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“Hope Is Like the Air We Breathe”

The role of hope in supporting mental health.

The role of hope in supporting mental health is not sufficiently understood among relevant professionals, according to Dr. Dorit Redlich Amirav of TAU’s Department of Occupational Therapy, Steyer School of Health Professions, Sackler Faculty of Medicine.

“Hope is similar to the air we breathe,” says Redlich Amirav. “Air is taken for granted in our daily life until we are suffocating and struggling to breathe.”

How Hope Transcends Generations

Redlich Amirav studies how different groups implement hopeful thinking and improve mental well-being through meaningful occupations. Through her findings, she aspires to help mental health professionals to integrate concepts of hope into their research and treatment and, in the long run, provide a longer-lasting and greater impact on each patient’s holistic well-being.

 

 

“Hope is similar to the air we breathe. Air is taken for granted in our daily life until we are suffocating and struggling to breathe.” – Dr. Dorit Redlich Amirav

 

 

In new research published in Qualitative Health Research, she investigated the cross-generational transmission of hope. Redlich Amirav cites one of her female participants who was forced by her grandfather to quit school in sixth grade. She felt her hope diminish but stated that her hopeless personal circumstances led her to put more of an emphasis on the importance of education and studying with her own two daughters who both graduated from university.

Other participants displayed this particular kind of cross-generational hope. For example, a mother told Redlich Amirav about her father, who was a violinist until the Nazis broke his fingers. The mother internalized this trauma in a negative way, but all four of her own children play instruments and one of them is an opera singer. She inadvertently conveyed how hope and music are intertwined for them and their heritage.

Hope as a Key to Pandemic Adaptation

In  2019, Redlich Amirav was appointed director of the Israeli chapter of the International Hope Barometer. She says that it came just in time: hope became a key factor in successfully adapting to the trials and tribulations of the pandemic. During the lockdowns, she says that people found meaning in new ways of interacting; specific trends point to the importance of goal-directed behavior in increasing hope.

The Power of Sleep

New study reveals that brain’s coordination between hippocampus and cortex during sleep boosts memory consolidation, offering hope for people with memory impairments.

While a good night’s sleep is known to be critical for the consolidation of long-lasting memories, so far there has been little evidence regarding the precise processes at work during human sleep. A breakthrough study demonstrated for the first time that long-lasting memories are consolidated in the human brain through communication between the hippocampus and the cerebral cortex during sleep. Moreover, the researchers found that by inducing deep-brain stimulation during sleep they can improve memory consolidation. They believe intervention during sleep represents a unique approach that can be further developed in the future to provide hope for people with memory impairments such as dementia.

Enhancing Memory Consolidation During Sleep

The unique study, which was published in the leading journal Nature Neuroscience, involved an international collaboration led by Dr. Maya Geva-Sagiv (today at UC Davis). The study was a collaboration between the laboratories of Prof. Yuval Nir from the Sackler Faculty of Medicine, Department of Biomedical Engineering at The Iby and Aladar Fleischman Faculty of Engineering, and Sagol School of Neuroscience at Tel Aviv University, and Prof. Itzhak Fried from the Department of Neurosurgery at UCLA and the Sackler Faculty of Medicine at Tel Aviv University.

 

“Intervention during sleep represents a unique approach that can be further developed in the future to provide hope for people with memory impairments such as dementia.” – Prof. Yuval Nir

 

 

 

The researchers (from left to right): Dr. Maya Geva-Sagiv, Prof. Yuval Nir and Prof. Itzhak Fried

“This study was made possible by a rare group of 18 patients with epilepsy at the UCLA Medical Center,” says Prof. Nir. “Prof. Fried implanted electrodes in these patients’ brains to try and pinpoint the areas that cause their epileptic seizures, and they volunteered to take part in a study investigating the effects of deep-brain stimulation during sleep. Close work with expert neurologists led by Prof. Dawn Eliashiv at UCLA enabled our team to integrate advanced brain stimulation in the research. Thus, we were able to test, for the first time in humans, the long-held hypothesis – that coordinated activity of the hippocampus and cerebral cortex during sleep is a critical mechanism in consolidating memories.”

“Moreover, we improved memory consolidation through a special stimulation protocol that enhanced synchronization between these two areas in the brain. Intervention during sleep represents a unique approach that can be further developed in the future to provide hope for people with memory impairments such as dementia.”

 

 

“In this study we directly examined the role of neural activity and electrical brain waves during sleep. Our goal was to enhance the natural mechanisms at play, to discover exactly how sleep assists in stabilizing memories.” – Dr. Maya Geva-Sagiv

 

 

Unraveling Mechanism

“We know that a good night’s sleep is critical for the consolidation of long-lasting memories, but so far, we had little evidence regarding the precise processes that are at work during human sleep,” explains Dr. Maya Geva-Sagiv. “In this study we directly examined the role of neural activity and electrical brain waves during sleep. Our goal was to enhance the natural mechanisms at play, to discover exactly how sleep assists in stabilizing memories.”

