The Birth of Super Resolution – Technion Startup in HD!

A clear-cut example of the dynamic process of technology transfer at the Technion – the startup BETTERview is slated to revolutionize the quality of HD imaging – by taking and applying new research from the Technion department of electrical engineering all the way to your the screen of your TV, PC or smart phone. Have something old and cloudy? BETTERvIew also offers a conversion service to produce images as crisp as if they were filmed with the cutting-edge cameras of tomorrow.


BETTERView offers SD to true HD (High Definition) conversion and video enrichment. Check the following video to see the quality advantage.




The patented breakthrough in the super resolution promises to breaks the “glass ceiling” of existing technology, says the company, whose team includes world-experts from Technion’s Faculty of Computer Science, which is ranked #15 in the world. While conventional methods use conversion techniques to “blow up” or stretch the SD video onto an HD display, BetterVirw increases optical resolution of a video stream, generating an HD stream that looks as authentic as it gets.


BETTERview technology is based on a novel family of SR algorithms, proposed by a world-leader in this field, Prof. Michael Elad (Technion – Israel Institute of Technology). Elad and his collaborator, Dr. Matan Protter devised the first method that overcomes the requirement for very accurate and explicit motion estimation in previous SR technologies. The new family of SR techniques avoids the exact motion estimation and replaces it by a probabilistic estimate. This enables handling successfully general content scenes containing extremely complex motion patterns. 


The results are impressive, with no visual artifacts, and the process is completely robust. Based on this core technology, BETTERview developed the first cutting-edge industrial-grade robust system that perform SD to True HD resolution conversion. Its solution strengthens the above-mentioned core technology by handling various video artifacts, interlaced content, synchronization issues and run-time efficiency.


The innovative research of Prof. Michael Elad was listed in 2010 by Thomson Reuters Science Watch. You can read their interview with him here.



It has been known for the past 20 years that, in principle, one could take several low-quality images and fuse them into a single, higher-resolution outcome. This has been demonstrated by scientists, adopting various techniques and algorithms. The process is known as Super-Resolution (SR), which  became a hot field in image processing, with thousands of academic papers published during the past two decades on the problem and ways to handle it. The classical approach to fuse the low-quality images requires finding an exact correspondence between their pixels, a process known as “motion estimation”. Several years ago this field experienced a revolution, due to a breakthrough in the way to handle (or better yet, bypass altogether) the motion estimation. 

The future: knife-free non-invasive cancer surgery.

Insightec – voted a top innovator by TIME Magazine for its revolutionary ultrasound system for non-invasive surgery, is a powerhouse of Technion graduates. Here, Yoav Medan, who has taught at the department of electrical engineering at the Technion and who has graduated from there in aeronautical engineering, discusses how this patented Israeli system could soon be saving lives across the planet.

Imagine having a surgery with no knives involved. At TEDMED, surgeon Yoav Medan shares a technique that uses MRI to find trouble spots and focused ultrasound to treat such issues as brain lesions, uterine fibroids and several kinds of cancerous growths.

‘TIME’ honors InSightec’s Focused Ultrasound

By Viva Sarah Press
December 06, 2011
TIME magazine recently called InSightec’s MR Guided Focused Ultrasound (MRgFUS) one of the 50 best inventions of the year.

“Magnetic-resonance-imaging (MRI) and ultrasound technologies are each remarkable in their own right, but combine them and you get something life-changing,” the magazine wrote about InSightec’s technique.

Read full story at Israel 21C

Yoav Medan

Vice President and Chief Systems Architect, Insightec

Yoav Medan, Vice President and Chief Systems Architect, is responsible for developing new platforms for the Magnetic Resonance guided Focused Ultrasound technology.
Prior to joining InSightec in 1999, Dr. Medan spent 17 years in various senior research and management positions at the IBM Research Division and was elected to the IBM Academy of Technology.
In addition to technical and managerial experience, Dr. Medan has academic experience as well, teaching at the EE department at the Technion, Israel Institute of Technology, in addition to serving as a lecturer for Avionic Systems at the Aeronautical Engineering faculty. He is also a Senior Member of the Institute of Electrical and Electronics Engineers.
Dr. Medan has widely published and holds nine IBM as well as several other patents. He was awarded the IBM Outstanding Technical Achievement Award, the 3rd Invention Achievement Award and the Outstanding Research Division Award.
Dr. Medan received his D.Sc. and B.Sc.(Summa Cum Laude) in Aeronautical Engineering from the Technion, Israel Institute of Technology, and a M.B.A diploma from Bradford University, UK.
The focused ultrasound beam can be seen during the treatment to ensure taht the ultrasound travels through a safe pathway to the focus. This ensures that the correct region is targeted.  Sonication parameters can be adjusted to optimize the treatment and are monitored by the physician during the treatment.

Professor Sir Richard Friend and Professor Judea Pearl – Winners of the 2011 Harvey Prize

7 8Prof. Sir Richard Friend, Cavendish Professor of Physics at the University of Cambridge, and Prof. Judea Pearl, Professor of Computer Science at the University of California, Los Angeles, are the winners of the prestigious Harvey Prize for 2011. They will receive their prizes at the festive awards ceremony to be held at the Technion in spring 2012.

The Technion’s decision to award Prof. Sir Richard Friend the prize states that he “pioneered the physics, materials science and engineering of semiconductor devices made with carbon-based polymers. His breakthrough research made possible deep understanding of electronic and optical processes in polymer conductors for realizing a range of devices including field-effect transistors, photovoltaic diodes and cells as well as lasers. Demonstrating scientific and technological leadership, Prof. Friend made a decisive contribution to the harnessing of this exciting technology, as evidenced by, among others, the two successful spin-off companies – Cambridge Display Technology Ltd. and Plastic Logic Ltd. – he founded. The Harvey Prize is awarded to Prof. Sir Richard Friend in recognition of his outstanding contributions to science and technology, which are already making an impact on the semi-conductor industry and our lives.”

