And why H2Pro, set up by Technion Professors is the Israeli startup we all need to know about!

We are living through an exciting part of the global journey to reducing carbon emissions, thanks to a transition to clean energy that’s gaining serious momentum.

Between the ongoing economic recovery from Covid-19 and the war in Ukraine – highlighting the need for the Western world to become energy independent – investments in the global renewable energy market are expected to increase significantly. 

By 2040, around 10% of the world’s primary energy demand could be replaced by hydrogen, while the global hydrogen market is expected to more than double by 2050.

Israel, as one example, is currently aiming for 30% of its energy to be renewable by 2030 – a considerable increase on the 2020 total of 7%.

But its success relies on many factors, such as creating more storage, reducing the reliance on fossil fuels and making energy systems more flexible and resilient.

As the most abundant element in the universe, hydrogen is a portable, scalable fuel that can serve as a lifeline to sectors that are difficult and costly to electrify, such as long-haul trucking, maritime shipping and air travel.

As a zero-carbon duel, it is also an environmentally-friendly option for high-heat industrial processes, such as steel and cement.

The one to watch out for

While others are developing in the market, H2Pro is at the forefront of making these targets a reality, thanks to its revolutionary method for efficiently splitting water into its two components of hydrogen and oxygen.

Using electricity, the elements are generated separately, unlike conventional electrolysis, enabling a 95% system efficiency.

Founded by Professors Gideon Grader and Avner Rothschild and Drs. Hen Dotan and Avigail Landman of the Grand Technion Energy Programme in 2019, the company, which counts Bill Gates as an investor, has laid the cornerstone of its first production facility, which, when completed, will produce affordable green renewable energy at scale.

Kidney failure, Multiple Sclerosis and stroke are all being targeted

Two Technion master’s degree students have created a way to accurately predict whether a person is likely to have a stroke.

Working under the supervision of the head of the Artificial Intelligence Laboratory in Medicine, Shany Biton and Sheina Gendelman worked with more than one million ECG recordings from more than 400,000 patients to create a machine-learning algorithm to assess the likelihood of developing an irregular heart rhythm atrial fibrillation (AFib), which causes one in seven strokes.

Only 5% of the 60% predicted to develop AFib did not go on to develop the condition.

It means countless lives could be saved as those at risk are notified in advance, enabling them to make necessary lifestyle changes to either prevent or delay the condition. 

Professor Behar, who led the study, said: “We do not seek to replace the human doctor. We don’t think that would be desirable. But we wish to put better decision support tools into the doctors’ hands.”

Meanwhile, two Technion-led startups are changing the way we treat some of the most common health conditions.

CollPlant Biotechnologies – led by alum Yechiel Tal – is working with United Therapeutics Corporation to manufacture artificial kidneys using a former tobacco plant. The process includes growing small plantlets from the seeds of engineered tobacco plants to create the collagen required for the 3D printing of human organs.

“Organ shortages are an unmet global health need, [and] by partnering with United Therapeutics, we have made significant progress with this pivotal organ manufacturing initiative,” Tal said. “We remain committed to exploring new innovative applications in the fields of medical aesthetics and 3D bioprinting of tissues and organs.”

NeuroGenesis – whose COO is a Technion alum – is another Israeli company making giant strides in healthcare thanks to its stem cell therapy which hopes to regenerate the brain of MS sufferers. 

Of 15 patients who received spinal injections from their own bone marrow, nine experienced a drop in levels of neurofilament light chain – a protein heightened as the disability progresses – and eight went on to have improved disability scores, even after a year.

The peer-reviewed study has been published in the journal Stem Cells Translational Medicine.

Researchers at the Israel Institute of Science and Technology are making great strides in how the disease is both detected and treated

Technion professors and graduates are continuing to make significant contributions in the field of cancer research. 

Professor Yuval Shaked, along with startup, OncoHost, has created a blood test that will allow doctors to provide personalised treatment plans to cancer patients, Ibex Medical Analytics, headed up by Dr Daphna Laifenfeld (who researched it during her time at the university), has created an Artificial Intelligence-based cancer diagnostic software, while NanoGhost, co-founded by Professor Marcelle Machluf, is another technology “that targets cancer cells with modified adult stem cells loaded with medicine.”

