Select Committee on Science and Technology Second Report



CHAPTER 2 VIEWS OF WITNESSES

FOCUS OF THE FRAMEWORK PROGRAMME

  2.1     There is a general consensus that the Framework Programme has been spread too thinly and too far between an ever-increasing assortment of programmes (e.g. QQ 133, 166, p 204). The Commission itself shares this view (see above, paragraphs 1.15-17), seeing selection of topics and concentration of resources as a top priority. It has cautioned, however, that there has in the past been an intractable barrier to the solution of this problem: "with each Framework Programme, the question arises of the "dispersion" of projects and resources. There is also the problem of incorporating novel ideas that arise during the course of the programme and the difficulty of winding up activities, each of which is of interest, de facto, to a particular group of people".[14]

  2.2     Professor Routti, Director-General of DG XII of the Commission, said that the Fourth Framework Programme was "probably too fragmented. It consists of up to 20 separate programmes and there are about 10,000 projects going on at this time. We cannot solve all the problems at the same time. We want to have a large number of participants in these programmes but we want to have more co-ordination" (Q 323). Professor Georghiou, Director of Policy Research in Engineering, Science and Technology (PREST) at the University of Manchester, echoed the Commission: "there seems to be a situation where once something is in place it cannot be cut back or removed from the Framework Programme" (QQ 66, 134). The Royal Academy of Engineering took this further: "one of the hardest things to do in research is to close down a project. This is what we have to do in some of the long-term areas of FP4 if we are to be able to open up new areas in Framework 5" (Q 191, cp p 198). The Biotechnology and Biological Sciences Research Council (BBSRC) pointed out, however, that the rise in allocation of funds to Biotechnology, from 2.8 to 4.4 per cent between FP3 and FP4, was clear evidence that the Framework Programme was responding to new scientific opportunities and was not just perpetuating past funding lines (p 116).

  2.3     Professor Georghiou of PREST drew lessons from his chairmanship of the five-year review of the biotechnology programme. "We found in that review that it is large projects which have the most impact, for example, the well known case of the yeast genome, but there are others ... which are the largest projects in the programme and also have the most impact. That seems to indicate that where resources are concentrated more effect relatively can be achieved" (Q 69).

  2.4     The Economic and Social Research Council (ESRC) criticised the often unscientific way in which the content of the Framework Programmes is arrived at. "You begin with ... national views about a future Framework Programme. There are typically long meetings of officials in Brussels which generate further proposals. All the major scientific bodies in Europe contribute their advice in such a way that you can observe a sort of ritual dance of deference ... around the Commission with visions of future research being expressed very eloquently. There is a certain degree of horse trading that goes on both inside and outside DG XII. Then, to add yet further complexities, there are direct interventions by Member States who want to ensure that their own interests are enshrined in any future programme" (Q 273). R&D proposals are subject to unanimity in the Council of Ministers; Mrs Eryl McNally MEP (p 199) remarked that majority voting would improve decision-making.

  2.5     The Office of Science and Technology (OST) said that programmes had to be concentrated on the things which mattered most for Europe: "we want to constrain the programme and not allow too many baubles to be hung on it like a Christmas tree" (Q 22). "It is important to avoid the temptation to load the programme down with everybody's pet subjects ... It is equally important that we work with other Member States to make clear that this does not necessarily mean fewer, bigger projects. Rather it means fewer, more important objectives. That is the message we have to work to get across, particularly to the smaller Member States ... Finally, subsidiarity is another key principle, which is important and separate from the added value principle. Article 3b of the Treaty requires that the Community does only the things which cannot be done by Member States. So even if the programme can add value at a European level there is still no case to intervene unless to do so would be to achieve something which could not be achieved by Member States acting individually or collectively outside the Community" (Q 2).

