Category Archives: News

Nobel Prize Winning Ubiquitin in Action

Proteologics’ pioneers targeted drug development CEO Joshua Levin discusses the molecules being developed with Teva and GlaxoSmithKline.[Extracted from Globes, Israel]

The award of the 2011 Nobel Prize in Chemistry to Prof. Dan Schechtman, following the 2009 win by Prof. Ada Yonath, put the world of chemistry and Israel’s contributions to science that laypeople can barely understand in the limelight. Schechtman and Yonath have not yet turned their discoveries, of quasi-crystals and the mechanism of the ribosome, respectively, into commercial products, but their two Israeli predecessors, Prof. Aaron Ciechanover and Prof. Avram Hershko, the 2004 Nobel Laureates in Chemistry, have succeeded in doing so (or at least trying). They contributed their know-how and reputations to Proteologics Ltd. (TASE: PRTL).

Ubiquitin – the new buzzword

To understand what Proteologics is doing, it is necessary to go back to high school chemistry and the stubborn teacher who tried to explain what a protein is. The company is developing targeted therapeutics for the ubiquitin system, which regulates almost all aspects of eukaryotic cellular function, including cell cycle regulation, DNA repair, signal transduction, immune response, protein quality control and metabolism. The system comprises about 1,000 protiens.
Hershko and Ciechanover discovered the ubiquitin system in 1978, and jointly won the Nobel Prize in Chemistry in 2004 for the discovery. They are both members of Proteologics’ science advisory board.
Targeted medications are not regular drugs; as their name implies, they have just one specific target, and are consequently more effective, (improving a patient’s quality of life by reducing the side effects of treatment) and are more efficient for health funds by cutting costs. These drugs discover the proteins that play an important role in a disease, neutralizing which leads to improvement, even a cure, for the disease in question.
A ubiquitin is a small regulatory protein that can be attached to proteins and label them for destruction for the proper function of the cell. Ubiquitin tags can also direct proteins to other locations in the cell, where they control other protein and cell mechanisms. Disruption of the ubiquitin system is therefore liable to cause a wide range of diseases, including cancers, diseases of the nervous system such as Alzheimer’s or Parkinson’s, muscular dystrophy, and viral diseases.
Drug development is complicated, and the difficulties are compounded in the case of the ubiquitin system. It is a hierarchal cascade system with three levels: The E1 enzyme is a single protein, which can bind with the subordinate level, E2 enzymes (of which there are about 40), which in turn influence the more than 600 E3 enzymes.
This hierarchal cascade and the multiple E2-E3 connections complicates the drug development task. E3 enzymes directly transfer the signal to the protein, and this is where Proteologics finds the proteins that are the basis for its therapeutics. Any intervention higher up in the hierarchy is liable to cause harm rather than help.
Business model: spread the risk
Proteologics’ business model may prove in future to be much more effective than the models of other R&D companies. The drug development and approval process has three main stages. First is identification of the target and development of a suitable molecule, which is followed by preclinical and human clinical trials.
Proteologics only operates at the first and second stages, while the final stage, which requires more time and financial investment, is handled by the company’s big pharma partners – Teva Pharmaceutical Industries Ltd. (Nasdaq: TEVA; TASE: TEVA) and GlaxoSmithKline plc (NYSE; LSE: GSK).
In this way, Proteologics reduces its financial risk, as the clinical trial and most expensive stage is carried out by big pharma companies which bear the financial risk. Proteologics even receives advances for R&D costs, which are partly covered by its partners. The company also has an option for receiving milestone payments, and will receive generous royalties from sales, assuming that the drug is approved for marketing.
Until that day comes, if it ever does, Proteologics can use the milestone payments to pursue additional projects on the basis of the platform it developed for working with E3 enzymes with different tags. This enables the company to survive, in theory, for a long time as it expands its knowledge and its platform to create a large enough product base that will increase its chances of turning at least one of its drug candidates into a commercial product.
Proteologics CEO Joshua Levin says that it has been able to lower its risk profile by choosing two partners that complements each other, in both character and terms of the agreements signed with them. GlaxoSmithKline, a UK giant with a market cap of $117 billion, is developing with Proteologics six programs for the treatment of various cancers (each program is based on a different E3 enzyme). Teva is jointly developing three programs. Proteologics is also developing two programs independently, and will either continue to do so or find a partner.
“GlaxoSmithKline and Teva complement each other,” says Levin. “Teva is not an innovative company, which is why it chose to invest a little in us now, and give us a larger share of revenue from drug sales. GlaxoSmithKline, in contrast, chose to invest much more in us at the first and second stages, and took a greater share for itself when the drug reaches market.”
In the case of GlaxoSmithKline, which is the more important partner for Levin, each program could generate up to $176 million in royalties, or up to $1 billion altogether, but Levin is realistic about these numbers. “This isn’t a real number. There’s no chance that all six drugs will be commercialized,” he says.

