Tag Archives: science

Physics research brings new strategies for brain tumor treatment.

File:PET-image.jpg

Modeling the demise of migrating brain tumor cells

Evolution of brain tumor cells under treatment reveal that it is the peripheral tumor cells that need to be targeted

An Israeli physicist has developed a theoretical model to simulate the evolution of highly proliferating brain tumour core cells subjected to treatment by alternating radio frequency electric field. The research, by Alexander Iomin from the Technion – Israel Institute of Technology Technion in Haifa, is about to be published in EPJ E¹. In another model, the author examines the possibility of enhancing the level of treatment by targeting the outer area of the tumour.
Iomin introduced a theoretical evaluation of the effect of a standard treatment known as tumour-treating-field (TTF) on the speed of development of a type of brain tumour called glioma. To do so, he adapted a well-established model — the so-called fractal comb model, which looks like the regularly spaced teeth of a comb — based on a mathematical approach called fractional calculus. This model is based on the hypothesis that TTF treatment had limited efficiency in the outer region and would only be effective on the inner part of the tumour, which is characterised by a higher proliferation rate of cancer cells.
By contrast, the peripheral part of the tumour is characterised by high migration and low proliferation rates of cancer cells. In his second model, the author considered glioma cancer as a composite of cancer cells and normal tissue cells. Each cell type exhibits a distinctive polarisation by an electric field, following a pattern similar to fractal geometry. He established a model reflecting the difference between the two types of cells and applied fractal calculus to their geometry. Iomin suggested that because of the fractal nature of cancer cells the TTF treatment might be enhanced at certain frequencies. As a result, the cancer cells’ plasma membrane permeability would irreversibly increase, which could lead to their demise. This approach may constitute an effective non-invasive method for treating brain cancer.
Article extracted from: EurekaAlert.

Parkinson’s in the genes? Technion isolates the 5 genes for early diagnosis.

3 June 2012

Technion Researchers Identify a Cluster of Five Genes in the Blood that Predict Parkinson’s Disease

Technion researchers from the Rappaport Faculty of Medicine have identified five genes that predict Parkinson’s disease, reports the scientific journal Molecular Neurodegeneration. The research was conducted by Dr. Silvia Mandel, Vice Director of the Eve Topf Center of Excellence for Neurodegenerative Diseases Research and Teaching, together with her colleagues Prof. Moussa Youdim (Technion), Prof. Judith Aharon (Rambam Medical Center), and Prof. Martin Rabey (Assaf HaRofeh Medical Center), as well as her colleagues from the Universities of Würzburg and Pisa.
“Currently, there is no blood test that can diagnose PD, making the detection of individuals at risk or at earliest stages of PD practically impossible. Instead it is identified by a clinical neurological examination based on findings suggestive of Parkinson’s disease. Finding biomarkers for Parkinson’s disease will help to capture those high-risk subjects before symptoms develop, a stage where prevention treatment efforts might be expected to have their greatest impact to slow disease progression”, says Dr. Silvia Mandel. “The first aim of our study was to assess whether a gene signature could be detected in blood from early Parkinson’s disease patients that could support the diagnosis of the disease”.
The examination was conducted on blood samples from 62 early stage Parkinson’s disease patients and 64 healthy age-matched controls. The selection of the genes and determination of their expression in the blood was based on previous research conducted by Drs. Silvia Mandel and Moussa Youdim on the brains of Parkinson’s disease patients, in which a group of genes was identified with defective expression compared to the brains of healthy people (control group). Five genes were found that are optimal predictors of Parkinson’s disease.
The predictive ability of the model was validated in an independent cohort of 30 patients at advanced stages of Parkinson’s disease, with 100% accuracy, which suggests a potential for the genetic signature to assess disease severity. Lastly, the model fully discriminated between Parkinson’s disease and Alzheimer’s disease.
“The findings strengthen the assumption that a five-gene panel in the blood allows to diagnose early stage Parkinson’s disease, with a possible diagnostic value for detection of the disease before the appearance of the characteristic motor symptoms”, say the Technion researchers. “The biomarker could assist in diagnosing individuals at presymptomatic stages of the disease (patients with depression, sleep disturbances or hyposmia (reduced ability to smell) or patients carrying genetic risk factors) who are good candidates for neuroprotective treatment. Such a biomarker will be of value in clinical trials for the identification of that subgroup of Parkinson’s disease patients that may respond favorably to therapies targeting the mechanisms reflected by the gene panel. All five genes play a role in the ubiquitin-proteasome system, whose involvement in the pathology of Parkinson’s disease has previously been demonstrated.
The Technion researchers believe that, in the future, the blood test may be combined with brain imaging and/or biomarkers in the spinal fluid or other peripheral tissues, as a gold standard not only for early diagnosis, but also for the differential diagnosis of Parkinson’s and motor disorders mimicking the disease.

