Archive for Physics

Topological Escapology

Posted in Education, The Universe and Stuff with tags , on June 13, 2011 by telescoper

The occasional  teasers I post on here seem to go down quite well so I thought I’d try this one on you.  I recently found it in an old book on the topic of  topology, a fascinating field that finds many applications in physics, including several in my own field of  cosmology.

It’s probably best not to ask why, but the two gentlemen in the picture, A and B, are tied together in the following way. One end of a piece of rope is tied about A’s right wrist, the other about his left wrist. A second rope is passed around the first and its ends are tied to B’s wrists.

Can A and B free each other without cutting either rope, performing amputations,  or untying the knots at either person’s wrists?

If so, how?

A Paradox of Galileo

Posted in Cute Problems with tags , , , on June 1, 2011 by telescoper

Going by the popularity of the little physics problem I posted last week, I thought some of you might be interested in this little conundrum which dates back to the 17th Century (to Galileo Galilei, in fact). It’s not a problem to which there’s a snappy answer, so no poll this time, but I think it’s quite a good one to think about – and please try to resist the temptation to google it!

The above figure shows a large circular wheel, which rolls from left to right, without slipping, on a flat surface, along a straight line from P to Q, making exactly one revolution as it does so. The distance PQ is thus equal to the circumference of the wheel.

Now, consider the small circle, firmly fixed to the larger circle with the two centres coincident. The small circle also makes one complete revolution as the wheel rolls, and  it travels from R to S. Similarly, therefore, the distance RS must be the circumference of the small circle.

Since RS is clearly equal to PQ it follows that the circumferences of the large wheel and the small circle must be equal!

Since the radii of the large and  small circles are different,  this conclusion is clearly false so what’s wrong with the argument?

An easy physics problem…

Posted in Cute Problems with tags , , , on May 26, 2011 by telescoper

Based on the popularity of something I posted last week, I thought some of you might find this little problem amusing. It’s from a Physics A-level paper I took in 1981. The examination comprised two papers in those days (and a practical exam); one paper had long questions, similar to the questions we set in university examinations these days, and the other was short questions in a multiple-choice format. This is one of the latter type, from the mechanics section.

And here is a poll in which you may select your answer:

Whatever happened to Euclid?

Posted in Education, The Universe and Stuff with tags , , , , , , on May 24, 2011 by telescoper

An interesting article on the BBC website about the innate nature of our understanding of geometry reminded me that I have been meaning to post something about the importance of geometry in mathematics education – and, more accurately, the damaging consequences of the lack of geometry in the modern curriculum.

When I was a lad – yes, it’s one of those tedious posts about how things were better in the old days – we grammar school kids spent a disproportionate amount of time learning geometry in pretty much the way it has been taught since the days of Euclid. In fact, I still have a copy of the classic Hall & Stevens textbook based on Euclid’s Elements, from which I scanned the proof shown below (after checking that it’s now out of copyright).

This, Proposition 5 of Book I of the Elements, is in fact quite a famous proof known as the Pons Asinorum:

The old-fashioned way we learned geometry required us to prove all kinds of bizarre theorems concerning the shapes and sizes of triangles and parallelograms, properties of chords intersecting circles, angles subtended by various things, tangents to circles, and so on and so forth. Although I still remember various interesting results I had to prove way back then – such as the fact that the angle subtended by a chord at the centre of a circle is twice that subtended at the circumference (Book III, Proposition 20) – I haven’t actually used many of them since. The one notable exception I can think of is Pythagoras’ Theorem (Book I, Proposition 47), which is of course extremely useful in many branches of physics.

The apparent irrelevance of most of the theorems one was required to prove is no doubt the reason why “modern” high school mathematics syllabuses have ditched this formal approach to geometry. I think this was a big mistake. The bottom line in a geometrical proof is not what’s important – it’s how you get there. In particular, it’s learning how to structure a mathematical argument.

That goes not only for proving theorems, but also for solving problems; many of Euclid’s propositions are problems rather than theorems, in fact. I remember well being taught to end the proof of a theorem with QED (Quod Erat Demonstrandum; “which was to be proved”) but end the solution of a problem with QEF (Quod Erat Faciendum; “which was to be done”).