2012 is the critical year

Under Proteologics’ timetable, 2012 will be a critical year. Teva, which has undergone quite a few changes, mainly as a result of its acquisition of Cephalon, is scheduled to receive its first molecule from Proteologics within months, and will have to decide whether it wants to pursue development. If it chooses not to do so, Proteologics can continue development (a Phase I clinical trial) independently, or find another partner, without the need to start the development process from scratch.
Levin is not worried that either Teva or GlaxoSmithKline will return molecules to the company, but he is nonetheless doing everything to make sure that does not happen. In the case of GlaxoSmithKline, each program has a three-year timeframe, which means that in early 2013, Proteologics will have to hand over the first molecule to it and wait for a response.
Read full article at Globes

Nobel Prize Winning Ubiquitin in Action

Proteologics’ pioneers targeted drug development CEO Joshua Levin discusses the molecules being developed with Teva and GlaxoSmithKline.[Extracted from Globes, Israel]

The award of the 2011 Nobel Prize in Chemistry to Prof. Dan Schechtman, following the 2009 win by Prof. Ada Yonath, put the world of chemistry and Israel’s contributions to science that laypeople can barely understand in the limelight. Schechtman and Yonath have not yet turned their discoveries, of quasi-crystals and the mechanism of the ribosome, respectively, into commercial products, but their two Israeli predecessors, Prof. Aaron Ciechanover and Prof. Avram Hershko, the 2004 Nobel Laureates in Chemistry, have succeeded in doing so (or at least trying). They contributed their know-how and reputations to Proteologics Ltd. (TASE: PRTL).