Parkinson’s in the genes? Technion isolates the 5 genes for early diagnosis.

3 June 2012

Technion Researchers Identify a Cluster of Five Genes in the Blood that Predict Parkinson’s Disease

Technion researchers from the Rappaport Faculty of Medicine have identified five genes that predict Parkinson’s disease, reports the scientific journal Molecular Neurodegeneration. The research was conducted by Dr. Silvia Mandel, Vice Director of the Eve Topf Center of Excellence for Neurodegenerative Diseases Research and Teaching, together with her colleagues Prof. Moussa Youdim (Technion), Prof. Judith Aharon (Rambam Medical Center), and Prof. Martin Rabey (Assaf HaRofeh Medical Center), as well as her colleagues from the Universities of Würzburg and Pisa.
“Currently, there is no blood test that can diagnose PD, making the detection of individuals at risk or at earliest stages of PD practically impossible. Instead it is identified by a clinical neurological examination based on findings suggestive of Parkinson’s disease. Finding biomarkers for Parkinson’s disease will help to capture those high-risk subjects before symptoms develop, a stage where prevention treatment efforts might be expected to have their greatest impact to slow disease progression”, says Dr. Silvia Mandel. “The first aim of our study was to assess whether a gene signature could be detected in blood from early Parkinson’s disease patients that could support the diagnosis of the disease”.
The examination was conducted on blood samples from 62 early stage Parkinson’s disease patients and 64 healthy age-matched controls. The selection of the genes and determination of their expression in the blood was based on previous research conducted by Drs. Silvia Mandel and Moussa Youdim on the brains of Parkinson’s disease patients, in which a group of genes was identified with defective expression compared to the brains of healthy people (control group). Five genes were found that are optimal predictors of Parkinson’s disease.
The predictive ability of the model was validated in an independent cohort of 30 patients at advanced stages of Parkinson’s disease, with 100% accuracy, which suggests a potential for the genetic signature to assess disease severity. Lastly, the model fully discriminated between Parkinson’s disease and Alzheimer’s disease.
“The findings strengthen the assumption that a five-gene panel in the blood allows to diagnose early stage Parkinson’s disease, with a possible diagnostic value for detection of the disease before the appearance of the characteristic motor symptoms”, say the Technion researchers. “The biomarker could assist in diagnosing individuals at presymptomatic stages of the disease (patients with depression, sleep disturbances or hyposmia (reduced ability to smell) or patients carrying genetic risk factors) who are good candidates for neuroprotective treatment. Such a biomarker will be of value in clinical trials for the identification of that subgroup of Parkinson’s disease patients that may respond favorably to therapies targeting the mechanisms reflected by the gene panel. All five genes play a role in the ubiquitin-proteasome system, whose involvement in the pathology of Parkinson’s disease has previously been demonstrated.
The Technion researchers believe that, in the future, the blood test may be combined with brain imaging and/or biomarkers in the spinal fluid or other peripheral tissues, as a gold standard not only for early diagnosis, but also for the differential diagnosis of Parkinson’s and motor disorders mimicking the disease.

FROM SLAVERY TO FREEDOM: Message from Technion President Prof. Peretz Lavie.

