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MIT expert helps promote synthetic biology at TAU

Prof. Christopher Voigt of MIT visits TAU to talk to researchers and set up new collaborations for grad students

Living organisms are amazing feats of engineering: By following instructions encoded entirely in DNA, living systems can sense and respond to their environment, build intricate structures and materials, and churn out complex chemicals. How these abilities are encoded is undeniably complicated, but figuring out how to embrace this complexity is at the heart of synthetic-biology.

Dr. Johann Elbaz, an Assistant Professor at Tel Aviv University’s Department of Molecular Microbiology and Biotechnology, organized the first professional visit to Israel of  Prof. Christopher Voigt, MIT biological engineer and co-director of MIT’s Synthetic Biology Center. Located in Cambridge, Massachusetts, the Voigt lab is taking on the enormous task of designing, fabricating, and testing large sequences of DNA—20,000 bases long and more-at never-before-seen scales. It’s created software that automates the design of DNA circuits for living cells.  The aim is to help people who are not skilled biologists to quickly design working biological systems.

 

Chris Voigt (Forth person from left) and Johann Elbaz (Fifth person from left) with the iGEM team at TAU at Tel Aviv University

Prof. Voigt gave an impressive talk at Tel Aviv University as a special seminar at the School of Molecular Cell Biology and Biotechnology, attended by researchers and students from different parts of the TAU campus as well as other universities. Prof. Voigt was a special guest of Dr. Elbaz, who came to help accelerate the development of synthetic biology in Israel, both academic and industrial.

During the visit, a collaboration was initiated between the Elbaz lab, a synthetic biology lab that specializes in applications within living nanomaterials and living sensors, and the center at MIT. This collaboration envisions the acceleration of graduate student exchange between MIT and at TAU, while further developing the field of synthetic biology in Israel.

The “equipped kitchen” approach to biology

“The grand vision of the Synthetic Biology is to tie everything together: the design, the building, and the testing,” Elbaz says. “Rather than refining a recipe over many years by preparing one dish at a time, a better approach is to equip a kitchen capable of making thousands of different recipes simultaneously, each with slightly different ingredients, cooking times, or other alterations. This allows for the study of the entire set together, to find common aspects between the best and worst results as a means of arriving at the perfect recipe. Such capability will accelerate the development of unique applications such as molecules and materials, extending what we can do through pure chemistry to smart agriculture and medicine that sense their environments and proceed accordingly to repair damage.”

All of these sound like far reaching applications. Could we really use synthetic biology to engineer living organisms? “Ultimately, we want to be able to design living systems at a complexity and a level of sophistication that we know is possible but we just don’t have the capability to do yet,” Elbaz concludes.

Featured image: Johann Elbaz (left) and Chris Voigt (right) in Jerusalem

Are two brains better than one?

In scientific research, sometimes 1 + 1 equals more than 2

What do scientists need to become a winning team? Is it true that the opposites attracts? Or is it that research based on a rivalry brings about the best results? Let’s look at some of the famous scientist pairings that, if they’d hadn’t known of each other, might not have given the world their amazing discoveries, ideas, and inventions that have changed our lives profoundly.

Didn’t go with the flow

Thomas Alva Addison and Nicola Tesla were both great inventors of the 19th century, who brought about revolutionary technological changes and made our modern life possible. Tesla was a talented physicist and electrical engineer who emigrated from the Austro-Hungarian Empire to the United States and was nicknamed the “Wizard of the West.” He found his first job with businessman Edison, known as “The Inventor from Menlo Park”. The two collaborated to promote the use of electrical systems, and after a while parted in anger after Tesla claimed that he had not received the promised compensation for his work.

A few years later, when Edison tried to market his electric bulb, he also developed an electric grid based on direct current and competed for the opportunity to build a power plant that would supply electricity to the entire eastern coast of the United States. Tesla, who developed the alternating current with industrialist George Westinghouse, thus became a direct rival of Edison, not to mention his enemy, overnight.

“So began one of the most powerful technological wars mankind has ever known – the war of currents,” says Prof. David Mandelowitz of the School of Electrical Engineering at the, Iby and Aladar Fleischmann Faculty of Engineering at Tel Aviv University. “When Tesla joined George Westinghouse, this war went beyond the technological aspect and also spread to the realm of commerce.”

Edison tried to brand the invention of his rival as a tool of murder, more suitable to executions in the electric chair than household appliances, but the move didn’t succeed. The war of the currents between the two ended when Edison was at a disadvantage, and the Tesla power station successfully supplied electricity to the entire East Coast. “In 1893, when the President of the United States activated the main lighting fixture in the city of Chicago, the victory of Tesla and Westinghouse was determined,” says Prof. Mandelowitz. “The rivalry between Tesla and Edison is now a parable for a pair of researchers whose technological dispute became a personal and economic war, which shocked the global research community.”

