Nobel Laureate Albert Einstein used to play violin in a string quartet with historic Technion architect and faculty member Prof. Alexander Baerwald. In the recession after WW1, dreams of making the Technion a functioning reality were slim, and Einstein was invited to come visit the waiting buildings designed by his friend and to advise on the dream of opening a technical institute in Haifa. On that day, the Nobel Laureate and his wife planted two trees to mark the occasion. On his return to Berlin, Einstein would open and chair the world’s first Technion society – the initiation of an apparatus that would generate a century of progress, teaching and expansion as the decade by decade, the Technion could anticpate and meet the needs of a fledgling nation.
On the 100th anniversary of the Technion’s first cornerstone, Technion’s Prof. Dan Shechtman was awarded the Nobel Prize for Chemistry. He is today Technion’s third Nobel Laureate, joining Prof. Avraham Hershko and Aaron Ciechanover. All three of them follow the spirit of scientific integrity and excellence in pure research displayed by founding father Albert Einstein, to whom the Technion owes so much. Scroll down to absorb a little of the Technion’s Nobel legacy.
LOKEY PARK ~ TECHNION GARDEN OF NOBEL LAUREATES
Lokey Park – a garden of trees planted by
global Nobel Laureates at Technion City.
Technion 2011 Nobel Laureate Danny Shectman will be joining a list of Nobel Laureates who planted trees to celebrate their visit to Technion. The tradition was begun by Prof. Albert Einstein – Chairman of the first Technion Society, who planted two palm trees in 1923 in front of the Technion’s majestic first building in Hadar, Haifa.
1921: Albert Einstein initiates the Technion Nobel tradition.
Nobel Laureate Trees planted at Lokey Park and on Technion soil.
Prof. Venkatraman Ramakrishnan, UK; Nobel Laureate in Chemistry, 2009
Professor Ada Yonath, Israel; Nobel Laureate in Chemistry, 2009
Professor Linda B. Buck, USA; Nobel Laureate in Physiology/Medicine 2004
Prof. Avram Hershko, Israel; Nobel Laureate in Chemistry 2004
Prof. Aaron Ciechanover, Israel; Nobel Laureate in Chemistry 2004
Prof. Tim Hunt. U.K; Nobel Laureate in Medicine, 2001
Prof. Kurt Wüthrich, Switzerland; Nobel Laureate in Chemistry, 2002
Prof. Günter Blobel, USA; Nobel Laureate in Medicine, 1999
Prof. Ferid Murad, USA; Nobel Laureate in Medicine, 1998
Prof. Jean-Marie Lehn, France; Nobel Laureate in Chemistry, 1987
Prof. David Gross, USA; Nobel Laureate in Physics, 2004
Prof. Elie Wiesel, USA; Nobel Laureate in Peace, 1986
Rita Levi-Montalcini, Italy; Nobel Prize in Physiology or Medicine, 1986
Albert Einstein, Germany/USA at old site; Nobel Prize in Physics, 1923
Technion’s Nobel Laureates in Chemistry – Collect the stamp, and watch this space for a New Nobel Edition!
ISRAEL POST – INTERNATIONAL YEAR OF CHEMISTRY 2011
Technion Prof. Ehud Keinan, President of the Israel Chemical Society, had the vision to celebrate the international year of chemistry in a manner suited to the world-class position of Israel’s three Nobel Laureates in science. With determination and application, he engineered the release of official stamps celebrating the Year of Chemistry, and Israel’s Nobel Laureates.
Ubiquitin
Why our proteins must die so that we may live
Proteins are the machines that drive our bodies. They are responsible for all our activities, from the beating of our hearts, to walking, seeing, hearing, digestion, respiration and even the secretion of waste materials. Unlike useful items that surround us, like furniture and clothing, our bodies’ proteins are dynamic. They are constantly being destroyed and rebuilt, again and again. Our bodies destroy on a daily basis up to 10% of our proteins and generate new ones instead. This phenomenon raises interesting questions: why does this process occur at all, and how does it occur? Which diseases would happen if this mechanism was to fail? How can we cure such diseases? As part of the body’s quality control mechanism, proteins are destroyed after fulfilling their specific function in case they have been damaged by heat, by pollutants, by genetic mutation, or simply because they are no longer needed. Professors Aaron Ciechanover and Avram Hershkoof the Technion – Israel Institute of Technology, and Irwin Rose of the University of California, Irvine, USA, were jointly awarded the 2004 Nobel Prize in Chemistry for discovering the mechanism that removes damaged or unnecessary proteins. These proteins are labeled for destruction by another small protein called ubiquitin, whose general structure is shown on the stamp. The structure was adopted from W. J. Cook and his coworkers, the Journal of Molecular Biology, 1987. Once tagged by this “kiss of death” the labeled proteins are removed by a biological shredding machine called the proteasome, while sparing healthy, untagged proteins. Aberrations in this protein destruction process may result in numerous sicknesses, including certain types of cancers and brain diseases. Many pharmaceutical companies are working to develop drugs to combat such diseases. One such drug to treat multiple myeloma, which is a form of blood cancer, is already used clinically.