Regarding Prof. Pearl, the Technion decision states that he “through his wide-ranging and keen research, laid the theoretical foundations for knowledge representation and reasoning in computer science. His theories for inference under uncertainty, and most notably the Bayesian network approach, have profoundly influenced diverse fields such as artificial intelligence, statistics, philosophy, health, economics, social sciences, and cognitive sciences. The Harvey Prize is awarded to Prof. Pearl in recognition of his foundational work that has touched a multitude of spheres of modern life.”

The Harvey Prize, first presented in 1972, is the fruit of the foundation set up by the late Leo M. Harvey of Los Angeles, to recognize great contributions to human advancement in the fields of science and technology, human health and peace efforts in the Middle East. Each year prizes totaling $75,000 are awarded to each recipient.

Among the winners of this prestigious prize have been scientists from the U.S.A., Britain, Russia, Sweden, France, and Israel. To name a few, Nobel laureate Mikhail Gorbachev, former head of state of the U.S.S.R., received the prize for his activities to decrease regional tensions; Prof. Bert Sakman, Nobel laureate in medicine, Prof. Pierre-Giles de Gennes, Nobel laureate in physics, Prof. Edward Teller for his discoveries in solid state, atomic and nuclear physics and Prof. William G. Kolff for his developing of the artificial kidney.

Recommendations for candidates for the Harvey Prize are accepted from leading scientists and personalities in Israel and abroad. Prize winners are selected by the Harvey Prize Committee through a meticulous process in the Technion.

Above: Professor Judea Pearl (right)  and Professor Sir Richard Friend (left)

Nobel Banquet Speech 2011 – Transcript

“A new definition of crystal emerged, one that is beautiful and humble and open to further discoveries. A humble scientist is a good scientist.”

Banquet Speech

Dan Shechtman’s speech at the Nobel Banquet, 10 December 2011.
Your Majesties, Your Royal Highnesses, Nobel Laureates, fellow scientists, ladies and gentlemen, dear family.
On April 8, 1982, I was alone in the electron microscope room when I discovered the Icosahedral Phase that opened the field of quasi–periodic crystals. However, today I am joined by many hundreds of enthusiastic scientists worldwide. I stand here as the vanguard of the science of quasicrystals, but without these dedicated scientists the field would not be where it is today. This supreme recognition of the science we have unveiled over the last quarter century is celebrated by us all.
In the beginning there were only a handful of gifted colleagues who helped launch the field. First was Ilan Blech, at the time a Technion professor, who proposed the first icosahedral model. He demonstrated, by computer simulation, that the model could produce diffraction patterns that matched those that I had observed in the electron microscope. Together we wrote the first announcement of the discovery. Then John Cahn of the US and Denis Gratias of France coauthored with us the second, modified article that was actually published first. Other key contributions to the field were made by Roger Penrose of the UK who, years earlier, created a nonrepeating aperiodic mosaic with just two rhomboid tiles, and Alan Mackay of the UK who showed that Penrose tiles produce sharp diffraction spots. Dov Levine of Israel and Paul Steinhardt of the US made the connection between my diffraction patterns and Mackay’s work. They published a theoretical paper formulating the fundamentals of quasi-crystals and coined the term. All these pioneers paved the way to the wonderful world of quasi-periodic materials.
I would like to mention two other eminent scientists who are no longer with us, whose commitment to the field was of great importance. These are Luis Michel, a prominent French mathematician, and Kehsin Kuo of China, a leader in electron microscopy, who was trained in Sweden.
We are now approaching the end of 2011, the UNESCO International Year of Chemistry, a worldwide celebration of the field. In a few weeks we will see in the New Year, 2012, the centennial of the von Laue experiment which launched the field of modern crystallography. The following year, 2013, will mark the International Year of Crystallography. The paramount recognition of the discovery of quasi-periodic crystals is, therefore, most timely.
The discovery and the ensuing progress in the field resulted in a paradigm shift in the science of crystallography. A new definition of crystal emerged, one that is beautiful and humble and open to further discoveries. A humble scientist is a good scientist.
Science is the ultimate tool to reveal the laws of nature and the one word written on its banner is TRUTH. The laws of nature are neither good nor bad. It is the way in which we apply them to our world that makes the difference.
It is therefore our duty as scientists to promote education, rational thinking and tolerance. We should also encourage our educated youth to become technological entrepreneurs. Those countries that nurture this knowhow will survive future financial and social crises. Let us advance science to create a better world for all.
———
I would like to thank the scientists who nominated me, the Nobel Committee, the Royal Swedish Academy of Sciences and the Nobel Foundation for bestowing on me this unparalleled honor.
Thank you.

Nobel Prize Chemistry 2011 Award Ceremony Speech


Transcript: 


Award Ceremony Speech

Presentation Speech by Professor Sven Lidin, Member of the Royal Swedish Academy of Sciences; Member of the Nobel Committee for Chemistry, 10 December 2011
Your Majesties, Your Royal Highnesses, Ladies and Gentlemen,

For three millennia we have known that five-fold symmetry is incompatible with periodicity, and for almost three centuries we believed that periodicity was a prerequisite for crystallinity. The electron diffraction pattern obtained by Dan Shechtman on April 8, 1982 shows that at least one of these statements is flawed, and it has led to a revision our view of the concepts of symmetry and crystallinity alike. The objects he discovered are aperiodic, ordered structures that allow exotic symmetries and that today are known as quasicrystals. Having the courage to believe in his observations and in himself, Dan Shechtman has changed our view of what order is and has reminded us of the importance of balance between preservation and renewal, even for the most well established paradigms. Science is a theoretical construction on an empirical fundament. Observations make or break theories.

