Archive for the ‘Science’ Category

Indian Mars orbiter’s fourth burn in earth orbit only partially succesful

November 11, 2013
The Indian Mars Orbiter Mission met its first setback last night when the planned 4th burn in earth orbit was achieved but did not or could not impart the extra velocity that was planned. The orbit rose from about 71,000 km (apogee) to 78,000 km instead of the planned 100,000 km. A supplementary burn is planned for the early hours of 12th November (burns are scheduled for when the spacecraft is near perigee and within clear and easy range of tracking stations).
The current position of the spacecraft is between India and Saudi Arabia

ISRO Press Release:

In the fourth orbit-raising operation conducted this morning (Nov 11, 2013), the apogee (farthest point to Earth) of Mars Orbiter Spacecraft was raised from 71,623 km to 78,276 km by imparting an incremental velocity of 35 metres/second (as against 130 metres/second originally planned to raise apogee to about 100,000 [1 lakh] km). The spacecraft is in normal health. A supplementary orbit-raising operation is planned tomorrow (November 12, 2013) at 0500 hrs IST to raise the apogee to nearly 1 lakh km. 

During the orbit-raising operations conducted since November 7, 2013, ISRO has been testing and exercising the autonomy functions progressively, that are essential for Trans-Mars Injection (TMI) and Mars Orbit Insertion (MOI).  

During the first three orbit-raising operations, the prime and redundant chains of gyros, accelerometers, 22 Newton attitude control thrusters, attitude and orbit control electronics as well as the associated logics for their fault detection isolation, and reconfiguration have been exercised successfully. The prime and redundant star sensors have been functioning satisfactorily. The primary coil of the solenoid flow control valve was used successfully for the first three orbit-raising operations. 

During the fourth orbit-raising operations held today (November 11, 2013), the redundancies built-in for the propulsion system were exercised, namely, (a) energising the primary and redundant coils of the solenoid flow control valve of 440 Newton Liquid Engine and (b) logic for thrust augmentation by the attitude control thrusters, when needed. However, when both primary and redundant coils were energised together, as one of the planned modes, the flow to the Liquid Engine stopped. The thrust level augmentation logic, as expected, came in and the operation continued using the attitude control thrusters. This sequence resulted in reduction of the incremental velocity. 

While this parallel mode of operating the two coils is not possible for subsequent operations, they could be operated independently in sequence.

Mangalyaan current position 20131111 0830CET

Mangalyaan current position 20131111 0830CET

TOIThe first orbit-raising manoeuvre of India’s Mars Orbiter Mission was performed at 01:17 hrs Indian Standard Time (IST) early on November 07, 2013) when the 440 Newton Liquid Engine of the spacecraft was fired for 416 seconds by commanding it from Spacecraft Control Centre (SCC) at Isro Telemetry, Tracking and Command Network (ISTRAC) at Peenya, Bangalore. With this engine firing, the spacecraft’s Apogee (the farthest point to Earth) was raised to 28,825km.

The second orbit raising manoeuvre of MOM was at 02:18:51 hrs(IST) on Nov 8, 2013.The change observed in Apogee was from 28,814km to 40,186km. 

The third orbit raising manoeuvre of Mars Orbiter Mission spacecraft, starting at 02:10:43 hrs on Nov 09, 2013, was successful. The change observed in the Apogee was from 40,186 km to 71,636km.

India’s frugal Mars orbiter mission completes 3rd burn in earth orbit

November 9, 2013

There has been some criticism  (within and outside India) from the usual suspects about the frugally-engineered, Indian, Mangalyaan Mars Orbiter mission as “being too expensive” for a developing country like India. I tend to discount these voices which merely continue the long, retrograde and shameful tradition of the Luddites. Some of these voices are of those who would like humankind to return to the trees. Others are of those who feel threatened by the idea of “backward nations” moving into space.

Reaching Mars is not that easy. More missions have failed than have succeeded. The full list of Mars missions is here. There are many crucial steps left for the Mangalyaan mission to achieve and success is far from assured.