While working together, they promoted the invention of the Dynamo, invented by Edison, but it seems that when they worked against each other, they worked harder, causing us all to benefit. From the straight current we get batteries, and from alternating current – household and industrial power consumption. Both kinds of current benefit fans of heavy metal rock bands, especially the band AC/DC, who are named after the sign that symbolizes both types of currents and appears on electrical installations.

Philosophy, love, religion and Zionism

No screenwriter could think of more interesting plot twists than those of Hannah Arendt, one of the most important political philosophers of the 20th century. Her work and life were influenced by her ambivalent relationship with the State of Israel, with Zionism and with her married lecturer Martin Heidegger, who later became her lover and an activist in the Nazi regime.

Arendt met Heidegger as a young student, when he was already an admired professor, who was married, at the University of Marburg in Germany. A passionate romance developed between the two, interrupted by the Nazis’ rise to power in 1933, when Arendt left Germany. “Martin Heidegger is, in the eyes of many, one of the great German philosophers or great philosophers in the twentieth century,” says Prof. Joseph Schwartz, head of the School of Philosophy, Linguistics and Science Studies at the Lester and Sally Entin Faculty of Humanities. “At the same time, he’s a very controversial philosopher, both because of his work and, in particular, because of his active involvement in the Nazi regime. Hannah Arendt, also one of the great philosophers of the twentieth century, mostly acquired that status after World War II when she lived in America, to which she had to emigrate when she fled Germany after the Nazis came to power.”

Arendt never hid her Jewishness and was arrested because of her opposition to the right-wing regime in her homeland, and later lost her German citizenship. On the one hand, she was a political activist and investigated anti-Semitism in Germany, was considered close to Jewish intellectuals and promoted immigration to Israel, and on the other hand she didn’t turn her back on those who favored the murder of her people. She had a complex relationship with the State of Israel, which became particularly tense in light of her review of the Eichmann trial and the publication of her controversial book “Eichmann in Jerusalem – A Report on the Banality of Evil.”

The connection between Arendt and Heidegger resumed at the end of the war. “In the coming decades, Arendt is going to significantly advance Heidegger’s thought in English and in the United States, and there is no doubt that she helped raise his status internationally, and that impact still holds to this day. The letters the two exchanged were published and translated into Hebrew, and beyond gossip about the relationship between a professor and a student – they contain mainly fascinating philosophical discourse between two great philosophers, who saw themselves as philosophers first.”

Over the years, in the various articles Ardent published in the field of existential philosophy, she referred to Heidegger’s views, and even if she criticized them, she never denounced him. Heidegger’s diaries from the period of World War II (“The Black Notebooks”) were recently published, and they only emphasize how Nazi ideology combined with his philosophy. Arendt’s conduct regarding the identity of the State of Israel and Heidegger has raised heated debates in academia and beyond.

A combination of factors that led to the Nobel Prize

The fascinating pair of researchers Maria Skolodawska from Poland (later Marie Curie) and Frenchman Pierre Curie’s passion for mathematics, physics and chemistry came from their individual passions. Each of them established his position in the field of physical and chemical phenomena, but the combination of their forces in the research on radiation and radioactivity led to a joint win of the Nobel Prize in Physics.

As a woman, Maria had to work harder. Many doors were closed to her in her native Poland during her years of developing a career as a gifted physicist and chemist, which began at the end of the 19th century. But it seems that all of this only made the young Marie a pioneer in many ways: she completed two degrees in chemistry and physics at the Sorbonne in Paris after her request to study at the Polish University was rejected due to the political inclinations of her family. She was the first woman to teach in this respectable institution after she was appointed professor of physics. She also broke the glass ceiling as the first woman to win the Nobel Prize, and did it again eight years later when she won it again, this time in chemistry. In fact, she is one of the only two people in history to have won the prestigious award in two different fields.

When they met, Pierre Curie was an instructor at the School of Physics and Chemistry in Paris, and Maria Skolodawska was a young scientist. “Pierre’s achievements in his doctoral work (magnetism, pyroelectricity, piezoelectricity) gave him a very distinguished name, along with his brother Jacques, who contributed to the study,” says Dr. Israel Hayim Shek of the Raymond and Beverly Sackler Faculty of Exact Sciences. “Marie (who changed her name when she emigrated to France) becomes Pierre’s assistant in his lab and soon became a full partner in laboratory research and theoretical work.” The two found a great common interest in the study of radioactive materials, and their discoveries brought them together both professionally and personally. They married in a secular ceremony and devoted their lives to the study of radioactive materials.

