procurement processes

  Ensuring that procurement of healthcare products in the NHS is modern and based on informed advice, will help ensure that patients get faster access to better treatments. Procurement processes are already being modernised in line with HITF outputs, DH and wider Government policies on procurement, developing a regional focus to reduce market entry points, a professional approach including significant clinician involvement so that health professionals' needs are taken into account, more transparent procedures to help overcome bureaucracy and improve understanding. Decisions will be informed by device evaluations from the new DES, and more interaction with suppliers is taking place, eg consultation on procurement plans, the development of National Service Frameworks (NSFs), development of best practice models, and the new NHS budgeting arrangements Payment by Results (PbR) which is currently being phased in. The aim of the latter initiative is that hospitals receive an agreed sum for a particular course of treatment, rather than via a broad service agreement which may not appropriately reflect the level of activity. The result is that funds follow the patient, incentivising better patient care and underpinning implementation of patient choice. This combined with a DES assessment of the value of a product, will help overcome "silo budgeting".

5.5.4  Building R&D capacity

  The UK Clinical Research Collaboration (UKCRC)[10] will encompass new medical technologies within its programme. Embedding research on medical devices and technologies into the UKCRC networks will help increase the number of clinical trials with medical devices, make the NHS more accessible, and exploit its potential to help generate high quality clinical data on safety and performance. UKCRC will promote a better understanding of the conditions needed for the conduct of clinical trials with new medical technologies and help create more opportunities for trialling innovative products and procedures. Unlike medicines, development of new healthcare products and technologies is generally a continuous process involving incremental enhancements. Therefore, the products have relatively short life-cycle. It is important that the environment for clinical investigations and device evaluation are responsive to this (whilst continuing to protect patient safety) ie uses rapid, simple procedures supported by effective dissemination networks. UKCRC will facilitate this approach and co-ordinate efforts to streamline approval processes.

5.5.5  Development of Healthcare Technology Co-operatives (HTCs)

  The Task Force appreciated the need to develop academic specialist centres, bringing government, universities and industry together to pioneer and test out new medical techniques and products. A pilot is to be designed to inform the future development of this project. The NHS working in partnership with other stakeholders in the field of innovation and trialling new products will help overcome barriers of resistance to adopting new technologies and will provide another means of support for product development.

5.5.6  UK as the regulatory lead in the EU and internationally

  Maintaining and building on the UK's high standing in regulatory matters will be important in ensuring that future legislation for new and emerging technologies is appropriate, so that patients safety is paramount whilst innovation is not unnecessarily stifled.

5.5.7  International trade

  Exports are important to this sector and agreements were struck on how to focus government support to improve performance in overseas markets. Part of the solution lies in ensuring that the NHS is a showcase for leading-edge technology and innovation, and the other HITF outputs will clearly contribute to helping companies to sell their products abroad.

5.5.8  Communication with patients/public to improve understanding of benefits and risks of medical devices

  Educating patients and the public about the important part medical devices play in their daily lives, communicating their risk:benefit profile and the regulatory system that governs them will help promote their safe use within our health and social care system.

5.5.9  Training and education

  Improvements in the training and education of NHS and social care staff in the use of medical devices are to be made via the development of learning programmes and tools to expand opportunities for professionals to acquire practical skills and competences. This will facilitate career development and improvements to training records systems will help ensure that workforce skills are kept up-to-date. These initiatives will underpin the introduction of new medical technologies and be an essential element in speeding up patient access to modern treatments.

  5.6  HITF agreed two further actions to improve understanding of the dynamics of UK-based industry, given its scope to help the NHS with innovation and its industrial potential :

    —  The complex nature and fragmentation of the industry has made it difficult to gather accurate and consistent data in the past. To address this the Government decided to undertake a regular data collection exercise. DTI reviewed existing statistical data on the sector and reached a consensus with DH and the industry on what statistical indicators should be collected on the industry in future years (see Annex A). This exercise will ensure that a clearer picture of the sector and its performance is made available on a regular basis.