TOI: India’s Mars Rover Mission (MOM) named ‘Mangalyaan’ is the 42nd mission aimed at understanding Mars. Out of the 41 missions so far, 25 have been declared failures and only 16 have been a success. Even the latest Phobos-Grunt/Yinghuo-1 launched by Russia/China was a failure as it got stranded in the earth’s orbit. 

Close on the heels of ‘Mangalyaan’ being sent into space by India, the United States (US) is also gearing up for the MAVEN mission to be launched on November 18, 2013. The mission is intended to be a step towards ‘unravelling the planetary puzzle about Mars’. The US is also gearing up for the Mars Rover 2020 mission to understand ‘Martian atmosphere’.

Underlying all missions is the vision of Mars one day being inhabited by humans. And that vision transcends the petty and mean criticism of those who can only see a “glass half empty”.

Last night the 3rd of five rocket burns was completed to lift the earth orbit of Mangalyaan from 40,186 km to 71,636 km (apogee). The fourth and fifth burns are planned for November 11th and 16th to raise the apogee to 100,000 km and then to 192,000 km. The 6th burn will be to leave Earth’s orbit and  insert the spacecraft into a trajectory towards Mars. The Trans-Mars injection is expected around 12.42 AM on December 1st.

ISRO: The third orbit raising manoeuvre of Mars Orbiter Spacecraft, starting at 02:10:43 hrs(IST) on Nov 09, 2013, with a burn time of 707 seconds has been successfully completed. The observed change in Apogee is from 40186km to 71636km.

ISRO’s Mission Profile.

The Launch Vehicle – PSLV-C25 will inject the Spacecraft into an Elliptical Parking Orbit with a perigee of 250 km and an apogee of 23,500 km. With six Liquid Engine firing, the spacecraft is gradually maneuvered into a hyperbolic trajectory with which it escapes from the Earth’s Sphere of Influence (SOI) and arrives at the Mars Sphere of Influence. When spacecraft reaches nearest point of Mars (Peri-apsis), it is maneuvered in to an elliptical orbit around Mars by firing the Liquid Engine. The spacecraft then moves around the Mars in an orbit with Peri-apsis of 366 km and Apo-apsis of about 80000 km. 

The mission consists of following three phases:

1. Geo Centric Phase
The spacecraft is injected into an Elliptic Parking Orbit by the launcher. With six main engine burns, the spacecraft is gradually maneuvered into a departure hyperbolic trajectory with which it escapes from the Earth’s Sphere of Influence (SOI) with Earth’s orbital velocity + V boost. The SOI of earth ends at 918347 km from the surface of the earth beyond which the perturbing force on the orbiter is mainly due to the Sun. One primary concern is how to get the spacecraft to Mars, on the least amount of fuel. ISRO uses a method of travel called a Hohmann Transfer Orbit – or a Minimum Energy Transfer Orbit – to send a spacecraft from Earth to Mars with the least amount of fuel possible. 

2. Helio Centric Phase
The spacecraft leaves Earth in a direction tangential to Earth’s orbit and encounters Mars tangentially to its orbit. The flight path is roughly one half of an ellipse around sun. Eventually it will intersect the orbit of Mars at the exact moment when Mars is there too. This trajectory becomes possible with certain allowances when the relative position of Earth, Mars and Sun form an angle of approximately 44o. Such an arrangement recur periodically at intervals of about 780 days. Minimum energy opportunities for Earth-Mars occur in November 2013, January 2016, May 2018 etc. 

3. Martian Phase
The spacecraft arrives at the Mars Sphere of Influence (around 573473 km from the surface of Mars) in a hyperbolic trajectory. At the time the spacecraft reaches the closest approach to Mars (Periapsis), it is captured into planned orbit around mars by imparting ∆V retro which is called the Mars Orbit Insertion (MOI) manoeuvre. The Earth-Mars trajectory is shown in the above figure. ISRO plans to launch the Mars Orbiter Mission during the November 2013 window utilizing minimum energy transfer opportunity.

Frugal engineering for India’s Mars mission

November 6, 2013

India has been struggling to bridge the gap to more developed nations without necessarily having to follow exactly the same path as that followed by other nations. Especially to achieve the development objectives in less time than it has taken those who did it first. Doing more with less is the name of the game and “Frugal engineering” (or “frugal innovation”) is defining a new paradigm for development.