Ubiquitin – the new buzzword

To understand what Proteologics is doing, it is necessary to go back to high school chemistry and the stubborn teacher who tried to explain what a protein is. The company is developing targeted therapeutics for the ubiquitin system, which regulates almost all aspects of eukaryotic cellular function, including cell cycle regulation, DNA repair, signal transduction, immune response, protein quality control and metabolism. The system comprises about 1,000 protiens.
Hershko and Ciechanover discovered the ubiquitin system in 1978, and jointly won the Nobel Prize in Chemistry in 2004 for the discovery. They are both members of Proteologics’ science advisory board.
Targeted medications are not regular drugs; as their name implies, they have just one specific target, and are consequently more effective, (improving a patient’s quality of life by reducing the side effects of treatment) and are more efficient for health funds by cutting costs. These drugs discover the proteins that play an important role in a disease, neutralizing which leads to improvement, even a cure, for the disease in question.
A ubiquitin is a small regulatory protein that can be attached to proteins and label them for destruction for the proper function of the cell. Ubiquitin tags can also direct proteins to other locations in the cell, where they control other protein and cell mechanisms. Disruption of the ubiquitin system is therefore liable to cause a wide range of diseases, including cancers, diseases of the nervous system such as Alzheimer’s or Parkinson’s, muscular dystrophy, and viral diseases.
Drug development is complicated, and the difficulties are compounded in the case of the ubiquitin system. It is a hierarchal cascade system with three levels: The E1 enzyme is a single protein, which can bind with the subordinate level, E2 enzymes (of which there are about 40), which in turn influence the more than 600 E3 enzymes.
This hierarchal cascade and the multiple E2-E3 connections complicates the drug development task. E3 enzymes directly transfer the signal to the protein, and this is where Proteologics finds the proteins that are the basis for its therapeutics. Any intervention higher up in the hierarchy is liable to cause harm rather than help.
Business model: spread the risk
Proteologics’ business model may prove in future to be much more effective than the models of other R&D companies. The drug development and approval process has three main stages. First is identification of the target and development of a suitable molecule, which is followed by preclinical and human clinical trials.
Proteologics only operates at the first and second stages, while the final stage, which requires more time and financial investment, is handled by the company’s big pharma partners – Teva Pharmaceutical Industries Ltd. (Nasdaq: TEVA; TASE: TEVA) and GlaxoSmithKline plc (NYSE; LSE: GSK).
In this way, Proteologics reduces its financial risk, as the clinical trial and most expensive stage is carried out by big pharma companies which bear the financial risk. Proteologics even receives advances for R&D costs, which are partly covered by its partners. The company also has an option for receiving milestone payments, and will receive generous royalties from sales, assuming that the drug is approved for marketing.
Until that day comes, if it ever does, Proteologics can use the milestone payments to pursue additional projects on the basis of the platform it developed for working with E3 enzymes with different tags. This enables the company to survive, in theory, for a long time as it expands its knowledge and its platform to create a large enough product base that will increase its chances of turning at least one of its drug candidates into a commercial product.
Proteologics CEO Joshua Levin says that it has been able to lower its risk profile by choosing two partners that complements each other, in both character and terms of the agreements signed with them. GlaxoSmithKline, a UK giant with a market cap of $117 billion, is developing with Proteologics six programs for the treatment of various cancers (each program is based on a different E3 enzyme). Teva is jointly developing three programs. Proteologics is also developing two programs independently, and will either continue to do so or find a partner.
“GlaxoSmithKline and Teva complement each other,” says Levin. “Teva is not an innovative company, which is why it chose to invest a little in us now, and give us a larger share of revenue from drug sales. GlaxoSmithKline, in contrast, chose to invest much more in us at the first and second stages, and took a greater share for itself when the drug reaches market.”
In the case of GlaxoSmithKline, which is the more important partner for Levin, each program could generate up to $176 million in royalties, or up to $1 billion altogether, but Levin is realistic about these numbers. “This isn’t a real number. There’s no chance that all six drugs will be commercialized,” he says.

2012 is the critical year

Under Proteologics’ timetable, 2012 will be a critical year. Teva, which has undergone quite a few changes, mainly as a result of its acquisition of Cephalon, is scheduled to receive its first molecule from Proteologics within months, and will have to decide whether it wants to pursue development. If it chooses not to do so, Proteologics can continue development (a Phase I clinical trial) independently, or find another partner, without the need to start the development process from scratch.
Levin is not worried that either Teva or GlaxoSmithKline will return molecules to the company, but he is nonetheless doing everything to make sure that does not happen. In the case of GlaxoSmithKline, each program has a three-year timeframe, which means that in early 2013, Proteologics will have to hand over the first molecule to it and wait for a response.
Read full article at Globes

Key EU Patent – a robotic medical renaissance from Mazor.

PRESS RELEASE
Jan. 6, 2012, 7:00 a.m. EST

Mazor Robotics Announces Key European Patent for Renaissance(TM) Surgical Guidance Robot

CAESAREA, Israel, Jan 06, 2012 (BUSINESS WIRE) — Mazor Robotics Ltd. (tase:MZOR), a developer of innovative surgical robots and complementary products, today announced that the European Patent Office granted European Patent No. 1414362 entitled “Miniature Bone-mounted Surgical Robot,” which covers the Company’s flagship product, Renaissance(TM). Renaissance is a state-of-the-art surgical robotic system that enables surgeons to conduct spine surgeries in an accurate and secure manner.
The newly granted patent includes claims for surgical robots, including Renaissance, to be mounted to a patient’s spine. This maximizes the likelihood of accurate positioning of implants during surgical procedures even if patient movement occurs.
“This patent is an important new addition to our global intellectual property portfolio and increases the value of our spine franchise,” said Ori Hadomi, President & CEO of Mazor Robotics. “We believe this patent secures our unique surgical approach, as Mazor Robotics’ technology is the only system which is fixated to the patient’s anatomy, assuring the highest accuracy levels and reliability in spine surgeries which would be almost impossible to emulate otherwise.”
Mazor holds related patents in other major markets throughout the world. The company has a solid IP position in global markets, including the US, Canada and Europe, protecting all of its core technology and applications.
About Mazor
Mazor Robotics (tase:MZOR) is dedicated to the development and marketing of innovative surgical robots and complementary products that provide a safer surgical environment for patients, surgeons, and OR staff. Mazor Robotics’ flagship product, Renaissance(TM), is a state-of-the-art surgical robotic system that enables surgeons to conduct spine surgeries in an accurate and secure manner. Mazor Robotics systems have been successfully used in the placement of over 12,000 implants in the USA and Europe. Multiple peer-reviewed publications and presentations at leading scientific conferences have validated the accuracy, usability, and clinical advantages of Mazor Robotics technology. The Company received authorization to affix a CE Mark for the Renaissance system in Europe for brain surgeries in May 2011. For more information, please visit www.mazorrobotics.com .
SOURCE: Mazor Robotics Ltd.