“We are like dwarves on the shoulders of giants, so that we can see more clearly than they, and things at a greater distance, not by the virtue of any sharpness of sight on our part, but because we are carried high and raised up by their great size.” This metaphor, first used by Bernard of Chartres and later by Newton and many others, hails back to antiquity and to the blind giant Orion who carried the servant Cedalion on his shoulders in his quest for the uttermost east where the sun would heal him of his blindness. The myth illustrates the progress of science. Each generation takes knowledge a little further because it builds on the results of its forebears. The image of the amassed knowledge as a blind giant with a seeing dwarf on its shoulders is an idealisation of science at its best: A relationship of mutual trust between the bearer and the borne, between the blind and the seeing. The giant provides established truths. The dwarf strives for new insight. Like every good metaphor this one not only describes the benefits of the arrangement, it also hints at the dangers.
The relation between the dwarf and the giant is fundamentally asymmetric. The dwarf can see, but the giant decides on which road the two shall take. The dilemma of the giant is that he is at the mercy of the dwarf, but he cannot trust him blindly. The paradigms of science are challenged daily on more or less solid grounds and the difficulty is to know when to take these challenges seriously. The dwarf faces the reverse problem. He depends on the giant, and without him he gets nowhere despite the clarity of his vision. In order to make his own choices he is forced down on the ground, to walk alone without the support he enjoyed on the shoulders of the giant. This year’s Chemistry Laureate was forced to do battle with the established truth. The dwarf doesn’t serve the giant by subservience but through independence.
Coming down from the shoulders of the giant is a challenge. Not least because those that remain aloft are tempted to look down at those on the ground. The disbelief that met Dan Shechtman was appropriate and healthy. Questioning should be mutual to promote the growth of knowledge. The ridicule he suffered was, however, deeply unfair. It is far too easy for all of us to remain in our lofty positions, and with lofty disdain regard the fool who claims that we are all wrong. To be that fool on the ground takes great courage, and both he and those that spoke out on his behalf deserve great respect.
Dan Shechtman:Your discovery of quasicrystals has created a new cross-disciplinary branch of science, drawing from, and enriching, chemistry, physics and mathematics. This is in itself of the greatest importance. It has also given us a reminder of how little we really know and perhaps even taught us some humility. That is a truly great achievement.  On behalf of the Royal Swedish Academy of Sciences I wish to convey our warmest congratulations, and I now ask you to step forward and receive your Prize from the hands of His Majesty the King.

Professor Shechtman’s speech at the Nobel banquet in Stockholm

Your Majesties, Your Royal Highnesses, Nobel laureates, fellow scientists, ladies and gentlemen, dear family.

On April 8, 1982, I was alone in the electron microscope room when I discovered the Icosahedral Phase that opened the field of quasi–periodic crystals.  However, today I am joined by many hundreds of enthusiastic scientists worldwide.  I stand here as the vanguard of the science of quasicrystals, but without these dedicated scientists the field would not be where it is today. This supreme recognition of the science we have unveiled over the last quarter century is celebrated by us all.

In the beginning there were only a handful of gifted colleagues who helped launch the field.  First was Ilan Blech, at the time a Technion professor, who proposed the first icosahedral model.  He demonstrated, by computer simulation, that the model could produce diffraction patterns that matched those that I had observed in the electron microscope.  Together we wrote the first announcement of the discovery.  Then John Cahn of the US and Denis Gratias of France coauthored with us the second, modified article that was actually published first.  Other key contributions to the field were made by Roger Penrose of the UK who, years earlier, created a nonrepeating aperiodic mosaic with just two rhomboid tiles, and Alan Mackay of the UK who showed that Penrose tiles produce sharp diffraction spots.  Dov Levine of Israel and Paul Steinhardt of the US made the connection between my diffraction patterns and Mackay’s work. They published a theoretical paper formulating the fundamentals of quasi-crystals and coined the term.  All these pioneers paved the way to the wonderful world of quasi-periodic materials.

I would like to mention two other eminent scientists who are no longer with us, whose commitment to the field was of great importance. These are Luis Michel, a prominent French mathematician, and Kehsin Kuo of China, a leader in electron microscopy, who was educated in Sweden.

We are now approaching the end of 2011, the UNESCO International Year of Chemistry, a worldwide celebration of the field. In a few weeks we will see in the New Year, 2012, the centennial of the von Laue experiment which launched the field of modern crystallography. The following year, 2013, will mark the International Year of Crystallography. The paramount recognition of the discovery of quasi-periodic crystals is, therefore, most timely.

The discovery and the ensuing progress in the field resulted in a paradigm shift in the science of crystallography. A new definition of crystal emerged, one that is beautiful and humble and open to further discoveries. A humble scientist is a good scientist.

Science is the ultimate tool to reveal the laws of nature and the one word written on its banner is TRUTH.  The laws of nature are neither good nor bad.  It is the way in which we apply them to our world that makes the difference.

It is therefore our duty as scientists to promote education, rational thinking and tolerance. We should also encourage our educated youth to become technological entrepreneurs.  Those countries that nurture this knowhow will survive future financial and social crises. Let us advance science to create a better world for all.