“A great expertise in chemistry and physics, along with a sharp, analytical perspective, and a lot of dirty work and determination go into their discoveries, in the face of frustrations, disappointments, a lack of budgets, a shaky economic situation. But they invest everything into science,” Dr. Shek says. In 1898, after years of refining uranium ore, they identified two new chemical elements.

The first is called Polonium, named after Mary’s homeland, and the second is Radium, named after the Latin word “radius”, meaning “ray of light,” as it glows in the dark. In the same year their first daughter, Irina, is born. In 1904, a year after receiving the Nobel Prize, their second daughter, Eva, was born, and the Curies raised their two daughters on informal education, exposing them to the principle science and scientific research, along with things like learning Chinese, sculpture, self-expression and play.

In 1903 they, along with Henri Beckerle, received the Nobel Prize in Physics for their research, and in 1911 Marie again won the prestigious award, this time in the field of chemistry, in recognition of the discovery of these two elements.

“One of the questions people tend to ask is whether Marie Curie would have been able to achieve her great success without her husband’s help, or would Pierre have succeeded in finding his discoveries without Marie as an assistant? It’s difficult, of course, to answer conclusively. But there is no doubt that beyond the romanticized aspects (a foreign woman, poverty, marriage, hard work under pressure), the joint work of the couple pushed them both forward, far beyond what might have happened if they had not cooperated, and had it not been for the mutual respect that they felt for each other,” says Dr. Shek and concludes “Perhaps without Pierre’s recognition of Mary’s great abilities and uncompromising push, her work would not have been possible in the atmosphere of the conservative society at that time.”

It is believed that Mary paid for her many years of research. She died at the age of 66 from a pre-leukemic syndrome caused by her exposure to these dangerous substances for many years. Pierre had been killed earlier in a fatal car accident, in their tenth year of marriage, when Marie was accepted as a full professor at the Sorbonne. The pair of researchers was immortalized by the scientific community. The unit measuring radioactivity used to be named “curie” in their honor, as was the radioactive element curium.

 

A match made in Megiddo

How the chemistry between archaeology and physics researchers led to groundbreaking discoveries about biblical history

Sometimes when you’ve stopped looking for a solution is exactly when it pops up. Israel Finkelstein, Jacob M. Alkow Professor of the Archaeology of Israel in the Bronze and Iron Ages, Sonia and Marco Nadler Institute of Archaeology, discovered a very interesting finding in 1998, at the archaeological excavation of Megiddo. He noticed a dig participant who did not quite fit the profile of a typical university undergraduate. 

“I sniffed around and learned that this particular student was actually a TAU professor flying under the radar. He turned out to be a very important ‘find,’” smiles Finkelstein. That student, incumbent of the Wolfson Chair in Experimental Physics Eli Piasetzky, Raymond and Beverly Sackler Faculty of Exact Sciences, was pursuing a degree in archaeology. Prof. Finkelstein pulled him aside to talk, and so began a research partnership that is still active two decades later.  

When were early Biblical texts written?

The archaeological issue of the day was mapping the chronology of the Iron Age in ancient Israel. Finkelstein challenged Piasetzky to improve the dating of remains from biblical times by using the radiocarbon method. The findings, published in professional and lay publications worldwide, rendered a new timeline of ancient Israel with lasting ramifications for biblical studies.

“Until then, the dating of texts was based on Biblical considerations,” explains Prof. Finkelstein, adding, “You can say that Biblical history was the path of the researchers, and archeology was used as a tool to prove the Bible stories were true.” He said. His article caused an uproar among researchers around the world, and he realized that he needed a more accurate dating tool and a talented mathematician to help him. Prof. Finkelstein presented his friend with a challenge – to accurately date the findings discovered in the excavations and to prove his claims.

Using the radiocarbon dating method on hundreds of items collected and tested, Prof. Piasetzky and Prof. Finkelstein presented a new and more accurate timeline in the history of ancient Israel, which was published in the New York Times, and had long-term implications for the study of the Biblical period since then.

 

The excavation site at Tel Megiddo, where it all began

Algorithms for reading ancient inscriptions

Prof. Piasetzky and Prof. Finkelstein continue their quest to reconstruct ancient history. As reported by The New York Times, they are conducting analyses to help better decipher ink inscriptions on potsherds, known as ostraca that were unearthed at an ancient fortress in the deep desert of Arad in southern Israel.

“The citadel of Arad stands like a time capsule: Active about 2,600 years ago, it was a relatively short-lived, godforsaken outpost, a five-day journey from Jerusalem, populated by maybe 30 soldiers,” describes Finkelstein. “Who inscribed the potsherds found there? Who read them? The ostraca teach us about government and about literacy in ancient Judah. If we determine when writing became a tool used by a wide swathe of society, we can shed light on when early Biblical texts were written.”