    —  DTI also commissioned an independent sector competitiveness analysis of six key sub-sectors of the industry. The sub-sectors were chosen on the basis that they would offer in-depth insight into a range of high-technology and fast-moving disciplines, and provide the opportunity to assess UK strengths and weaknesses in each case. The study is currently being finalised and the report will be published in the early part of 2005. More information about the interim findings is at Annex B.

Implementation plans

  5.7  The process of developing implementation plans was started once there was a consensus in principle on the nine key HITF outputs and, where possible, set in train. This involved identifying the necessary resources, and preparing the ground for establishing new structures and procedures. The nine key recommendations, together with an update on implementation strategies, were presented to the Task Force at its final meeting in October 2004. The Task Force gave its full backing to the recommendations and framework for action. An account of the work of the Task Force and its conclusions are detailed in its final report Better health through partnership: a programme for action[11] published on 17 November 2004.

  5.8  Work is continuing to refine the HITF outputs and implementation plans. Resources in some areas still need to be identified, eg to identify funding for the development of the new DES, the Innovation Centre and the pilot HTC. Government is committed to meeting its HITF undertakings and is working with other stakeholders to complete its action plans. In addition, DH and industry are in the process of establishing a new strategic group to monitor implementation of HITF outputs. The new group is to be led by the former HITF co-chairmen, Lord Warner and Sir Christopher O'Donnell, and its members will be key players from both government and industry who will champion the delivery of the commitments given under HITF.

Conclusion

  5.9  Taken together, the key HITF outputs constitute a coherent action plan which, once the various elements are brought into operation, should significantly increase NHS uptake of useful new medical technologies. The new joint group being formed will oversee implementation and address any unforeseen issues that arise from this. HITF has also provided a platform for the development of constructive relationships between manufacturers representatives and government at all levels. This is seen as a very important legacy—one which will provide mechanisms for ongoing communication so that policy makers, clinicians and innovators can share their knowledge and harness the industry's capability for innovation to meet the health needs of the nation.

  5.10  The HITF report has been received enthusiastically by interested parties, both in the UK and overseas. As the issues addressed are common to other countries, it is hoped that HITF and its ongoing work will provide a model for others to follow.

6.  THE UTILISATION OF TELEMEDICINE (INCLUDING TELECARE) AND ITS FUTURE POTENTIAL FOR IMPROVING SERVICES

  6.1  Two of the technologies which can have a significant effect on a wide range of care environments are telemedicine and telecare.

What are telemedicine and telecare?

  6.2  Telemedicine and telecare have a long history. In 1906 the Indonesian-born Dutch cardiologist Willem Einthoven experimented with using telephones to try and send early electrocardiogram recordings as the first attempt at exchanging information at a distance. The first specific references to "telemedicine" start in 1959, at the University of Nebraska, where microwave video links were used for medical consultations and continuing education.[12]

  6.3  It may be helpful to make some distinctions between the terms "telehealth", "telemedicine", "telemonitoring" and "telecare", although they overlap conceptually and, as technology advances, they will overlap in reality.

  "Telehealth" is a generic term used to cover both "telemedicine" and "telehealth monitoring (telemonitoring)".

  "Telemedicine" covers systems that help doctors and other health professionals to diagnose and treat patients over a distance, typically linking geographically remote health premises such as a GP surgery and a hospital. As well as being able to provide more convenient access to patients, there is significant value for healthcare professionals in terms of continuing professional development and providing expert support when dealing with complex or less common conditions.

  "Telemonitoring" covers equipment that allows remote monitoring of symptoms, such as heart functions and blood oxygen. A more accurate record of variations in a patient's condition can be created, improving the ability to spot changes in conditions, and unnecessary clinic visits are avoided. These systems are best if located in the patients' homes, possibly sharing communications infrastructure with telecare devices. Other future developments could see help for improved patient compliance with medication regimes.