  2.6     The BBSRC spoke in favour of what they described as the European Science Foundation's à la carte process, whereby it was up to each country and each participating research council within those countries to decide whether they wanted to be involved in each new ESF programme. The EPSRC proposed that "only those Member States capable of undertaking research to the highest scientific standards are invited to participate in particular projects/programmes" (p 181); greater emphasis would then be placed on providing fair access to the resultant technology on a European-wide basis. The Treaty allows for such arrangements in the Framework Programmes (Articles 130k and l); the German government advocated such arrangements in their original submission to the Commission on FP5[15]; and the Commission appears to envisage an à la carte element to FP5: Inventing Tomorrow p 19, Towards FP5 p 9.

  2.7     Sir Dai Rees gave evidence in January, at the end of the inquiry, when the Commission's plans for FP5 were becoming clearer. He echoed others in criticising FP4 for lack of focus; the Commission had tried to be "omnivorous". The Framework Programmes accounted for only a small fraction of public sector EU research; so, rather than trying to cover everything, they should be looking for a niche. However he saw signs in recent Commission utterances that, for FP5, this lesson was on the way to being learnt (QQ 434, 436). He considers that a genuinely European research agenda can be identified; in the biosciences, it might include agriculture, environmental health and state health care systems (Q 436). Other witnesses generally agreed that, ultimately, the main determinants of what research should be funded were quality (e.g. pp 12, 40, 105, 148, 177, 213) and clear added value from organising the research at a European rather than national or global level (pp 90, 177, 179, 205, 212).

  2.8     Professor Routti is clearly alive to the importance of subsidiarity. "It is important to define what we need to do together and what is best done at national level. If one looks at the history of European collaborative research, one can see that many areas are such that only common efforts are possible. The very expensive facilities needed for space research, particle physics, the European Southern Observatory and the like, have called for joint action, which has been typically organised in separate organisations. But also on the science side there are many issues which must be addressed, and can only be addressed, by common action. At the environmental side, global change, the greenhouse effect, the Mediterranean, the Baltic, the River Danube, the Rhine, are questions which cannot be addressed within the shores of a single country" (Q 323).

  2.9     As noted above, Inventing Tomorrow commits FP5 to "meeting basic economic and social needs". Professor Routti explained (Q 323): "Commissioner Cresson ... has very much emphasised the needs of society, the concerns of the citizens, as the guiding principles for research programmes. These questions relate to employment, job security, physical safety, environment, education, welfare systems and so on". Mrs McNally MEP (p 198) offers another example of a "citizen-led" research agenda, focusing on health.

  2.10     It is to be expected that a Framework Programme with socio-economic objectives will have an explicit element of funding for socio-economic research. Professor Routti acknowledged that TSER is a small element of FP4 (147 MECU, £106m, 1.1 per cent); "Its importance is growing, but I do not think we need to duplicate the effort done at a national level" (Q 341). It was however necessary to analyse as best one could the socio-economic impact of changing technologies (QQ 328, 341).

VALUE FOR MONEY

Success stories

  2.11     In 1992 a European project established the complete sequence of chromosome III of yeast. According to POST (5.4 (a)), "This is the first time that a chromosome ... has been sequenced; this has profound implications for the sequencing of higher animals (e.g. humans)". This was cited by many witnesses as a Framework Programme success story; it was achieved under the biotechnology action programme following collaborative work involving 147 scientists working in 35 laboratories in ten Member States. The Biotechnology and Biological Sciences Research Council (BBSRC) admitted that not all the genome work had "flowed from FP4" (cp QQ 409), but support from FP4 had "given an impetus to that work. The full sequencing of that yeast genome which is 6,000 genes is an extraordinarily important event".