You can see what I mean by looking at the Pons Asinorum, which is a very simple theorem to prove but which illustrates the general structure:

  1. GIVEN
  2. TO PROVE
  3. CONSTRUCTION
  4. PROOF

When you have completed many geometrical proofs this way it becomes second nature to confront any  problem in mathematics (or physics) by first writing down what is given (or can be assumed), often including the drawing of a diagram. These are key ingredients of a successful problem solving strategy. Next you have to understand precisely what you need to prove, so write that down too. It seems trivial, but writing things down on paper really does help. Not all theorems require a “construction”, and that’s usually the bit where ingenuity comes in so is more difficult. However, the “proof” then follows as a series of logical deductions, with reference to earlier (proved) propositions given in the margin.

This structure carries over perfectly well to problems involving algebra or calculus (or even non-Euclidean geometry) but I think classical geometry provides the ideal context to learn it because it involves visual as well as symbolic logic – it’s not just abstract reasoning in that compasses, rulers and protractors can help you!

I don’t think it’s a particular problem for universites that relatively few students know how to prove the perpendicular bisector theorem, but it definitely is a problem that so many have no idea what a mathemetical proof should look like.

Come back Euclid, all is forgiven!

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The joy of viXra

Posted in The Universe and Stuff with tags , , , , , on May 19, 2011 by telescoper

From time to time on this blog I post rants about the state of scientific publishing, open access, the importance of the arXiv for astronomy and cosmology, and so on.

This morning, however, I discovered an “alternative” side to the whole business of online science, a site by the name of viXra. Most readers will probably be familiar with this site already – many no doubt publish there, in fact – but I have to say that it’s completely new to me. I urge you to check it out.

The structure and layout of viXra is almost identical to the arXiv, but the content is a bit … er … different. Naturally, I went straight for the section that mirrors astro-ph on the arXiv. The viXra version of astro-ph so far contains only 88 publications, but among them are papers of such outstanding quality that I’m sure this remarkable collection will grow very quickly when like-minded authors around the world find out about it.

I thought I’d post my favourite as an example. Initially, I was going to go with one entitled Ball Lightning, Micro Comets, Sprite-Fireballs and X-Ray/gamma Flashes According to Quantum FFF Theory, with the abstract

FUNCTION FOLLOWS FORM in Quantum FFF THEORY. The FORM and MICROSTRUCTURE of elementary particles, is supposed to be the origin of FUNCTIONAL differences between Higgs- Graviton- Photon- and Fermion particles. As a consequence, a NEW splitting, accelerating and pairing MASSLESS BLACK HOLE, able to convert vacuum energy (ZPE) into real energy by entropy decrease, seems to be able to explain quick Galaxy- and Star formation, down to Sunspots, (Micro) Comets, Lightning bolts, Sprite Fireballs and Ball Lightning.

I decided against this one, however, because of the tendency to burst inexplicably into upper case every now and again, which I found rather alarming.

I was also forced to reject this one, The Structuring Force of the Natural World, on the grounds that (a) it’s in Chinese so I can’t read it and (b) I don’t know what a “basket graph” is. Otherwise I’m sure its a splendid piece of work.

The assumption that the mass distribution of spiral galaxies is rational was suggested 11 years ago. The rationality means that on any spiral galaxy disk plane there exists a special net of orthogonal curves. The ratio of mass density at one side of a curve (from the net) to the one at the other side is constant along the curve. Such curve is called a proportion curve. Such net of curves is called an orthogonal net of proportion curves. I also suggested that the arms and rings are the disturbance to the rational structure. To achieve the minimal disturbance, the disturbing waves trace the orthogonal or non-orthogonal proportion curves. I proved 6 years ago that exponential disks and dual-handle structures are rational. Recently, I have also proved that rational structure satisfies a cubic algebraic equation. Based on these results, this paper ultimately demonstrates visually what the orthogonal net of proportion curves looks like if the superposition of a disk and dual-handle structures is still rational. That is, based on the natural solution of the equation, the rate of variance along the ‘radial’ direction of the logarithmic mass density is obtained. Its image is called the ‘basket graph’. The myth of galaxy structure will possibly be resolved based the further study of ‘basket graphs’.