A shopping list from thousands of years ago

Prof. Piasetzky and Prof. Finkelstein have put together a team of archaeologists, historians, physicists, mathematicians, and computer scientists to analyze handwriting and determine just how many hands penned the Arad ostraca.

To do so, they employ physics techniques of multispectral imaging to reveal inscriptions and improve readability. Next, they compare handwriting by using algorithms specially developed by the team. What they found there was surprising: the new lines discovered were a letter requesting the issuance of wine and food from the warehouses of the Tel Arad fortress to one of the military units in the area. The recipient of the letter was the warehouse clerk, while the address was an officer from Beersheba.

Beyond the information about what people used to eat and drink during that time, the researchers revealed that even quartermasters knew how to read and write, and also learned a few new words that don’t appear in the Bible. “From the content of the letters we learn that literacy permeated even the low ranks of the military administration of the kingdom. If we extrapolate this data to other areas of Judea, and assume that this was the case in the civil administration and among the clergy, the level of literacy is considerable. This level of literacy is a reasonable background for the composition of Biblical texts,” explains Prof. Finkelstein.

Facing the future

After studying the past, Prof. Finkelstein and Prof. Piasetzky explain what can be done with these special technologies in the 2000s. “One may ask why a student of mathematics would be interested in developing tools for handwriting analysis of ancient inscriptions,” Prof. Piasetzky says. “But this type of analysis is also acutely needed today by, say, lawyers, banks, and the police. Furthermore, we’re finding solutions for the challenges of deciphering ink inscriptions found on uneven clay surfaces with faded markings and missing pieces. If our algorithms can analyze decayed inscriptions, think what they can do with modern-day handwriting on flat clean paper surfaces.”

Prof. Finkelstein adds: “With handwriting we face a problem of subjectivity. Scholars – all of us – come with preconceptions. We can convince ourselves that we see this or that particular letter. The computer does not have preconceptions. It measures length of strokes and angles, making numerical comparisons. Our next step is to integrate multispectral imaging at digs. This could dramatically improve excavation methodologies by determining on site if a potsherd is treasure or junk. One inscription can change the way we understand history.”

Featured image: Prof. Eli Piasetzky and Prof. Israel Finkelstein talk about how it all started

Inside a bat’s brain

Prof. Yaniv Assaf and Prof. Yossi Yovel are working together on a unique collection of brain scans of different mammals

It’s a chicken versus egg scenario: Does behavior build a neural network or does the design of a brain network dictate behavior? It turns out that they both influence each other.

“Evolutionary science holds that particular behaviors drives the brain to develop and evolve in a particular way. Later, brain networks may drive behavior,” explains Prof. Yossi Yovel of the Department of Zoology, George S. Wise Faculty of Life Sciences. Yovel specializes in bat echolocation – the location of objects by reflected sound – at his Bat Lab of Neuro-Ecology. 

A number of years ago he approached his former MSc advisor, Prof. Yaniv Assaf, Head of the Department of Neurobiology, with a surprising request. Yovel sought to draw on Assaf’s expertise in MRI imaging techniques to scan the brains of wild bats. Could the images show how bats’ use of sound rather than vision to navigate the world influences the development of their neural networks? “I focus on human brain imaging,” says Assaf. “Now, five years later, we have scanned over 100 species – all expired of natural causes – including many species of bats, of course,” Assaf continues with a nod to Yovel. “We use the MRI machine after hours so as not to interfere with ongoing research, and we have found that, yes, bat brain networks have highly developed aural – rather than visual – networks.”

From bats to all mamals

What began as a scientific hobby has become a scientific first. The scans, which are specially calibrated to show the design and function of brain microstructure, pathways, and networks, reveal the principles governing the mammalian brain.

“Like the internet and other computer networks, or road and transportation systems, the brain is a network. The brain’s two hemispheres are connected with fibers. Our scans show that mammals with a greater number of inter-hemisphere connecting fibers will have, inversely, poorer connectivity within the hemisphere itself and vice-versa,” says Assaf. “This information can influence how networks are constructed.”

The true story of the autistic man who inspired the film Rain Man illustrates this phenomenon: The hemispheres of his brain were completely unconnected. The local network in each hemisphere was so strong that he could perform complex computations within seconds. But the lack of connection between hemispheres affected his function and behavior. We need a mix of both for a functional, strong network.

Access for researchers worldwide

”While evolutionary scientists are certainly interested in our scans, it is mathematicians and computer scientists working on smart, efficient computer networks and artificial intelligence who are the most excited,” says Assaf.

