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Avaliable Technologies

Category
Technology Name
Briefcase
Scientist
1848
Single-cell RNA sequencing (RNA-Seq) is a powerful tool to identify and characterize the transcriptome of single cells. While providing unprecedented resolution in terms of studying cells, single-cell RNA-Seq is functionally a descriptive tool, unless combined with gene manipulation. CRISPR-Cas9 is a...

Single-cell RNA sequencing (RNA-Seq) is a powerful tool to identify and characterize the transcriptome of single cells. While providing unprecedented resolution in terms of studying cells, single-cell RNA-Seq is functionally a descriptive tool, unless combined with gene manipulation. CRISPR-Cas9 is a genome-editing technology that enables mutating specific and known targets in the genome by using guide RNAs that match the desired target site. CRISPR can therefore be used to generate single gene knock-outs and to create pooled screens that connect genes to functions. However, single-cell RNA-Seq is not scalable, and CRISPR lacks the resolution to elucidate complex phenotypes.

The research team of Prof. Amit developed a new method which combines the two aforementioned techniques – CRISP-Seq. The method uses the ability of CRISPR-Cas9 to induce site-specific mutations and the power of single-cell RNA-Seq to study gene expression in high resolution. Together they enable to examine gene circuits, pathways and functions affected by interference with numerous genes in a single experiment.

Applications


* Enables both manipulation and study of cells

* High resolution of single-cell gene alterations

* High-throughput data on multiple genes from one experiment


Technology's Essence


CRISP-Seq protocol functions by inducing mutations for one or more target genes, on the single cell level using the CRISPR technology. The vectors used for mutation are barcoded for detection and tracking by RNA-Seq, as well as include probes (e.g. fluorescence) for a visible phenotype that can be used for sorting in flow cytometry. Single-cell RNA-Seq completes the process where the effects on the transcriptome of single or multiple mutations can be examined in high-throughput single cell level.

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  • Prof. Ido Amit
1773
Treatment of multiple types of oncological malignancies, such as breast cancer involves the targeting one the of HER (EGFR/ErbB) family receptor tyrosine kinases. The challenge that arises in using a specific HER receptor for therapeutic applications is that the cancer can develop resistance to said...

Treatment of multiple types of oncological malignancies, such as breast cancer involves the targeting one the of HER (EGFR/ErbB) family receptor tyrosine kinases. The challenge that arises in using a specific HER receptor for therapeutic applications is that the cancer can develop resistance to said treatment. This tolerance arises due to compensatory mechanisms, such as the activation of alternate HER receptors. Consequently, there is a strong need to develop treatments that target HER receptors outside of the ubiquitously targeted HER1 and 2. In many cases it is HER3 which is responsible for such emergence of resistance.

The group of Prof. Yosef Yarden have developed a novel high affinity anti-HER3 antibody, to act either as an individual anti-cancer treatment or in combination with other therapies.  

Applications


  •  Cancer therapy

  •  Diagnostic tool


Technology's Essence


Prof. Yarden’s research group has developed a high affinity anti-HER3 antibody with a Kd in the range of 10 nM. The group tested the effectiveness of the antibody (termed N33) both in vitro and in xenografts. In all tested cases the anti-HER3 antibody showed promising effects in stopping cancer cell line growth and reducing tumor volume in mouse models.

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  • Prof. Yosef Yarden
1868
The treatment of respiratory conditions is currently one of the major challenges to health care systems all over the world. The problem is that most therapeutics currently available for treating pulmonary indications are non-curative, and simply improve symptoms. Presently the only cure for late stage...

The treatment of respiratory conditions is currently one of the major challenges to health care systems all over the world. The problem is that most therapeutics currently available for treating pulmonary indications are non-curative, and simply improve symptoms. Presently the only cure for late stage pulmonary diseases is a lung transplant, which includes its own host of problems ranging long waitlists to lifelong immunosuppression. These issues explain why pulmonary diseases represent the second leading cause of death in the world. Therefore, a strong need exists for alternative therapeutic options in treating pulmonary related diseases.

Prof. Yair Reisner and his research group have developed a unique set of methods for culturing and transplanting cells for use in treating respiratory illnesses. Their innovation was not simply an improvement in terms of symptoms but actually showed effective lung repair in mouse models. 