  "Telecare" includes systems that incorporate electronic devices (eg movement sensors, fall alarms, monitors for unlit gas) that can alert the occupant of a house, or a care response system, on the occurrence or non-occurrence of predetermined events, such as the fridge not being opened for a long time. By better managing the "risk" of letting disabled and older people live independently at home, telecare systems have the potential to enhance the lives of individuals and to postpone admission to residential care and to hospital.

  6.4  Examples of telemedicine and telecare currently in operation are given in Annex E.

DH policy

  6.5  DH's policy on telemedicine and telecare covers relevant health and social care services.

6.5.1  Telemedicine

  Telemedicine is referenced in both the NHS Plan and the NHS Improvement Plan. The underlying principle of using Information and Communications Technology (ICT) to support and transform the delivery of healthcare by connecting delivery of the NHS Plan with the capabilities of modern information technologies is at the heart of the Government's vision for the NHS in the 21st century. Under the National Programme for IT in the NHS for England a national broadband network is being implemented across the NHS in England which will support the capability for telemedicine and telecare, including the transfer of medical images. Future possibilities include telemedicine in GP surgeries for electrocardiograms and skin disease, ambulance telemonitoring in emergency response vehicles, and home telecare.

6.5.2  Telecare

  Modern, responsive electronic community alarm-type devices can do much more than alert a carer or call centre to an event that needs investigation to ensure that a person is safe. They may, for example, remind the person of things they should do. This allows them to stay in control of their lives for longer and gives them and their carers reassurance owing to reduced risk of untoward events. In time, technologies for the remote monitoring of health conditions could share the same infrastructure as telecare technologies, and many people would benefit from both types of monitoring. Technical advances mean that the devices are easy to install and that they are relatively unobtrusive.

  As well as the improvements in quality of life, efficiency gains to the health and social care systems are possible because "just-in-case" admissions of older people to hospital and residential care are still common. Telecare and related health technologies can therefore contribute to a number of important agendas such as:

    —  avoidance of unnecessary hospital admission and timely discharge;

    —  falls prevention strategies;

    —  saving lives through more reliable fire/smoke detection for older people;

    —  timely information to inform people's care package reviews;

    —  improving quality of life and reducing care costs for people with long term conditions and with strokes; and

    —  better monitoring of people with chronic obstructive pulmonary disease (COPD) and diabetes which can alert to changes in condition and significantly reduce out-patient attendances.

  A number of influential publications referenced research in this area and influenced policy development by the Government. The Audit Commission's Fully Equipped reports in 2000 and 2002, followed by Older People—Independence and Well-being (February 2004) and particularly the sub-report on assistive technology, are notable examples.

  Telecare enables older and disabled people to remain in their own homes—rather than in hospital or residential care—with increased safety and reassurance. It gives reassurance to the service user that help can be summoned quickly; to the informal carer that their friend or relative is safe and that they will be called in the event of an emergency; and to the professional that there is cover when they are not present. Telecare may most usefully be provided as part of a care package.

  Community equipment services play an important part in helping people to develop their full potential and to maintain their health and independence. A wide range of equipment and adaptations can now be provided from 138 services in England with the majority of items being provided within seven days of a professional decision being made.

  The Government has set out to increase the number of people benefiting by this integrated approach to meeting their needs. It is making a significant investment in modernising and expanding these services. The NHS Plan and National Service Framework for Older People set out the main targets.

  In July 2004, as part of the 2004 Spending Review, The Chancellor announced £80 million funding for a social services' Preventative Technologies Grant over two years from April 2006. This is to extend the benefits of new technology community alarms (telecare), with the aim of reducing the number of avoidable admissions to residential care and to hospital.

  These funds will be distributed through social services' baseline funding which means that councils and their PCT partners will need to have in place before April 2006 plans to take forward the implementation of the Government's policy to expand the uptake of these technologies.

The service implications

  6.6  The use of ICT offers significant opportunities to improve the quality of care and meet patient expectations:

    —  efficiency and streamlining the work of professionals;

    —  monitoring, performance management (clinical and non clinical) and clinical governance, dissemination of evidence based best-practice;

    —  convenience;

    —  joined-up working throughout the NHS and social care; and

    —  reduction in human errors (eg computerised checking of dispensed medicines).

