Category Archives: General

London Mathematical Society Review 2011-2012

LMS

The London Mathematical Society Annual Review for 2011-2012 is available here (opens pdf).

As a side remark, I am not actually a member, I must rectify that soon.

About the LMS

The London Mathematical Society (LMS), founded in 1865, is the UK’s learned society for mathematics. The Society has as its purpose the advancement, dissemination and promotion of mathematical knowledge in the UK and worldwide.

www.lms.ac.uk

Fallen space heros of 2012

Last year we lost three very important people in the field of space exploration and astronomy.

Sally Ride
May 26, 1951 – July 23, 2012 (aged 61)

Ride
Ride in 1984

She was the first American woman to enter into low Earth orbit in 1983 and remains the youngest American astronaut to be launched into space.

Niel Armstrong
August 5, 1930 – August 25, 2012 (aged 82)

Armstrong
Armstrong in 1969

He was the first man to step foot on the Moon way back in 1969. Armstrong’s first space flight, as command pilot of Gemini 8, in 1966, made him NASA’s first civilian astronaut to fly in space.

Patrick Moore
4 March 1923- 9 December 2012 (aged 89)

Patrick
Patrick Moore

Known as the presenter of the world’s longest-running television series with the same original presenter, the BBC’s The Sky at Night. Moore was a former president of the British Astronomical Association. He was a co-founder and former president of the Society for Popular Astronomy (SPA). As an author he wrote over 70 books on astronomy. He was the reason many astronomers here in the UK became astronomers.

Prof. Peter Higgs been recognised in the New Year Honours

Prof. Higgs, whom the Higgs boson is named after, is now a member of the Order of Champions of Honour. The honour has no title, but consists of the Sovereign, plus no more than 65 Companions of Honour.

Higgs Prof. Higgs

Other Companions of Honour include Prof. Stephen Hawking and Sir David Attenboroug.

The Higgs Boson
Prof. Higgs developed the idea of electroweak symmetry breaking to explain the masses of the Z and W bosons [1]. The Higgs-Kibble mechanism gives rise to the mass of all the massive elementary particles and predicted the existence of a new particle given the title “the Higgs boson”.

higgs simulationComputer simulation of particle traces from an LHC collision in which a Higgs Boson is produced. © CERN. Image credit: Lucas Taylor

Only recently at the LHC has there been evidence that the Higgs boson is realised in nature. CERN announced on 4 July 2012 that they had experimentally established the existence of a Higgs-like boson and that further study is needed to established if this really is a standard model Higgs boson, [2,3].

The Nobel prize?

Is a Nobel prize in Physics the next big award for Prof. Higgs? We will have to wait and see.

References

[1] Peter Higgs, Broken Symmetries and the Masses of Gauge Bosons, Physical Review Letters 13 (16): (1964) 508–509.

[2] The ATLAS Collaboration, Observation of a new particle in the search for the Standard Model Higgs boson with the ATLAS detector at the LHC, Phys.Lett. B716 (2012) 1-29. (arXiv:1207.7214 [hep-ex])

[3] The CMS Collaboration, Observation of a new boson at a mass of 125 GeV with the CMS experiment at the LHC, Phys.Lett B716 (2012) 30–61. (arXiv:1207.7235 [hep-ex])

Links
The Order of Champions of Honour

Prof. Higgs Website at the University of Edinburgh

Government boost to graphene research

The Chancellor, George Osborne, has announced a £21.5m investment fund to boost the development of the new wonder material graphene.

The £21.5m investment fund would aim to take the technology from the lab to the factory floor.

George Osborne

Graphene
Graphene is a material made carbon atoms arranged in a regular hexagonal pattern, similar to graphite, but in a one-atom thick sheet. Graphene has many unusual electrical and mechanical properties that make it interesting from a fundamental science point or view, but also lend this wonder material to applications.

graphene
Image courtesy of AlexanderAlUS

Andre Geim and Konstantin Novoselov, both based at the University of Manchester won the 2010 Nobel Prize in Physics for demonstrating some of the properties of graphene.

Geim
Andre Geim

Funding
EPSRC identified the most promising graphene-related research projects in British universities that would benefit from state funding.

For example, Cambridge will receive more than £12m for research into graphene flexible electronics and opto-electronics. Other UK universities, including Manchester will also receive money.