Ehud KeinanProfessor of ChemistryTechnion – Israel Institute of Technology,President of the Israel Chemical Society,Editor in Chief, Israel Journal of Chemistry,Chairman of the Chemistry Committee,Ministry of EducationDr. Joerg Harms of the University of Hamburg isacknowledged for the ribosome graphics.
Technical Details:
Issue: January 2011Design: Haimi KivkovitchStamp Size: 30 mm x 40 mmPlate nos: 823 (two phosphor bars)824 (two phosphor bars)Sheet of 15 stamps, Tabs: 5Printers: Joh. Enschede, The NetherlandsMethod of printing: Offset
“His discovery was extremely controversial. In the course of defending his findings, he was asked to leave his research group… However, his battle eventually forced scientists to reconsider their conception of the very nature of matter… Scientists are currently experimenting with using quasicrystals in different products such as frying pans and diesel engines.”
The Nobel Committee at the Royal Swedish Academy of Sciences
Dan Shectman in 1983, shortly after his discovery
Dan Shechtman in 2010…
still unravelling the implications.
“This is the Israeli spirit. Sometimes this leads to chaos; but free thinking encourages successful scientists. We are living here in a free society… many of us do not follow the rules, and this is part of the national character of a free-thinking people.”
In 1906, 105 years ago, Dan Shechtman’s grandparents came from Russia to Israel . His grandfather, he recalls, was one of the leaders of the Labor Movement. He set up a printing house. “It was the time of the 2ndAliyah,” Shechtman told international press in Jerusalem this week, “Ninety percent subsequently left but the ten percent who stayed made Israel into the great country it is.”
Dan Shechtman was born in Tel Aviv on January 24, 1941. “I went to a youth movement – HaShomer Hatzair. In 1959, I started my military service – it was 2.5 years then. During which, I met my future wife. Then I went to Technion to study engineering. It was the dream of my life. I thought it was the best thing a man could be. I read a book in my youth by Jules Verne, The Mysterious Island. There was a character, Cyrus Smith, who could do everything. He was an engineer, and I wanted to be like him.
Shechtman received his BSc, MSc, and PhD from Technion in 1966, 1968, and 1972, respectively. He joined the Technion Faculty of Materials Engineering in 1975, and was made Distinguished Professor in 1998. He holds the Philip Tobias Chair in Material Sciences, and heads the Louis Edelstein Centre for Quasicrystals. “In 1975, I was offered a position at Technion. I was made a Distinguished Professor – there are some 7 and 3 of us are Nobel laureates.”
Dan Shechtman discovered the Icosahedral Phase in 1982. It is the first structure in the field of quasi-periodic crystals, and was discovered in aluminum transition metal alloys.
He instigated the course Technological Entrepreneurship in 1986, referring to it as “my baby,” and has overseen it annually ever since. The course is offered in the winter semester each year and comprises 14 guest lectures, some of which are inspirational talks delivered by successful Israeli entrepreneurs. Shechtman is invited to lecture worldwide about the Technological Entrepreneurship course, arousing much interest. He considers himself a missionary, “I coordinate the course with pleasure. I do it for Israel.”
“This is the Israeli spirit. Sometimes this leads to chaos; but free thinking encourages successful scientists. We are living here in a free society… many of us do not follow the rules, and this is part of the national character of a free-thinking people.”
Between 2001 and 2004, Shechtman served as chairperson of the sciences division, Israel Academy of Sciences and Humanities. Now as a member, he continues to oversee the translation of the Nobel Prize scientific posters into Hebrew, and their annual distributes to schools throughout the country.
Shechtman has been voted as an outstanding lecturer by his students at the Technion for ten years consecutively. He is married and lives in Haifa. He has four children and nine grandchildren.
Shechtman with his family after the spontaneous press meeting at Technion (Oct. 5th, 2011).