The researchers developed a deep-brain stimulation system that improves electrical communication between the hippocampus – a deep-brain region involved in acquiring new memories, and the frontal cortex – where memories are stored for the long term. By monitoring activity in the hippocampus during sleep, the system enables precisely timed delivery of electrical stimulation to the frontal cortex.

The study’s participants completed two memory tests, and their performance was compared after two different nights – one undisturbed and one with deep-brain stimulation. On both occasions, they were asked in the morning to recognize famous persons whose pictures they had been shown the previous evening. The study found that deep-brain stimulation significantly improved the accuracy of their memory.

 

 

“To our surprise, we also discovered that the intervention did not significantly increase the number of right answers given by participants, but rather reduced the number of wrong answers. This suggests that sleep sharpens the accuracy of our memory…”   – Prof. Yuval Nir

 

 

Sharpening Memory Accuracy

“We found that our method had a beneficial effect on both brain activity during sleep and memory performance,” says Prof. Fried. “All patients who had received synchronized stimuli to the frontal cortex demonstrated better memory performance, compared to nights of undisturbed sleep. The control group, which received similar yet unsynchronized stimuli, showed no memory improvement. Our deep-brain stimulation method is unique because it is close-looped – stimuli are precisely synchronized with hippocampal activity. In addition, we monitored the stimuli’s impact on brain activity at a resolution of individual neurons.”

“Our findings support the hypothesis that precise coordination between sleep waves assists communication between the hippocampus that takes in new memories, and the frontal cortex that stores them for the long term,” adds Prof. Nir.

“To our surprise, we also discovered that the intervention did not significantly increase the number of right answers given by participants, but rather reduced the number of wrong answers. This suggests that sleep sharpens the accuracy of our memory, or in other words, it removes various distractions from the relevant memory trace.”   

  The study was supported by grants from the US National Institutes of Health (NIH), the European Research Council (ERC), the US National Science Foundation (NSF), the US-Israel Bilateral Science Foundation (BSF), and the Human Frontier Science Program (HFSP). The paper’s other co-authors are: Prof. Dawn Eliashiv, Dr. Emily Mankin, Natalie Cherry, Guldamla Kalender, and Dr. Natalia Tchemondanov of UCLA, and Dr. Shdema Epstein from Tel Aviv University.

OpenAI CEO Sam Altman was hosted by Tel Aviv University

Sam Altman, the CEO of OpenAI, was a guest at Tel Aviv University today together with Ilya Sutskever, Co-founder and Chief Scientist of OpenAI

The event began with a conversation with Dr. Nadav Cohen from the Blavatnik School of Computer Science. There were questions from the audience that included students, researchers and faculty members, high-tech people and industrial and Israeli business leaders

https://www.youtube.com/watch?v=VWUhASix9ws&list=PLNiWLB_wsOg6O2lZUtuCD0rBWmUyVPjLz&index=1

Sam Altman to Visit Tel Aviv University

TAU to host the OpenAI Founder and CEO as part of his globetrotting OpenAI world tour.

As Altman is due to visit Israel next week, the burning question remains: Is there anyone left on our campus who hasn’t experienced the wonders of ChatGPT?

Altman’s highly-anticipated visit to Tel Aviv University on Monday June 5, part of a worldwide artificial intelligence-themed tour to meet with AI users, developers and decision-makers, promises to be an engaging affair. From sharing the stage with Dr. Nadav Cohen from TAU’s School of Computer Science at the Raymond & Beverly Sackler Faculty of Exact Sciences in the Smolarz Auditorium to answering questions from students, researchers, high-tech professionals, and senior Israeli officials, Altman will surely leave no stone unturned.

OpenAI World Tour

Altman’s upcoming visit to Israel follows his recent stops in Toronto, Washington DC, Rio de Janeiro, Lagos, and Lisbon as part of the ongoing OpenAI world tour. Last week, he held meetings with entrepreneurs and policymakers in Madrid, Warsaw, Paris, London, and Munich. Altman’s trip to Tel Aviv will be followed by visits to Dubai, New Delhi, Singapore, Jakarta, Seoul, Tokyo, and Melbourne.

According to Israel business news outlet Globes, Altman is a guest of the Microsoft Israel research and development center during his stay in Israel.

 

And his next destination? Tel Aviv University, of course! 

Unleashing the Power of ChatGPT

Prior to founding OpenAI, Altman served as the president of the Y Combinator startup accelerator. OpenAI, co-founded by Altman and tech billionaire Elon Musk in 2015, emerged as a non-profit research and development lab with a mission to ensure the safety of AI and its wide-ranging benefits for humanity.