Yovel continues, “When people hear about our project at conferences or by word of mouth, they immediately want to see our findings. But we are not yet ready. We aim to scan 10% of all mammals, which means about 500 species including those transported from abroad, which will be very costly. We need graduate students to help build the collection more quickly. We aim to create the only collection of its kind worldwide – a digital collection of scans at the Steinhardt Museum of Natural History that can be accessed by scientists around the world.”

Featured image: Prof. Yossi Yovel and Prof. Yaniv Assaf 

Conversations in the Clean Room

At the shared laboratories of the Center for Nanoscience and Nanotechnology, casual conversations between scientists can lead to breakthroughs

A chemist and a physicist walk into a clean room. No, this is not the one about how many people it takes to change a light bulb. Nor is it the one about two Israelis and three opinions. This is a true story about how two doctoral students from different fields got talking and realized that they may be able to use chemistry to solve a nagging problem in physics. “These students were the best kind – curious and open to new ideas and different ways of approaching a problem,” says Prof. Gil Markovich of the Raymond and Beverly Sackler School of Chemistry. Prof. Yoram Dagan, Raymond and Beverly Sackler School of Physics and Astronomy, nods in agreement.

Markovich and Dagan were the students’ respective PhD advisors and quickly saw the benefit of collaborating. In their research, they sought a solution to prevent damage to the surface of semiconductors – small components that control electrical current in devices such as computers and mobile phones, which damage the functioning of the devices.

For this kind of research, a particularly sterile laboratory is required. The special conditions in the “clean room” include a constant temperature of 20 degrees, 50 percent humidity, and a very powerful filter that prevents the entry of dust particles into the laboratory space and is responsible for creating a sterile work environment. These conditions are essential for the production of certain materials, especially electronic chips, which can be disrupted by something as tiny as a grain of dust.

From cell phones to thermal cameras  

The scientists are using a chemical rather than physical process to create an electrical insulating thin film the thickness of a single atom. According to Dagan, “Unlike in physics, where non-organic materials are used, we used organic compounds to get the components that create the atom-thick layer.” In the process carried out by the scientists, they heated organic compounds to the point of dissolution. Once they touch the surface, they receive additional energy and break down until the process stops on its own. “This creates only a single layer of the insulating material, because there is not enough energy to form another layer,” Dagan explains. “In a cheap and rapid chemical process, we were able to offer an alternative to complicated and costly processes, and even to achieve a better result.”

Their invention could improve microelectronics in all the devices we carry in our pockets and have in our homes by making them faster, more efficient and more compact. “This is a long-term project – an idea that may be implementable twenty years down the line. Yet exploring this basic physics problem using nano-chemistry led us to an application that can be realized today,” says Dagan.

Markovich and Dagan have teamed up with industry experts for guidance in applying their technology to improve resolution in infrared cameras used for defense and security installations. The Israel Innovation Authority (formerly the Office of the Chief Scientist) has invested in the project with a grant reserved solely for projects that have a good chance to be commercialized in Israel. “It all begins, though, with basic science. Basic science is the foundation of knowledge. When we discover new possibilities and new materials, applications can grow,” stresses Dagan.

Collaboration opens new possibilities

Markovich and Dagan share a passion for unlocking the secrets of the universe: “We are both interested in origins,” says Dagan. “Gil researches the interaction of minerals with amino acids and DNA – the original building blocks of life.  I am interested in the fundamental properties of matter and materials. I would not think up chemical approaches to physical problems by myself. Our collaboration is opening up new possibilities.” says Dagan.

“This has been a fun ride,” adds Markovich. “First, Yoram is a nice person. And I never worked on these kinds of problems before. We have ideas for cooperation on chemical ways to create new materials for quantum computing. The future is wide open.” 

Featured iage:Prof. Gil Markovich and Prof. Yoram Dagan (Photo: Yoram Reshef)

Gala Advances TAU-Austria Medical Cooperation

The Austrian Friends’ celebrate the continuing success of collaborative projects between TAU and Medical University of Vienna

Following their first gala event in November 2017, Tel Aviv University’s Austrian Friends and the Medical University of Vienna (MU) hosted their second gala dinner in Vienna, helping to raise funds for joint research projects between the two institutions. With over 200 guests in attendance, the gala celebrated the successful cooperation between TAU’s Sackler Faculty of Medicine and MU.

Dr. Bernhard Ramsauer, President of Austrian Friends, spoke of how TAU is at the heart of the Israeli high-tech innovation sector, and how it has steadily grown in stature. “This is reflected in the growing number of cooperation projects with leading academic institutions around the world,” he noted.  TAU Vice President Prof Raanan Rein also stressed the importance of international cooperation, mentioning some of TAU’s successful cooperation agreements.  