We need to support our universities, they’re one of the jewels in the crown of the British economy

George Osborne

Link
BBC News

Sir Patrick Moore passes away

Today at 12:25 Sir Patrick Moore passed away peacefully at his home in Selsey, West Sussex.

Moore

Patrick presented the BBC’s The Sky At Night for over 50 years, making him the longest-running host of the same television show in history.

He counted himself as a writer and broadcaster first and foremost, but as Britain’s most recognisable scientist for more than 50 years, he inspired countless people to take up astronomy as a hobby or astrophysics as a career.

Chris Lintott

Astronomy has lost one of its heroes and the country has lost an institution. Our thought are with his friends and family.

Links

BBC News report

Sir Patrick Moore: Chris Lintott’s tribute

IOP's Response to the Chancellor’s Autumn Statement

“George Osborne, Vince Cable and David Willetts clearly recognise the value that science can unlock for society, but it’s important to remember that investment in science is a long-term commitment. It starts in schools, through higher education into research and to industry, but the pay-off is that we know it delivers growth and jobs to the UK.”

Link
Response to the Chancellor’s Autumn Statement

Deloitte Report – Measuring the Economic Benefits of Mathematical Science Research in the UK

The Engineering and Physical Sciences Research Council (EPSRC) published a report it commissioned from Deloitte. This report is the first study of its kind to quantify the economic value of mathematics research in terms of the employment and its contribution to the UK economy.

The report estimates the contribution of mathematics to the UK economy in 2010 to be

  • 2.8 million in employment terms
  • and £208 billion in terms of GVA

That is about 10% of all jobs in the UK and 16% of total UK GVA.

maths

Economic growth

Mathematics helps drive economic growth across wide sectors including finance, computer services, pharmaceutical and defense. As science and engineering, as well as other sectors for example banking, collate and wish to analyses larger and larger data sets, mathematics and statistics will become ever more vital to this country’s economy.

Without mathematics there would be no smart phones, MRI scanners, new medicines, aeroplanes or bank accounts.

Deloitte Report

Weather forecasting

Weather forecasting relies on heavy mathematical tools and extensive computation. Mathematicians play a rather pivotal role in weather forecasting and modelling.

Around 2,000 mathematicians are employed by the UK Met Office to analyse and evaluate vast amounts of atmospheric trends and information.
The UK is regarded in the meteorological industry as a talent hub with many institutions choosing to locate research facilities in the

Deloitte Report

Link

Mathematical sciences research: leading the way to UK economic growth

An executive summary can be found here (opens PDF)

An interview with Dr Helen Czerski

Dr Helen Czerski, Physicist and oceanographer, is a well-known BBC science presenter. Her work includes the major BBC2 series ‘Orbit: Earth’s Extraordinary Journey’, broadcast in March 2012. Recently she filmed Operation Iceburg for BBC2 and is a contributor to Dara O’Briain’s Science Club.

Helen

She agreed to answer a few questions I had…

Science and Popularisation

What first got you involved in science, and in particular physics?

I don’t really feel that I ever “got involved” – it was just something I did and was interested in. I’m lucky that my parents encouraged us to experiment with the world in a non-pushy way – if I said “what happens when you do that?”, they’d just say “well, let’s try it and see”. I must have shown some specific interest in physics early on because my mum bought me a copy of “A brief history of time” when I was 10 or 11. But I was interested in all sorts of things, like dinosaurs and making stuff from clay, building treehouses, environmental issues, baking and languages. My parents just encouraged us in whatever we were interested in, and the strongest and most important message I ever got from them was “do your best”. That’s crucial – they weren’t bothered about whether we succeeded or not, but they valued trying things out. And they wanted us to be happy far more than they wanted “success”.

As time went on, I think that I chose to read a lot of popular physics books, and I knew from fairly early on that my interested tended towards the sciences. But I very consciously took every opportunity to study other things, because I felt that I’d do enough science later on.

How did you get involved in the popularisation of science? 

Well, going right back, I remember giving a talk on atomic physics to the local women’s group (which my mother was part of) when I was 17. So I suppose that counts as the first time I did anything like that. My Dad has always said that I’m a natural teacher, and when I was younger that mostly came out in the sports coaching that I did. During my PhD, I got involved in doing demonstrations during National Science and Engineering Week, and that led to other public lectures and talks. I was always happy to share my enthusiasm for science, and if that meant fun demos, so much the better!