OpenAI received significant investment from Microsoft at its inception and introduced ChatGPT, an artificial intelligence chatbot that emulates human writing, last year. Since then, OpenAI and Microsoft have strengthened their partnership, with OpenAI contributing AI capabilities to Microsoft products such as Teams and Bing. Additionally, there are expectations of adapting the ChatGPT application for integration into Microsoft’s Office suite.

CRISPR Unveils Plant Gene Potential

Breakthrough method revolutionizes agricultural crop improvement for enhanced properties.

Since the agricultural revolution, mankind has strived to enhance plant varieties through genetic diversity. However, until recently, our understanding was limited to the functions of individual genes, which account for just 20% of the genome. The remaining 80%, comprised of genes grouped in families, remained a mystery on a large genomic scale.

 

In a groundbreaking achievement, Tel Aviv University researchers have harnessed the power of CRISPR technology to develop an innovative and scalable genetic modification method. This breakthrough allows us to uncover the roles and characteristics of duplicated genes in plants. As a result, the team has successfully identified numerous overlooked features, paving the way for a revolutionary approach to crop improvement. This remarkable development has the potential to revolutionize agricultural practices across a wide range of crops and traits, including increased yields and enhanced resistance to drought and pests.

 

Overcoming Genetic Redundancy

This groundbreaking research was led by postdoctoral student Dr. Yangjie Hu, under the guidance of Prof. Eilon Shani and Prof. Itay Mayrose from the School of Plant Sciences and Food Security at TAU’s The George S. Wise Faculty of Life Sciences. Collaborating with scientists from France, Denmark, and Switzerland, the team utilized the CRISPR gene editing technology along with bioinformatics and molecular genetics methods to develop this novel gene-location method. The research was published in the prestigious journal Nature Plants.

 

 

“We wanted to apply this technique to improve the control of creating mutations in plants for the purposes of agricultural improvement, and specifically to overcome the common limitation posed by genetic redundancy.” – Prof. Itay Mayrose

 

 

Genetic redundancy, caused by gene families, has long posed a challenge in plant research. Previous methods of genetic intervention were limited by the inability to precisely identify genes responsible for specific traits. The accepted method to address this challenge is to produce mutations, that is, to modify genes in different ways, and then to examine changes in the plant’s traits as a result of the mutation in the DNA and to learn from this about the function of the gene.

 

Thus, for example, if a plant with sweeter fruit develops, it can be concluded that the altered gene determines the sweetness of the fruit. This strategy has been used for decades, and has been very successful, but it also has a fundamental problem: an average plant such as tomato or rice has about 30,000 genes, but about 80% of them do not work alone but are grouped in families of similar genes. Therefore, if a single gene from a certain gene family is mutated, there is a high probability that another gene from the same family (actually a copy very similar to the mutated gene) will mask the phenotypes in place of the mutated gene. Due to this phenomenon, called genetic redundancy, it is difficult to create a change in the plant itself, and to determine the function of the gene and its link to a specific trait.

 

The research team

 

The team addressed this challenge by using CRISPR and designing sgRNA sequences that guide an enzyme called Cas9 found naturally in bacteria to cut specific genetic sequences associated with entire gene families. Prof. Mayrose explains that “this genetic editing method allows us to design different sgRNA sequences to allow Cas9 to cut almost any gene that we want to change. We wanted to apply this technique to improve the control of creating mutations in plants for the purposes of agricultural improvement, and specifically to overcome the common limitation posed by genetic redundancy.”

 

In the first stage, a bioinformatics study was carried out on a computer, which, unlike most studies in the field, initially covered the entire genome. The researchers chose to focus on the Arabidopsis plant, which is used as a model in many studies and has about 30,000 genes. First, they identified and isolated about 8,000 individual genes, which have no family members, and therefore no copies in the genome. The remaining 22,000 genes were divided into families, and for each family appropriate sgRNA sequences were computationally designed. Each sgRNA sequence was designed to guide the Cas9 cutting enzyme to a specific genetic sequence that characterizes the entire family, with the aim of creating mutations in all family members so that these genes can no longer overlap each other. In this way, a library was built that totaled approximately 59,000 sgRNA sequences, where each sgRNA by itself can simultaneously modify 2-10 genes at once from each gene family, thereby effectively neutralizing the phenomenon of genetic redundancy.

 

In addition, the sgRNA sequences were divided into ten sub libraries of approximately 6,000 sgRNA sequences each, according to the presumed role of the genes – such as coding for enzymes, receptors, transcription factors, etc. According to the researchers, establishing the libraries allowed them to focus and optimize the search for genes responsible for desired traits, a search that until now has been largely random.