———

I would like to thank the scientists who nominated me, the Nobel Prize committee, and the Nobel Foundation for bestowing on me this unparalleled honor.

Thank you.

The Nobel Laureate of Former Disgrace

“Each time I was promoted there were colleagues fighting it…”

Distinguished Prof. Dan Shechtman displays his notebook
at the Nobel Laureate lecture: Dec. 8th, 2011. Previously,
colleagues hurled at him basic textbooks in crystallography
and told him to read them!

Israeli professor Dan Shechtman was vilified for daring to challenge scientific orthodoxy

Read the full story at the Jewish Chronicle
By Nathan Jeffay, December 9, 2011

Shechtman at the Technion in Haifa, where his eureka moment led to a new theory about the way matter is arranged

It could be the closing scene of a feel-good film. But it will happen for real, tomorrow afternoon. Israeli scientist Dan Shechtman, mocked for years for his off-the-wall theory, has not only been proved correct, but he will climb to the podium at Stockholm Concert Hall and receive the Nobel Prize for chemistry. The award is often shared by several people , but he has it all to himself.

During an interview in his Haifa office shortly before travelling to Stockholm, Shechtman recalled the initial reaction to the work that earned the prize. His research-team leader gave him a bit of a talking to. “He came to my office and put a textbook on my desk, smiling sheepishly and telling me that I should read it, as what I was saying was impossible.”

Shechtman, a 70-year-old professor of materials engineering at the Technion – Israel Institute of Technology, is a modern-day Archimedes. While most Nobel winners receive their prize after painstakingly developing a theory or idea over years, like the ancient scholar who got into the bath and saw the water level rise, Shechtman had a eureka moment.

It was the morning of April 8, 1982 and he was on sabbatical from the Technion at the National Bureau of Standards in Washington DC. He looked through his electron microscope, and found something that defied the laws of science, as they were understood.

Each time I was promoted there were colleagues fighting it

Until then, it was believed that atoms are always arranged in solids in symmetrical patterns, in groups of two, three, four or six. But he was looking at an alloy and found that it contained atoms in groups of 10 around a single point. They made a pattern that did not repeat itself, flying in the face of received wisdom that patterns will always be repeated. These formations became known as “quasicrystals” – and now represent a branch of science studied worldwide.

The Nobel committee said when announcing the award that Shechtman had “forced scientists to reconsider their conception of the very nature of matter”. But to get there was a long and sometimes humiliating battle. The team leader who demanded that he reread the textbook decided that he was bringing “disgrace” to his team and expelled him. Shechtman, who had dreamed of scientific accomplishment ever since his childhood, was not discouraged. “You can say it’s funny or you can say it’s stupid, but I showed everyone who was prepared to listen,” he recalls. “I even sent Chanucah cards with the pattern on them.”

When he returned from Washington in late 1983 he found many colleagues sceptical about his theory, but discovered an ally in the form of Ilan Blech, a professor in the faculty of materials science. This gave him the confidence to write an article on his findings and submit it to the Journal of Applied Physics. It came back with a rejection letter. “The editor didn’t even send it for peer review,” he says sadly. An improved version written with three collaborators, including Blech, was accepted by Physical Review Letters and published in 1984.

“Hell broke loose,” Shechtman recalls. He started receiving letters from scientists across the world saying they had be able to replicate his experiment, but there was also a very strong critical reaction. The International Union of Crystallography and the American Chemical Society led it. In their view, the fact that quasicrystals could only be seen on electron microscopes and not x-ray microscopes undermined the findings, and they believed that he was really looking at two structures of atoms and misreading it as a single one.

Leading the opposition was the only man ever to have won two Nobel Prizes, American chemist Linus Pauling. He reportedly used to say: “There is no such thing as quasicrystals, only quasi-scientists.” Even in Shechtman’s own department at the Technion, “there were professors fighting against my promotion and each time I was promoted there was opposition,” he says.

It was not until 1987 that his findings started to become mainstream. Two groups of scientists managed to identify quasicrystals on an x-ray microscope. He recalls going to the International Union of Crystallography after this breakthrough. “They said: ‘Danny, now you’re talking’ and they accepted it.” When Pauling died in 1994, the opposition evaporated completely.

When the call came from the Nobel committee in October, he was told to keep the news a secret for half an hour, when it would be announced. “I sat at my desk for 20 minutes just looking around and thinking: ‘What does it mean?'” He was calm. “If you measured my heart rate now it is 60; I don’t know if at that moment it got as high as 61.” After 20 minutes he called his wife Zipora, a professor at Haifa University, “because she is always mad that I don’t tell her about prizes”.

He was, he says, completely unprepared for the euphoria at the Technion and his celebrity across Israel which followed. The pattern he discovered is the ultimate fashion statement at the Technion, where staff members wear ties decorated with it. Shechtman shows off a kippah with the pattern that a student crocheted for him to wear when addressing Jewish groups.

Asked what is the practical significance of his discovery, Shechtman gives a wry smile and says “very little”. Quasi-crystals have been used to make strong materials for razors and non-stick pans, but for Shechtman the important thing is the correction of an erroneous assumption about the world. In his opinion, “a humble scientist is a good scientist”, and by forcing a rethink on the basics, he believes he has made the scientific community more humble.

“The new definition of a crystal is a wonderful one, because it is humble,” he says. “It doesn’t say: ‘A crystal is…’ It says: ‘By a crystal we mean…'”

Shechtman’s personality fits his talk of humility. There is no ceremony – no waiting rooms or secretaries – when visiting his office. His hobbies confirm the impression that he is a patient man – he likes sailing and jewellery-making. He believes that there is a message for everybody in his prize. “If you find something, concentrate on it and try to see if it is real; listen to other people but if they aren’t interested, don’t take their words as fact. Continue to push your belief.”