Applications


?  Treatment of lung indications

?  Protocol developed such that the method is compatible with donor (allogeneic) cells


Technology's Essence


The Reisner research group has developed two methods for cell transplantation to repair pulmonary diseases. The first method involves incubating a suspension of fetal pulmonary tissue that is developed to a gestation period of about 20-22 weeks. The reason being is that this acts as the optimal gestation window, where the cells show the high amount of different types of pulmonary progenitor cells. When transplanted into lung damaged mouse models, the cells differentiated and incorporated themselves into the lung, forming fully functional units.

The second method involves sourcing a specific hematopoietic stem cell population from fetal lung. Following a thorough understanding of the therapeutic potential of the cells, in their capacity to develop into the desired lineages. The Reisner group developed a protocol in which the transplantation of allogeneic cells was feasible but did not require long-term immunosuppression. Such that the mouse models showed an ability to develop immunotolerance to said donor cells, and achieved lung repair.

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  • Prof. Yair Reisner
1808
The proper functioning of the central nervous system (CNS) depends on effective communication between different neurons. A fundamental process ensuring said communication is myelination, which acts to insulate projections of neurons (axons) to ensure efficient transmittance of electrical impulses....

The proper functioning of the central nervous system (CNS) depends on effective communication between different neurons. A fundamental process ensuring said communication is myelination, which acts to insulate projections of neurons (axons) to ensure efficient transmittance of electrical impulses. Disruption of myelination is connected to numerous serious and debilitating neurological conditions such as multiple sclerosis, Guillain-Barre Syndrome, and others. Therefore, a strong need exists for treating myelination related conditions.

The group of Prof. Elior Peles, have discovered a novel target that regulates development of myelination in oligodendrocytes, G Protein-Coupled Receptor 37 (GPR37). And that modulating GRP37 during later stages of oligodendrocytes they were able to achieve hypermyelination.

Applications


  • Novel Target


Technology's Essence


The Peles team have found through extensive in vitro and in vivo work that GRP37 negatively regulates oligodendrocyte differentiation and myelination. Consequently, by modulating GRP37 or up regulating a protein transcriptional factor ERKl/2 that is suppressed downstream of GRP37, they could potentially induce or re-establish myelination.

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  • Prof. Elior Peles
1825
Senescence is a form of cell-cycle arrest which occurs in many cell types. Cellular senescence can reduce tissue damage and tumorigenesis; however long-term induction of senescence promotes fibrosis, metastasis, inflammation, tissue damage and tissue aging. Senescent cells are known to be involved in...

Senescence is a form of cell-cycle arrest which occurs in many cell types. Cellular senescence can reduce tissue damage and tumorigenesis; however long-term induction of senescence promotes fibrosis, metastasis, inflammation, tissue damage and tissue aging. Senescent cells are known to be involved in many disorders and pathologies – from cancer to hair loss. Identification and elimination of senescent cells may thus be beneficial for a variety of diseases.

Prof. Krizhanovsky and his team performed clever proteomic studies and discovered surface markers that are unique to senescent cells of the fibrotic tissue. These cell surface markers which differentiate senescent cells from non-senescent cells can be utilized for antibody mediated elimination of these cells, with the goal of treating fibrotic disease.

 

Applications


* Novel cell surface markers of senescent cells

* Treat senescence-related diseases

 


Advantages


Prof. Krizhanovsky's team induced senescence in vitro by DNA damage (DIS) or oncogenes (OIS) and explored proteins expressed on these senescent cells by mass spectrometry. Then a panel of cell-surface proteins which identified the senescent cells was assembled and verified in vivo. Among these proteins, protein "X" was further studied and found to be senescent-cell specific. The group currently attempts to determine its biological role and develop a targeting antibody to protein “X”.

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  • Prof. Valery Krizhanovsky
1843
Analysis of the transcriptome of cells can inform greatly about the state of said cells, including maturation, activation, transformation, etc. Therefore it would be of great research and clinical value to analyze transcriptomes of different cell populations and to compare gene expression on large...

Analysis of the transcriptome of cells can inform greatly about the state of said cells, including maturation, activation, transformation, etc. Therefore it would be of great research and clinical value to analyze transcriptomes of different cell populations and to compare gene expression on large scales. A particularly useful method would be Next Generation Sequencing (NGS) as it allows parallel sequencing in high sensitivity, reducing cost and time. However, NGS requires special protocols and preparation procedures in order to ensure a high quality and unbiased analysis.

The lab of Prof. Amit has developed a high-throughput system using tools, techniques, and kits for analyzing transcriptomes by NGS for analysis of gene expression. From the initial stage of cell preparation all the way to library generation, those innovative methods contribute to the power of NGS and provide effective tools to study cellular processes with a high-quality output.