  2.12     We asked several of our witnesses to name the outstanding successes of Framework-funded research. The OST named the gene sequencing of yeast noted above, and of the plant arabidopsis (Q 5). Dr D A Parker, speaking for the Royal Academy of Engineering, singled out projects on information technology, ceramics, high-temperature superconductors, better use of fossil fuels and electric vehicles (Q 186). The BBSRC cited work at Oxford into aspects of carbohydrate recognition and control, which could lead to important developments for the treatment of diabetes; and genetic work to increase the health value of the tomato (Q 286). In the informatics field, the Commission pointed to ICL's "clear statement at the time that they publicised the Goldrush chip-the parallel-processing chip-that this was clearly and squarely based on a project which had been within the Information Technologies programme" (Q 356). The CVCP (p 158) supplied examples of projects involving United Kingdom universities where Framework funding has helped to strengthen European research (e.g. "Euroscreen", on the ethics of genetic screening, at the University of Central Lancashire), or has led to better distribution of scientific skills (e.g. the Large Scale Facility for combustion in Cardiff, with grants to help scientists from central and eastern Europe to use it), or has encouraged industrial applications (e.g. Glasgow Caledonian University's project on an external intelligent lighting system), or has improved the quality of life (e.g. work at King's College London on molecular events influencing cellular behaviour in atherosclerosis, which has led to a patent and may produce drug- or gene-based treatments). For further success stories, see Box below. The Commission wishes to improve publicity for such stories (Q 356).

Benefits to Europe

  2.13     Lord Kennet (who has contracts with the Commission to conduct conferences, research and publications on bioethics and national parliaments) cautioned that "clear value for money, or its absence, cannot in advance be demonstrated from any programme of scientific research, ... the higher the content of pure, as opposed to applied, research in a programme the more it is against our national interest to emphasise the question of value for money" (p 193). Nonetheless, the Parliamentary Office of Science and Technology (POST) made the attempt, and compared investment in the Framework Programmes with indicators of Europe's industrial competitiveness (production in high-tech industries, trade ratios, and ratios of R&D expenditure to production) and with indicators of European R&D activity (R&D spending as a percentage of GDP, scientific publications, US patents per MECU of R&D spending) (see POST 5.1). POST concluded, "There is no obvious association between the growth of the Framework Programmes and measures of EU competitiveness and technological success. Indeed, many indicators suggest a relative decline since the Programmes started. This is more likely to be a reflection of the inappropriateness of the measure than an overall reflection on the success/failure of the FPs, since the amount of money spent through this route is small relative to Member States' research budgets, or even the budgets of individual European companies".

  2.14     POST also records the outcomes of various other evaluations of the overall impact of the Framework Programmes. A study carried out at Strasbourg University in 1994 attempted boldly-perhaps too boldly-to put numbers on the average economic benefit to participants in 50 projects in the BRITE/EURAM programme (advanced technologies and materials). It suggested an overall ratio of EU grant to direct economic benefit of 1:13, and a ratio of grant to indirect benefit of 1:4.

Further examples of success stories

Besides the yeast genome, Inventing Tomorrow (p 10) cites the following as "success stories": parallel computers, telecoms standards, and the first generation of electricity by nuclear fusion (by the Joint European Torus, at Culham in Oxfordshire, in 1991).

EU RTD 1996 (Part 2) sets out numerous achievements of FP3 and FP4 in 1995, including: the conclusion of RACE (advanced communications technologies, a major programme begun in 1988), leaving 70 per cent of participating companies in an improved competitive position, with 140 new patents registered and 48 pending; under ESPRIT (information technology), development of a miniaturised intelligent sensor for in vivo blood tests; under BRITE-EURAM (industrial and materials technologies), development by four small firms and a laboratory of a paper-based substrate to replace chlorine-based PVC in decorative applications for furniture, offering an economic gain over 1995-99 of 55 MECU for 2.5 MECU of R&D investment; under MAST (marine science), completion of the Mediterranean Targeted Project, which brought together 180 scientists from 70 organisations in 14 countries, producing 40 peer-reviewed articles, a handbook of methods and protocols, and large amounts of data on the Mediterranean ecosystem; and in biotechnology, 1,651 publications and six patents. The CHORUS technology has been adopted by CRAY research (USA) for the operating systems of its new supercomputer as well as carrying 38 software products for parallel processing systems for aeronautics and automotive industries; it is widely cited in the US as a reference model. New rare earth luminescent materials developed by a consortium of industrial and university partners for lighting have a prospect of a gain of 330 MECU over five years for an investment of 1.9 MECU. The European Gene Mapping Project, EUROGEM, is a network of 23 laboratories organising European work on the human genome; considerable success has been achieved, particularly on chromosomes 11 and 21.