There may perhaps not be any better example of the dictum that necessity is the mother of invention than can be found in India. Whether it is a refrigerator, ECG device or an automobile, Indian engineers have brought innovative products to market by designing them outside-in. …….

It may seem a contradiction, but some infrastructure gaps in India have positively affected Indian innovation: they have forced entrepreneurs and companies to adopt technologies that make relying on existing infrastructure (creaking and unreliable as it is in many ways) simply irrelevant. Indian engineers have invented a battery-powered, ultra-low-cost refrigerator resistant to power cuts; an automatic teller machine for rural areas; and even a flour mill powered by a scooter. People in the West, with its constant access to electricity, have little motivation to pursue such innovations. The Indian mobile phone industry is the poster child for leapfrogging over infrastructural constraints. A limited fixed-line infrastructure created an opportunity for mobile phones to reach many more people. Mobile telephony is also relatively cheap, sharable, and easily repaired. And thus, a new frontier of global innovation opened in India. …… 

The Indian mission to Mars which launched yesterday is another example of frugal engineering at work.

Hindustan Times:

India’s successful Mangalyaan launch is as much a financial accomplishment as a technical milestone. The entire Mars mission has cost the Indian Space Research Organisation a mere around Rs. 450 crore ($75 million) and took 15 months to put together. Much of the Martian price tag is for ground stations and relay upgrades that will be used for other Isro projects. The actual satellite costs a mere $25 million ( Rs. 153 crore), says Pallav Bagla of Science magazine. Comparison: Nasa’s similar MAVEN Mars project will cost 10 times more and will take three times longer.

Isro is widely cited as an example of “frugal engineering” …..  A US state department scientific adviser once said that Isro had reduced satellite assembly costs to a tenth of Nasa’s.

Isro’s accomplishments are remarkable given its tiny budget: $700 million ( Rs. 4,270 crore) in 2012-13. Despite a space programme whose financial base is the ninth largest, India is generally rated the world’s number six space power.

Of this, only 7% is allotted for planetary exploration. Isro’s prime directive has and continues to be the finding of technical means to support socio-economic goals such as education, medicine, water and disaster management.

Isro also defrays government support through a commercial arm, Antrix. Through the sale of satellite imagery, satellite launches and so on, Antrix earned a pre-tax Rs. 2 billion in 2010 alone. …..

Wang versus Wen at the Chinese Academy of Sciences

October 23, 2013

The Chinese Academy of Sciences (CAS), formerly known as Academia Sinica, is the national academy for the natural sciences of the People’s Republic of China. Collectively known as the “Two Academies”  along with the Chinese Academy of Engineering, it is an institution of the State Council of China, functioning as the national scientific thinktank and academic governing body, providing advisory and appraisal services on issues stemming from the national economy, social development, and science and technology progress. It is headquartered in Beijing, with branch institutes all over mainland China. It has also created hundreds of commercial enterprises, with Lenovo being one of the most famous.

Sun tzu

Being selected as  a full member of the Academy is the most sought after position for a Chinese scientist. Selection takes place every two years and this year there are 391 “candidates” and probably no more than 5 – 10% will be selected. At the end of 2008, there were 692 CAS members, including 40 female members and 51 foreign members. So roughly one in 2 million Chinese gets to be a member of the Academy.

Politicking and lobbying are not unknown in the selection of new members. This can be quite cut-throat and vicious as is quite normal in academic rivalry. In this particular case Physics Professors Wang and Wen were competing for a place. Wang – in a master-stroke worthy of Sun Tzu – accused Wen of academic misconduct with regard to a paper published in Nature Communications. Each fired off their ammunition on their blog posts. Three co-authors claimed – or were persuaded to claim – that their names had wrongly been included on the paper by Wen. This effectively killed Wen’s chances. While Wang had won the battle he may have lost the war. The Academy was not amused. Wang had rocked the boat too much. And in the latest development Wang  has now withdrawn – or has been persuaded to withdraw – his candidature. It could be some time before he is allowed to be a candidate again.

South China Morning Post:

A prominent physics professor at Nanjing University, Wang Mu, 51, announced on his blog on Monday his intention to withdraw from this year’s selection race for new members of the Chinese Academy of Sciences (CAS), a title only given to leading scientists and academic authorities in China.