Applications


* Novel method

* Multiple applications whether comparing cell states or different pathologies

* Unbiased analysis of different cell types


Technology's Essence


Prof. Amit and his lab members developed an automated framework which enables sequencing transcriptomes of single cells or cell populations. This framework includes the extraction of RNA from the isolated cells, RNA fragmentation, and cDNA production. Ultimately, libraries are created which include various additions such as barcodes and adapters and can be sequenced to provide comprehensive insight on gene expression within the cells.    

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  • Prof. Ido Amit
1858
Jet lag is a ubiquitous problem for air travelers. As the process of rapidly shifting time zones leads to the body’s circadian rhythm being out of sync to the destination’s time schedule. This has a variety of impacts on the body, in particular the general and pervasive feeling of exhaustion, limiting...

Jet lag is a ubiquitous problem for air travelers. As the process of rapidly shifting time zones leads to the body’s circadian rhythm being out of sync to the destination’s time schedule. This has a variety of impacts on the body, in particular the general and pervasive feeling of exhaustion, limiting an individual’s capacity to function, until acclimation. Therefore travelers, and especially business travelers, have a need for a method to help them prevent or overcome their jet lag rapidly.

The group of Prof. Gad Asher has discovered that specific oxygen conditions can help to rapidly overcome the symptoms of Jet Lag. The technology can be further developed into a device that can be used to treat individuals before and during flights to reduce jet lag.

Applications


  • Reduction of symptoms of Jet Lag


Technology's Essence


The basis of the discovery by the Asher group is examining and applying the role of oxygen to regulating the circadian rhythm. Experimenting both in vitro and in vivo in animal models, it was found that oxygen is an important regulator of the circadian rhythm. The mediation of oxygen as a circadian rhythm regulator is performed by HIF1? (hypoxia inducible factor 1?). In mouse models the Asher group found that a reduction of oxygen from 21% to ~16-14% led to an accelerated adaptation to Jet-lag like conditions. Simple human studies can be performed so as to translate these important findings.

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  • Prof. Gad Asher
1805
Obesity is the health epidemic of the modern world, with nearly half the global adult population being categorized as obese. The consequences of said mass obesity is that it is overwhelming the medical systems all over the world, as obesity is linked to numerous diseases ranging from diabetes to cancer...

Obesity is the health epidemic of the modern world, with nearly half the global adult population being categorized as obese. The consequences of said mass obesity is that it is overwhelming the medical systems all over the world, as obesity is linked to numerous diseases ranging from diabetes to cancer. The challenge is not only in reducing obesity through weight loss programs, be it via dietary programs, bariatric surgery, and so on. The issue is in ensuring that the weight loss remains, as nearly 80% of those with successful initial weight loss, relapse to their previous obese state or worse. Consequently, there is a fundamental need to treat individuals to ensure that reduction of weight is maintained.

The collaborative efforts of Prof. Eran Segal and Prof. Eran Elinav have led to an innovation by understanding the gut microbiome. Whereby understanding the microbial population of the intestinal tract can be used to diagnose for future obesity relapse and possible bacterial populations and/or chemical agents that can assist in stopping weight gain.

Applications


  •   Diagnostic to test which populations are more susceptible to relapsed obesity

  •   A method of either using an agent or a specific bacterial population to reduce relapsed obesity


Technology's Essence


The research teams of Profs. Segal and Elinav investigated the role of the gut microbiome in obesity relapse. Using mouse models where they cycle between weight loss and weight gain, it was noted that gut microbial populations were altered after weight gain. Even after cycling to weight loss, said mice retained a microbial “memory”, such that specific populations of bacteria were indicative of weight re-gain. By using said bacterial populations, it is possible to diagnose and determine whom is most susceptible to relapsing obesity even after weight loss programs. Additionally, they discovered that maintaining or boosting certain bacterial populations can act as a method to ameliorate obesity relapse.

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  • Prof. Eran Segal
1870
Alzheimer's disease, as well as other neurodegenerative disorders are characterized by damage to brain tissue. Immune cells within the brain participate in disease progression, whether by slowing it down or escalating disorders severity. Microglia are immune cells that reside within the central nervous...

Alzheimer's disease, as well as other neurodegenerative disorders are characterized by damage to brain tissue. Immune cells within the brain participate in disease progression, whether by slowing it down or escalating disorders severity. Microglia are immune cells that reside within the central nervous system (CNS) and participate in immune activity, particularly phagocytosis. As such, microglia can either contribute to or inhibit Alzheimer's progression, and manipulating them may provide a unique therapeutic option to treat Alzheimer's and other CNS-related disorders.