Key EU Patent – a robotic medical renaissance from Mazor.

PRESS RELEASE
Jan. 6, 2012, 7:00 a.m. EST

Mazor Robotics Announces Key European Patent for Renaissance(TM) Surgical Guidance Robot

CAESAREA, Israel, Jan 06, 2012 (BUSINESS WIRE) — Mazor Robotics Ltd. (tase:MZOR), a developer of innovative surgical robots and complementary products, today announced that the European Patent Office granted European Patent No. 1414362 entitled “Miniature Bone-mounted Surgical Robot,” which covers the Company’s flagship product, Renaissance(TM). Renaissance is a state-of-the-art surgical robotic system that enables surgeons to conduct spine surgeries in an accurate and secure manner.
The newly granted patent includes claims for surgical robots, including Renaissance, to be mounted to a patient’s spine. This maximizes the likelihood of accurate positioning of implants during surgical procedures even if patient movement occurs.
“This patent is an important new addition to our global intellectual property portfolio and increases the value of our spine franchise,” said Ori Hadomi, President & CEO of Mazor Robotics. “We believe this patent secures our unique surgical approach, as Mazor Robotics’ technology is the only system which is fixated to the patient’s anatomy, assuring the highest accuracy levels and reliability in spine surgeries which would be almost impossible to emulate otherwise.”
Mazor holds related patents in other major markets throughout the world. The company has a solid IP position in global markets, including the US, Canada and Europe, protecting all of its core technology and applications.
About Mazor
Mazor Robotics (tase:MZOR) is dedicated to the development and marketing of innovative surgical robots and complementary products that provide a safer surgical environment for patients, surgeons, and OR staff. Mazor Robotics’ flagship product, Renaissance(TM), is a state-of-the-art surgical robotic system that enables surgeons to conduct spine surgeries in an accurate and secure manner. Mazor Robotics systems have been successfully used in the placement of over 12,000 implants in the USA and Europe. Multiple peer-reviewed publications and presentations at leading scientific conferences have validated the accuracy, usability, and clinical advantages of Mazor Robotics technology. The Company received authorization to affix a CE Mark for the Renaissance system in Europe for brain surgeries in May 2011. For more information, please visit www.mazorrobotics.com .
SOURCE: Mazor Robotics Ltd.

A Paradigm Shift in Education Awareness. Energy, innovation.



The TCII campus includes a main building that will operate at net zero energy and a photovoltaic system with 1.8 megawatt capacity.

As Technion, Cornell University and New York City get ready to put the cornerstone of the world’s first Institute of Innovation on Roosevelt Island, the winning proposal has also been applauded for its exemplary energy consciousness and it’s multidiciplinary structure of hubs.

The new campus of the Technion Cornell Institute of Innovation announced by New York Mayor Bloomberg on the 19th December, 2011, is aiming to combine cutting-edge technologies to create one of the most environmentally friendly and energy efficient campuses in the world. The proposed phase one academic building, if completed today, would be the largest net-zero energy building in eastern US; it will harvest as much energy from solar power and geothermal wells as it consumes on an annual basis. The campus will include a solar array that will generate 1.8 megawatts at daily peak and a 400 well geothermal field, which uses the constant temperature of the earth to cool buildings in the summer and heat them in the winter. The well field and solar array would each be largest in New York City. 