Professor Dan Shechtman Speaks to 85 Swedish Business Leaders: “I tell my students… don’t dream of exits.”

6STOCKHOLM, SWEDEN– The Forum for Innovation Management (FIM), a forum within of the Karl-Adam Bonnier Foundation, hosted “Innovation and Entrepreneurship Education,” on December 6, 2011 at the historic mansion Nedre Manilla. Some 85 attendees from the Swedish academic, government and business communities listened to keynote speaker Distinguished Technion Professor Dan Shechtman, the 2011 Nobel Laureate in Chemistry and expert panelists, discuss the challenges facing many countries in today’s economy ways to improve performance and growth through entrepreneurship.

Matias Bonnier, Chairman of the Karl-Adam Bonnier Foundation welcomed participants and speakers to his ancestral home.

In his introduction Mikolaj Norek, FIM Director, said that like entrepreneurs, Professor Shechtman had to fight for recognition to achieve success since the scientific community did not initially believe in his discovery.

“Entrepreneurship education is vital to the survival and growth of a country’s future especially when natural resources are being depleted at an accelerated rate,” said Prof. Shechtman.

Even as a young academic Prof. Shechtman foresaw the value in educating engineers in this area. For more than 25 years he has taught technological entrepreneurship at the Technion and counts some 10,000 graduates of this course. The course exposed students to both successful and non-successful entrepreneurs and provided training legal, business and marketing professionals who offered real-world advice.

“Israel is unique as our students have completed military service where they are already exposed to some of the most sophisticated high-tech in the world. They are also older and more mature when they start their university studies,” said Prof. Shechtman.

While this may give Israel an advantage, Prof. Shechtman believes that there are similarities in small countries such as Sweden and Israel that can create the cultural environment that can ultimately foster a start-up economy.

He also said that Israel faces the challenge of many start-ups developed with an exit strategy in mind. This does not allow for the creation of larger companies that can be impactful through the production of exportable products, and most importantly in job creation.

The panelists included Prof. Anders Flodström, Former University Chancellor and Head of the Swedish National Agency for Higher Education; Maud Olofsson, Former Swedish Minister for Enterprise and Energy, Advisor to US Secretary of State Hillary Clinton on female entrepreneurship; Prof. Karin Markides, President Chalmers University of Technology; and Prof. Martin Schuurmans, Founding Chairman of the European Institute of Innovation & Technology (EIT) Governing Board.

They echoed Prof. Shechtman’s belief that entrepreneurship should start at an early age, even at the Kindergarten level, to create a spirit of entrepreneurship. Matias Bonnier commented that younger students should be active participants in their entrepreneurial education. They should interact, talk and ask questions of their teachers. He added that entrepreneurship is a bridge between societies and nations.

They also suggested that the government take an active role in setting policies that can foster growth in this area.

Tor Bonnier, Chairman of FIM, concluded the meeting with the message that it is clear that the study of entrepreneurship is important to have in any society. “It is important to foster budding entrepreneurs based on our own culture in order to be competitive in a global economy.” he said.

The event was co-created by the Israeli Embassy in Sweden.

FORUM FOR INNOVATION MANAGEMENT (FIM) was established in 1999 as a non-profit activity within the Karl-Adam Bonnier Foundation.

FIM is currently in its twelve year, having organized 60 exclusive seminars bringing together influential representatives such as policy makers and selected representatives from financial, legal and academic institutions as well as practitioners in the corporate and entrepreneurial business sectors. FIM has also published two books in the series of “Swedish Innovation Force” – which summarizes many of the topics discussed at the seminars.

FIM maintains a high standard, attracting a selected audience through tailor made seminars with national and international speakers, and publications with support from Karl-Adam Bonniers Stiftelse (foundation), Vinnova, Företagarna, IVA, and Innovationsbron. Our mission is to increase the awareness of entrepreneurial and innovation issues in the Swedish academic and corporate environments. The forum enables people to cross-pollinate ideas on current and future policies and legislations that will be the foundation of our new national competitive strategy.

Above: Prof’ Shechtman (center) with the panel participants

Prof. Yitzhak Apeloig, Past President of the Technion, receives a prestigious award from the German government

5For his continuing activities in strengthening ties between Israeli and German scientists

Prof. Yitzhak Apeloig, past President of the Technion, received a prestigious award from the German government for his continuing activities in strengthening ties between Israeli and German scientists. The award – the Order of Merit ­­- was presented to Prof. Apeloig by German ambassador to Israel, Mr. Andreas Michalis, at a festive ceremony held at the Technion.

All the speakers at the ceremony noted the good but delicate relations between Germany and Israel and stressed the importance of the language of science as a bridge and trust builder. Technion President, Prof. Peretz Lavie, said that the Technion was conceptualized at the University of Berlin and set up by German born Jewish scientists. “The good relations were cut off brutally and horribly in World War II,” he said. “Since then, the complex relations between our two states have been recovering, and this requires dedicated people like Prof. Apeloig who contribute continuously to the improvement of these relations. The language which Prof. Apeloig has chosen is the language of science.”

Ambassador Michaelis said that this is the first time that he is granting the award in Israel. “The scientific cooperation between Germany and Israel is great and deep,” he emphasized. “You, Prof. Apeloig, are one of the most important contributors to this cooperation.”

The Mayor of Haifa, Attorney Yona Yahav, said that his city has close relations with five cities in Germany.