The groups of Profs. Ido Amit and Michal Schwartz used innovative single cell sequencing technologies in order to characterize these microglias and consequently discovered a series of potential immune checkpoints. Therefore, modulating these checkpoint targets could be a treatment for Alzheimer's disease and other diseases that are related to microglia dysfunction.

Applications


  • Neurodegenerative diseases

  • Microglia-related disorders

  • Novel Targets


Advantages


The Amit and Schwartz groups widely characterized DAMs by single-cell sequencing techniques and found a number of molecules that participate in their immune function. These DAMs were found not only in brains of mouse Alzheimer's model, but also in brains of humans with Alzheimer's that were analyzed post-mortem. The group also expanded the research to other neurodegenerative diseases in mice models, and confirmed DAM presence in these models as well. Therefore, these DAM regulatory molecules hold potential as treatment for a number of neurodegenerative.

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  • Prof. Michal Eisenbach-Schwartz
1821
A novel method for treating triple negative breast cancer (TNBC) by combined inhibition of epidermal growth factor receptor (EGFR) and members of the Fak family, more specifically Proline-rich tyrosine kinase 2 (PYK2) or focal adhesion kinase (FAK). TNBC is a highly aggressive form of breast cancer,...

A novel method for treating triple negative breast cancer (TNBC) by combined inhibition of epidermal growth factor receptor (EGFR) and members of the Fak family, more specifically Proline-rich tyrosine kinase 2 (PYK2) or focal adhesion kinase (FAK).

TNBC is a highly aggressive form of breast cancer, which is characterized by absence of the estrogen and progesterone receptors and lack of HER2 amplification. TNBC is associated with poor prognosis and has no effective targeted treatment. EGFR is highly expressed in ~50% of TNBC patients, and though it is considered a therapeutic target, targeting EGFR alone does not improve the clinical outcome of TNBC. As there is likely compensatory signaling by other molecules that bypass EGFR inhibition.

The group of Prof. Sima Lev has found a method to inhibit EGFR as well as two members of the Fak family kinases, namely PYK2 and FAK. By using extensive in vitro and in vivo work, the group managed to show that combined inhibition of EGFR and FAK/PYK2 obstructs TNBC growth.

Applications


  •   Treating TNBC with elevated EGFR levels.

  •   Ex vivo diagnosis of TNBC severity by measuring levels of tyrosine kinase receptors (e.g. EGFR) and Fak family members.

  •   Combined inhibition of kinases leads to a novel mechanism with beneficial synergistic effects.


Advantages


 


Technology's Essence


Prof. Lev's research group discovered that targeting FAK/PYK2 in different triple negative breast cancer (TNBC) cell lines reduced cellular growth. Therefore, they examined the effect of targeting FAK/PYK2 by shRNA or commercially available inhibitors as well as inhibiting EGFR by small molecules that are used to treat EGFR-related cancers. In vitro essays showed that combined inhibition of EGFR and FAK/PYK2 significantly reduced proliferation of TNBC basal-like cell lines, compared to EGFR inhibition alone. The group next tested the effect of PYK2 knock-down and EGFR inhibition by the drug gefitinib in vivo in a xenograted mouse model, which led to a significant reduction of tumor size by 30-40%.

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  • Prof. Sima Lev
1839
Numerous medical conditions are related to inflammation, such as pancreatitis, psoriasis, inflammatory bowel disease, atherosclerosis, neurodegeneration, and more. However, determination of inflammation in the body, especially at early stages of a pathology is difficult to assess. Therefore, there is a...

Numerous medical conditions are related to inflammation, such as pancreatitis, psoriasis, inflammatory bowel disease, atherosclerosis, neurodegeneration, and more. However, determination of inflammation in the body, especially at early stages of a pathology is difficult to assess. Therefore, there is a great clinical need for diagnostic tools to gauge inflammation.

The team of Prof. David Wallach have discovered novel biomarkers in exosomes related to necroptosis, a form of programmed cell death that induces inflammation. Using these biomarkers in exosomes different diagnostic tests can be developed for an array of inflammatory conditions.  