In addition, POST (p 47) singles out the Boundary Scan Test, a new testing procedure for microprocessors developed under ESPRIT which has been widely adopted by industry and has led to a new company JTAG Technologies to exploit it; and the programme Make Gypsum Pay which uses biological and chemical processes to recycle gypsum waste.

  2.15     According to the OST, "Evaluations that have been done of FP3, which are complete, and the monitoring and evaluation activities that are currently going on in FP4, suggest that there is clear added value. Real results are being achieved which would not come about if it was left merely to Member States to try to pull together the various parties across Europe to do this research further from the market" (Q 4).

Benefits to the United Kingdom

  2.16     As noted above (paragraph 1.5), the Government believe that, in cash terms, the United Kingdom gets out of FP4 roughly what she puts in. "This, of course, ignores the broader financial benefits that derive from the exploitation of the research outputs and the non-financial benefits of participation. Though unmeasurable, these are likely to be considerable" (p 6). There was, in OST's view, "very hard evidence there that there is value for money in participating in the programmes" (Q 32). They pointed out that there was strong United Kingdom participation in the Framework programmes despite the fact that participants had to commit their own money to play a part in projects. "UK led projects are achieving consistently higher than average success rates overall-in some programmes they account for over 30 per cent of those selected-against very high levels of competition" (p 2). There was also a considerable amount of "repeat business", in that many of those who had participated in programmes came back for more next time round.

  2.17     In 1993, the Government published the "UKIMPACT study": The impact of EC Policies for RTD upon Science and Technology in the UK. The work was done by PREST, mostly on the basis of a questionnaire to programme participants; the study was one of a series of similar national impact studies organised by the Commission. The findings were broadly positive: the UK had more collaborative links through Framework projects than any other Member State; 93 per cent of academic participants, 76 per cent of industrial participants and 89 per cent of other participants intended to reapply. Most academic participants had benefited, or expected to benefit, through further funding and enhanced skills; most industrial participants expected in addition to benefit from new products and processes and new commercial links. See POST 5.2.5. The OST commented, "The 1993 UK impact study which was carried out by PREST showed a very positive impact on all sectors involved in the programme, which was then the third framework programme, FP3. It also demonstrated that the benefits were genuinely additional, either absolutely or in terms of the volume, speed or orientation of the relevant research. Taken together, we believe that these benefits fully justify the UK's continuing participation in the programme" (Q 3).

  2.18     According to the NERC (p 205), United Kingdom environmental science has done well out of FP4. NERC itself won £6m of funding in 1995-96; and in two major programmes, Environment-and-Climate and MAST, United Kingdom researchers were involved in well over half the contracts. NERC acknowledges other benefits: "The [environmental science] community has also benefited from increased awareness of research undertaken throughout Europe and increased willingness to interact with scientists from overseas. The research contracts have benefited from the volume of research undertaken, providing in some cases gearing for domestic funding, and have accelerated and added richness to the science."

  2.19     The ESRC said that "the funding of comparative and co-operative social science research within FP4 has been a genuine and unique incentive for work at the European level, which should be continued within FP5" (p 103). Research teams of individuals in Britain had "done very well" in the first call for Targeted Socio-Economic Research, in which 52 research teams in the United Kingdom had been funded.[16] That was a substantially larger number than any other Member State, and significantly ahead of France with 34 teams funded, Italy and the Netherlands with 33 teams each, and Germany with 27. Furthermore, 13 out of the 38 major projects which had been funded were led by a principal investigator from the United Kingdom (Q 244).