His decision has shocked many in Chinese academic circles. To many, the reason behind it is even more shocking. Wang has withdrawn from the race so he can investigate another candidate, his colleague, 49-year-old physics professor Wen Hai Hu, for alleged academic fraud.

On September 15, Wang informed the Division of Mathematics and Physics of the Chinese Academy of Sciences that in May Wen had published a fraudulent research paper in Nature Communications, a journal focusing on advancements in the field of physical, biological and chemical science.

According to Wang, three co-authors of the published paper didn’t participate in any of the experiments or analysis mentioned in it, and they had never seen the article before it was published. Wang said that in July this year the editorial department of Nature Communications had received a request from the three co-authors to remove their names from the paper. …..

….. While many were disappointed by Wang’s decision, some questioned his motive, which provoked further discussion on whether the CAS member system should be abolished.

“As far as I know, it is a close race between them. To Wang, Wen has become an obstacle on his path to promotion. The fact that Wang bypassed the university and reported to CAS directly has killed Wen’s hopes of becoming a member of CAS. The last thing CAS wants is to see a dirty fight,” a commenter posted on sciencenet.cn.

On October 13, the Ministry of Education of China ordered Nanjing University to investigate the scandal. And the Chinese Academy of Sciences also formed a team to conduct an independent investigation.

UPDATE!

The paper in question seems to be this one:

Influence of microstructure on superconductivity in KxFe2−ySe2 and evidence for a new parent phase K2Fe7Se8, Xiaxin Ding, Delong Fang, Zhenyu Wang, Huan Yang, Jianzhong Liu, Qiang Deng, Guobin Ma,Chong Meng, Yuhui Hu & Hai-Hu Wen, Nature Communications 4, Article number: 1897 (2013) doi:10.1038/ncomms2913

 If the news story is correct Hai-Hu Wen is the senior author and 3 of the 9 other co-authors are the ones who have apparently written to the Editor complaining that their names have “been used in vain”!!

Levitating drops in an ultrasonic field

October 20, 2013

Watch this through!

Absolutely mesmerizing. From the paper “Shape oscillation of a levitated drop in an acoustic field” (arXiv.orgPDF)

via Science is Beauty

Science is losing its ability to self-correct

October 20, 2013

With the explosion in the number of researchers, the increasing rush to publication and the corresponding explosion in traditional and on-line journals as avenues of publication, The Economist carries an interesting article making the point that the assumption that science is self-correcting is under extreme pressure. “There is no cost to getting things wrong,” says Brian Nosek, a psychologist at the University of Virginia who has taken an interest in his discipline’s persistent errors. “The cost is not getting them published.”

The field of psychology and especially social psychology has been much in the news with the dangers of “priming”.

“I SEE a train wreck looming,” warned Daniel Kahneman, an eminent psychologist, in an open letter last year. The premonition concerned research on a phenomenon known as “priming”. Priming studies suggest that decisions can be influenced by apparently irrelevant actions or events that took place just before the cusp of choice. They have been a boom area in psychology over the past decade, and some of their insights have already made it out of the lab and into the toolkits of policy wonks keen on “nudging” the populace.

Dr Kahneman and a growing number of his colleagues fear that a lot of this priming research is poorly founded. Over the past few years various researchers have made systematic attempts to replicate some of the more widely cited priming experiments. Many of these replications have failed. In April, for instance, a paper in PLoS ONE, a journal, reported that nine separate experiments had not managed to reproduce the results of a famous study from 1998 purporting to show that thinking about a professor before taking an intelligence test leads to a higher score than imagining a football hooligan.

It is not just “soft” fields which have problems. It is apparent that in medicine a large number of published results cannot be replicated

… irreproducibility is much more widespread. A few years ago scientists at Amgen, an American drug company, tried to replicate 53 studies that they considered landmarks in the basic science of cancer, often co-operating closely with the original researchers to ensure that their experimental technique matched the one used first time round. According to a piece they wrote last year in Nature, a leading scientific journal, they were able to reproduce the original results in just six. Months earlier Florian Prinz and his colleagues at Bayer HealthCare, a German pharmaceutical giant, reported in Nature Reviews Drug Discovery, a sister journal, that they had successfully reproduced the published results in just a quarter of 67 seminal studies.