The campus’s Built Environment hub will also help develop the environmental technologies that it will use. The concept of multidisciplinary “hubs” says Technion President Peretz Lavie, was introduced by the Technion, following its success in the best decade with focused interdisciplinary centers such as the Grand Technion Energy Program. “I am sure there will be a strong flow of science, skills and knowhow in the future between Technion’s GTEP and the new TCII,” said Lavie,

The 10-acre TCII campus – on Roosevelt Island, in the East River – will be organized around three interdisciplinary hubs: connective media, healthier life, and the built environment. Over the next 15 years, the complex will grow to include more than 1.3 million square feet of built space and, in keeping with Applied Sciences NYC’s goal of academic and business collaboration, serve as a living laboratory for energy efficient building and renewable-energy systems. By 2043, the campus is expected to include about 2 million square feet of housing for as many as 2,500 students and 280 faculty members.

A 150,000-square-foot core academic building is being designed and built to perform at net zero energy, while other campus buildings are expected to qualify for the LEED Silver or Gold standard and yield about 30% greater energy efficiency than comparably sized buildings built to code. The campus will be served by a photovoltaic system with a peak generation capacity of 1.8 megawatts. The project also will include a geothermal system with 400 wells, each about 500 feet deep, spread out over four acres.

Israel Power – planning the next 100 years

I-CORE - Israeli Centers Of Research Excellence

Technion’s GTEP launches Israel’s national scientific center of excellence to develop the alternative energy supplies of the future.




Renewable, Sustainable & Alternative Sources of Energy


The group selected to establish this I-CORE is led by Prof. Gideon Grader, head of the Technion’s Grand Technion Energy Program (GTEP).  The Center will be an Israeli consortium for the study of solar fuels. 27 senior researchers from the Technion, the Weizmann Institute of Science and Ben Gurion University of the Negev are taking part in this group.


During the first year of operation the Center will absorb new additional researchers, returning to Israel from Harvard University, Berkeley University and the Juelich Research Center.  


The Center of Excellence in Renewable and Sustainable Energy will conduct research on fuel production through the use of sunlight, focusing on fuel production from plants (such as algae and various agricultural growths), breaking down water to generate hydrogen, and breaking down carbon dioxide for the production of fuels. The Center will provide an unparalleled opportunity to advance this field on a national scale, through fruitful cooperation among institutions, and to leverage the research in Israel and abroad.  


The subject of alternative fuels is an incomparably important issue especially in light of the global energy situation. Especially worrisome is the situation regarding oil reserves – oil is perishable and large reserves are found in Israel’s neighbors in the Middle East, many of which are hostile.   


While there are sufficient coal reserves to generate electricity, obviously the world cannot depend exclusively on coal, or there will be a major environmental problem. A project such as this is of crucial significance, especially to Israel. Helping to find solutions at the global level and reduce the world’s dependence on oil, will have a positive impact on Israel’s security and status, whether or not those solutions are implemented in Israel itself.


Research in this field in Israel is still in its preliminary stages, but it has tremendous potential to lead to significant breakthroughs in specific directions – something that the I-CORE will facilitate. This Center of  Excellence is an important step towards the development of alternative fuels and reducing global dependence on oil.


A key component of the I-CORE will be the establishment of central laboratories to bolster intramural synergies and promote team endeavors across Israel. This research cluster will contribute to the development of patents and commercial ventures in various spheres. The I-CORE will also expand cooperation with partners in the United States and consortia led by the European Union.

I-CORE - Israeli Centers Of Research Excellence


Israel Power – planning the next 100 years

I-CORE - Israeli Centers Of Research Excellence

Technion’s GTEP launches Israel’s national scientific center of excellence to develop the alternative energy supplies of the future.




Renewable, Sustainable & Alternative Sources of Energy


The group selected to establish this I-CORE is led by Prof. Gideon Grader, head of the Technion’s Grand Technion Energy Program (GTEP).  The Center will be an Israeli consortium for the study of solar fuels. 27 senior researchers from the Technion, the Weizmann Institute of Science and Ben Gurion University of the Negev are taking part in this group.