In the end I decided to go for this impressive article, A Cantorian Superfluid Vortex and the Quantization of Planetary Motion

This article suggests a preliminary version of a Cantorian superfluid vortex hypothesis as a plausible model of nonlinear cosmology. Though some parts of the proposed theory resemble several elements of what have been proposed by Consoli (2000, 2002), Gibson (1999), Nottale (1996, 1997, 2001, 2002a), and Winterberg (2002b), it seems such a Cantorian superfluid vortex model instead of superfluid or vortex theory alone has never been proposed before. Implications of the proposed theory will be discussed subsequently, including prediction of some new outer planets in solar system beyond Pluto orbit. Therefore further observational data is recommended to falsify or verify these predictions. If the proposed hypothesis corresponds to the observed facts, then it could be used to solve certain unsolved problems, such as gravitation instability, clustering, vorticity and void formation in galaxies, and the distribution of planet orbits both in solar system and also exoplanets.

I’m not an expert on the “Cantorian superfluid vortex theory”, but I suspect the author may well be correct in saying that it has not previously been proposed as an explanation for the planetary orbits…

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Cute Physics Problem

Posted in Cute Problems, The Universe and Stuff with tags , on May 17, 2011 by telescoper

I heard this nice physics problem today so I thought I’d try it out on here. You will probably be able to find the answer on the net somewhere but please try to figure it out yourself before doing so!

There are two identical chambers, A and B containing identical metal balls which begin the experiment at the same temperature. Apart from the balls, each chamber is a perfect vacuum and has thermally conducting walls at a lower temperature than the ball it contains.

In A the ball is resting on the floor, which is made of material which is a perfect thermal insulator.

In B the ball is hanging from the ceiling by a piece of light inextensible string, not touching the floor. Both the string and the ceiling are also made of perfectly insulating material.

Which ball cools down faster?

Please put your answer through the poll here. When enough people have voted, I’ll tell you the answer…

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Local Matters

Posted in Education, Finance, Politics, Science Politics with tags , , , , , on May 12, 2011 by telescoper

I think I’ve caught up with most of the signficant things that happened during my travels, so I thought I’d end this series of updates with some local news from Cardiff (and Wales generally).

First, I can pass on some information relating to the  number of potential students applying to study Physics (and related subjects) this forthcoming academic year (2011/12) in the School of Physics & Astronomy at Cardiff University.  I blogged about this a few months ago when it became obvious that we were having a bumper year. As it turns out, we finished with applications up by a whopping 53% on last year.

Second, and related to the first item, the detailed allocations of university funding in Wales have finally filtered down all the way from HEFCW, through the Cardiff University management, and onto individual schools.  As it happens, this has also turned out not too badly for us here in Physics & Astronomy. For various reasons we’ve finally been given the increase in student numbers that we have been requesting for some time without success. In fact we’ve been given an extra 60 funded places, which is a significant uplift in our quota and a much-needed financial boost for the School. This has happened basically because of HECFW‘s desire to bolster STEM subjects as part of a range of measures related to the Welsh Assembly Government’s plans for the regions.

Unfortunately the admissions team have so far been proceeding on the basis that demand would exceed supply for this year so has set our undergraduate offers rather high. In order to fill the extra places that have been given to us late in the day, even with our vastly increased application numbers we may have to go into the clearing system to recruit some of the extra bodies. We’ll have to wait until the A-level results come out in August, however, before we know what the situation really is.

It would have been a lot easier if we’d known the rules at the start of the game, rather than near the end, but that’s the way it goes when politicians start tinkering with things…

We will have to lay on extra tutorials and laboratory sessions to cope with the anticipated increase in student numbers, which will be a bit of a struggle, but the extra money they bring in should keep the wolf from the door for a while.

Another thing worth mentioning concerns research in Wales. In the run-up to the Welsh Assembly elections, the Campaign for Science and Engineering (CASE) produced a couple of interesting documents. One was about science policy in the devolved nations and the other was a comparison of STEM subjects across the UK.

These documents make it clear that Wales lags far beyond England and (particularly) Scotland in terms of investment in, and productivity of, its scientific research.  In its  recommendations for Wales, CASE included

    • The Higher Education Funding Council for Wales must increase its investment in research – as well as improving the research base directly, this investment should bring more success in winning competitive, UK-wide funding. The indirect costs of charitably funded research should continue to be covered.
    • Policies should continue to build up the critical mass of research through collaboration, including with overseas researchers or businesses.