The governments of the OECD, a club of mostly rich countries, spent $59 billion on biomedical research in 2012, nearly double the figure in 2000. One of the justifications for this is that basic-science results provided by governments form the basis for private drug-development work. If companies cannot rely on academic research, that reasoning breaks down. When an official at America’s National Institutes of Health (NIH) reckons, despairingly, that researchers would find it hard to reproduce at least three-quarters of all published biomedical findings, the public part of the process seems to have failed.

It is not just that research results cannot be replicated. So much of what is published is just plain wrong and the belief that science is self-correcting is itself under pressure

Academic scientists readily acknowledge that they often get things wrong. But they also hold fast to the idea that these errors get corrected over time as other scientists try to take the work further. Evidence that many more dodgy results are published than are subsequently corrected or withdrawn calls that much-vaunted capacity for self-correction into question. There are errors in a lot more of the scientific papers being published, written about and acted on than anyone would normally suppose, or like to think. …… Statistical mistakes are widespread. The peer reviewers who evaluate papers before journals commit to publishing them are much worse at spotting mistakes than they or others appreciate. Professional pressure, competition and ambition push scientists to publish more quickly than would be wise. A career structure which lays great stress on publishing copious papers exacerbates all these problems. “There is no cost to getting things wrong,” says Brian Nosek, a psychologist at the University of Virginia who has taken an interest in his discipline’s persistent errors. “The cost is not getting them published.” 

…… In 2005 John Ioannidis, an epidemiologist from Stanford University, caused a stir with a paper showing why, as a matter of statistical logic, the idea that only one such paper in 20 gives a false-positive result was hugely optimistic. Instead, he argued, “most published research findings are probably false.” 

The tendency to only publish positive results leads also to statistics being skewed to allow results to be shown as being poitive

The negative results are much more trustworthy; …….. But researchers and the journals in which they publish are not very interested in negative results. They prefer to accentuate the positive, and thus the error-prone. Negative results account for just 10-30% of published scientific literature, depending on the discipline. This bias may be growing. A study of 4,600 papers from across the sciences conducted by Daniele Fanelli of the University of Edinburgh found that the proportion of negative results dropped from 30% to 14% between 1990 and 2007. Lesley Yellowlees, president of Britain’s Royal Society of Chemistry, has published more than 100 papers. She remembers only one that reported a negative result.

…. Other data-heavy disciplines face similar challenges. Models which can be “tuned” in many different ways give researchers more scope to perceive a pattern where none exists. According to some estimates, three-quarters of published scientific papers in the field of machine learning are bunk because of this “overfitting”

The idea of peer-review being some kind of a quality check of the results being published is grossly optimistic

The idea that there are a lot of uncorrected flaws in published studies may seem hard to square with the fact that almost all of them will have been through peer-review. This sort of scrutiny by disinterested experts—acting out of a sense of professional obligation, rather than for pay—is often said to make the scientific literature particularly reliable. In practice it is poor at detecting many types of error.

John Bohannon, a biologist at Harvard, recently submitted a pseudonymous paper on the effects of a chemical derived from lichen on cancer cells to 304 journals describing themselves as using peer review. An unusual move; but it was an unusual paper, concocted wholesale and stuffed with clangers in study design, analysis and interpretation of results. Receiving this dog’s dinner from a fictitious researcher at a made up university, 157 of the journals accepted it for publication. ….

……. As well as not spotting things they ought to spot, there is a lot that peer reviewers do not even try to check. They do not typically re-analyse the data presented from scratch, contenting themselves with a sense that the authors’ analysis is properly conceived. And they cannot be expected to spot deliberate falsifications if they are carried out with a modicum of subtlety.

Fraud is very likely second to incompetence in generating erroneous results, though it is hard to tell for certain. 

And then there is the issue that all results from Big Science can never be replicated because the cost of the initial work is so high. Medical research or clinical trials are also extremely expensive. Journals have no great interest to publish replications (even when they are negative). And then, to compound the issue, those who provide funding are less likely to extend funding merely for replication or for negative results.