  2.20     The BBSRC said that "The return to the UK is consistently above juste retour [see footnote 1] with a high proportion of UK coordinators" (p 117). Sir Dai Rees is under the same impression (Q 453); he puts it down not only to scientific excellence, but also to "hunger". Sir Dai mentioned that the United Kingdom Research Councils and universities have opened a liaison office in Brussels. Many United Kingdom universities now receive a substantial proportion of their research grant and contract income from the EU: for example, Edinburgh 9 per cent (p 220), and Nottingham 20 per cent (Q 218). The Committee discovered the following further examples during an inquiry into International Investment in UK Science (4th Report, Session 1993-94, HL Paper 36, p 9): Oxford 4 per cent (1989-94), Cambridge 6 per cent (1992-93), Imperial College 9 per cent (1990-94), Loughborough 17 per cent (1992-93).

  2.21     In relation to the academic community, PREST had carried out a study sponsored by the United States National Science Foundation, which found that before the Framework Programme United Kingdom scientists had tended to look to the USA for their prime collaborative links. "After the Framework Programme there was no drop in the level of links to the USA but a substantial increase in the number of European linkages. Indeed, UK scientists were sometimes used as a gateway to the USA". The fellowship schemes, in particular, had been highly effective in building up collaborative linkages (QQ 102-3). Overall, the United Kingdom was the most favoured partner for Framework Programme collaboration. She had the largest number of collaborative links within the Framework Programme, and was the favourite partner for most other countries, including France and Germany. Possible reasons for this included the quality of the United Kingdom science base, the English language, and possibly "the fact that our scientific community has been leaner and hungrier because of our domestic situation and therefore has been more motivated" (QQ 106-8).

  2.22     It may no longer be true that United Kingdom researchers are the most favoured partners for Framework collaborations. According to EU RTD 1996 (table 7), in 1995 Germany had the most collaborative links (11,116); France had 10,542; the United Kingdom had 10,440; and Italy had 8,014. The United Kingdom was the favourite partner for researchers from Denmark, Greece, Ireland, the Netherlands, Finland and Sweden; but Germany was the favourite for France, Austria and Portugal (and the United Kingdom), and France was the favourite for Belgium, Germany, Spain and Italy.

  2.23     Professor Jon McCleverty, of Bristol University and the Royal Society of Chemistry, spoke in favour of the Network programmes in the Training and Mobility of Researchers programme (TMR). They had "very substantially added to the quality of both European chemistry and British chemistry"; they provided good training; they favoured the United Kingdom through the English language; and, he added, "I have been able to establish collaborations ... with more colleagues in the best laboratories in Europe than would have been possible though United Kingdom resourcing alone" (p 217). However Professor Georghiou of PREST observed that at a scientific level globalisation has become significant. "If we confine collaboration to within Europe we are not always working with the world's best" (Q 86). The CBI said that access by non-Member States to the Framework Programme must be of "a truly reciprocal nature, so that we can participate fully, for instance, in the US programmes and they can participate in the Framework Programmes on equal footing" (Q 156).

  2.24     The OST consider that their vision of a more focused FP5 can be achieved by "a programme at most of current size and possibly smaller" (p 3). Most witnesses were unwilling to contemplate the cessation of the Framework Programmes (e.g. QQ 187, 216, 404); despite all the complaints about inefficient management of the Framework Programmes (see below), they provided an alternative funding stream, which was clearly desirable.

Full economic cost

  2.25     Framework grants, though generous as to salaries, are niggardly in respect of associated costs, paying only 10-20 per cent on top of salary. For comparison, United Kingdom research councils pay 40-45 per cent; medical research charities usually offer nothing. Professor Stephen Brown, Professor of Civil Engineering and Pro Vice-Chancellor at the University of Nottingham, estimated that Nottingham University was "subsidising through other funding streams our European Commission work to the tune of about £400,000 a year.[17] That has to come from our higher education funding grant which does not compensate us to this extent or anywhere near it" (Q 218). When asked whether he ever dissuaded any of his university colleagues from applying for Framework funding on the grounds that the university could not afford it, however, Professor Brown replied simply: "No, never" (Q 223).