 

 

“We believe that this is the future of agriculture: controlled and targeted crop improvement on a large scale. Today, we are applying the method we developed to rice and tomato plants with great success, and we intend to apply it to other crops as well.” – Prof. Eilon Shani

 

 

In the next step, the researchers moved from the computer to the laboratory. Here they generated all 59,000 sgRNA sequences designed by the computational method and engineered them into new plasmid libraries (i.e., circular DNA segments) in combination with the cutting enzyme. The researchers then generated thousands of new plants containing the libraries – where each plant was implanted with a single sgRNA sequence directed against a specific gene family.

 

The researchers observed the traits that were manifested in the plants following the genome modifications, and when an interesting phenotype was observed in a particular plant, it was easy to know which genes were responsible for the change based on the sgRNA sequence that was inserted into it. Also, through DNA sequencing of the identified genes, it was possible to determine the nature of the mutation that caused the change and its contribution to the plant’s new properties.

 

In this way, many new traits were mapped that until now were blocked due to genetic redundancy. Specifically, the researchers identified specific proteins that comprise a mechanism related to the transport of the hormone cytokinin, which is essential for optimal plant development.

 

Commercialization and Future Impact

Prof. Shani concludes: “The new method we developed is expected to be of great help to basic research in understanding processes in plants, but beyond that, it has enormous significance for agriculture: it makes it possible to efficiently and accurately reveal the pool of genes responsible for traits we seek to improve – such as resistance to drought, pests, and diseases, or increasing yields. We believe that this is the future of agriculture: controlled and targeted crop improvement on a large scale. Today we are applying the method we developed to rice and tomato plants with great success, and we intend to apply it to other crops as well.”

 

Recognizing the transformative potential of this breakthrough, Tel Aviv University’s technology commercialization company, Ramot, partnered with the AgChimedes group to establish DisTree, a company dedicated to applying this technology to different crops. This collaboration, along with financial investment and professional support, aims to revolutionize agricultural genetics and ensure nutritional security in the face of climate crises.

New Studies Expose Coral Reef Crisis in Eilat

Deadly epidemic killed all the black sea urchins in the Gulf of Eilat, placing coral reefs at risk.

Recent, unsettling studies conducted by Tel Aviv University have unveiled a deadly epidemic responsible for the widespread decimation of black sea urchins in the Mediterranean Sea and the Gulf of Eilat. Over the span of just a few months, the entire population of black sea urchins in Eilat was eradicated. For instance, within a few weeks, thousands of sea urchins inhabiting a site near the northern shore of the Gulf of Eilat perished. The severity of the epidemic is such that only skeletal remains of black urchins now occupy the site. Disturbingly, similar occurrences have been observed at various other locations in the Gulf of Eilat, as well as in neighboring countries including Jordan, Egypt, Saudi Arabia, Greece, and Turkey.

 

 

“At first we thought it was some kind of pollution or poisoning, or a local chemical spill (…) but when we examined additional sites in Eilat, Jordan, and Sinai, we quickly realized that this was not a local incident. All findings pointed to a rapidly spreading epidemic.” – Dr. Omri Bronstein.

 

 

Unveiling Deadly Epidemic

The studies were led by Dr. Omri Bronstein and PhD students Rotem Zirler, Lisa-Maria Schmidt, Gal Eviatar, and Lachan Roth from the School of Zoology, at The George S. Wise Faculty of Life Sciences, and The Steinhardt Museum of Natural History at Tel Aviv University. The papers were published in Frontiers in Marine science and Royal Society Open Science.

 

The researchers underscore the vital importance of sea urchins, particularly the long-spined Diadema setosum, as keystone species essential for the thriving equilibrium of coral reefs. They express a pressing concern, stating, “It must be understood that the threat to coral reefs is already at an all-time peak, and now a previously unknown variable has been added. This situation is unprecedented in the documented history of the Gulf of Eilat.”

 

According to the researchers’ hypothesis, the cause of the deadly epidemic can be attributed to a pathogenic ciliate parasite that has spread from the Mediterranean to the Red Sea. In response to the gravity of the situation, an urgent report outlining the current state has been submitted to the Israel Nature and Parks Authority, instigating deliberation on emergency measures to safeguard Israel’s coral reefs.

 

 

“Sea urchins in general, and Diadema setosum in particular, are considered key species essential for the healthy functioning of coral reefs. The sea urchins are the reef’s ‘gardeners’ – they feed on the algae and prevent them from taking over and suffocating the corals that compete with them for sunlight.” – Dr. Omri Bronstein

 

 

Dr. Omri Bronstein and a dying sea urchin

 

“At first we thought it was some kind of pollution or poisoning, or a local chemical spill, from the industry and hotels in the north of the Gulf of Eilat, but when we examined additional sites in Eilat, Jordan, and Sinai, we quickly realized that this was not a local incident,” explains Dr. Bronstein. “All findings pointed to a rapidly spreading epidemic. Similar reports are coming in from colleagues in Saudi Arabia. Even sea urchins that we grow for research purposes in our aquariums at the Interuniversity Institute, and sea urchins at the Underwater Observatory Marine Park in Eilat, contracted the disease and died, probably because the pathogen got in through the pumping systems.”