A Creative Space: The Technion Gutwirth Ecological Garden,
April 2012, Picture by Technion student Guy Shahar
Welcome to this spring 2012 edition of Technion LIVE. In these days we are celebrating the redemption of the Jewish people from slavery in Egypt through the festival of Passover. Also in this time, we celebrate 100 years since April 11th, 1912 – the day when the first cornerstone was placed to physically declare the intent to create a first center of higher learning for the Jewish people in what was then Ottomon-occupied Palestine. 
We must never forget the creative space that comes before a great inspiration. Whether it was the urge of Moses to redeem his people through a great leap of trust into the wilderness, or whether it was the early visionaries of the Technion – who saw that the Jewish people could be freed from centuries of bloodshed and antisemitism in the diaspora by taking physical responsibility for their destiny and by moving also with a great leap of faith into the unknown. 
Technion is a place that is world-renowned for innovation and for its record numbers of start-ups and patents. Yet, our innermost secret is the strength of our basic research – that which has won Nobel Prizes for three of our scientists. This basic research is a direct function of our ability to invest in creative space – where the scientists can move with freedom and curiosity – pursing knowledge and skills, following his or her inspiration, without conditions. Only academic institutes of research can give this. From the front-lines of research at the Russell Berrie Nanotechnology Institute (RBNI), through to the steady unveiling of the mysteries of life through the Lorry I. Lokey Center for Life Sciences and Engineering, through to dyamic programs like the Grand Technion Energy Program (GTEP) which is now a national coordinator in research into solar fuels – this creative space of basic research is the potent key to discovery and progress.
A Happy Passover and a proud Technion Cornerstone Centennial to all our students, friends and alumni in Israel and around the world. May we join together as one humanity in taking responsibility for our global future in order to open more freedom, peace and progress for all.
 
Professor Peretz Lavie 
President

FROM SLAVERY TO FREEDOM: Message from Technion President Prof. Peretz Lavie.

A Creative Space: The Technion Gutwirth Ecological Garden,
April 2012, Picture by Technion student Guy Shahar
Welcome to this spring 2012 edition of Technion LIVE. In these days we are celebrating the redemption of the Jewish people from slavery in Egypt through the festival of Passover. Also in this time, we celebrate 100 years since April 11th, 1912 – the day when the first cornerstone was placed to physically declare the intent to create a first center of higher learning for the Jewish people in what was then Ottomon-occupied Palestine. 
We must never forget the creative space that comes before a great inspiration. Whether it was the urge of Moses to redeem his people through a great leap of trust into the wilderness, or whether it was the early visionaries of the Technion – who saw that the Jewish people could be freed from centuries of bloodshed and antisemitism in the diaspora by taking physical responsibility for their destiny and by moving also with a great leap of faith into the unknown. 
Technion is a place that is world-renowned for innovation and for its record numbers of start-ups and patents. Yet, our innermost secret is the strength of our basic research – that which has won Nobel Prizes for three of our scientists. This basic research is a direct function of our ability to invest in creative space – where the scientists can move with freedom and curiosity – pursing knowledge and skills, following his or her inspiration, without conditions. Only academic institutes of research can give this. From the front-lines of research at the Russell Berrie Nanotechnology Institute (RBNI), through to the steady unveiling of the mysteries of life through the Lorry I. Lokey Center for Life Sciences and Engineering, through to dyamic programs like the Grand Technion Energy Program (GTEP) which is now a national coordinator in research into solar fuels – this creative space of basic research is the potent key to discovery and progress.
A Happy Passover and a proud Technion Cornerstone Centennial to all our students, friends and alumni in Israel and around the world. May we join together as one humanity in taking responsibility for our global future in order to open more freedom, peace and progress for all.
 
Professor Peretz Lavie 
President

Outsmarting HIV with X-Ray Crystallography

Dr, Alian Akram, Lorry I. Lokey Center for Life Science & Engineering, Technion.

Outsmarting HIV


It sound like modern warfare, and indeed, even when aiming to outsmart a killer virus on a scale of about 100 nanometers, the latest technology makes all the difference. One of the deep passions behind Dr. Alian Akram’s pioneering crystallographic work in the Technion is a desire to advance treatments for HIV, the causative agent of AIDS.



Scientists in Akram’s lab investigate the general principles of how aggressive virus lock into the genetic resources of a patient – and how to prevent them from doing this. “It is a MUST to learn about the critical interactions and the mechanisms of resistance,” says Akram. The team is taking a sharp look at pathogen-host interaction and how the HIV virus literally hijacks the machinery of the host cell in order to replicate itself, and how it escapes the immune system. “We are hoping to determine the structures of key interacting molecules and develop new intervening strategies and drugs that prevent their interaction. We also want to understand the mechanism of emergent resistance in the proteins of this virus.”



Current drugs for HIV bind viral proteins – and yet it continues to mutate and regenerate. Akram’s team is working on a protein discovered in 2004 – intrinsic immunity APOBEC3G. This protein attacks the genome of HIV and causes hypermutation that leads to an abortive replication cycle for HIV. However, HIV expresses a protein that destroys APOBEC, so the Akram’s group wants to understand this process better so that it can be blocked.
Crystal structure of Pseudouridine synthase in complex with RNA solved by  Akram Alian. The structure reveals base-pair rearrangement as the key mechanism to rRNA substrate selectivity  (http://rnajournal.cshlp.org/content/16/6.cover-expansion)”

Outsmarting HIV with X-Ray Crystallography

Dr, Alian Akram, Lorry I. Lokey Center for Life Science & Engineering, Technion.