  2.26     Professor Tom Husband, Vice-Chancellor of the University of Salford, speaking for the CVCP, told a similar story (QQ 365-378). "If we have a contract with the EU for £100,000 we get £15,000 back in overheads ... that in no way covers the full cost". He and the other CVCP witnesses explained that universities nonetheless continue to seek Framework funding for the less tangible benefits noted above, and because "many universities are driven to look for every revenue stream that is available". Professor Husband noted that the problem appeared to be unique to the United Kingdom; this was perhaps because in other countries universities received more core funding from central and local government.

BASIC RESEARCH

  2.27     "Basic research" is experimental or theoretical work undertaken primarily to acquire new knowledge of the underlying foundation of phenomena and observable facts, without any particular application or use in view. This definition is taken from the "Frascati manual" of the OECD, which contains the set of definitions of categories of R&D in universal currency. The OST were opposed to basic research being funded by the Framework Programme, seeing this as the responsibility of national governments (QQ 15-16).

  2.28     The Commission, in Inventing Tomorrow (p 11), took a pragmatic view of this issue:

        "Reduction in the period of time which elapses between "discovery" in the laboratory and putting products "on the market", as well as the wider range of inputs required for the development of complex systems, tends to eliminate the old distinction between basic research and industrial and applied research. It is now difficult to catalogue the discovery of a new computer algorithm or a breakthrough in the sequencing of genomes, since the time between the discovery of new knowledge and its application may be extremely short. Consequently it is essential to maintain a research context which is open to new ideas, for work on basic questions which may possibly generate new fields of activity ... Discussions of the Framework Programme have always touched on the distance between research and the market and the difference between "academic" and "industrial" research. This is how the idea of "pre-competitive" research came about, although its boundaries have become rather vague and in practice it is largely ignored by the major competitors in Europe."

  2.29     The Royal Academy of Engineering was firm in its support for long-term pre-competitive research and development (QQ 194-195, 203). "FP4 has moved too far into the near-market area with the emphasis being on service and application solutions which are often far too close to the competitive arena. The lack of long-term R&D in programmes could jeopardise European industry's long-term future by encouraging short-term exploitation without the balancing requirement of "seed-corn" research" (p 89). The Natural Environment Research Council and the Medical Research Council (pp 203, 206) consider that the time-span of the Framework Programmes is too short to allow long-term research to come to fruition. At a time when national research budgets in several Member States are under pressure in the struggle to meet the Maastricht convergence criteria, the collection of environmental data sets and lengthy clinical trials, in particular, may be targets for budget cuts, although this long-term research may be of great importance to the European citizen. Sir Dai Rees complained that the Framework Programmes offered nothing between short-term funding and the "immortality" of the JRC (see below) (Q 457).

  2.30     Other witnesses in support of funding basic research through the Framework Programme included Loughborough University, the University of Edinburgh and the Royal Society (pp 194, 212, 219). The Royal Society called for at least ten per cent of each programme budget to be ring-fenced for underpinning basic research in the broad area of that programme; this funding should be separate from the Training and Mobility of Researchers (TMR) programme.


14   Inventing Tomorrow, pp 10, 17. Back

15   Overview of the external contributions to the preparation of FP5, Commission staff working paper SEC(96)2260, 29 November 1996. Back

16   The number of applications involving United Kingdom researchers was 99 (p 115). Back

17   Nottingham University explained later: "Last year we received c.£6.3m in total EC R&D grants; average length is 3 years, implying an income of c.£2.1m per annum which attracts only 20 per cent overheads, say £420,000 per annum. However, this £2.1m comprises roughly 50 per cent salary element or say £1m which would, if we applied our normal full commercial overhead of 85 per cent, attract about £850,000 instead of the actual £420,000 detailed above. So about £430,000 (£850,000 less £420,000) can be said to be "subsidised" per annum". Back


 


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Prepared 5 March 1997