Wolf Prize in Physics, “for the experimental discovery of quasicrystals which inspired the exploration of a new fundamental state of matter”; Honorary Member of the Israel Crystallographic Association 2000
EMET Prize for Science, Art and Culture, “for his pioneering contribution to the discovery of quasicrystals which revolutionized the understanding of solid state science” 2004
Honorary Member of the Japan Institute of Metals “in recognition of his outstanding contributions in the field of metallurgy and materials science” 2007
International Symposium: Quasicrystals – The Silver Jubilee, Tel Aviv
(Nobel Laureate in Chemistry Distinguished Prof. Dan Shechtman).
“Do not consider it proof just because it is written
in books…”
Maimonides (attributed)
“His discovery was extremely controversial. In the course of defending his findings, he was asked to leave his research group… However, his battle eventually forced scientists to reconsider their conception of the very nature of matter… Scientists are currently experimenting with using quasicrystals in different products such as frying pans and diesel engines.”
The Nobel Committee at the Royal Swedish Academy of Sciences
Dan Shectman’s discovery of Shechtmanite (Quasicrystals) on April 8th, 1982 changed our understanding of the material world forever. The breakthrough led to the a plethora of new materials and signalled the end of the scientific belief of condensed phase materials concerning symmetry restrictions. Recognition of the new form of matter required personal stamina, thorough proof and the endurance of ridicule on behalf of the scientist.
Shechtman was the first to observe the icosahedral phase in rapidly solidified aluminum transition metal alloys, which opened the field of quasiperiodic crystals as an area of study in materials science. This new form of matter – known as quasicrystals, or Shechtmanite – introduces unique and remarkable crystallographic and physical properties, embodying a novel kind of crystalline order.
Shechtman’s findings demonstrated a clear diffraction pattern with a fivefold symmetry. The pattern was recorded from an aluminum-manganese (Al-Mn) alloy which had been rapidly cooled after melting. Quasicrystals’ structure can be understood through the mathematical theory of tiling.
At the time, most of his colleagues ridiculed Shechtman’s discovery and his paper with Ilan Blech was rejected for publication. In November 1984, Physical Review Letters published Shechtman’s discovery in a scientific paper co-authored 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.
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, hundreds of materials are known to exist with the structure that Dan Shechtman discovered. Every year, a number of national and international conferences are held on this subject.
Over 40 scientific books have been dedicated to Shechtmanite, or quasiperiodic crystals, and in many other books, the chapters dealing with crystallography have been updated. In wake of the discovery and its proof, the International Society of Crystallographers has changed its basic definition of a crystal, reducing it to the ability to produce a clear-cut diffraction pattern and acknowledging the possibility of the crystallographic order to be either periodic or aperiodic.
October 5, 2011 – Distinguished Professor Dan Shechtman of the Technion-Israel Institute of Technology won the Nobel Prize in Chemistry. Of the five Israeli scientists to have ever won the Nobel Prize, three are Technion professors.
Prof. Shechtman, of the Technion’s Department of Materials Engineering and holder of the Philip Tobias Chair in Materials Science, won the award for his 1982 discovery of Quasicrystals, an entirely new form of matter with a structure that scientists previously thought was impossible.
Israel’s President Shimon Peres called Prof. Shechtman to congratulate him: “I salute you, you gave the people of Israel a wonderful gift. This is a great day for Haifa, a great day for the Technion.”
“That an Israeli has once again been awarded a Nobel Prize is a mark of distinction for Israeli science in general and for the Technion,” said Technion President Peretz Lavie. “And the fact that this is the third Nobel Prize in Chemistry for Technion researchers in eight years is a clear indicator of the world-class research being done here.”
The Royal Swedish Academy of Sciences said Shechtman’s discovery fundamentally changed the way chemists look at solid matter. It initially faced strong objections from the scientific community.
Since then, Quasicrystals have been produced in laboratories and a Swedish company found them in one of the most durable kinds of steel, which is now used in products such as razor blades and thin needles made specifically for eye surgery, the Nobel citation said.
Scientists are also experimenting with using Quasicrystals in coatings for frying pans, heat insulation in engines, and in light emitting diodes (LEDs).
On April 8, 1982, when Shechtman first observed crystals with a 10-point pentagonal symmetry in the NBS laboratory in Maryland, crystallography had long been considered a “closed field” promising no revolutionary breakthroughs. Shechtman’s groundbreaking quasiperiodic structure was first described in Physical Review Letters in 1984, marking the birth of a new scientific field of Quasiperiodic crystals.