  6.7  ICT enables the separation of location between patient and professional and between professional and hospital. Telemedicine and telecare will enable patients to be treated outside hospital settings, and support GPs and Primary Care teams in providing much greater opportunity for independent living for the elderly and chronically ill. ICT has tremendous potential to help transform the way healthcare is delivered and realise the vision of care tailored to patients' needs and responsive to their wishes and that of their carers. It is important however to remember that technology is only part of the solution.

  6.8  Substantial investment will be required in training and IT skills for all staff, as well as investment in infrastructure and system design. This will need to place the patient at the centre of IT system design to ensure that technology developments enhance the patient experience of care.

  6.9  Confidentiality and security are recurrent issues. ICT can enable and facilitate (for example) home telecare and home telemonitoring and alert care teams to a health problem with a patient—but that has to be balanced against patients' rights to privacy.

  6.10  While there are clear benefits to the use of telemedicine, formal studies have indicated that it is by no means a panacea. For example, one study in the NHS into telemedicine in an Accident and Emergency setting in East Gloucestershire looked at the safety and clinical effectiveness of a telemedical system and its cost-effectiveness. The telemedicine system was formally evaluated through a prospective, randomised and blinded study, and a wide range of data, incorporating clinical, financial and satisfaction outcomes were collected. The results showed that telemedicine enjoys an acceptable safety profile, with overall clinical outcomes similar to conventional practice. However it also found that telemedicine is more expensive than conventional alternatives, and that there are a number of important process issues that must be adequately addressed if telemedicine is to succeed.


  6.11  This view is reinforced by a study[13] into the perceptions of general practitioners (GPs) towards teledermatology, that demonstrated the importance of linking the use of telemedicine effectively into the clinical process. There was a general perception that teledermatology would result in quicker diagnosis and treatment, decreased referral rates and improved medical education and training. The study also indicated that unless the telemedicine system was quick, easy to use, efficient and reliable, and crucially, did not increase GPs' workloads, it would be unlikely to find widespread acceptance.

Key issues

  6.12  The introduction of telemedicine and telecare into mainstream delivery of health and care services has been limited by the need to understand the key issues that distinguish them from more traditional approaches, and the implications for patient healthcare outcomes and service organisation. Valuable lessons can be learnt from the demonstration and pilot projects that have taken place to date and generalisations made about the principles and practicalities of implementing telemedicine and telecare services in line with Government policies.

  6.13  Telemedicine and telecare should be implemented only as part of an integrated package developed in conjunction with appropriate business process re-engineering. Clinical engagement is essential to ensure that there is robust adherence to the highest clinical standards and that there are no compromises affecting patient safety. Above all, telemedicine and telecare facilities must be seen as complementing, not replacing, more traditional forms of healthcare delivery.

  6.14  Legal and ethical issues that need to be addressed include:

    —  Who is responsible for telemedicine and telecare interventions ? Is it the clinician or agency directly interacting with the patient, or the remote clinician or agency, and how is the responsibility shared? Where services are provided across national boundaries there may additionally be jurisdictional issues.

    —  Does the concept of "consent" in a telemedicine/telecare context differ from a face-to-face context? If so, how is this to be managed so that patients understand what it is they may be consenting to and the implications of that. For example, there is a fundamental tension between the application of telemonitoring and a citizen's right to privacy.

    —  Protocols for use of telemedicine and telecare—have they been clinically proven? In a telemedicine/telecare context, what impact does the intervention of ICT equipment have on the clinical judgement of clinicians ? What are the implications of malfunction or misoperation of equipment being used in a clinical context for which it was never designed and may not have been formally certified as a "medical device"?

    —  A fundamental principle of the NHS is that healthcare provision should be on the basis of clinical need, and that, in general, the same levels and types of service should be available nationally. The implications of providing telemedicine and telecare services, that, by definition, are not locality based, has far-reaching implications for NHS service organisation, which traditionally has been focussed on serving the needs of local communities.