People who pay for science, though, do not seem seized by a desire for improvement in this area. Helga Nowotny, president of the European Research Council, says proposals for replication studies “in all likelihood would be turned down” because of the agency’s focus on pioneering work. James Ulvestad, who heads the division of astronomical sciences at America’s National Science Foundation, says the independent “merit panels” that make grant decisions “tend not to put research that seeks to reproduce previous results at or near the top of their priority lists”. Douglas Kell of Research Councils UK, which oversees Britain’s publicly funded research argues that current procedures do at least tackle the problem of bias towards positive results: “If you do the experiment and find nothing, the grant will nonetheless be judged more highly if you publish.” 

Trouble at the lab 

The rubbish will only decline when there is a cost to publishing shoddy work which outweighs the gains of adding to a researcher’s list of publications. At some point researchers will need to be held liable and accountable for their products (their publications). Not just for fraud or misconduct but even for negligence or gross negligence when they do not carry out their work using the best available practices of the field. These are standards that some (but not all) professionals are held to and there should be no academic researcher who is not also subject to such a standard. If peer-review is to recover some of its lost credibility then anonymous reviews must disappear and reviewers must be much more explicit about what they have checked and what they have not.

Publish to Retract: A new paradigm for research?

October 11, 2013

Retraction Watch has a story about a retraction accompanied by a blog post by the senior author – who requested the retraction. The senior author receives great credit for her transparency and integrity – no doubt well deserved.

Pamela Ronald does the right thing again, retracting a Science paper

But this is not the first time that a senior author has found a “mistake” in a publication and has then initiated a retraction. I observe that a paper retracted at the request of the author(s) usually leads to the general and admiring approval of the Journal and of peers. It has none of the stigma attached to a paper retracted by the Journal for plagiarism or data falsification or some other wrongdoing.

But looking through my jaundiced and cynical eyes, I wonder if this is just the start of a new paradigm in a brave new transparent world of research publication and retraction. Publish or Perish then gives way to Publish to Retract (or more accurately Publish quickly – to Retract if bad) which is then the name of the game.

  1. Dispense with time consuming data replication and other quality checks
  2. Rush to publication (but keep the retraction request ready)
  3. If any mistakes are subsequently suspected, warn the learned journal  that something is untoward and which is being investigated (best for the senior author to raise the suspicion about a potential mistake)
  4. Maximise citations of the work in question
  5. Find the mistake and request a retraction
  6. Retract in a blaze of publicity and gain brownie points for transparency and integrity

Junior authors – especially post-docs – are of course to be thrown under the proverbial bus. They only represent an acceptable level of collateral damage. Lists of publications may continue to include the retracted paper as long as it is done in the proper form

Author1, author 2….,Senior author x, Journal, Vol., page, date (retracted on date at the request of Senior author x)

Publication can then be very much faster and the potential downsides of mistakes or faulty analysis getting through to publication can be converted into the perceived benefits of transparency and integrity if the failings are ever discovered.

A hundred or so years ago it was not unknown for applicants to the Indian Civil Service to include something like this in their CV’s.

BA, Aligarh University, 1909, (fail)

It was of value for the applicant then to show that he had been accepted to sit for the exam. Having successfully run the gauntlet of peer-review in getting a paper accepted for publication (even if later retracted) could similarly be of some value.

Swedish Academician rebuked for talking too much

October 10, 2013

The fuss around the Nobel Prize in Physics  is taking its toll.

Svenska Dagbladet (free translation):

Anders Bárány, Member of the Royal Swedish Academy of Sciences, has been reprimanded for revealing why the announcement of the Physics Prize was an hour late. But Staffan Normark, Permanent Secretary of the Royal Swedish Academy of Sciences Presidium, would not comment. The delay on Tuesday of the announcement of the Nobel Prize in Physics by one hour was unprecedented and quite unique. 

 Mr Anders Bárány had revealed that the delay was caused by heated discussions within the Royal Academy of Sciences (KVA) whether the nuclear research organization CERN would share the prize,His statement had an impact already on Wednesday.

“I was called up to the Academy’s Presidium and given a real scolding” said Anders Bárány.