Outsmarting HIV


It sound like modern warfare, and indeed, even when aiming to outsmart a killer virus on a scale of about 100 nanometers, the latest technology makes all the difference. One of the deep passions behind Dr. Alian Akram’s pioneering crystallographic work in the Technion is a desire to advance treatments for HIV, the causative agent of AIDS.



Scientists in Akram’s lab investigate the general principles of how aggressive virus lock into the genetic resources of a patient – and how to prevent them from doing this. “It is a MUST to learn about the critical interactions and the mechanisms of resistance,” says Akram. The team is taking a sharp look at pathogen-host interaction and how the HIV virus literally hijacks the machinery of the host cell in order to replicate itself, and how it escapes the immune system. “We are hoping to determine the structures of key interacting molecules and develop new intervening strategies and drugs that prevent their interaction. We also want to understand the mechanism of emergent resistance in the proteins of this virus.”



Current drugs for HIV bind viral proteins – and yet it continues to mutate and regenerate. Akram’s team is working on a protein discovered in 2004 – intrinsic immunity APOBEC3G. This protein attacks the genome of HIV and causes hypermutation that leads to an abortive replication cycle for HIV. However, HIV expresses a protein that destroys APOBEC, so the Akram’s group wants to understand this process better so that it can be blocked.
Crystal structure of Pseudouridine synthase in complex with RNA solved by  Akram Alian. The structure reveals base-pair rearrangement as the key mechanism to rRNA substrate selectivity  (http://rnajournal.cshlp.org/content/16/6.cover-expansion)”

1912-2012: Technion Timeline of a Century.

Landmark behind Time





The Technion’s historic building was designed by the renowned Jewish German architect, Alexander Baerwald. His design includes both oriental and European motives. It is built from sandstone quarried in Tantura and Atlit. The building was part of Baerwald’s plan of an open corridor leading directly to the bay. He also designed buildings that would line the road, of which some were built, indeed (e.g. the Hebrew Reali School). 

The building’s cornerstone was laid in 1912. The building’s construction was delayed during the First World War. The partially completed building was used, then, as a military hospital. In 1925 it became the home of Israel’s first institute of higher education – The Technion, Israel Institute of Technology. Until 1953, all the Technion Faculties were located there. By 1965, most of them have moved to the Technion new campus in Haifa’s Nave Shaanan. The Faculty of Architecture and Town Planning stayed in the historic Technion building until 1985. 


Timeline of the Century

2012: Technion partners with Cornell University to found the Technion Cornell Institute of Innovation (TCII), an international ‘School of Genius’ in the heart of New York City.


2011: Technion Prof. Dan Shechtman receives the Nobel Prize in Chemistry for his discovery of quasicrystals.


2007: Technion pools its brainpower in a unique multidisciplinary center for research into energy science, technology and engineering: The Grand Technion Energy Program.


2006: Technion is Israel’s 1st university to receive the Nobel Prize for Science. Prof. Aaron Ciechanover and Prof. Avram Hershko jointly receive the Nobel Prize in Chemistry for their discovery, together with Irwin Rose, of the ubiquitin system within living cells.


2005: Technion opens the Russell Berrie Nanotechnology Institute (RBNI) to further empower and concentrate the plethora of excellent scientists, researchers and students pioneering science in the nano dimension.


2001: Technion scientists reveal they have long been quietly researching solutions to meet the threat of 3rd millennium terrorism as revealed by the horrific events in the US of September 11th


1998: Combining microbiology and microelectronics, scientists show how to make a transistor 1/100,000th the size of a human hair


1993: Technion students design and launch their own satellite: Gurwin Tech Sat. The satellite is still in orbit.


1991: Gulf War – Technion shows that the integration of expertise of Israel’s top institute of technology with its dynamic medical school makes Technion first responders in responding to missile attack on the home-front.


1989: Optoelectronics: A new center of excellence pioneering the technological promise of an expert understanding of light.