 

Dr. Bronstein describes it as a fast and violent death: “Within just two days a healthy sea urchin becomes a skeleton with massive tissue loss. While some corpses are washed ashore, most sea urchins are devoured while they are dying and unable to defend themselves, which could speed up contagion by the fish who prey on them.”

 

Invasion and Vanishing Species

In recent years, Dr. Bronstein’s research group has dedicated their efforts to the investigation of marine invasions, with a specific focus on the long-spined Diadema setosum. “Until recently, the black sea urchins with long spines, familiar to many of us, was one of the dominant species in Eilat’s coral reef,” reflects Dr. Bronstein. “Sea urchins in general, and Diadema setosum in particular, are considered key species essential for the healthy functioning of coral reefs. The sea urchins are the reef’s ‘gardeners’ – they feed on the algae and prevent them from taking over and suffocating the corals that compete with them for sunlight. Regrettably, these once-thriving sea urchins have vanished from the Gulf of Eilat and are quickly disappearing from constantly expanding parts of the Red Sea further to the south,” shares Dr. Bronstein with a sense of lament.

 

A dying urchin in the Mediterranean Sea (photo: Dr. Omri Bronstein)

 

Several months ago, Dr. Bronstein was alerted to the initial reports of widespread mortality by colleagues in Greece and Turkey, where the sea urchins had invaded, likely via the Suez Canal. “In 2006, the first sighting of this species of sea urchin occurred in the southern regions of Turkey,” Dr. Bronstein adds. This phenomenon, known as biological invasion, carries far-reaching ecological implications, pervasively affecting the eastern Mediterranean, particularly along Israel’s coastline. “We have been monitoring the dynamics of this species’ invasion in the Mediterranean since its first emergence,” he shares. 

 

In 2016, they discovered the first Diadema setosum sea urchin along Israel’s Mediterranean coastline – a lone urchin sighted at Gordon Beach in Tel Aviv. For over a decade since the first discovery in Turkey, the Mediterranean populations of these sea urchins remained small and usually hidden. However, since 2018 the sea urchin population in the Mediterranean has been growing exponentially, reaching a state of population explosion – with giant populations of thousands and even tens of thousands found in Greece and Turkey.

 

 

“The window of opportunity for preserving a thriving population of this species in Eilat has regrettably closed. To establish a safeguard population, we must act without delay, by preserving healthy individuals from the Israeli Mediterranean before the encroaching disease from the north reaches this region.” Dr. Omri Bronstein

 

 

“However, during the course of our research, while scrutinizing the invasion of sea urchins in the Mediterranean, we began to receive reports on sudden extensive mortality,” says Dr. Bronstein. “While the extinction of an invasive species is supposedly not a bad thing, we must be aware of two major risks: Firstly, we don’t yet know how this mortality and its causes might impact local species in the Mediterranean. Secondly, and of far greater significance, the geographic proximity shared by the eastern Mediterranean and the Red Sea provides a potential conduit for the swift transmission of the pathogen into the Red Sea. As we feared and predicted, this is what appears to have happened.”

 

Dr. Bronstein and his research team (photo: courtesy of Dr. Omri Bronstein)

 

A Reminiscent Crisis

The massive loss of sea urchins reminded the TAU researchers of one of the most devastating events in marine ecology: the disappearance of the sea urchins in the Caribbean. Until 1983, the Caribbean coral reef thrived as a vibrant tropical ecosystem, much like the one in the Gulf of Eilat. But as the sea urchins vanished, the uncontrollable growth of algae took over, blocking sunlight from reaching the corals and forever altering the reef into a sea of algae.

 

Dr. Bronstein reveals, “Just last year, the Caribbean experienced another outbreak of the disease, resulting in the demise of the remaining urchin populations. However, unlike previous incidents, we now possess advanced scientific and technological resources to analyze the forensic evidence. Researchers from Cornell University successfully pinpointed the cause of mortality in the Caribbean: a pathogenic ciliate parasite. The identical pathology observed in the dying sea urchins of Greece, Turkey, and the Red Sea corroborates this finding.”

 

Dr. Bronstein’s pioneering research not only identified the unprecedented mass mortality of an invasive species in the Mediterranean but also shed light on the alarming decline of the widely prevalent sea urchin species, Diadema setosum. In a groundbreaking study, Dr. Bronstein issued a a warning that the epidemic plaguing the Mediterranean could extend its reach to the nearby Red Sea. Sadly, this cautionary prediction has become a disheartening reality.