Having already raised $5 million, NanoGhost – which innovatively delivers cancer medicine directly to tumour cells, allowing the potency to be reduced by a factor of a million – has been treating pancreatic, lung, breast, prostate and brain cancer successfully in mice.

Professor Machluf says: “This integration turns the NanoGhost platform from a ‘taxi’ that delivers the drug to the target into a ‘tank’ that participates in the war. 

“The integrated platform delivers the drug to the tumour and enables a significant reduction in drug dosage yet still does the job. We also showed that our method does not harm healthy cells.”

NanoGhost is on track to begin clinical trials in 2023.

The university team has tested its research on mice in a novel trial

A team of scientists from Technion – Israel Institute of Technology has used genetically engineered muscle tissue to cure mice of type 2 diabetes.

Muscle cells are among the main targets of insulin, which is supposed to absorb sugar from the blood. However, in type 2 diabetics, this ability is reduced.

Up until now, restoring the metabolic activity of muscles has just been an unexplored idea. Now, however, the theory has been proven – thanks to Professor Shulamit Levenberg, Dean of the Faculty of Biomedical Engineering at the Technion and doctoral student Rita Beckerman.

Isolating the muscle cells and engineering them to be metabolically functional before transporting them back into the abdomen of the diabetic mice led to the now-healthy cells absorbing sugar correctly and improved blood sugar levels – both in the abdominal muscles and elsewhere in the body.

The mice remained cured of diabetes for the entire four-month period which they were observed.

Professor Levenberg said: “These cells worked hard and absorbed glucose, and also secreted factors that systematically affected the metabolism of the mice.

“The approach can be used to rescue mice from their diabetic situation, and now we hope to be able to use it in the future as a treatment for humans.”

“It’s such a novel approach that we really didn’t know what to expect, but we were extremely happy with the result”, Beckerman added.

“This could potentially, in the future, give human patients with Type 2 diabetes the possibility of having an implant and then going for a few months without taking any medications.”

The research is published in the peer-reviewed Science Advances journal. 

Diabetes currently affects 4.7 million people in the UK, according to Diabetes UK – 90% of which will have type 2. Type 2 diabetes can lead to long-term complications such as heart disease, stroke, kidney failure and blindness.

The Technion has received its first human MRI research scanner made by Siemens. The device will operate within the framework of the May-Blum-Dahl Human MRI Research Center in its own 200 square meter facility in the Technion’s Joseph Center for Industrial Research.

The new Center, operated by the Faculty of Biomedical Engineering, will be used by researchers, professors, and students to carry out interdisciplinary research in a range of scientific and medical fields, as part of the Technion’s commitment to scientific excellence and the advancement of human health.

MRI is an important technology for structural and functional imaging of tissues and internal organs including the brain, is non-invasive, and avoids exposure to ionizing radiation. According to the Center’s manager, Dr. Dafna Link-Sourani of the Faculty of Biomedical Engineering, “the MRI study is characterized by being interdisciplinary and involving various engineering faculties (electrical, computers, mechanical, and material) and sciences (physics, chemistry, and biology), and of course medical research.”

According to Prof. Moti Freiman, who is the Center’s academic director, “Many researchers at the Technion have been waiting for the arrival of this essential research tool, and until now have been using other MRI centers for their research. The device will be available to researchers from a wide range of disciplines at the Technion and will also be used by industry researchers who want to deepen their R&D. The uniqueness of the new Center is its location within an engineering faculty, in an institute which is recognized as a global leader in innovative research, with a wide range of engineering fields. This will significantly help to advance innovation at the forefront of research and technology and to develop solutions to important clinical problems. There is no doubt that Siemens is pleased to have brought us the scanner, as we hope that Technion researchers can offer significant improvements in its performance.”

The commencement of the new center’s activity, expected later this year, is the result of ongoing fundraising led by Technion management, together with several Technion researchers: Professor Shulamit Levenberg, former dean of the Faculty of Biomedical Engineering; Dr. Moti Freiman, and Dr. Firas Mawase of the Faculty of Biomedical Engineering; Professor Tzipi Horowitz-Krauss of the Faculty of Science and Technology Education, and Dr. Yoad Kenett of the Faculty of Industrial Engineering and Management. 


This Center will be the first human research MRI center of its kind in the north of the country and is also set-up to explore children’s development. To that end, it includes a mock scanner, making it possible to acclimate children and infants to the imaging process prior to entering the actual device.