The scientific community, led by two-time Nobel laureate Linus Pauling, rejected Shechtman’s findings, but in 1987, the pattern which had previously been considered contrary to the laws of nature was observed with the help of the electron microscope.
More than 40 scientific books have been dedicated to Quasiperiodic crystals, and hundreds of materials are known to exist with the structure discovered by Shechtman. In the wake of his discovery and its proof, the International Society of Crystallographers changed its basic definition of a crystal.
Prof. Shechtman’s Nobel Prize follows many other prestigious awards including the Aminoff Prize from the Royal Swedish Academy of Sciences (2000), Wolf Foundation Prize in Physics (1999), Israel Prize in Physics (1998), Weizmann Prize in Science (1993), Rothschild Prize in Engineering (1990) and the International Award for New Materials of the American Physical Society (1987). He is a member of the Israel Academy of Sciences and the U.S. National Academy of Engineering.
Receive $20,000 & go on to the finals to be held in November in the U.S.
A team from the Technion won first place in the European entrepreneurship competition “Intel Challenge” and will participate in the finals of the world championship to be held in November in the U.S. The group reached the final round in the “BizTECH” competition held a few months ago in Israel with their venture that allows, as they put it, anyone taking a picture “to get a perfect photograph by pressing one button, without having to be an expert in photography and without needing to take the picture more than once.”
Yaron Ratcher, Polina Federman, Avner Bar and Aviv Gadot are the members of the Technion team. Yaron is a computer science major, Aviv is an electrical engineering major, Avner graduated with a degree in computer science and Polina graduated from the Faculty of Industrial Engineering and Management. The idea for their venture emerged from the entrepreneurship course given by Prof. Uzi De-Haan of the Faculty of Industrial Engineering and Management at the Technion.
“In the BizTECH competition, we weren’t quite so ready,” they say. “We were disappointed when we didn’t win but we kept going. We learned a lot from the competition, we corrected the mistakes we saw we’d made and kept going.”
180 teams from Western and Eastern Europe participated in the competition, which was held in Poland. Nine of these teams made it into the final round. The Technion team was included among the four finalists from Eastern Europe. The first place among the Western European teams was won by two young women from Denmark who applied for a patent for their development of an ozone-based sunscreen.
The Technion team immediately invested the $20,000 they won in their venture and hope that this is only the beginning.
In the picture (from right to left): Polina Federman, Avner Bar, Yaron Ratcher, Aviv Gado. Photo by: Technion Spokesman
The experiment proved that Covert enforcement is the most effective method & preferred also by the police
The motorcycle unit also proved its worth & it will, therefore, more than double in size: from 45 heavy motorcycles to 100
The undercover enforcement method is the most effective and policemen and women also prefer it, so it appears from an experiment run by the Research, Information and Development Bureau of the Traffic Division of the Israel Police.
The results of the experiment, “Spring Spirit” as it was called, were presented today at a conference held in the Faculty of Civil and Environmental Engineering at the Technion, on the subject of: Current research in the area of traffic safety and implementation in Israel. Chief Superintendent Iran Feinmessar, head of the bureau, said that the experiment ran for five months and ended at the end of July this year. The experiment tested different operational methods used by the national traffic police and was run in different police districts around the country. It included, among others, switching overt police units with covert ones and increasing the motorcycle units as well as helicopters. The Tel Aviv, Jerusalem and Arava districts were used as control groups and no changes were made there.
The main conclusion of the experiment – covert enforcement is the most efficient. Additionally, the heavy motorcycle unit proved its worth and will, therefore, be more than doubled – from 45 motorcycles to 100. Chief Superintendent Feinmessar reported that the police have also begun operating undercover heavy motorcycle teams. “It will be interesting to see drivers’ reactions when they realize that the motorcycle riding alongside them is not what they thought it was,” he said.
Another experiment that the Research Bureau ran was in stationing volunteers in reflective vests at dangerous intersections. The volunteers just stood at the intersections, did not hand out fines or make comments to pedestrians or drivers that crossed the intersection. The result of their standing in the intersection wearing the reflective vest – a decrease in the number of cars that crossed the intersection on a red light down to zero and a drop to half in the number of pedestrians who crossed the street when the light was red.
The conference was organized by the National Road Safety Authority, the Transportation Research Institute and the Ran Naor Center for Road Safety Research at the Technion, headed by Prof. Shlomo Bechor.