Which medium  do you think is the most effective at popularising science?

There is no one medium, because what you say is not anywhere near as important as what your audience hears. If you say something in a format that your audience doesn’t see, it’s pointless. So the most effective medium is whatever your audience finds most convenient, and that’s different for every individual. Obviously, tv has a huge reach, but the ways that people get information are changing over time. I think that the one thing that will always be popular is seeing an enthusiastic and charismatic individual in person, and being brought into the world of the human being who is standing right in front of you. In an ideal world, we wouldn’t have “science popularization” because everyone who works or uses science and technology would naturally share their knowledge of it with the people around them, and that would be the most effective way of encouraging enthusiasm for science.

What, in your opinion, should be the ultimate goal of science popularisation?

To dispense with the need for conscious science popularization. It’s not a phrase I like. I think that we need science to be part of our culture just like music, literature, art, politics and economics, and we can all have some level of natural curiosity about it. I would love everyone to appreciate science as an important and fascinating part of their world, and to be able to find out as much about it as they liked. In an ideal world, it would be valued appropriately, and it wouldn’t be necessary to “popularize” it.

What were the challenges for you  during the filming of Operation Iceberg?

Being in between two worlds. Usually, in that environment, I’m there either because I’m doing my own experiment or I’m there because I’m filming a tv programme. This time, I was halfway – slightly more on the tv side of things, and without an experiment that I was responsible for by myself. I found that very odd – it was like being the only person in the room who spoke two languages when everyone else only spoke one or the other.

We really enjoyed science club, did you enjoy making it?

The studio days for science club have been some of my favourite days this year. It really is like an inclusive club of fun people, and everyone has something interesting to contribute.

Are we going to see a lot more of you on the BBC?

I’m working on a couple of other programmes at the moment. The one I’m spending most of my time on at the moment is a BBC4 programme all about bubbles.

Research

Can you say a few words about your research?

I study the bubbles underneath breaking waves, and how they break apart and join together in different conditions. This is important because these bubbles act as a transport mechanism between the atmosphere and the ocean, and we need to understand the small-scale mechanisms contributing to global-sized transport effects. I like it because it’s physics that happens on a scale that you can see. My lab experiment is the size of a bench, and you can really see what’s happening. I’m much more interested in phenomena that I can see directly, rather than quantum mechanical things that I can’t experience directly, or cosmological things that are far too far away ever to touch. What gets me going is “the physics in the middle”.

Which one of your papers are you most proud of, and why?

I was the first person to measure the thickness of the coating surrounding an ocean bubble in situ. All ocean bubbles are coated with a thin layer of organic material (effectively natural bubble bath), and it controls a lot of their behaviour but it’s hard to measure. You can’t take the bubble out of the water to look at it directly. I used a combination of acoustical and optical techniques to estimate the coating thickness while the bubble was still in the ocean, from a data I collected in the Pacific. I like it because it was a novel use of experimental data, and I hadn’t thought that I could make that measurement before I collected the data. It was a minor eureka moment when I realized that I could.

What are the major questions faced today in you area of research?

The biggest question is how to integrate all the many effects that work together to influence how our planet works. There are too many for any one person to be able to hold them in their head. How do we manage the data so that we can still get insights into what it means? How do we integrate all the biological, chemical, physical and geological data to test our models accurately? When data sets are too big for a human to hold them in their mind, we lose the human’s amazing ability to recognize patterns. How do we compensate for that?

Anything else?

I think that the world around us is full of physical toys – everyday things that we are completely used to, but which are each an amazing demonstration of some scientific principle. You don’t need to go to far away places or use special microscopes to see fascinating things. They’re all around you. The world would be a richer place if everyone got a bit better at looking at everyday phenomena and asking a few more questions than normal.

About Helen

Helen

Helen is a Physicist, oceanographer and broadcaster with a passion for science, sport, books, creativity, hot chocolate and investigating the interesting things in life. She currently works at the Institute for Sound and Vibration Research in Southampton, and is a science presenter for the BBC.

You can find out lots more about Helen via her website.