Applications


?  Diagnostics for inflammation

?  Specificity in terms of tissue affected when combined with other biomarkers


Technology's Essence


Cell-derived vesicles termed exosomes are commonly found in bodily fluids such as blood and urine. Consequently, by examining these exosomes it is feasible to discover different biomarkers for the state of health in the human body. The Wallach team discovered that when the kinase RIPK3 is activated, a known inducer of inflammation and necroptosis, it also phosphorylates mixed lineage kinase domain like pseudokinase (MLKL) as one of its targets. Phosphorylated MLKL was then shown to increase exosome production, which led to a greater release of phosphorylated MLKL in said exosomes. Therefore using in vitro work the Wallach team was able to show that screening exosomes for phosphorylated MLKL represents a potential diagnostic for inflammation.  

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  • Prof. David Wallach
1847
One of the challenges in the areas of synthetic biology and its clinical applications, is the capacity to control the induction of different genes, whether for the purpose of activating genetic circuits or inducing the expression of a specific protein. Present approaches are limited to the number of...

One of the challenges in the areas of synthetic biology and its clinical applications, is the capacity to control the induction of different genes, whether for the purpose of activating genetic circuits or inducing the expression of a specific protein. Present approaches are limited to the number of systems available, inconsistent behavior among systems, and requiring high concentrations of signaling molecule.  

A paradigm-shifting discovery by the research team led by Prof. Rotem Sorek, published in the prestigious journal of Nature[1], reveals a new system, termed Arbitrium, which can effectively control gene expression. The basis of the discovery is that phages (viruses) have a quorum sensing system, similar to that found in bacteria, that communicates information to help determine whether a lytic or lysogenic cycle is to be entered. The Arbitrium system has numerous biotechnological and synthetic biology applications, and functions as a new- generation of easy-to-control genetic switches, to induce or shut off the expression of different genes.



[1]Erez Z, et al. Nature. 2017 Jan 26;541(7638):488-493. doi: 10.1038/nature21049. Epub 2017 Jan 18.

Applications


?  Unique system – Effectively induces or shuts off expression of a gene.

?  Standard Chemistry – Uses regular peptides, therefore standard synthesis can be used.

?  Wide Dynamic Range

?  Over 100 Different Systems

?  Uniformity Among Systems


Technology's Essence


The research group led by Prof. Rotem Sorek from the Weizmann Institute of Science (WIS) has discovered a novel family of expression systems. The basis of said expression systems is that a six (6) amino acid peptide binds a transcription factor (TF), inhibiting it. The peptide/TF system is shown to be sequence specific, such that a TF only responds to its corresponding peptide. Additionally, each peptide/TF pair only activates an explicit promoter. The Sorek group has discovered over 100 unique peptide/TF pairs, each with a specific TF that binds a specific peptide sequence. Consequently, this generates a large array of orthogonal transcription systems that have a standardized dynamic range and expression profile. This system could be used in the design and control of gene expression across both prokaryotic and eukaryotic systems, as well as applications in controlling genome editing.

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  • Prof. Rotem Sorek
1831
Inflammatory bowel disease (IBD) pathologies such as Crohn’s disease and ulcerative colitis have a limited number of therapeutic options currently available. These diseases are known for causing a dramatic reduction in the quality of life as symptoms include diarrhea, abdominal pain, vomiting, and loss...

Inflammatory bowel disease (IBD) pathologies such as Crohn’s disease and ulcerative colitis have a limited number of therapeutic options currently available. These diseases are known for causing a dramatic reduction in the quality of life as symptoms include diarrhea, abdominal pain, vomiting, and loss of appetite. Furthermore, IBD can lead to more serious complications such as bloody stool, fatigue, higher risk of colon cancer, bowel obstructions, and other possible debilitating and life-threatening conditions. 

Presently there is no optimal treatment for IBD, with most treatments presenting different limitations and concerns. Anti-inflammatory drugs can relieve some of the symptoms related to IBD but can have other undesired side-effects. Immune suppression drugs can help reduce inflammation but have the downside of influencing the immune system. Antibiotics are another option known to relieve some symptoms connected to IBD, but again are not treating the primary cause of the disease. Finally, as a last resort for severe cases of IBD there is surgery to either widen or remove parts of the bowels. Therefore, it is clear that there is a strong need for an effective and improved treatment of IBD related conditions.

The present technology from the group of Prof. Ayelet Erez offers a novel and effective method for alleviating IBD related diseases, based on a deep understanding of mechanism of action of the pathology. Treatment involves the use of commonly available nutraceuticals, which help to utilize specific metabolic pathways to ameliorate the symptoms connected to IBD. The treatment has already been tested on mouse models demonstrating exciting results. Consequently, this technology represents a data-driven, innovative, and readily available method of treating inflammatory bowel disease.