Generating energy by working out at the gym, checking real-time energy consumption & exploiting Technion’s position on the slopes of the Carmel
Green dynamo – exploiting the potential difference in water flow;
Energy screen – displaying data about energy conservation;
Fitness club – exploiting energy generated by working out.
These are the three submissions that won the first-of-its-kind competition held at the Technion on the subject of energy conservation. Tens of proposals were submitted to the panel of judges headed by Technion President, Prof. Peretz Lavie, and comprising Technion researchers and representatives of the Israel Electric Company. Of the 13 submissions that made it to the final round, three won.
Green dynamo – The submission by student Philip Auchman, of the Faculty of Mechanical Engineering, won first prize. He proposed exploiting the Technion’s surplus water pressure, which is high thanks to the Technion’s position on the slopes of the Carmel Mountain. “By using a simple device, a type of turbine that penetrates the pipe and rotates a dynamo, we can create energy,” he explains. “Because of the steep slope on which the Technion is situated, wide use is made of pressure reducers, and in my opinion, we can exploit this pressure to generate energy.”
Noam Berkovitz, from the Technion’s Computerization and Information Systems Division, won second place with his proposal to place “energy screens” around the campus. These screens would display information about the real-time energy use in each building and even warn about energy over-consumption.
Doron Laor, a student in the Faculty of Mechanical Engineering, won third place. He proposed using the energy produced by users of the Technion’s fitness club to generate energy. “People in the fitness club burn calories and we can exploit their activities to generate energy,” he says. “For example, all the runners or walkers on the different apparatuses can generate energy by their activity, which can operate the air conditioners.”
Itzik Romano, the Technion’s electrical engineer, said that ten divisions in the institute had managed, over the past four years, to save over five million shekels worth of energy and additional faculties are set to join the Technion project to save energy. “The competition that we held is one more step in our efforts to save energy and increase awareness about saving,” he emphasizes.
The competition was held in cooperation with Tal Goldrath and the Technion’s “Green Campus” team, the Samuel Neaman Institute, and the Israel Electric Company.
Executive Vice President and Director General of the Technion, Dr. Avital Stein, who awarded the prizes to the three winners, said that not for nothing is the Technion known worldwide for the creativity of its students and graduates, and the winning submissions are further proof of this.
Above: The three winners (sitting, right to left): Noam Berkovitz, Philip Auchman, and Doron Laor. Standing (right to left): Tal Goldrath (coordinator of the “Green Campus”), Dr. Avital Stein, Itzik Romano, and Beni Cohen, head of the Department for Energy Efficiency in the Israel Electric Company. Photo by: Yoav Bechar, Technion Spokesman.
Consider Israel. According to data on NASDAQ’s website, Israel has more companies listed on the NASDAQ stock exchange than any other country in the world except the U.S., and major companies such as Intel, Microsoft, IBM and Google have major research and development centers in Israel. Why? If you look at the data, you see a correlation between this entrepreneurial activity and the investments in and outputs from Israel’s universities.
Israel is among a handful of nations with the highest public expenditure on educational institutions relative to GDP, and it has the highest rate of R&D investment relative to GDP in the world. It also has the highest percentage of engineers in the work force and among the highest ratio of university degrees per capita. Many of the companies listed on NASDAQ were started by graduates of Israel’s universities: Technion, Tel Aviv University, Weizmann Institute and Hebrew University of Jerusalem, to mention a few. Do international university rankings capture these economic impacts from research and postsecondary education in Israel? The answer is no. In spite of their tremendous impact and output, Israel’s universities are ranked somewhere in the 100 to 200 range.
Dr. Guy Ankonia at the Joint GTEP & RBNI Photovoltaic Laboratory
Our collective will to power Formed through an alliance of Technion’s most dynamic multidisciplinary programs, the PVlab is helping scientists unleash the power of the sun to generate tomorrow’s much-needed energy.
This is not a solar luxury to save cash on fuel bills. Global scientific experts agree that with depleting oil reserves and astronomical increases in world population, the quest for new energy sources is vital to keep our world safe, and that solar power is in first place as the energy supplier of the future. Photovoltaic cells are used in solar panels across Israel to heat water. However, scientific investigation is still needed to optimize the use of different types of silicon within the cells, for mass production of electricity. Bringing energy know-how and expertise in the nano dimension together, the Grand Technion Energy Program (GTEP) and the Russell Berrie Institute of Nanotechnology (RBNI) are combining strengths in the new photovoltaic initiative. Thelabgives Israeli researchers from industry and academia the basic and advanced tools for the fabrication and characterization of photovoltaic devices. “Here, there is the freedom to explore what you think is right – in order to gain knowledge,” sayslabmanager Dr. Guy Ankonia. “Scientists can explore all frontiers ofPV… what was not known becomes known. Technion is a great place to do the research. You have the tools, the capabilities to explore, and the freedom.”