Prof.  Markus Müller, Rector of MU, and Prof. Wolf-Dieter Baumgartner, also of MU, told the audience about the longstanding collaboration with researchers at TAU decades prior to the official cooperation agreement signed in 2017, collaboration that had already yielded successful findings in medical research and clinical practice.  

Prof. Liat Kishon-Rabin, of the Department of Communication Disorders and Head of the Stanley Steyer School of Health Professions, gave a lecture on “Nourishing the Brain from Infancy with Hearing and Language Interaction.”

featured:From left: Prof. Markus Müller; Prof. Liat Kishon-Rabin; Dr. Bernhard Ramsauer; Dr. Christiane Druml, Director of the Medical Collections, MU; Prof. Wolf-Dieter Baumgartner; Prof. Raanan Rein; Alexander Gertner, General Secretary of TAU’s Austrian Friends 

Connecting through Music

TAU’s Institute for Promoting Dialogue through Music is pioneering a new tool for bringing people closer together

In Israel’s fractured society – Arab vs. Jew; religious vs. secular; Ashkenazi vs. Sephardi; Left vs. Right – there is a critical need to bring people closer together. Now, a unique institute launched at TAU’s Jaime and Joan Constantiner School of Education uses the power of music to promote dialogue in Israeli society. The Institute was initiated by TAU Governor and donor Aviad Meitar, and is being run by Israeli composer, conductor and educator Dr. Ori Leshman. 

“Music is a dialogue between composer and lyricist, between performer and audience,” says Dr. Leshman. “My vision is to use music as a kind of emotional technology tool to extend this dialogue beyond the music – to unite people from dissimilar cultural, ethnic or national backgrounds, overcome barriers, and improve society in Israel and worldwide.”

The “Music for Dialogue” (MFD method and programs were collectively pioneered by Leshman, Aviad Meitar and businessman and entrepreneur Amnon Herzig, a member of the Advisory Council of the Institute. Meitar developed a project entitled, “Music as a Tool for Conflict Resolution,” during his 2016 Fellowship at the Advanced Leadership Initiative at Harvard University.

He is a second generation member of the Meitar family, major benefactors to TAU in the fields of law, management and philanthropy studies. Meitar’s sister, Dafna Meitar-Nechmad, is co-chair of the TAU $1 billion Global Campaign.​

Mr. Aviad Meitar and Prof. Joseph Klafter (Photo: Israel Hadari)

Benefiting from TAU’s interdisciplinary campus culture, the new Institute combines music with education, psychology, brain studies, sociology, communication and data science.

It promotes research on the influence of music, with several promising studies already enriching knowledge and contributing to a more intelligent use of music to create dialogue in a wide range of disciplines, including therapeutic ones.

Additional activities include teaching; support for student ventures; conferences and workshops; grants to students with special achievements; and social projects.

How It Works

Leshman describes how, at student workshops, the MFD method breaks down barriers. Before their first weekly meeting, students enter songs that are most meaningful to them onto the website Pick-A-Music (www.pickamusic.com).,The site was conceived by Leshman as a social platform for sharing musical and personal experiences and facilitating the group activities that are part of the MFD in-depth process.

“Then, during the workshop, something amazing happens,” says Leshman. “In no time participants begin sharing intimate personal stories with one another though they never met before.” Workshop participants often surprise one another with their musical preferences and even more so with their stories. “We can see that we mustn’t judge people. They’re much more complex than we think, as are their musical identities,” he says.  

Leshman is not naive enough to believe that Music for Dialogue can solve all the problems between populations that live so close to one another but rarely interact.

“The idea is ‘let’s first get to know one another as human beings,’ and music is an amazing tool for that,” he says.

Institute founder Aviad Meitar is a TAU alumnus in law and has an MBA from Boston University Graduate School of Management. He has been Chairman of Quadrant European Beverages Ltd., the Pepsi bottler for Bulgaria, since 2007. Mr. Meitar is married with three children. He plays the French horn with various amateur orchestras.  

Featured image: From left: Dr. Ori Leshman, Mr. Amnon Herzig, Mr. Aviad Meitar and TAU President Joseph Klafter. Photo: Israel Hadari

Pure Escapism

The new Escape Room Project provides a creative way of making learning more fun

University exams are not the easiest time for students. The pressure leads to thoughts of escape – to anywhere except the test itself. TAU has now taken the concept of “escape” one step further through the Escape Room Project, a physical space that provides a hands-on and alternative way of learning complex course material.  

Escape rooms have become increasingly popular over the last decade. Groups sign up to be locked in a room and are timed on how fast they can solve puzzles, usually following a story line, that will allow them to “escape” the room and complete the game. This interactive format and team based problem-solving is exactly what appealed to TAU educators who are always searching for creative ways of making learning more fun.