 

Urgent Measures and Closing Window

“The gravity of the situation cannot be understated: the Red Sea is witnessing an alarming surge in mortality, surpassing the extent observed in the Mediterranean. Looming in the background is an ominous uncertainty: What is the exact cause of the sea urchin die-offs? Is it the same Caribbean pathogen or an entirely new and unfamiliar factor? Regardless, it is evident that this pathogen spreads through water, and we anticipate a rapid escalation of sickness and demise among the entire population of these sea urchins in both the Mediterranean and the Red Sea.”

 

“In my view, it is imperative that we swiftly establish a safeguard population for these sea urchins, ensuring the potential for their reintroduction into the wild. Similar to the approach taken with COVID-19, the trajectory of this epidemic remains uncertain. Will it eventually subside on its own, or persist for years, radically transforming coral reefs? However, unlike the COVID-19 pandemic, there are no available vaccines or treatments for the afflicted sea urchins. Hence, our efforts must be steadfastly directed towards prevention. The window of opportunity for preserving a thriving population of this species in Eilat has regrettably closed. To establish a safeguard population, we must act without delay, by preserving healthy individuals from the Israeli Mediterranean before the encroaching disease from the north reaches this region. While this is a complex undertaking, it is imperative if we aspire to secure the future of this unique species, which plays a critical role in the destiny of coral reefs,” concludes Dr. Bronstein.

Thousands Participate in Tel Aviv University’s Open Day

Prospective students get a taste of campus life and explore study tracks on the University’s second open day this year.

Tel Aviv University hosted its undergraduate Open Day, drawing in thousands of prospective students. The event provided valuable insights into admission requirements, application processes, and the opportunity to interact with faculty members and current students across various disciplines.

The curious participants were treated to a memorable experience, including guided tours exploring faculty buildings, laboratories, and even the renowned Entrepreneurship Center, immersing themselves in the vibrant academic atmoshphere that defines Tel Aviv University.

 

Tel Aviv University’s Open Day included guided tours to faculties, laboratories and more (photo: Chen Galili)

The Open Day featured an array of captivating activities, with particular interest in a hands-on workshop that simulated the creation of a startup at the Entrepreneurship Center. Additionally, the Dean of Students organized a lecture on selecting a field of study, while an introductory session showcased a groundbreaking program integrating data science and AI into nearly every degree. 

 

Tel Aviv University’s Curiosity Lab (Photo: Chen Galili)

Prospective students had the chance to explore the wide range of study abroad options available at Tel Aviv University through dedicated student exchange coordinators, further enhancing the University’s global outlook. 

Sharon Ariel, Marketing Director at Tel Aviv University, emphasized the importance of providing an immersive campus experience to prospective students: “Our goal was to enable prospective students to fully engage with our study programs, interact with current students, observe cutting-edge research in labs, and receive guidance from faculty and administrative staff regarding different study options. By stepping into the shoes of our students for a day, we hoped to inspire them to embark on their educational journeys at Tel Aviv University. I encourage those considering enrollment in October to act swiftly, as registration for many programs will soon close.”

 

Prospective students interact with current students (photo: Chen Galili)

It was a pleasure to host everyone on our beautiful campus. We hope we will have the privilege of helping them start their journeys in pursuit of the unknown.

Missed the Open Day?

For comprehensive information on admission requirements for the various programs, please visit our registration website (available in Hebrew) or access the English version here

 

Prospective students receive guidance from faculty and administrative staff (photo: Chen Galili)

Revolutionizing Mental Health Through Psychedelic Research

Revolutionizing Mental Health Through Psychedelic Research.

The Institute for Integrative Psychedelic Research (IPR-TLV) was inaugurated recently at Tel Aviv University. The Institute’s primary focus is to foster interdisciplinary research on psychedelics and deepen the understanding of brain-mind-body interactions. With the vision to revolutionize mental health, IPR-TLV aims to become a global leader in the scientific exploration of psychedelics and psychoactive medicine.

Bridging the Mind-Brain-Body Gap

Understanding the connection between neural activity and our emotional-cognitive experiences is a leading question in cognitive neuroscience, psychology, and neuropsychiatry. The “Mind-Brain Gap” refers to the link between our brain functioning and mental experiences, which is not fully understood. Psychedelics, such as LSD, psilocybin, MDMA and ketamine, have shown beneficial clinical effects and provide a unique opportunity to study this complex link.

 

“I believe the psychedelic neuroscience research could deepen our understanding of the mind’s neurobiological building blocks and how they interact with our bodily sensations, thus bridging the mind-brain-body gap. And it’s a huge gap.” – Prof. Talma Hendler

 

 

Prof. Talma Hendler will lead the efforts of TAU’s Institute for Integrative Psychedelic Research (photo: Ofer Amram)

To understand how psychedelics affect the mind, we need to consider various factors that influence consciousness, emotions, social interactions, and motivation. Prof. Talma Hendler is the incoming director of the Center and a psychiatrist and neuroscientist at TAU’s School of Medicine at the Sackler Faculty of Medicine and School of Psychological Sciences at the Gershon H. Gordon Faculty of Social Sciences. She says “psychedelics are a powerful experimental tool with a tremendous potential to clarify fundamental questions regarding the essence of human mental experience. The primary goal of our institute is to promote rigorous academic psychedelic research, exploring the relations between the mind, brain, and body.”