Applications


Generating an effective and low cost treatment for inflammatory bowel related diseases such as Crohn’s disease and ulcerative colitis.


Advantages


·         Specific – the technology explicitly works by activating metabolic pathways that alleviate IBD.

·         Commonly Available – the compounds utilized for the treatment are already in use as nutraceuticals.


Technology's Essence


Additional details with regard to the opportunity can be obtained based on a non-disclosure agreement (NDA).

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  • Dr. Ayelet Erez
1576
Synthetic genes are commonly used in academic and industrial applications, however in many cases these said genes can be toxic when inserted into the ubiquitously used E. coli. This is problematic as time and money is wasted on attempts to generate genes that will not function in E. coli. The problem...

Synthetic genes are commonly used in academic and industrial applications, however in many cases these said genes can be toxic when inserted into the ubiquitously used E. coli. This is problematic as time and money is wasted on attempts to generate genes that will not function in E. coli. The problem is exacerbated as in many cases it is known whether a gene is toxic until it is inserted into the microorganism. Therefore it would be of great value if genes could be pre-screened to determine toxicity or general stability within E. coli.  

The present technology offers a method to save time and money by avoiding problematic clonings. The PanDaTox database can predict the toxicity or “unclonability” in E. coli of over one and a half million genes from nearly four hundred different microorganisms.

Applications


?  Save time and money by avoiding problematic gene syntheses.

?  Design better metabolic pathways for synthetic biology applications by finding genes that can function together.

?  Antibiotic targets by using the database to find novel toxic compounds that can as anti-microbial agents.


Advantages


·         Simple – the PanDaTox database is simple to use with a straightforward user interface.

·         Extensive – the database covers around 1.5 million different genes from close to 400 different microorganisms.

·         Detailed – including exhaustive amounts of information such as taxanomy, protein information, results of previous experiments (when available), and more.


Technology's Essence


The invention relates to PanDaTox a unique system using an algorithm and database to predict whether genes are toxic in E. coli. The system functions by comparing annotated genomes with different runs of whole genome sequencings of different microbial species. By comparing which portions of the genome were successfully cloned previously into E. coli, PanDaTox can now predict the inherent toxicity of different genes or genetic elements.

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  • Prof. Rotem Sorek
1810
Culturing and expanding T cells ex-vivo, while retaining their functionality, is an essential factor for the development of cutting-edge immunotherapies. A major problem frequently faced by physicians is the low number of T cells available for adoptive immunotherapy, and the difficulty to retain their...

Culturing and expanding T cells ex-vivo, while retaining their functionality, is an essential factor for the development of cutting-edge immunotherapies. A major problem frequently faced by physicians is the low number of T cells available for adoptive immunotherapy, and the difficulty to retain their functionality following extended incubation ex vivo. Specifically, cultivation of T-cells commonly leads to short term cell proliferation, which is followed by gradual loss of functionality, growth arrest, and increased cell death.  Consequently, there is a strong need for the development of novel technologies that could increase T-cell proliferation, while maintaining, or even enhancing their functionality.

The groups of Prof. Benjamin Geiger and Prof. Nir Friedman have identified unique conditions for inducing T cell proliferation ex vivo. The technology is based on supplementing factors to the media and affixing factors to the surface of the cell culture device. The conditions developed by the joint Geiger-Friedman team greatly enhanced the expansion of CD4+, CD8+, and additional types of T cells. Moreover, functional testing of specific cytotoxic T-lymphocytes demonstrated a remarkably-enhanced capacity of killing relevant cancer cells, both ex vivo and in vivo.

Applications


·         Expanding large quantities of CD4+ and CD8+ T cells ex-vivo, for example tumor infiltrating T cells (TILs) from biopsies.

·         Producing highly functional antigen-specific CD8+ T cells for tumor suppression.

·         Capacity to stimulate functional CAR-Ts and TILs.


Advantages


·        Simple – coating vessels with the particular T cell stimulatory factors that are commercially available.

·        Specific – Co-culturing with antigen loaded dendritic cells allows antigen-specific T cell expansion (e.g. cancer neo-antigen T cells). 

·        Compatible – stimulating CAR-T cells and possibly TILs.


Technology's Essence


The Geiger-Friedman team has discovered a novel set of conditions that induce the growth of T cells, using a specific combination of T cell stimulators attached firmly to the culture device along with soluble stimulatory cytokines. The team was able to effectively produce large numbers of T cells which retain full or even enhanced functionality, e.g. killing of specific cancer cells in culture and in vivo. 

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  • Prof. Benjamin Geiger

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