    —  Does professional training for telemedicine and telecare differ from traditional clinical practice? If so, how does this get integrated into health and social care training?

What the future holds

  6.15  Developments in medical technology will continue as will the convergence between medical devices and traditional ICT systems. An increasing number of medical devices, particularly diagnostic devices, will have ICT capability and will be configured for connection to networks as part of the standard manufacturing process. All of this will facilitate their inclusion in telemedicine and telecare applications as well as raising the expectations that they can be used for this purpose. All administrations across the UK have strategies in place to implement comprehensive Electronic Health Care Records which will be used in all health care interventions. As the use of electronic records becomes the norm, the necessity for the patient to be physically present on all occasions will diminish. Coupled with advances in telemedicine technology generally, this combination of events will open up many new possibilities to exploit telemedicine and telecare for the better delivery of health services.

  6.16  Looking further ahead, "intelligent technologies", medical devices that can self-monitor and call upon expert/professional help automatically will play an increasing role in care. Miniaturisation of diagnostic and monitoring tools is likely to be significant, making these available in local or home settings. Professionals could be making much greater use of "intelligent devices" expert systems software to support clinical decision making, for example. There will be increased use of "data mining" and systems that can infer "rules" based on experience of previous events. Techniques such as "teleimmersion"—enabling users in different locations to collaborate in a shared, simulated environment as if they were in the same physical space; and "telepresence"—using remote sensors and manipulators to enable operations to be controlled in real-time from a distance, and virtual reality tools will increasingly make the physical location of services less important. Patients will be able to interact with and discuss their case specialist consultants from their homes or GP practice supported by their local GP. (Early pilots are already taking place, eg Chorleywood, NHS Digital TV referred to in Annex E.)

Conclusion

  6.17  Health technologies are a rapidly developing area. The aim of developing health technologies is to improve the quality of care by promoting cost-effective technology and to protect the patient from less effective or less convenient health interventions. Failure to respond to new opportunities may result in the persistence of ineffective and obsolescent technologies to the detriment of the patient or client and possibly greater expense to the healthcare system.

  6.18  The past two decades have seen a rapid rate of development in information and communications technologies as evidenced primarily by the arrival of the internet. The developments in the communications technologies in particular have generated a flurry of activity in many industry sectors. The potential for such as services as internet banking and on-line shopping are well understood and are being widely exploited. The potential of technologies which facilitate the delivery of health and medical services at a distance—telemedicine and telecare—are similar.

  6.19  Geographical location will not necessarily imply health and social isolation. Delivery of appropriate care services through a variety of electronically enabled support mechanisms, thus sometimes avoiding the need to visit the GP surgery or local hospital, will be possible. In adopting even a small range of telemedicine and telecare initiatives, opportunities such as changing skill mixes of staff to deliver services more effectively thus giving more meaningful and rewarding work will also be possible.

  6.20  Telemedicine and telecare offers the potential for a wider range of safe, effective, high-quality care to be offered and opens up a new range of possibilities for localised services. This includes increasingly sophisticated day surgery, exploring networking between hospitals, including the potential of telemedicine, and exploring new ways of providing services at night, for example as at the Princess of Wales Hospital in Grimsby where telemedicine technology enables links to be made between the Grimsby radiology department, Hull and Scunthorpe hospitals, consultants' homes and other external sites. At any time of day or night, consultant radiologists can diagnose remotely from their home.

  6.21  The UK is taking a leading role in the use of ICT to support the delivery of healthcare. In England the National Programme for IT, one of the world's largest IT projects, is putting in place a national information infrastructure which will support telemedicine and telecare, help change the way the NHS works and improve the experience for both healthcare professionals and patients. The health services in the other UK countries (which are the responsibility of the devolved and Northern Ireland administrations) are also fully committed to making full use of ICT.