And I blame the CERN publicity machine for their hype and their blatant lobbying and for causing the controversy in the first place. But Anders Bárány has to take his share of the blame for falling for the publicity machine. He deserved his telling off – not so much for talking to the press after the event but for his support of CERN sharing the award!

What was he thinking?

Heated dispute within Nobel Committee delayed the Physics prize

October 9, 2013

I observed yesterday that the delay in awarding the Nobel prize in Physics could have been due to some committee members wanting to award the prize also to CERN. That supposition seems to have been correct. The PR apparatus of the ATLAS and CMS experiments at CERN is responsible for a lot of hype based on a somewhat inflated opinion of the organisation. They have been lobbying hard for over a year for the Physics Nobel. The PR and lobbying by CERN had clearly got to at least one member of the award committee (Anders Bárány). His view was rejected and he is now complaining that the award was “unfair”

And despite all the PR spin and all the hype they have not yet found the Higgs particle. And there are more questions left to be answered than ever before.

Big Science hype to keep Big Science funding going arouses my suspicions. For an organisation like ATLAS or CMS or CERN to have been named would have been a travesty. Almost at the level of naming the EU or the IPCC for a Peace Prize.

Fortunately good sense prevailed and the Physics prize still maintains some brand value – which the Peace Prize has lost.

Svenska Dagbladet reports (my free translation):

There was a major altercation between the members that postponed yesterday’s announcement of the Nobel Prize in Physics was postponed by over an hour according to Vetenskapsradion . Before the vote, several members questioned why no part of the award was for the two laboratories which had detected the Higgs particle.

One of those objecting was Mr Anders Bárány who wanted more than just theorists  Peter Higgs and Francois Englert to be rewarded  rather than the two research teams , ATLAS and CMS being merely mentioned in the Academy of Sciences press release.

“I think it is extremely unfair. It is the first time that the explanatory text has made such a mention. I do not think they should be happy with it “, he said to Vetenskapsradion.

Peter Higgs and Francois Englert  were praised for their discoveries about the Higgs particle – but other heavyweight Higgs scientists, Carl Hagen, Gerald Guralnik and Tom Kibble were excluded. Their names had been mentioned in preliminary discussions on the physics prize, because they are considered to have made ​​significant finds around the particle around the same time as Higgs and Englert.

Carl Hagen, admitted yesterday that he was disappointed at the Academy’s decision. “The wind went out of me, of course, a little bit because the Swedish Academy of Sciences decided to stick with their old rule of three winners. It is not a true picture of how things are , but I congratulate Higgs and Englert , they must be very pleased”, Hagen said to TT.

Svante Pääbo an outsider for the Chemistry Nobel today

October 9, 2013

I leave it to real Chemists – such as here – to make predictions. And one can always fall-back on Thomson Reuters who correctly predicted the Physics prize yesterday:

CHEMISTRY

A. Paul Alivisatos  and Chad A. Mirkin and Nadrian C. Seeman
For contributions to DNA nanotechnology

Bruce N. Ames
For the invention of the Ames test of mutagenicity

M.G. Finn and Valery V. Fokin and K. Barry Sharpless
For the development of modular click chemistry

But based on a throw-away comment by somebody on Swedish Radio this morning and based on my interest in paleo-anthropology, Svante Pääbo may be an outside bet. He is a participant in Nobel Week in December and this bio is from there:

Svante Pääbo

A Swedish biologist specializing in evolutionary genetics, Dr Svante Pääbo investigates ways that the archaic genome can be explored to understand our own history better.

Svante Pääbo has developed technical approaches that allow DNA sequences from extinct creatures such as mammoths, ground sloths and Neandertals to be determined. He also works on the comparative genomics of humans, extinct hominins and apes, particularly the evolution of gene activity and genetic changes that may underlie aspects of traits specific to humans such as speech and language.

In 2010, his group determined the first Neandertal genome sequence and described Denisovans, a sister group of Neandertals, based on a genome sequence determined from a small bone found inSiberia.

Pääbo has received four honorary doctorates and several scientific prizes and is a member of numerous academies. He is currently a Director at the Max-Planck Institute for Evolutionary Anthropology in Leipzig, Germany, and a Guest Professor at the University of Uppsala, Sweden.