1982: The Rappaport Family Institute for Research in the Medical Sciences is established. During more than two decades of activity, the Institute has established itself as an internationally recognized research center and counts among its members several world-renowned scientists.
1981: Fiberoptics is pioneered by Technion


1978: Camp David accords with Egypt: the scientific challenges of peace and nation-planning means that in addition to its many projects in water management and environmental engineering, the Technion sets up the Samuel Neaman Institute.


1973: Yom Kippur War


1971: The Faculty of Biology is set up.


1969: The faculty of medicine is born. The first class consists of 43 students who had their preclinical education abroad. They were admitted to the fourth year and finished the requirements for the degree of Medical Doctor (M.D.), after two years of clinical training in the hospitals. The same year also sees the birth of the Department of Biomedical Engineering and the Faculty of Computer Science. 


1967: Six-Day War, Faculty of Materials Engineering is set up.


1966: Agricultural engineering degrees awarded to students from Africa and Asia


1965: Department of Education in Technology and Science


1962: Faculty of Food Engineering and Biotechnology 


1961: Technion offers a  flourishing graduate school and R&D foundation


1960: The Faculty of Mathematics and the Faculty of Physics are formed.

1958:  The opening of the Faculty of Chemistry, the Faculty of Industrial Engineering and Management, and The  Department of Humanities and Arts

1956: Students take part in the Sinai War


1954: Technion founding father Prof. Albert Einstein is awarded a Technion honorary doctorate. The Faculty of Chemical Engineering is opened.


1953:The Department of Aeronautical Engineering and the  Faculty of Agricultural Engineering are set up in the new campus.


1952: Rapid growth and expansion and increasing demand for Technion graduates and engineers nation-wide means the Technion leaves its first home in the historic building in down-town Haifa. Prime-Minister David Ben Gurion selects the new site for Technion City further up the slopes of Mount Carmel.


1948: With 680 students, Technion celebrates the declaration of independence. Studies are disrupted for most of the year as faculty and students fight for independence. The Faculty of Electrical Engineering and the Faculty of Mechanical Engineering are opened.


1944: Survival tasks – Technion develops early warning systems against air attacks as well as weapons for the Hagannah, the Israeli underground army that are preparing for the War of Independence.


1943: 1000 skilled Technion graduates join the war effort against Nazi Germany


1938: The Faculties of civil engineering, architecture, industrial engineering and opened, together with 11 new labs and a nautical school


1935: The Polish government recognizes Technion
1934: The Faculty of Industrial Technology is established covering broad fields. 


1931: Technion staff vote to work for nothing to ensure their institute survives.
1928: First class of 17 Technion engineers and architects graduates


1926: Zeev Jabotinsky addresses Technion Haganah members


1924: Technion officially enrolls 1st class of engineering students


1923: Einstein’s first visit in which he becomes president of the first Technion society, the German Technion Society




In 1923, Albert Einstein visited the empty building of the Technikum, where there was a plan to give courses for word workers, electricians and telephone and telegraph workers. Although the derelict buildings were being used as a hostel for immigrants from Europe, Albert Einstein did not think the dream of founding a technical university in the Middle East to be fantasy. As a great scientist, Einstein knew that what makes the impossible possible is the courage to follow an inspiration. 


1920: The building is legally acquired and recruitment for staff begins


1914: 1918 German, Turkish and then British troops occupy the building


1913: A battle continues over the language of Technion instruction: German or revitalized Hebrew?   Hebrew wins.


1912: The cornerstone is laid for Technion’s building


1908: Wissotzky, Schiff and the Jewish National Fund invest in the new “Technikum” 


1903: Hebrew teachers association of Palestine calls for a polytechnic university


1902 Herzl publishes the novel Altneuland  (The Old New Land), which takes place in Palestine, creating the vision for a Jewish state and Zionism.


1901: 5th Zionist congress calls for a Jewish technological university, as a first necessary step to realize the dream of a Jewish state.


File:Herzl.jpg


We began with a thought…
           
“Our technical inventors, who are the true benefactors of humanity… will discover things as marvelous as those we have already seen, or indeed more wonderful than these…”
Theordor Herzl, 1896, The Jewish State

In 1902, Theodor Herzl envisioned Haifa as “a great park….with an overhead electrical train…. a city of magnificent homes and public institutions all made possible by applied science, engineering and technology.” (Altneuland)
At that time, even an automobile was an exceptional extravagance of engineering. Electricity was still an expensive luxury for the elite few.
Haifa was a small, remote, coastal town most easily accessed by boat.
The advance of science and technology; the creation of the State of Israel; the emergence of the global village connected by the information superhighway; discoveries in basic science that have fundamentally changed the way scientists think about the material world, and the tremendous applied advances taking place in every corner of Technion City are just some of the miracles witnessed in the past century.