The Project is run by Minducate, a collaboration between the Sagol School of Neuroscience and TAU Online— Innovative Learning Center. Last year the Project piloted three escape rooms based on four academic courses with some 250 students and staff taking part.  

From the mad hatter to the disappearing cat

This year the Project is operating an escape room called ChemX, which is based on a course in life sciences, as well as another called “Alice In Wonderland“ for courses in neurobiology, neurophysiology and neuro-anatomy.  

The escape rooms follow two fundamental design principles: they are content-rich and they pose a highly challenging riddle to the students. The game takes advantage of the whole space in the room to create a range of stimuli that work on both the mind and the senses. Student teams move from clue to clue by applying their course knowledge and when they finish – escape the room. They are then also better prepared to take the course exam.   

Guy Teichman, a PhD student at the Sagol School, describes the ChemX room narrative: “A crazy professor created a poison for which he has no antidote. His poor students, now ‘poisoned,’ must quickly find one.”

Guy stresses that the escape room is built to address complex issues that students had problems with during their studies. “In the escape room, abstract concepts become tangible, providing an additional level of understanding of the material,” he says.

The Head of the Project, Dr. Limor Radoszkowicz of Minducate, says that the project has been extremely popular with students and that registration for the slots filled up almost immediately upon opening. She stresses that the escape rooms were designed jointly by academic staff and students.

TAU-led team discovers new way black holes are “fed”

These “giant monsters” were observed suddenly devouring gas in their surroundings

Supermassive black holes weigh millions to billions times more than our sun and lie at the center of most galaxies. A supermassive black hole several million times the mass of the sun is situated in the heart of our very own Milky Way.

Despite how commonplace supermassive black holes are, it remains unclear how they grow to such enormous proportions. Some black holes constantly swallow gas in their surroundings, some suddenly swallow whole stars. But neither theory independently explains how supermassive black holes can “switch on” so unexpectedly and keep growing so fast for a long period.

A new Tel Aviv University-led study published today in Nature Astronomy finds that some supermassive black holes are triggered to grow, suddenly devouring a large amount of gas in their surroundings.

Following the light

In February 2017, the All Sky Automated Survey for Supernovae discovered an event known as AT 2017bgt. This event was initially believed to be a “star swallowing” event, or a “tidal disruption” event, because the radiation emitted around the black hole grew more than 50 times brighter than what had been observed in 2004.

However, after extensive observations using a multitude of telescopes, a team of researchers led by Dr. Benny Trakhtenbrot and Dr. Iair Arcavi, both of TAU’s Raymond & Beverly Sackler School of Physics and Astronomy, concluded that AT 2017bgt represented a new way of “feeding” black holes.

“The sudden brightening of AT 2017bgt was reminiscent of a tidal disruption event,” says Dr. Trakhtenbrot. “But we quickly realized that this time there was something unusual. The first clue was an additional component of light, which had never been seen in tidal disruption events.”

Dr. Arcavi, who led the data collection, adds, “We followed this event for more than a year with telescopes on Earth and in space, and what we saw did not match anything we had seen before.”

The observations matched the theoretical predictions of another member of the research team, Prof. Hagai Netzer, also of Tel Aviv University.

“We had predicted back in the 1980s that a black hole swallowing gas from its surroundings could produce the elements of light seen here,” says Prof. Netzer. “This new result is the first time the process was seen in practice.”

Mysterious re-activation 

Astronomers from the U.S., Chile, Poland and the U.K. took part in the observations and analysis effort, which used three different space telescopes, including the new NICER telescope installed on board the International Space Station.

One of the ultraviolet images obtained during the data acquisition frenzy turned out to be the millionth image taken by the Neil Gehrels Swift Observatory — an event celebrated by NASA, which operates this space mission.

The research team identified two additional recently reported events of black holes “switched on,” which share the same emission properties as AT 2017bgt. These three events form a new and tantalizing class of black hole re-activation.

“We are not yet sure about the cause of this dramatic and sudden enhancement in the black holes’ feeding rate,” concludes Dr. Trakhtenbrot. “There are many known ways to speed up the growth of giant black holes, but they typically happen during much longer timescales.”

“We hope to detect many more such events, and to follow them with several telescopes working in tandem,” says Dr. Arcavi. “This is the only way to complete our picture of black hole growth, to understand what speeds it up, and perhaps finally solve the mystery of how these giant monsters form.”

TAU’s Ben Luria is one of the first Israeli Rhodes Scholars

We talked to the Political Science major just before he flew to Oxford to begin his Master’s degree

What does former Canadian Prime Minister John Turner have in common with three Australian prime ministers, Bill Clinton and Ben Luria, a graduate of Political Science at Tel Aviv University? They all received the most prestigious scholarship in the academic world – the Rhodes Scholarship. Rhodes Sholars are considered “future leaders” and receive funding to study at Oxford University. The expectation is that in the future recipients will contribute to their societies and enter public life, although many have also been successful in the business world.