As I reported recently, we (Cardiff, Swansea and Aberystwyth) have tried to persuade HECFW to fund a Welsh physics initiative, intended to achieve precisely what CASE suggests. Unfortunately HECFW turned our bid down. At least for the short term, additional investment in physics research is clearly not on the agenda for HEFCW.  There’s not much sign of it happening in the future either, but we will have to wait and see…

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(Guest Post) Physics and Binary Creep

Posted in Education, Finance, Science Politics with tags , , , , , , on April 15, 2011 by telescoper

His Excel-lence (geddit?) Paul Crowther has been at it again, using his favourite packages sophisticated graph-plotting facilities to produce the interesting figures that go with another guest post….

–0–

Last week’s Times Higher Ed included a news item headlined ‘binary creep’, in which HEFCE were considering restricting support for PhD research students to universities of the highest research quality. Concerns were expressed in the article about a two stream future for universities – research intensives in the fast lane and ‘the rest’ in the slow lane. This reminded me of a recent Times Higher Ed interview with the former Commons’ Science and Technology Committee chairman, Lord (Phil) Willis. Lord Willis argued that the UK could probably sustain “no more than 30” universities with the capacity to attract the best global researchers and carry out world-class research, a view no doubt shared by ministers and civil servants within BIS. I should qualify the following line of thought by emphasising that this is not Government policy, although both stories reflect moves by funding agencies to further concentrate increasingly scarce resources on the highest ranked research universities. For example, in England HEFCE is expected to withdraw all quality-related (QR) support from 2* RAE research from 2012 onwards.

Mindful of the fact that in such a vision for the future, there would be a comparatively few, research intensive universities (`winners’) where would that leave the remainder (‘losers’), especially for physics? Research quality can be quantified in all manner of ways, but for simplicity I have adopted the Quality Index (QI) from Research Fortnight which provides a single mark out of 100 based on RAE quality profiles (4*:3*:2*:1* weighted 8:4:2:1). The chart below shows the  QI-ranked list of more-or-less all 120 UK universities who were rated in RAE 2008. It will come as no surprise to anyone that Oxbridge, LSE and Imperial top the rankings, closely followed by UCL and a few other high flyers, but beyond the top 10 perhaps more surprising there are no natural breaks in quality from Durham and QMUL in joint 11th place, to Bolton at 107th.

Thinking out loud about Willis’ assertion that the UK should not be spreading the jam more thinly than, say, the leading 30 universities, there would obviously be individual physics departments currently outside the top 30 which are ranked significantly higher than those within the top 30. To illustrate this, the chart also includes (in blue) physics QI scores for all teaching institutions that were assessed under the UOA 19 in RAE 2008. To blindly follow Lord Willis’ suggestion, 16 out of 42 institutions involved with physics research – comprising 37 per cent of all academic staff – would be clear losers. These would include one physics department raked within the top 10 (scoring 49) because its host institution is ranked 34th overall, while winners would include a department scoring 31, i.e. ranked 40th (out of 42) for physics, as a result of its university squeezing into the top 30. Chemistry – within the same RAE sub-panel as physics – reveals a broadly similar distribution, although there is perhaps a greater concentration of the highest research quality in the overall top 20, as the chart below illustrates.

Alternatively, if there is to be further concentration, one could argue that research funding should focus on, say, the top 20 physics departments regardless of the performance of their host institution. Indeed, already 80 percent of STFC spending goes to only 16 universities. Still, as RAE grades indicate, a strength of UK physics is the breadth of high quality research, with no natural break points until beyond 30th place in the rankings, as the final chart shows. Of course, RAE scores aren’t the sole criterion being discussed, with “critical mass” the other main driver. Due in large part to the big four, 70 per cent of physics academic staff submitted for RAE 2008 are in departments that are currently ranked in the top 20. Chemistry has a similar story to tell in the chart, albeit displaying a somewhat steeper QI gradient.

What might be the long-term consequences of a divergence between a small number of “research-facing” universities and the rest? It is apparent that if the number of physics departments involved in research were reduced by a third, some high quality research groups would be lost, regardless of precisely where the cleaver ultimately fell. Let’s too not forget that astrophysics represents the largest sub-field of physics from the last IOP survey, as measured in numbers of academics.