  6.22  The electronic NHS in the 21st century will help deliver better, safer and higher quality care. The opportunities offered by new information technology, telemedicine and other new technologies that are coming on stream will enable the design of modern services.

7.  THE SPEED OF AND BARRIERS TO THE INTRODUCTION OF NEW TECHNOLOGIES

Barriers

  7.1  The barriers to the speedy uptake of useful new medical devices and technologies were identified as part of the HITF process (see section 5 above). The main ones were :

    —  multi-entry points to the NHS for companies marketing products

    —  no formal mechanism to disseminate device evaluation advice and guidance, or to share experience and best practice amongst purchasers—leads to risk-averse purchasing decisions

    —  insufficient data available to purchasers about cost and value of new products and technologies

    —  NHS budgeting arrangements can act as a disincentive to uptake of innovation where initial costs are high/higher than existing products and encourage a risk-averse approach to innovative ideas, particularly where the benefits of new technology do not fall into the budget holder's domain

    —  not enough sharing of information between purchasers/clinicians/industry, which can result in ill-informed purchasing decisions

    —  NHS culture is not entrepreneurial enough—needs to be a driver of innovation

    —  lack of financial and technical support for companies in translating promising new ideas into marketable products

    —  bureaucracy around procurement procedures and instigating clinical trials in the NHS

    —  reluctance/difficulty in changing the current configuration of health and social care services inhibits the introduction of disruptive technologies

    —  NHS staff need to be better trained in the use of new medical technologies and products

  7.2  A lot of these issues are interlinked. The Task Force therefore concentrated on finding practical ways to overcome or reduce the most important barriers and weaving these into an integrated strategy that would impact on all the key areas. The specific measures agreed by Task Force are covered under section 5.

Role of healthcare scientists

  7.3  In addition to the range of measures proposed under HITF, the introduction of a range of new technologies into the NHS and the continual evaluation of performance are integral to the function of many healthcare scientists working in the constituent disciplines of the NHS workforce and associated organisations such as the National Blood Service and the Health Protection Agency (Life sciences and Genetics; Physiological Sciences; Clinical Engineering and Physical Sciences). Most of this is achieved as part of routine scientific service provision, rather than as part of formalised and funded R&D studies, and is part of the usual process of developing and improving scientific services. In some instances, equipment manufacturers and other diagnostic and therapeutic manufacturers may provide kits/equipment for trial and evaluation (alongside the current service provision) which often leads to purchase and introduction into the NHS as part of the usual capital replacement programmes or service improvement business planning processes. Additionally, some healthcare scientists will as part of their NHS function work with industry at the developmental stage of new technologies in a partnership approach.

  7.4  Healthcare scientists within the life science disciplines (pathology, genetic and embryology) would routinely be introducing new in vitro diagnostic testing kits which can, for example, take what has been a research tool into a full NHS diagnostic service which includes the measurement of new parameters (eg BNP—a cardiac protein which is an important marker in heart failure). Within the field of applied molecular genetics (which is an integral part of many life science disciplines), there is an ongoing adoption of new technologies, especially those that can speed up processes or provide greater accuracy. Equipment in the Life science disciplines is evolving rapidly and recently robotic platforms have been introduced for the rapid processing of blood samples for biochemistry, haematology and for immunology, an extended range of point of care testing devices (eg for blood glucose monitoring), state of the art tandem mass spectrometry and the introduction of liquid based cytology.

  7.5  Within the physiological science disciplines where tests and investigations are made directly on patients, a range of new equipment and technologies has been adopted that includes those to introduce new techniques or ways of measuring function (eg using sound waves to detect changes in airflow) or to make it easier for patients to comply with the measurement requirements. A wide selection of more portable and sometimes hand-held devices has been introduced that has enabled measurements to be provided in a range of healthcare settings, including primary care (variety of cardiac monitors eg echo machines, ECG event monitoring, spirometers, hand-held blood gas analysis, hand-held vascular scanners) and in some instances to enable patients to make the measurements themselves at home and transmit via telemetry. In addition, new technology has been introduced that has enabled improved treatment (DH investment in digital hearing aids, local funding of improved domiciliary nasal ventilation systems, cardiac defibrillators) or improved screening (DH investment in digital cameras to support diabetic retinal screening).