It all began with an inspirational thought in the mind of one man, Binyamin Ze’ev Herzl. Prof. Albert Einstein later added his mind to the vision. Thousands of great thinkers have since added to the blaze of light which is Technion, creating an institute of technology that in the 3rd millennium is truly a light to the nations.

1912-2012: Technion Timeline of a Century.

Landmark behind Time





The Technion’s historic building was designed by the renowned Jewish German architect, Alexander Baerwald. His design includes both oriental and European motives. It is built from sandstone quarried in Tantura and Atlit. The building was part of Baerwald’s plan of an open corridor leading directly to the bay. He also designed buildings that would line the road, of which some were built, indeed (e.g. the Hebrew Reali School). 

The building’s cornerstone was laid in 1912. The building’s construction was delayed during the First World War. The partially completed building was used, then, as a military hospital. In 1925 it became the home of Israel’s first institute of higher education – The Technion, Israel Institute of Technology. Until 1953, all the Technion Faculties were located there. By 1965, most of them have moved to the Technion new campus in Haifa’s Nave Shaanan. The Faculty of Architecture and Town Planning stayed in the historic Technion building until 1985. 


Timeline of the Century

2012: Technion partners with Cornell University to found the Technion Cornell Institute of Innovation (TCII), an international ‘School of Genius’ in the heart of New York City.


2011: Technion Prof. Dan Shechtman receives the Nobel Prize in Chemistry for his discovery of quasicrystals.


2007: Technion pools its brainpower in a unique multidisciplinary center for research into energy science, technology and engineering: The Grand Technion Energy Program.


2006: Technion is Israel’s 1st university to receive the Nobel Prize for Science. Prof. Aaron Ciechanover and Prof. Avram Hershko jointly receive the Nobel Prize in Chemistry for their discovery, together with Irwin Rose, of the ubiquitin system within living cells.


2005: Technion opens the Russell Berrie Nanotechnology Institute (RBNI) to further empower and concentrate the plethora of excellent scientists, researchers and students pioneering science in the nano dimension.


2001: Technion scientists reveal they have long been quietly researching solutions to meet the threat of 3rd millennium terrorism as revealed by the horrific events in the US of September 11th


1998: Combining microbiology and microelectronics, scientists show how to make a transistor 1/100,000th the size of a human hair


1993: Technion students design and launch their own satellite: Gurwin Tech Sat. The satellite is still in orbit.


1991: Gulf War – Technion shows that the integration of expertise of Israel’s top institute of technology with its dynamic medical school makes Technion first responders in responding to missile attack on the home-front.


1989: Optoelectronics: A new center of excellence pioneering the technological promise of an expert understanding of light.


1982: The Rappaport Family Institute for Research in the Medical Sciences is established. During more than two decades of activity, the Institute has established itself as an internationally recognized research center and counts among its members several world-renowned scientists.
1981: Fiberoptics is pioneered by Technion


1978: Camp David accords with Egypt: the scientific challenges of peace and nation-planning means that in addition to its many projects in water management and environmental engineering, the Technion sets up the Samuel Neaman Institute.


1973: Yom Kippur War


1971: The Faculty of Biology is set up.


1969: The faculty of medicine is born. The first class consists of 43 students who had their preclinical education abroad. They were admitted to the fourth year and finished the requirements for the degree of Medical Doctor (M.D.), after two years of clinical training in the hospitals. The same year also sees the birth of the Department of Biomedical Engineering and the Faculty of Computer Science. 


1967: Six-Day War, Faculty of Materials Engineering is set up.


1966: Agricultural engineering degrees awarded to students from Africa and Asia


1965: Department of Education in Technology and Science


1962: Faculty of Food Engineering and Biotechnology 


1961: Technion offers a  flourishing graduate school and R&D foundation


1960: The Faculty of Mathematics and the Faculty of Physics are formed.

1958:  The opening of the Faculty of Chemistry, the Faculty of Industrial Engineering and Management, and The  Department of Humanities and Arts

1956: Students take part in the Sinai War


1954: Technion founding father Prof. Albert Einstein is awarded a Technion honorary doctorate. The Faculty of Chemical Engineering is opened.