If policy makers don’t see anything fundamentally wrong with A-level physics being taught by teachers qualified, say, in biology, then they might too wonder whether physics degrees could be taught by academics lacking a physics research background? This might work for first year undergraduate courses, but thereafter isn’t more specialist knowledge needed that a research background most readily provides? How would the third of physics academics outside the top 30 universities react to the prospects of a teaching-only future? Many surely would consider jumping ship either to one of the chosen few or overseas, further decreasing the pool of those with research experience in the remaining physics departments. This is further complicated by the expected political desire that physics departments should be appropriately distributed geographically across England, Scotland, Wales and Northern Ireland.

As a final thought experiment, the fate of physics departments facing the prospect of a teaching-only future might also be binary in nature, either (a) whither and die, decreasing the range of institutions offering degrees in physics (or physical sciences, natural sciences etc.); perversely at a time when the Government are anxious to maintain the number of students studying Science, Technology, Engineering and Mathematics (STEM) subjects, or (b) thriving – free from the distractions of chasing dwinding research grants – by adapting to offer shorter duration physics degrees, described as “cheap and cheerful” by Dr David Starkey during the discussion on student fees on last Thursday’s Newsnight. To reiterate, it is not explicit Government policy to actively reduce the number of physics departments that receive research allocations, but this seems to be the general “direction of travel” in policy-makers speak, so I fear a rocky path ahead..


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The Ernest Rutherford Fellowships Scheme

Posted in Finance, Science Politics with tags , , , on April 1, 2011 by telescoper

It seems timely to use the medium of this blog to pass on some important news from the Science and Technology Facilities Council (STFC) to those who might find it useful.

This week saw the unveiling of a brand new STFC scheme to be called the Ernest Rutherford Fellowships. These will be in some respects similar to the previous Advanced Fellowships in that each Fellowship will last for five years with 12 being offered by STFC each year, and will cover the salary costs of the holder for that period. An important new element, however, is that holders of these Fellowships will be able to bid for “significant additional funds to support their research”.

The announcement of this new programme is sure to be warmly welcomed by the scientific community because the previous Advanced Fellowships have been  a stepping stone to an academic career for many a budding scientist (including myself, in fact). There will however be some restrictions on eligibility that did not apply to previous schemes.

The first new restriction is to bring the scheme into line with the attitudes of Ernest Rutherford, in whose honour the new fellowships are to be named. One of the most frequently-quoted remarks by Rutherford is the following:

Don’t let me catch anyone talking about the Universe in my department

Obviously therefore it has proved necessary to close the scheme to astronomers and cosmologists. This shouldn’t prove too much of a problem, however, as the STFC press statement by John Le Mesurier makes it clear that the only notable recipients of Advanced Fellowships in the past are actually particle physicists:

Previous recipients of Advanced Fellowships include Professor Brian Cox who has done much to popularise/demystify physics through his recent TV series, Professor Ruth Gregory who was awarded the IoP Maxwell Medal for outstanding contributions to theoretical, mathematical or computational physics in 2006; and Professor Brian Foster who was awarded the IoP Born medal (for outstanding contributions to physics) in 2003.

The second new rule is intended to control the number of applications in order to make the selection of the recipients of these Elite Fellowships more manageable. The criteria applied to the previous Advanced Fellowship programme were very flexible, with the result that each round typically generated well over a hundred applications. This made the relevant Panel’s task extremely difficult. STFC has therefore decided to impose a restriction on the age seniority of the candidates in order to streamline the process.

To be eligible for an Ernest Rutherford Fellowship,  candidates must have completed their PhD between 5 years 11 months and 30 days and 6 years of the date of application. This is in addition to the usual requirement of being a white heterosexual male. According to rigorous investigations by STFC staff, this reduces the pool of potential applicants substantially. To one, actually.

The successful candidate (Dr Jamie B’Stard of Oxbridge University) will be eligible to bid for, and be given on the nod, additional ring-fenced funding to support those things that an Elite Fellow needs, both to carry out their research and to feel generally superior to everyone else (e.g. private jet, fleet of Rolls-Royce motor cars, and gold-plated taps in their private lavatory). Never in the history of British science will a physicist have been so generously endowed. The new scheme will allow science to compete in prestige and public acclaim with other forms of employment, such as in the banking sector.

To liberate the funds needed for this initiative it has inevitably proved necessary to make savings elsewhere in the STFC programme. After minutes of arduous deliberation it was decided, as usual, to pay for it by top-slicing the budget for research grants (this time by 95%). Unfortunately this means that no grants will be available for any other research within the STFC remit. However, as a gesture of goodwill, the Chief Executive of STFC has given the instruction that the remaining 5% of the now defunct grants line will be distributed to universities to help cover the cost of making all existing PDRAs redundant.