  7.6  Within the clinical engineering and physical science disciplines many scientists have a key role in equipment evaluation prior to procurement. Clinical engineers and physicists play a key role in designing and introducing a range of new technologies not only to support imaging, but rehabilitation, clinical measurement and in radiotherapy. Other scientists working in maxillofacial prosthetics would have a key role in introducing new biomaterials to support reconstructive approaches. Some healthcare scientists are employed in specialist units where they evaluate equipment and software to support, for example, the introduction of advanced imaging technologies into the NHS.

7.6.1  Supporting education and training

  Part of the training and education requirements to support regulation of practice of healthcare scientists (currently regulated or the aspirant professions where regulation will be extended in 2005-06) includes:

    —  an understanding of the principles of measurement;

    —  application within the health sector;

    —  evaluation, review and implementation of new technologies and techniques based on comparative research methodology (including reviewing the evidence base and ensuring that they measure what they are supposed to measure, to the degree of accuracy and precision etc).

  This is reflected to some extent within both undergraduate and postgraduate programmes and in professional body examinations.

  The National Occupational Standards Project in Healthcare science has produced a clear set of occupational standards based on competences for introducing new technologies and techniques into the health sector covering all elements of the function at all levels of practice from early evaluation, through to comparative studies, introduction, review, procurement etc. In addition, standards have been developed to define the competent performance for the quality assurance of measurements, calibration of equipment, protocols and procedures for undertaking the measurement which is an integral part of any introduction of new technologies and techniques. These standards define what needs to be demonstrated in terms of skill and knowledge requirements, with assessment criteria to determine competent performance are being built into pre and post registration programmes and into award and qualification frameworks.

  The contribution of healthcare scientists to training and education will be included in HITF considerations on how to improve training and education needs, taking into account the services also provided by industry in this area (see paragraph 5.5.9).

Conclusion

  7.7  Taken together, all these measures are designed to stimulate appropriate innovation and provide mechanisms for more rapid uptake of beneficial new medical technologies by the NHS. HITF produced its report in November 2004 and work to deliver the outputs has already started. The first milestone will be the transfer of DES from 1 April 2005 to PASA. Other initiatives are already underway eg the creation of NILSI which will manage the new Innovation Centre, improvements to procurement processes, development of UKCRC's programme including medical devices, regular regulatory dialogue between MHRA and industry. Some issues have still to be settled, including more detailed plans and funding arrangements for the new DES, the Innovation Centre within the wider context of NILSI and the development of a pilot HTC. Co-ordinating and supporting the work on improved training and education will also be taken forward. The new strategic group to be led by Lord Warner and Sir Christopher O"Donnell will oversee progress and ensure timely delivery of the HITF outputs.

8.  THE EFFECTIVENESS AND COST BENEFIT OF NEW TECHNOLOGIES

Development of DES

  8.1  HITF addressed the issue of how to assess the effectiveness and cost benefit of new technologies. The Task Force concluded that existing mechanisms, with some re-focusing, would be the best way to provide this information. Development of DES, currently part of MHRA, is at the centre of HITF proposals to help ensure that new technologies are taken up by the NHS. A key component is the provision of authoritative advice to purchasers on performance and value. The current service provided by DES does not take account of costs, but this will become an additional responsibility as the new service is developed under NHS PASA.

  8.2  DES has strong links with NICE, particularly in relation to NICE's role in evaluating significant new medical technologies. The new DES will continue to work closely with NICE on areas of common interest.

NICE

  8.3  Established in April 1999, NICE plays an important role in advising the NHS on clinical and cost effectiveness of new and existing health technologies, and in promoting uptake where technologies are demonstrated to be clinically and cost effective. NICE develops three forms of guidance: clinical guidelines (management of particular clinical conditions), appraisal guidance (guidance on specific health interventions, including pharmaceuticals), and guidance on the safety and efficacy of interventional procedures.