“I believe the psychedelic neuroscience research could deepen our understanding of the mind’s neurobiological building blocks and how they interact with our bodily sensations, thus bridging the mind-brain-body gap. And it’s a huge gap. “

WATCH: The inauguration of the Institute for Integrative Psychedelic Research at Tel Aviv University

 

“I’ve also been intrigued by the pharmalogical changes psychedelics induced at the neuro level, through the process of neuroplasticity, by either forming new neuron-cells or creating new connection synapses in specific brain regions. Such a plasticity could explain the significant therapeutic potential of psychedelics for alleviating suffering from otherwise treatment resistant conditions like suicidal depression, post-traumatic stress disorders (PTSD), chronic pain and end of life distress.”

“Importantly, the combined features of rapid therapeutic effect, neurochemical diversity, and unique, subjective experience positions psychedelics at the forefront of personalized medicine.”

Revolutionizing Mental Health

The Institute for Integrative Psychedelic Research is led by esteemed academic figures, including Prof. Hendler; Dr. Haggai Sharon, a pain specialist and neuroscientist and head of the Sagol School of Neuroscience, Prof. Yossi Yovel.

Operating under the auspices of TAU’s Sagol School of Neuroscience, with medical operations at the Tel Aviv Sourasky Medical Center (Ichilov), the Institute aims to promote rigorous academic research and explore the relations between the mind, brain, and body.

 

The inauguration ceremony of the Institute drew a large crowd to TAU’s beautiful new Coller Terrace at the Lorry Lokey building (photo: Ofer Amram)

A Multidisciplinary Endeavor

The Institute encourages interdisciplinary research, embracing the biopsychosocial model of health and wellbeing. It fosters collaborations between various academic areas, including neuroscience, psychology, anthropology, philosophy and policy and ethics. By integrating different disciplines, the Institute aims to build a comprehensive and unified scientific understanding of psychedelics.

Between Bench and Clinic

Tel Aviv University, with its strong ties to 19 affiliated hospitals and partnership with government ministries and pharma companies, is well-positioned to bridge the gap between laboratory discoveries and clinical applications.  

Furthermore, the University’s multidisciplinary scientific environment brings together researchers from diverse fields, facilitating advancements in translational and basic medicine.

Generous Contributions

The establishment of the Institute for Integrative Psychedelic Research was made possible by the generous contributions of Mr. Jeremy Coller, Dr. David B. Katzin, and Dr. Dmitry Repin. These visionary donors believe in the transformative potential of the Center’s research endeavors.

Stay updated with upcoming Call for Applications and research publications to learn more about the Institute’s progress on the Sagol School of Neuroscience website.

Tel Aviv University Honors Nine Remarkable Individuals with Honorary Degrees

The recipients were honoured for their profound impact on the world in an extraordinary ceremony at the University’s 2023 Board of Governor’s Meeting.

In a festive ceremony held during the 2023 Board of Governors Meeting, Tel Aviv University awarded honorary degrees to 9 individuals, all of whom have had an exceptionally positive impact on the world. The honorary degrees were awarded by the Chairwoman of TAU’s Board of Governors, Dafna Meitar-Nechmad, President Prof. Ariel Porat and Rector Prof. Mark Steif.

 

Recipients include Morris Kahn, entrepreneur, philanthropist and founder of SpaceIL, who received the honour in recognition of his expansive philanthropic giving to causes including education, biomedical research, youth leadership, space exploration and the marine environment, as well as his commitment to Israeli science, as demonstrated through his generous support of diverse university- and hospital-based projects, including the 3D Cancer Printing Initiative at Tel Aviv University.

 

Other honorary degree recipients included Nobel Prize laureate Olga Tokarczuk, writer, activist and public intellectual, in recognition of her accomplishments as a world-renowned author and social activist, and her courageous efforts to secure Polish national recognition of crimes committed against Jews during the Second World War, as well as against refugees in the present day; Prof. Barbara Engelking, historian of Polish Jewry during the Holocaust, who was honoured in recognition of her pioneering contribution to Holocaust scholarship and her courageous determination to counter Holocaust distortion and expose the complexities of Polish-Jewish relations during the Second World War, regardless of personal cost.