What if the cracked screen of your mobile phone or the solar panels providing energy to a satellite could self-repair?

These kinds of robots and electronics are not only a matter of science fiction — where self-aware machines can heal themselves — but of real interest for scientists and technology developers. Researchers from Technion, say self-repairing electronics may be possible and have the tech to prove it.

As the use of technology intensifies, electronics that have longer life spans become more valuable and essential for critical operations. The technology we use every day — smartphones, laptops, or tablets — has a very limited life span. These short life cycles are mostly due to electronic damage and normal degradation of electronic parts, including lithium batteries. From the government to the private tech industry, electronic damage can have significant consequences. For example, a study from the Electrostatic Discharge Association estimated that industries could lose up to £4 billion per year due to electrostatic electronic damage alone. By 2022, with an ever-expanding global cloud powered by endless servers, the risks are even higher.

Smoke, fire, water, dust, corrosion, temperature variations, radiation, mechanical shock, impact, contact failure, and thermal stress … there are numerous ways in which electronics can be damaged (via LiveWire). On the other hand, other technologies like NASA space technology or commercial satellites, which cannot be accessed for maintenance or repairs, require longer life spans but still depend on electronics susceptible to damage. Self-healing electronics, while still a dream, could become the “holy tech grail.”

A research group led by Professor Yehonadav Bekenstein from the Faculty of Materials Sciences and Engineering and the Solid-State Institute at Technion was studying perovskite nanoparticles for their potential to provide a green alternative to toxic lead materials used heavily in electronics. In doing so, they found something unexpected.

The team found on a microscopic level that the nanocrystals moved a hole (damage) through the areas of a structure to self-heal. Surprised by this, the researchers drew up a code to analyze microscopic videos and understand the dynamics and movements within the crystal. The researchers realized that the damaged area, or hole, formed on the surface of the nanoparticles, then moved to energetically stable areas inside, and was finally “spontaneously ejected” out. Researchers explained that through this self-healing process, the nanocrystals essentially reverted back to being undamaged (per Technion). 

Researchers at the Technion believe that this discovery is a key step toward understanding the processes by which these nanoparticles can heal themselves. The team also thinks that perovskite nanoparticles should be used in solar panels and other electronic devices.

The Israel Institute of Technology (TECHNION) has announced the establishment of the country’s first Artificial Intelligence (AI) research institute for medical technology solutions.

The Technion’s Zimin Institute for AI Solutions in Healthcare, which was jointly launched and operated with the Russian charity Zimin Foundation on Sunday, will focus on multidisciplinary research and technological development in human health and medicine using big data and computational learning, according to a statement from Technion.

Zimin Institute for AI Solutions intends to improve human healthcare on all levels, including hospitals, clinics, drug development, home therapy, and medical wearables. “This new centre is a crucial component of Technion President Uri Sivan’s goal of collaboration and connectivity between research, engineering, and medicine,” said Technion President Uri Sivan.

“It will support applied research that will speed the creation of new and important technologies with real-world applications,” he added.

The Israeli Institute of Technology continues to be at the forefront of groundbreaking solutions to help protect our planet.

This development coincides with Better Speech and Hearing Month

Israeli scientists at the Technion – Israel Institute of Science have engineered a working ear, alongside Sheba Medical Centre.

Led by Professor Shulamit Levenberg of the Faculty of Biomedical Engineering, the team combined techniques of organ printing, tissue engineering and the extraction of human cells to create a custom implant that can be used to replace ears that don’t develop properly in utero.

The scaffold, which allows for the formation of the new ear, is designed from a CT scan of the patient’s ear.

It is hoped the breakthrough will significantly help children with microtia – a condition in which the underdeveloped ear is small, malformed and sometimes unable to hear. 

Previously, it was treated using cartilage tissue from the ribs, which is both painful and comes with the risk of added complications. The new surgery can also be performed at the age of six instead of after 10, which may also help reduce the psychological effects for children who, up until now, have had to start school with a malformed ear.

It could also be tailored to “other applications, such as nasal reconstruction and fabrication of various orthopedic implants”, Professor Levenberg hopes.

Microtia affects 0.1% to 0.3% of births.

Each May, Better Hearing and Speech Month helps raise awareness about communication disorders and hearing health.