1953:The Department of Aeronautical Engineering and the  Faculty of Agricultural Engineering are set up in the new campus.


1952: Rapid growth and expansion and increasing demand for Technion graduates and engineers nation-wide means the Technion leaves its first home in the historic building in down-town Haifa. Prime-Minister David Ben Gurion selects the new site for Technion City further up the slopes of Mount Carmel.


1948: With 680 students, Technion celebrates the declaration of independence. Studies are disrupted for most of the year as faculty and students fight for independence. The Faculty of Electrical Engineering and the Faculty of Mechanical Engineering are opened.


1944: Survival tasks – Technion develops early warning systems against air attacks as well as weapons for the Hagannah, the Israeli underground army that are preparing for the War of Independence.


1943: 1000 skilled Technion graduates join the war effort against Nazi Germany


1938: The Faculties of civil engineering, architecture, industrial engineering and opened, together with 11 new labs and a nautical school


1935: The Polish government recognizes Technion
1934: The Faculty of Industrial Technology is established covering broad fields. 


1931: Technion staff vote to work for nothing to ensure their institute survives.
1928: First class of 17 Technion engineers and architects graduates


1926: Zeev Jabotinsky addresses Technion Haganah members


1924: Technion officially enrolls 1st class of engineering students


1923: Einstein’s first visit in which he becomes president of the first Technion society, the German Technion Society




In 1923, Albert Einstein visited the empty building of the Technikum, where there was a plan to give courses for word workers, electricians and telephone and telegraph workers. Although the derelict buildings were being used as a hostel for immigrants from Europe, Albert Einstein did not think the dream of founding a technical university in the Middle East to be fantasy. As a great scientist, Einstein knew that what makes the impossible possible is the courage to follow an inspiration. 


1920: The building is legally acquired and recruitment for staff begins


1914: 1918 German, Turkish and then British troops occupy the building


1913: A battle continues over the language of Technion instruction: German or revitalized Hebrew?   Hebrew wins.


1912: The cornerstone is laid for Technion’s building


1908: Wissotzky, Schiff and the Jewish National Fund invest in the new “Technikum” 


1903: Hebrew teachers association of Palestine calls for a polytechnic university


1902 Herzl publishes the novel Altneuland  (The Old New Land), which takes place in Palestine, creating the vision for a Jewish state and Zionism.


1901: 5th Zionist congress calls for a Jewish technological university, as a first necessary step to realize the dream of a Jewish state.


File:Herzl.jpg


We began with a thought…
           
“Our technical inventors, who are the true benefactors of humanity… will discover things as marvelous as those we have already seen, or indeed more wonderful than these…”
Theordor Herzl, 1896, The Jewish State

In 1902, Theodor Herzl envisioned Haifa as “a great park….with an overhead electrical train…. a city of magnificent homes and public institutions all made possible by applied science, engineering and technology.” (Altneuland)
At that time, even an automobile was an exceptional extravagance of engineering. Electricity was still an expensive luxury for the elite few.
Haifa was a small, remote, coastal town most easily accessed by boat.
The advance of science and technology; the creation of the State of Israel; the emergence of the global village connected by the information superhighway; discoveries in basic science that have fundamentally changed the way scientists think about the material world, and the tremendous applied advances taking place in every corner of Technion City are just some of the miracles witnessed in the past century.

It all began with an inspirational thought in the mind of one man, Binyamin Ze’ev Herzl. Prof. Albert Einstein later added his mind to the vision. Thousands of great thinkers have since added to the blaze of light which is Technion, creating an institute of technology that in the 3rd millennium is truly a light to the nations.

Keep it PURE – Nano filters for cleantech & desalination.

Handing you the Future ~
1912-2012: the Technion Centennial Stamp features
one application of the innovative nano fibers
Featured on the Technion 2012 Cornerstone Centennial Stamp, the nanofibers behind the dynamic new start-up NanoSpun signify many of the secrets of Technion’s success in conceptualizing, shaping and nurturing Israel as the high-tech global success of the third millennium.
 
Why would Cornell University and New York City invite Technion to set up a new campus on Roosevelt Island, in order to boost economic growth through innovation and entrepreneurship? Throughout the world, news headlines have cited Technion’s unique ability to produce dynamic and profitable start ups using advanced technology and skills. In 2012, one company that exemplifies the secrets of this success is the prize-winning start up NanoSpun.