I hope this clarifies the situation.


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Local News

Posted in Education, Finance, Politics with tags , , , , , , , on March 25, 2011 by telescoper

I’m looking forward to tonight’s Annual Chaos Society Physics Ball, in advance of which I’ll have to go home to get my glad rags sorted out.

This posh night out should provide some welcome fun at the end of a week in which various items of news concerning Welsh universities have generated considerable anxiety around these parts.

For a start the Welsh Assembly Government has announced funding levels for HEFCW, the body that distributes funding to Welsh universities. According to a newspaper article

The Higher Education Funding Council for Wales (Hefcw) has seen its core budget slashed by 8.5% from £453m in 2010-11 to £388m in 2011-12.

Well, pardon my numeracy but a cut from £453m  to £388m is actually a drop of 14.3% not 8.5%. This is much worse than the cuts already announced by HEFCE for English universities, although it remains to be seen how HEFCW will pass on this cut to the institutions it funds. Whatever it does will cause considerable pain, as this cut is being imposed a full year before universities will be allowed to recoup any losses by charging increased tuition fees.

There was also some even more local and even more disappointing news this week concerning HEFCW. Over the past year or so, the three remaining physics departments in Wales (at Cardiff, Swansea and Aberystwyth) have developed a proposal to form a strategic alliance along the lines of similar initiatives in Scotland, the Midlands, and South-East of England which resulted in the injection of large amounts of cash into physics research in those areas. The bid went into HEFCW in January and this week we received the decision. No.

I suppose the decision wasn’t surprising given the current funding climate, but it’s nevertheless extremely disappointing to realise we’ve  missed a very important boat. If  Welsh physics had gone down this road a decade ago – which I believe it should – then we would be in much better shape to face the very uncertain future that hangs over us. Still, I suppose it spares us the effort of trying to think up an acronym.

What’s especially worrying about this is that it seems to me that it makes it  inevitable that Welsh physics will do as poorly in the forthcoming Research Excercise Framework as it did in the 2008 Research Assessment Exercise.
I think it’s worth quoting the observations made by Sub-panel 19 (physics) after the 2008 Research Assessment Exercise:

Sub-panel 19 regards the Scottish Universities Physics Alliance collaboration between Scottish departments as a highly positive development enhancing the quality of research in Scotland. South of the border other collaborations have also been formed with similar objectives. On the other hand we note with concern the performance of three Welsh departments where strategic management did not seem to have been as effective as elsewhere.

Ouch! The final sentence is completely out of order, of course, as it exceeds the remit of HEFCE (which administered the RAE) to try to dictate how Higher Education is run in Wales, as this responsibility is devolved to the Welsh Assembly Government. It is, however, to some extent a valid criticism. England and Scotland have pumped money into physics in order the develop strategic alliances. Wales hasn’t. And it isn’t going to either.

Given Wales’ relative autonomy when it comes to Higher Education I still don’t understand why its universities forced to participate in the REF anyway, but since it looks like we are stuck with it, I worry what the outcome will be, especially since Welsh physicists have been systematically excluded from the physics panel.

The last item of news concerns HEFCW itself. A report produced by John McCormick has recommended that it be scrapped and replaced with a new body called Universities Wales.

There are many reasons why scrapping HEFCW could turn out to be a good thing. For one thing, a new body might realise that continuing involvement in the REF is wasting a huge amount of time and money in the Welsh HE sector on an exercise that takes no account of Welsh strategic objectives. Nevertheless, I’m  a bit worried by some of the rhetoric coming out of the Welsh Assembly about this issue.

Universities are not the property of the Welsh Assembly (which in fact only funds part of their activity). Universities are independent charitable institutions. Their autonomy is essential in allowing them to do what they do best, free from the short-term expediency that dominates the thinking of the political establishment.

But that’s not to say that the Welsh Assembly is wrong to expect universities to respond to the changing socio-economic landscape. It’s all a matter of balance. If Universities Wales is sufficiently “hands-off” to allow universities to do what they do best – teaching and research – but sufficiently “hands-on” that it can help the HE sector to reorganize in the ways it clearly must, then this could be a very good move.

And if HEFCW does die, I’m afraid there will be few around these parts that mourn its passing.


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