The Israeli Institute of Technology continues to be at the forefront of groundbreaking solutions to help protect our planet 

In September 2020, Israel, the U.S., the United Arab Emirates, and Bahrain signed the Abraham Accords, normalising relations between Israel and the two Arab nations.

President of Mohammed VI University in Morocco, Hicham El Habti, presents a gift to Technion President Prof. Uri Sivan.

Morocco and Sudan followed suit three months later. Now, the Technion has signed an agreement of academic cooperation with Morocco’s Mohammed VI Polytechnic University (UM6P), “reflecting a rapid and dramatic historical change in the region,” said Technion President Uri Sivan.

Speaking at a ceremony on the Technion campus in April attended by UM6P President Hicham El Habti and delegations from each university, President Sivan said: “Since the Abraham Accords, we have received delegations from the UAE and Bahrain, countries that none of us ever imagined would come to visit. Both of our institutions – the Technion and UM6P – educate young people and equip them for the future. The cooperation we are establishing here today goes beyond its academic value; it is our duty to the region and the future of the next generation.” 

UM6P President El Habti, who studied applied mathematics, economics, and engineering in France, told his Israeli counterparts: “We are part of an historic era, and we must continue to strengthen ties between Morocco and Israel. As a very young university, we are open to international cooperation and are delighted to establish this relationship with you.”

The two presidents exchanged gifts: President El Habti gave President Sivan a book on the history of Moroccan Jewry, while President Sivan offered President El Habti a glass engraved with the Technion’s insignia. The delegations then visited the David and Janet Polak Visitors Center and the Electron Microscopy Center. Members of the Moroccan delegation also met with individual Technion faculty to discuss research in water engineering, energy, biotechnology, medical engineering, entrepreneurship, and artificial intelligence.

UM6P focuses on applied research and innovation with an emphasis on African development. Established in 2013, it hosts the most powerful supercomputer in Africa, and has expanded rapidly to become a leading research institution for collaborations between Africa and Europe. It has international partnerships include with, among others, the Massachusetts Institute of Technology (MIT), Columbia Business School, the Max Planck Society, the École Polytechnique Fédérale de Lausanne, and McGill University. UM6P prioritizes research and innovation relevant to Morocco and Africa, such as industrialization, food security, sustainable development, mining, and social sciences — many of which are top-priorities in the Technion’s curriculum.

Israel and UAE set to fly to the moon together in 2024 as part of the space IL mission

Israel and UAE are set to fly to the moon together in 2024 as part of the SpaceIL mission

A privately funded space company – led by Technion alumnus Shimon Sarid – has signed a historic international agreement with the United Arab Emirates to fly to the Moon.

The SpaceIL Beresheet 2 mission is just one of several collaborative space missions and follows the historic Abraham Accords signed in 2020 to bolster relations between the two nations.

It follows Israel’s solo attempt to reach the moon in 2019 – the original Beresheet spacecraft – which ended in a crash landing.

“This is the first scientific-technological project to create a common history for the two peoples: the flags of Israel and the Emirates on the moon”, a SpaceIL statement says. “It is about creating a model for cooperation between the two peoples in many aspects — technological, scientific and educational, which will deepen the connection between the countries and serve as inspiration for further cooperation between Israel and all Arab countries.”

“SpaceIL has committed itself to promoting science and science education at the regional and global levels while also contributing to the processes of normalization and regional peace through collaborations with peace-loving and space-seeking countries,” CEO Shimon Sarid said at the signing ceremony.

“We are pleased to cooperate with the United Arab Emirates Space Agency, hand in hand with the [Israeli] Ministry of Science and the Israel Space Agency.”

It is hotly anticipated that the $100 million mission could break several records in outer-space history, including a double moon landing in one mission and the launch of the smallest ever aircraft.

The plan is to keep one of the orbiters in Space for about five years as a platform for educational activities, enabling scientific research to continue. 

One such project will see university students from both Israel and UAE determine the precise time of the New Moon using data from the mission. The lunar calendar governs both Jewish and Muslim dates and major holidays.

Both the Israel Space Agency and the UAE Space Agency also plan to publish a call for joint research to use the mission’s data to examine phenomena related to the growing global climate crisis.

April marks both the International Day of Human Space Flight and International Earth Day.

The Israeli Institute of Technology continues to be at the forefront of groundbreaking solutions to help protect our planet – both inside and outside the university