8.3.1  Topic selection processes

  The NICE technology appraisal and clinical guideline work programmes are jointly set by the Department of Health and the Welsh Assembly Government. Topics for referral include both new and emerging health technologies and those drugs, devices and procedures currently in use in the NHS where there is variation in practice.

  New medical technologies are chosen for referral to NICE by the Department of Health topic selection process. Information on these topics is provided by bodies commissioned by the Department of Health to track the progress of new medical technologies (whether they are drugs, devices or procedures). Information may also be submitted directly to the Department of Health by interested parties.


8.3.2  Clinical guidelines and technology appraisals

  In its first five years NICE has published 86 technology appraisals giving guidance on 159 pharmaceuticals, 21 procedures, 17 diagnostics, one Health Promotion and 106 devices (as of December 2004).

  The first NICE-commissioned guideline, covering the management of schizophrenia, was published in December 2002. Up to December 2004, NICE had published 23 clinical guidelines, six cancer service guidelines and eight inherited guidelines. NICE also has 44 guidelines and 53 technology appraisals in simultaneous preparation, making it the largest programme in any country.

8.3.3  Interventional procedures

  NICE's Interventional Procedures Programme (IPP) provides guidance about whether interventional procedures used for diagnosis or treatment are safe enough and work well enough for routine use. Referrals can be made at any time directly to the Institute itself. Since the launch of the IPP in February 2003, 96 guidance documents have been produced (up to December 2004).

8.3.4  Implementation of NICE guidance

  There is clear evidence now emerging that, while overall NICE guidance has led to faster uptake of recommended treatments and some narrowing of variations between different parts of England and Wales, there are still significant and unacceptable variations. Ministers announced on 14 June 2004 a broad programme of action to aid faster uptake of NICE guidance. Action to support the implementation of NICE guidance does not fall to any single body. There is a broad partnership to ensure that patients get ready access to the quality of care recommended by NICE.

Conclusion

  8.4  DH fully recognises that a major element of improving patients' access to new medical technologies is via evaluation of their effectiveness and benefits, and is already taking steps to address this issue.


2   Securing our Future Health: Taking a Long-Term View written by Sir Derek Wanless for HM Treasury, examined future health trends and the resources necessary to run a publicly funded, comprehensive and high-quality health service over the next 20 years (accessible on www.hm-treasury.gov.uk). Back

3   Reconfiguring the Department of Health's Arm's Length Bodies (July 2004) and An Implementation Framework for Reconfiguring the DH Arm's Length Bodies (November 2004)- www.dh.gov.uk/publicationsandstatistics/publications/pulicationspolicy. Back

4   "Assistive technology" is a term generally used to describe aids for the disabled eg in the home, to help mobility etc. Back

5   www.dti.gov.uk/innovationreport/index.htm. Back

6   www.ogc.gov.uk/embedded_object.asp?docid=1001717. Back

7   Releasing Resources to the Frontline: Independent Review of the Public Sector-www.hm-treasury.gov.uk. Back

8   www.ogc.gov.uk/embedded_object.asp?docid=10013941. Back

9   www.ogc.gov.uk/embedded_object.asp?docid=1001426. Back

10   UKCRC is tasked with speeding up the development of new medicines and treatments from the laboratory to the patient by expanding the number and range of clinical trials. Its aim is to help bring together clinical teams, primary care trusts, the voluntary sector and industry to increase the number of patients participating in clinical trials. Its work will initially be targeted on five therapeutic areas. It is chaired by the Director of DH R&D and the Board comprises representatives of the main UK funding bodies for clinical research. Back

11   www.advisory.bodies@doh.gov.uk/hitf. Back

12   Centre for Health Informatics Aberystwyth. Back

13   K Collins et al. GPs' perceptions of asynchronous teledermatology; Journal of Telemedicine and Telecare 2004; 10: 94-98. Back


 
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