This year two Israelis received the Rhodes Scholarship, an honor not many Israeli students have recieved in the scholarship’s 116 year history. We are pleased to announce that this year one of them is a member of the TAU family – Ben Luria, who holds a Master’s degree in Political Science from Tel Aviv University. A moment before he packed up and went to England for two years, we asked him about his feelings and plans for the future, and also got a tip about his Spotify playlist.

Ben Luria

Ben Luria, recipient of the Rhodes Scholarship

Ben, in all honesty, did you think you’d get the scholarship when you applied?

I hoped, but I didn’t completely believe it. Seeing the high level of the scholarship required from the start, and then when I saw some of the other applicants and how impressive they were, I didn’t think I would be one of the recipients. Even in the introductory meetings with the selection committee and in the interviews themselves, I didn’t feel at any stage that I had it. But I brought my best self and my true self, my ideas and achievements but also my character, humor and honesty. Throughout the process, I made sure I was doing the best I could, and that helped to deal with my fears.

What does the scholarship mean to you? What will you be able to achieve with it that you haven’t been able to before?

Above all, it’s an amazing feeling that you know you were chosen for something like this. In my opinion, more than being a scholarship of academic ability, this is a leadership scholarship and it expresses confidence in my ability to bring about change in the future. The opportunity to study at an institution as esteemed as Oxford and to join such a distinguished family of influential Rhodes Scholars is a wonderful gift, and I hope to use the time there to learn and acquire tools that can serve me in the future and help promote change and social reform.

You were marked as a “future leader”. Where do you see yourself in ten years?

Working for the society in which I live, in the hope of being in a position of influence and leadership. It can be on the public level but can also be through the third sector or social entrepreneurship. In any case, I hope and believe that my future will be directly related to contributing to my community.

Tell us a bit about your academic journey at Tel Aviv University.

At the university I studied for a Master’s degree in Security and Diplomacy at the School of Political Science, Government and International Affairs. As part of one of my seminars, I was researched the struggle of the Persian Gulf countries against Iran and China-US relations, which is the continuation of a BA in Sociology and Communication at the Open University, which I began during high school.

Have you always been an outstanding student?

Not really. Although I wasn’t afraid of not graduating high school, as an opinionated person from elementary school to high school, I was suspended more than once. My parents have grown accustomed to receiving phone calls and summons from teachers. In fact, I wrote about it as part of the scholarship application. The house I grew up in was very free in its educational approach. It allowed me to delve deeper into my interests, in any way I saw fit. So in high school I found myself taking courses at the Open University out of personal interest.

What do you think studying the social sciences gives students?

I feel that social sciences allow us to understand the reality around us, a bit like unplugging from the matrix. The ideas you lean seep deep into your consciousness and give you the ability to analyze events from a much broader perspective: understanding trends in depth, understanding the social structures in which things take place, analyzing the behavior of the various players in the arena and their interests. Suddenly, news about a demonstration, a new agreement, a social phenomenon or a political turnaround take on deeper, even surprising, meanings. Aside from the fun of understanding the reality around you, I think it also makes us better and more active citizens.

Who are the lecturers at TAU who most influenced you?

In the program I studied there are lecturers from diverse backgrounds, each of whom brought with them a deep and unique knowledge of their field, along with great accessibility to students, which I believe is the key to true learning. I can mention and thank the head of the program, Prof. Ezer Gat, whose course on strategic thought was really profound, and Dr. Yoram Evron, who supported me in the study of China-US relations and helped me a lot thanks to his attempt to help me develop a new sphere of knowledge.

What’s one thing that you’ve gotten from your studies at TAU that will stay with for the rest of your life?

I see learning as a way to avoid freezing in place. The habit of constantly acquiring new knowledge and discovering areas that were foreign to you, and being in another framework besides the professional one, makes us better rounded people, in my eyes.

 What will you miss most when you’re abroad?

I believe I’ll try to keep the home atmosphere going. I really like to cook vegan food, do yoga and try to go to as many live shows as possible, and believe that at Oxford I’ll find all these things too. I will miss the warm weather and the sea, but my playlists on Spotify will certainly help you, and you’re welcome to follow me! I’m BenLur93 or Ben Luria.

Before we say goodbye – do you have a tip for first year students?

Maybe it’s obvious, but I think it’s important to be interested in your field of study and your chosen courses. Obviously you have to think about your professional future and earning potential, but when you find a field you’re already drawn to everything becomes simpler. I chose these two degrees according to a strong personal interest in these fields, and this is what made the learning experience so positive for me.

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