Attention PV Researchers from Industry and Academia! The Following facilities are available:
Technion student ingenuity wins 1st prize for Maglev car.
“Studying at the Technion has made me realize I can learn and create almost anything.”
Alert to future need: graduate student in civil engineering Erez Horev.
Cars that use magnets to hover through the air could sound like science fiction, or the fantasy of children. But since the success of high-speed Maglev (Magnetic levitaton) trains in Japan, there is reason to dream. Having worked in Israel’s transport system, Technion student Erez Horev is determined to explore the science that could make Maglev transport part of Israel’s future – dramatically saving energy and reducing environmental damage.
Although he is a graduate student in civil engineering, Erez Horev heard of the competition at the Technion Autonomous Systems Program and seized the moment. For months in his spare time he had been working on his Maglev car, and although his supervisor saw it as “too futuristic” for a full-time research project, Horev (like his name-sake former Technion President and global leader in engineering Amos Horev), he doesn’t give up.
The first prize, won together with another project in which a toolbox follows it’s owner around, won the attention of Israel’s national media. The idea first came to Horev when he was working on Israel’s new fast pay-road Highway 6, and later on the new light rail project in Haifa. The car operates normally but has six magnets attached to underside. When it enters the magnetic highway, the system is activated. “With this system, you could live in Italy and work n Germany and commute the whole distance in 50 minutes,” says Horev. “The car will go at 400 mph and the driver can go to sleep.”
In ordinary vehicles, 99% of the energy is used to overcome the friction between the wheels and the road. In the Maglev car, the friction is so minimal that it would lead to enormous savings in fuel. The system simulates a magnetic toll road for private vehicles. “Because of the high speeds that can reach them using this technology, the project could compete not only with existing toll roads, but even with domestic flights and trains,” says Horev.
Prize-winning Maglev car prototype “floats” above road surface at high speed.
“At the Technion, studies are always multidisciplinary. Although I study civil engineering, we also delve into physics, mathematics, organic chemistry. Studying at the Technion has made me realize I can learn and create almost anything.”
One can’t help think about Technion graduate Shai Agassi who presently launching his exemplary electric car system and infrastructure in Israel through his global company Better Place. A man who dares to dream and has the practical penchant for problem-solving and determination to see a project through, Horev admits that Agassi is in himself a template for Technion students.
“Every day is a new day,” he smiles, “Today, there is little research in the field of maglev. It is seen as too futuristic. But I will go on implementing the idea in my space time. I want to address a huge demand for governments and companies to invest in research and development of new transportation methods and efficiency, since citizens are tired of spending more than two hours in endless traffic jams. This issue is close to my heart, and I’m going to go with it to the end.”
To enhance their research, the Technion established theTechnion Autonomous Systems Program(TASP), the only one of its kind in Israel, and the scientific home for dozens of advanced researchers from many faculties.
The Technion “Technobrain” Competition Opens
The world’s longest yo-yo will be released from a 30 m high crane
As part of Technion’s traditional “Technbrain” competition, students will compete against each other by releasing the world’s longest yo-yo from a 30 meter high crane. The yo-yo will have to run back up a 20 meter long rope, to its maximum height and then drop down again and run up a number of times to a minimum of over 5 meters. A team of judges will measure the maximum height the yo-yo reaches on its first ascent after release from the crane and the number of times it loops up and down.
The crane will have a compartment in which the yo-yo will be placed. The compartment’s floor will open and the yo-yo will be released downward. Competitors are not allowed to use an external energy source and the dynamic rope will be supplied to them by the competition organizers. Winners will receive 10,000 ₪, 5,000 ₪, and 3,000 ₪ (1st, 2nd and 3rd places, respectively).
The “Technbrain” competition is held at the Technion in memory of Neev-Ya Durban, who first envisioned and thereafter established the competition, and was a student and outstanding Technion graduate. Neev-Ya was an officer in the IDF when he was murdered during a mugging on a quiet street in Tel Aviv in March 2003. The competition and the prizes are funded by Dr. Robert Shillman (who everyone knows as “Dr. Bob”), who did his graduate work at the Technion.