Prof. Apeloig expressed his thanks for receiving the award. He said it was not easy for him when he began working in cooperation with German scientists. “Both Zipi, my wife, and myself come from families of Holocaust survivors. I was born in Bukhara, Uzbekistan, where my family had fled from Poland. I grew up with harsh feelings towards Germany. This wasn’t a promising prologue to my stay in Germany for my post-doctorate, where I went when I followed my supervisor from Princeton. The German scientists showed me another side of Germany and since then I have been to Germany many times, German scientists have visited the Technion many times, I made friendswith many of them, and some have become lifelong friends. I believe very strongly that science can serve as a bridge of friendship between nations.”

Prof. Apeloig has visited Germany many times with his students for conferences, with the support of the Minerva Foundation. One of these visits was to, a charming conference site belonging to the Academy of Sciences in Berlin. 65 people attended the meeting, and of these, 18 were scientists and the remainder, chemistry and physics students, half from Germany and half from Israel. These meetings, which combine science, study workshops and social events, are very important. About this meeting, Prof. Apeloig said: “This was an important, interesting and exciting event, which will contribute to the strengthening of the cooperation between Israeli and German scientists and the creation of a bridge between future scientists in both countries.”

There are 11 Minvera Centers in the Technion and within this framework Prof. Appeloig, together with Prof. Sason Shaik of the Hebrew University, established “The Lise Meitner-Minerva Center for Computational Quantum Chemistry.”

The University of Berlin previously awarded Prof. Apeloig an “Honorary Doctorate” degree – making him the first Israeli to be presented with this distinguished honorary degree by this university, where the Technion in Haifa was conceptualized more than a hundred years ago. The heads of the university said then that Prof. Apeloig received the honorary doctorate for his important scientific achievements in the research of chemistry of organosilicon complexes, and emphasized his great contribution to the advancement of scientific relations with German scientists.

Above: Prof. Yitzhak Apeloig (on the left) receiving the award from the German ambassador to Israel, Andreas Michalis. Photo by: Yoav Bechar, Technion photographer

The Quasicrystal Caucus

“The mostimportantthing about thequasicrystals istheir meaningfor fundamentalscience. They haverewritten thefirst chapter inthe textbooks ofordered matter.”

Prof. Sven Lidin, Professor of InorganicChemistry, Lund University. Member of the Nobel Committee for Chemistry

File:Penrose tiling.gif
In the mid-1970s, mathematician Prof. Roger Penrose, of Oxford University, created an aperiodic mosaic, with a pattern that never repeats itself, with just two different rhomboid tiles
(a fat rhombus and a thin rhombus).
The page in Dan Shechtman’s lab logbook recording his April 8th, 1982, discovery.
Meeting at the National Institute of Standards and Technology (NIST) in 1985 just months after shaking the foundations of materials science with publication of his discovery of quasicrystals, Dan Shechtman, winner of the 2011 Nobel Prize in Chemistry, discusses the material’s surprising atomic structure with collaborators. From left to right are Shechtman; Frank Biancaniello, NIST; Denis Gratias, National Science Research Center, France; John Cahn, NIST; Leonid Bendersky, Johns Hopkins University (now at NIST); and Robert Schaefer, NIST.



200 years and nobody noticed?


How could quasicrystalshave evaded the communityof crystallographers for solong? In addition to the vitalinput of his collaborators,says Shechtman, thediscovery required severalcritical components. First,it was necessary to makeesoteric, rather than useful,rapidly cooled alloys.Then a researcher wouldhave to study them witha transmission electronmicroscope, performnumerous detailed analyses,and finally face a fortress ofresistance to changing therules of understanding thematerial world.

A quasiperiodic crystal is a structure that is ordered but not periodic. In quasicrystals, the symmetry is broken: there are regular patterns in the structure but the structure never repeats itself. A shifted copy will never match exactly.

Back in the ’80s when the new class of matter was accepted only by a few, it was dubbed
“Shechtmanite,” after the man who led the field through conception and infancy. The name “Shechtmanite” carried the risk of humiliation if the material turned out to be “twinning” (the intergrowth of two separate crystals on a shared lattice), as claimed by Shechtman’s opponents.
Quasicrystal structure can be understood through the mathematical theory of tiling.
Initially, however, Shechtman’s discovery was viewed with skepticism. “The scandal of
polywater was still in the air, and I feared for my scientific and academic career,” says Shechtman.
(l-r) John Werner Cahn, Dan Shechtman, Ilan Blech and Denis Gratias together on the
occasion of an international congress on quasicrystals in France, 1995.
© CNRS Photothèque – Pierre Grumberg
Shechtman returned to Technion, where Dr. Ilan Blech was the only colleague who not only believed in him but who agreed to cooperate with him. Blech was able to decipher Shechtman’s experimental findings and offered an explanation, known as the Icosahedral Glass Model.

Together, the researchers wrote an article that contained the model and the experimental results, and submitted it to the Journal of AppliedPhysics in the summer of 1984. The paper was rejected, resubmitted to the journal Metallurgical Transactions, and was published in 1985.
In November 1984, Physical ReviewLetters published Shechtman’s discovery in a scientific paper coauthored with three other scientists: Ilan Blech (Israel), Denis Gratias (France) and John Cahn (USA). Wider acclaim followed, mainly from physicists and mathematicians and later from crystallographers.

Pioneering contributors to the field of quasicrystals are Prof. Dov Levine of the Technion Faculty of Physics and Prof. Paul Steinhardt of Princeton University. They made the
connection between a theoretical tenfold symmetry model proposed by Prof. Alan Mackay and Shechtman’s diffraction pattern, and developed the mathematical model for the structure of non-periodic icosahedral phases found in metallic alloys. Steinhardt and Levine published an article in 1984 where they described quasicrystals and their aperiodic mosaics. 
Quasicrystals first got their name in this article!