During the first year of operation the Center will absorb new additional researchers, returning to Israel from Harvard University, Berkeley University and the Juelich Research Center.  


The Center of Excellence in Renewable and Sustainable Energy will conduct research on fuel production through the use of sunlight, focusing on fuel production from plants (such as algae and various agricultural growths), breaking down water to generate hydrogen, and breaking down carbon dioxide for the production of fuels. The Center will provide an unparalleled opportunity to advance this field on a national scale, through fruitful cooperation among institutions, and to leverage the research in Israel and abroad.  


The subject of alternative fuels is an incomparably important issue especially in light of the global energy situation. Especially worrisome is the situation regarding oil reserves – oil is perishable and large reserves are found in Israel’s neighbors in the Middle East, many of which are hostile.   


While there are sufficient coal reserves to generate electricity, obviously the world cannot depend exclusively on coal, or there will be a major environmental problem. A project such as this is of crucial significance, especially to Israel. Helping to find solutions at the global level and reduce the world’s dependence on oil, will have a positive impact on Israel’s security and status, whether or not those solutions are implemented in Israel itself.


Research in this field in Israel is still in its preliminary stages, but it has tremendous potential to lead to significant breakthroughs in specific directions – something that the I-CORE will facilitate. This Center of  Excellence is an important step towards the development of alternative fuels and reducing global dependence on oil.


A key component of the I-CORE will be the establishment of central laboratories to bolster intramural synergies and promote team endeavors across Israel. This research cluster will contribute to the development of patents and commercial ventures in various spheres. The I-CORE will also expand cooperation with partners in the United States and consortia led by the European Union.

I-CORE - Israeli Centers Of Research Excellence


Cartilage Repair with GelrinC – clinical trials begin.

Regentis Biomaterials

Regentis Biomaterials Announces First Patient Treated in its Cartilage Clinical Study 

Regentis Biomaterials announced today that the first patient has been successfully operated in its’
Cartilage Clinical Study. The study  a single arm, open label, multi-center study to evaluate the safety
and performance of articular cartilage lesions located on the femoral condyle, with the company’s
proprietary tissue repair matrix, GerlinC. The procedure was performed by Sven Anders, MD, at
Regensburg University Hospital, Regensburg, Germany.

GelrinC is a biodegradable, of-the-shelf, a-cellular implant made of polyethylene glycol diacrylate
(PEG-DA) covalently conjugated with a structural backbone of denatured fibrinogen chains. The
device comes in a liquid form, injected into the lesion site and polymerized in situ into a stable
hydrogel solid matrix. The device gradually degrades over a period of 6-12 months whilst enabling
natural functional tissue to fill the space occupied previously by the implant.

The first patient was had a single lesion on his femoral condyle. The lesion was successfully treated
with GelrinC. The patient was discharged from the hospital and is doing well.

“We are pleased Dr. Anders has successfully implanted GelrinC in the patient lesion, this is a key
milestone for the company in its path to prove safety and efficacy of GelrinC as a treatment for
cartilage repair” said Yehiel Tal, the company’s CEO, “We believe that Regentis technology platform
GelrinC offers a significant therapeutic advantage to patients with local cartilage lesions”

About Regentis Biomaterials:

Established in 2004, Regentis Biomaterials is a tissue repair company that is developing and
commercializing innovative biodegradable hydrogels for the local repair of damaged cartilage and
bone.  Our platform technology is a family of hydrogels called Gelrin™. These gels can be injected or
applied to a specific local site and offer beneficial properties for the local repair of damaged tissue
such as cartilage and bone.

The Gelrin™ technology offers off-the-shelf products that are designed to be suitable for both open
surgery and minimally invasive procedures. An ideal solution for physicians and their patients, the
products are easy to implant and have been shown to stimulate the regeneration of healthy cartilage
and bone tissue. Regentis’ first orthopedic product is GelrinC, a biodegradable hydrogel for articular
cartilage regeneration. Additional pipeline products include GelrinB – a biodegradable hydrogel for
bone regeneration; and GelrinA – a void filling matrix for aesthetic indications.

CAUTION: GelrinC is an investigational product, not available in Europe and in the US