 

Tamir Gilat was honoured for his heartfelt willingness, in his role as Chairman of the Israel Cancer Research Fund, to volunteer his time toward providing compassionate support to thousands of cancer sufferers and their families over the years; Sandra & Vlad Shmunis, entrepreneurs and philanthropists, received an honorary degree in recognition of their philanthropic spirit in supporting diverse important causes in Israel and the US through their family foundation, including Jewish values, young entrepreneurs, cancer research and Biblical archaeology.

 

WATCH: Highlights from the Honorary Degrees Conferment Ceremony, TAU’s Board of Governors Meeting 2023:

 

An honorary degree was also bestowed on Atallah Mansour in recognition of his immense contribution to civil, cultural, and democratic discourse in Israel over almost seven decades as a highly respected author and journalist; and on Prof. Antoine Compagnon, professor of French and comparative literature, College de France and Columbia University, who was honoured for his solidarity with the State of Israel during trying times, often in the face of public adversity.

 

Prof. Nicholas A. Peppas, chemical and biomedical engineer at the University of Texas at Austin, was awarded an honorary doctorate for his immeasurable influence as a leader and pacesetter in the fields of drug delivery, biomaterials and bio-nanotechnology over almost 50 years, as well as his interdisciplinary research approach, which blends molecular and cellular biology with materials engineering to produce next-generation biomedical systems and devices. Fellow scientist Prof. Pavel A. Pevzner, a computational biologist at University of California San Diego, was honoured for his standing as a world authority in computational biology and bioinformatics and his distinctive research approach that combines theoretical insights with the development of tools and practical applications for tackling real-world biological questions.

 

Finally, the George S. Wise Medal, the University’s highest honour, was awarded to Tharman Shanmugaratnam, Senior Minister and Coordinating Minister for Social Policies of Singapore, in recognition of his extraordinary public service record as an esteemed statesman and international economic leader.

 

Congratulations to all the recipients! Your accomplishments inspire us and make the world a better place.

Prof. Yosef Shiloh Elected as International Member of US National Academy of Sciences

Renowned Tel Aviv University Professor Emeritus recognized for pioneering cancer research and advocacy for rare genetic disorders.

Professor Emeritus Yosef Shiloh from TAU’s Sackler Faculty of Medicine was elected an international member of the US National Academy of Sciences (NAS). The Academy includes approximately 2,500 American scientists from all fields of science and another approximately 500 foreign scientists from all over the world. Prof. Shiloh is the 43rd Israeli researcher elected to NAS, alongside Nobel laureates Prof. Ada Yonath, Prof. Dan Shechtman and Prof. Aaron Ciechanover. Prof. Shiloh is the Incumbent of the David and Inez Myers Chair for Cancer Genetics in the Department of Human Molecular Genetics and Biochemistry in the Sackler Faculty of Medicine at Tel Aviv University.

 

Prof. Shiloh received the exciting news while attending a conference in Boston. He has been the recipient of the EMET Prize, the Israel Prize, and the Clowes Award for Outstanding Cancer Research – the most important prize awarded by the American Association for Cancer Research, which has thousands of cancer researchers as members. Being elected to the Academy is a particular honor, as it reflects widespread recognition by all the members of the Academy, from a variety of scientific fields. The acceptance bar for non-American members is particularly high, adding to the prestige of “international” members.

 

The US National Academy of Sciences advises the American government and nation on matters of science, engineering and medicine, based on a charter granted to it by Congress and signed by President Abraham Lincoln in 1863. Membership in the Academy is lifelong, and up to 120 scientists from the USA and up to 30 foreign scientists are elected to the Academy each year.

 

Prof. Shiloh: “It is a great honor and I thank the Academy members for recognizing our work. NAS is a body whose opinion is heard and given consideration and I hope that the opinion of the Israeli Academy of Sciences and Humanities, of which I am a member, will be heard here in a similar way. In the US, the president, the administration and the public listen to what the Academy says, and hence the weight that the Americans attribute to membership in this institution.”

 

Prof. Karen Avraham, Dean of the Sackler Faculty of Medicine:” This is a tremendous honor for us in the Department and the Faculty of Medicine at Tel Aviv University. Prof Yosef Shiloh’s research has made a seminal and remarkable contribution in the area of a rare but devastating genetic disease, ataxia-telangiectasia (A-T), with far-reaching implications for DNA repair and cancer. Most compelling, what drove Prof. Shiloh every step of the way was his compassion for the patients. The main theme of his work can be summarized in the title of a lecture that he has delivered to numerous audiences over the years: “Investigation of Rare Genetic Disorders: A Mission for Human Welfare and a Steppingstone in Understanding our Biology”. Prof. Shiloh continues to explore the connection between A-T, neurodegeneration and aging in search of new treatment modalities for A-T, as well as to devote his efforts to educating the public about the medical and social implications of the genome revolution.”

 

Next year Prof. Shiloh will participate in a ceremony in honor of the members selected this year, which will be held at the Academy House in Washington, DC.

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