Dov Levine (left) with Paul Steinhardt (right) 
at the Technion Faculty of Physics in 2006.

In August 1986, David R. Nelson wrote in Scientific American, “Shechtmanite quasicrystals are no mere curiosity. The study of quasicrystals has tied together two existing branches of theory: the theory of metallic glasses and the mathematical theory of aperiodic tilings. In doing so it has brought new and powerful tools to bear on the study of metallic alloys. Questions about long- and short-range icosahedral order should occupy solid-state physicists and materials scientists for some time to come.”

Today, over 40 scientific books have been dedicated to quasiperiodic crystals, and the International Union of Crystallography has changed its basic definition of a crystal, reducing it to the ability to produce a clear-cut diffraction pattern and acknowledging that crystallographic order can be either periodic or aperiodic.



Technion celebrates the Nobel Prize with Prof. Danny Shechtman – Technion President: Scientific Truth Won

4The whole of the Technion celebrated last weekend with Nobel laureate, Distinguished Prof. Danny Shechtman, who leaves next week for Stockholm for the award ceremony. “Our delight is not just because one of our own won the world’s most esteemed prize but, rather, because scientific truth won,” said Technion President, Prof. Peretz Lavie.

The Swedish ambassador to Israel, Elinor Hammarskjöld, in her talk also spoke of Prof. Shechtman’s firm stand for many years against the opinion of the entire scientific world regarding his discovery. “We admire not only the discovery of quasicrystals, but also your scientific way,” she told the Nobel laureate.

Haifa Mayor, Yona Yahav (Attorney), made Prof. Shechtman an honorary citizen of Haifa. “The good news is that the decision was a unanimous one by the City Council. The not-so-good news is that the decision does not exempt you from having to pay city taxes,” said the Mayor to the laughing listeners.

The Nobel winner for Chemistry in 2004, Distinguished Prof. Aaron Ciechanover of the Technion’s Rappaport Faculty of Medicine, said to Prof. Danny Shechtman: “Welcome to the club. Today you are joining an exceptional group.” Regarding the winning of the Nobel Prize for Chemistry thus far by four Israeli scientists (Professors Avram Hershko, Ada Yonat, Danny Shechtman and himself), Prof. Ciechanover said, “Chemistry today is a much broader concept than the narrow one that up to now has been generally recognized.”

Prof. Shechtman thanked the large audience: “I usually do not get emotional,” he said. “This evening I am overwhelmed. I feel a lot of warmth here. I feel good standing next to the lectern. Here is where I began teaching the course I founded 25 years ago in order to encourage technological entrepreneurship in the state of Israel. I am a Zionist and I want this country to be a good place to live. From here I call for good education for everyone because without good education there will be no revitalization.”

He revealed that he and Mayor Yona Yahav have decided to promote an initiative for scientific education for preschool children in Haifa. “I will do all I can to promote education in the state of Israel,” he promised.

The ceremony moderator was the Dean of the Faculty of Materials Engineering at the Technion, Prof. Wayne Kaplan.

In the picture: Prof. Shechtman thanking his well-wishers. On the left – Prof. Peretz Lavie, Technion President. Photography by: Shlomo Shoham, Technion Spokesman.

“Transgender patients still face hostility, belittlement and vast ignorance from the medical establishment”

During the 17th Annual Seminar on Patient-Physician Relations held by the Technion’s Faculty of Medicine:

“Transgender patients are still met with hostility, belittlement and vast ignorance by the medical establishment.” Thus said researchers during the 17th Annual Prof. Aaron Valero Memorial Seminar on Patient-Physician Relations. Prof. Aaron Valero was one of the founders of the Rappaport Faculty of Medicine at the Technion.

The seminar, which took place in the Faculty of Medicine, focused on a very unique community – people who turn to psychiatrists and surgeons despite being of sound mind and body. This is the community of transgender people – persons born into bodies that are not the “right body” for them. “Nature betrayed us,” in the words of Paola, a young transgender woman who spoke to the audience about her experiences and her coping with the medical system.

 “We as doctors must understand who these people are, what their feelings are and what their expectations from us are,” said the moderator, Dr. Rabinovitch. “In contrast to a homosexual, who can begin to live his new life the moment he admits to his orientation or at the moment when he “comes out of the closet”, a transgender person needs medical assistance in realizing the physical change in his body to which he aspires. And we, physicians, do not always know how to “deal” with him, how to talk to him; is it a him or a her?”

Nora Greenberg, a gender specialist who consults to the transgender community, said that these people experience gender incongruence given that their gender identity does not match their bodies and their sexual organs. “This gap causes great distress, which impacts on the person’s life and prevents him from living a full life. The only way to relieve this distress is to expose the real gender emotions and live according to them. Since the body is an important part of their identity experience, and primarily their sexual identity experience, it is no wonder that many transgender people want to change it in order to acquire the characteristics of the gender with which they identify. To do this they require physicians and medicine.”

Ms. Greenberg said that it is very important that the physician address his transgender patient in language that matches the patient’s independent gender designation. “Ignoring the patient’s independent designation positions the physician and the patient on two sides of a power divide. This is an aggressive action that negates not only the patient’s gender identification feelings, but also destroys any chance for a therapeutic relationship based on mutual respect and trust. The person coming to us is someone who is uncomfortable in his present body – his body is essentially his problem. Therefore, as those who are going to treat this body and change it, we must be very sensitive in our discussions with the patient and the treatment itself. First of all, we must ask him which gender we should use to address him (male/female), and respect his answer. We must talk to the person – and not to his present body.”

Following the lecture by Ms. Greenberg, A., a young medical student who has just finished his sixth year of studies, came up to speak. He told his life story. “I have an older sister and a younger sister and we were always called “the girls.” This really bothered me but I did not understand why. In school a soccer club opened but the coach wouldn’t allow me to play – ‘it’s only for boys’, he said. At the age of 16, when my girlfriends talked about setting up a home, I felt somewhat uncomfortable. They didn’t understand why, and in reality, I also didn’t understand.

 “Today I am 30 years old. At the age of 23 I heard for the first time the term transgender from a transgender person. Suddenly someone put into words what I had been feeling all my life – that I am not in the right body. It is immensely lonely to live without understanding, without having the words to describe what you feel, without being able to explain. This meeting changed everything.

 “Today it is clear to me who I am. I did not need a doctor to agree with this diagnosis. But this discovery was just the beginning of the way. I gradually told my friends and family, and after the fact, it was clear that it would have been a lot easier for them to accept an announcement that I had cancer. The dissonance, the gap between my wonderful self-discovery and society’s reaction, was not easy.”

 “And then – the medical procedures: a meeting with my family doctor, a psychiatrist, an endocrinologist. The surgical procedure. These meetings were very difficult – each doctor, each nurse and each medical secretary were sure that it was ok for them to ask every kind of question, invasive as it may be. “How did your parents react? How does your girlfriend feel about the surgery?” – these are questions that would never be asked in any other patient-medical staff encounter. There were also wonderful physicians along the way, but the antagonism, the ignorance and the voyeurism were very hard. These people did not understand how sensitive we are to our body – because it is our problem. If we were innocent souls, without bodies, we wouldn’t have any problem.”

 “The medical community, in general, relates to these kinds of people as a curiosity,” said Ms. Greenberg. Correct relations between patients and their doctors require an entirely different kind of connection, the center of which is respect for the person – even if this is the middle of the nightshift in the Emergency Department. These people are not ill and are not disturbed – they come to us because they are suffering a dissonance (a gap) between their bodies and their identity. Our job is to help them on the physical level, without harming them.

 “The present definition of the ‘problem’ of these people is Gender Identity Disorder,” said Ms. Greenberg. “I am happy to say that in the soon-to-appear next edition of the Diagnostic and Statistical Manual of Mental Disorders (DSM), published by the American Psychiatric Association, the definition will be changed to Gender Dysphoria, with the definition of the disorder relating to the distress caused by the lack of sexual congruence, and not to the cross-gender gender identification itself.

 “Transgender people have suffered a lot from the pathologization of their identity. Over the past few years, we are seeing a growing trend of de- pathologization, one of whose expressions is the above mentioned change in the DSM. In the past, medicine has tried to oversee the treatment of these people through conservative and rigid treatment models into which patients were supposed to fit. In the last few years, with the establishment of the transgender model with its many facets, a more open treatment approach has become accepted, with many options, and with the treatment being offered changing from patient to patient in response to their needs.

 “In general, the historical process is moving in a positive direction: the perception whereby a person must prove that he is an ‘authentic’ transgender person is changing into an understanding that gender identification is not dichotomous (male or female, without any state of in-between) but rather a continuum with, at one end, pure femininity and at the other end, pure masculinity. No real person exists at either of these two extremes – we are all somewhere in between.

“Despite these positive developments, transgender patients still face hostility, belittlement and immense ignorance on the part of the medical establishment. The basic problem is the existing gender conformity, and the fact that most physicians belong to the ruling majority, that is, the cisgender population – people who are not transgender and identify with the gender into which they were born. Like many of the cisgender population, doctors also suffer largely from transphobia – hatred, disgust and fear of transgender persons or abound with the cis-normative approach, that is, the belief that the cisgender identity is natural, healthy and better than transgenderism and every divergence from it is a type of deviation.

“The stage most necessary on the way to change is the understanding by every doctor that he or she belongs to a social system. There is no purely individual person. Therefore, if the doctor belongs to the ruling group, the cisgender group, he must be aware of this, because his behavior is affected by this affiliation. In the next stage, he must be prepared to waive his power as a cisgender person, not his power and knowledge as a doctor – these are essential – but his feelings of superiority, of which he is usually unaware, which do not enable him to understand the patient as a whole and real person.”

In addition to Nora Greenberg and A., another two transgender people who underwent surgery to change gender and life their lives in line with the feelings of their authentic gender identity spoke: Paola, a psychology graduate, and Shamai, a rabbi and social activist, told the audience about their experiences with doctors.

The late Prof. Aaron Valero, a founder of the Rappaport Faculty of Medicine, was born in Jerusalem in 1913 and died 11 years ago. After completing his studies at Gymnasia Yerushalyim (1932), he went to Birmingham, England to study medicine. With the outbreak of World War II he returned to Israel and then served with the British Army in the Persian Gulf. At the end of the war he returned to Israel, moved to Haifa and worked at Poriya Hospital and Rambam Hospital where he set up the Department of Internal Medicine.

Following the decision to establish a medical school at the Technion, Prof. Valero founded the first course “Introduction to Internal Medicine – Physical Diagnosis”, and he was the first to teach the course in reading ECGs. Prof. Rosalie Bar said that Prof. Valero “was an outstanding doctor, an exceptional clinician, introverted and modest, who ran his department primarily by being a role model. He was an exemplar of gentlemanly patient-physician relations, as he had been taught in Birmingham.”