Bio Screening Industry News

Archive for the 'R & D' Category

January 28, 2010

Potent Novel Tool For Combating Autoimmune Diseases And Leukemia

Filed under: Press Releases, Medicinal Chemistry, R & D — Editor @ 6:10 pm

A study carried out by the scientists at the Scripps Research Institute illustrated a novel, highly practical strategy for identifying molecules that avert a particular form of immune cells from launching assaults on their host. These findings have added a potent new-fangled tool to the ongoing investigation for probable treatments for autoimmune diseases like MS or multiple sclerosis

, as well as for the treatment of types of leukemia like myeloid leukemia.

The study conducted by Thomas Kodadek, a professor in the Chemistry and Cancer Biology Departments, Scripps Florida, and associates was printed in the ‘Chemistry & Biology’ Journal.

In the novel study, Kodadek and his associates utilised samples taken from an animal model of MS for screening for T cells – a kind of white blood cell that dons fundamental role in the immune system – with an increasing presence in the ailment. The screen additionally recognized molecules that interfered with such T cells’ auto-reactive nature or their assault on the body itself instead of a foreign intruder like a virus or bacteria.

Autoreactive t cellsKodadek stated that their method concurrently unearths and separates auto-reactive T cells along with inhibitors to them. A dual achievement at the core of which is a relative screening procedure of healthy T cells vs. Disease-causative T cells. Even as the process is technically complex and intricate, the thought behind it is not. The scientists intended to make the process of recognizing compounds simpler that could hinder auto-reactive T cells with outstanding specificity and the scientists were able to accomplish their objective.

The scientists employed a model of MS – an autoimmune inflammatory condition that affects the brain and the spinal cord for the study. MS is a condition wherein the immune system assaults the myelin sheath coating and defensive nerve cells that lead to a host of symptoms dependent on what component of the nervous system has been affected. Prevalent signs of the condition involve weariness, numbing sensation; difficulties experienced in walking balancing and co-ordination; dysfunctional bladder and bowel; ocular problems; giddiness and vertigo; sexual dysfunction problems; pain, mental problems; emotional variations and spastic behaviours.

Simplification of the Process

Kodadek and his associates set up the novel method for shedding light on these autoimmune diseases and other kinds of disorders and produced a vast assortment of peptoids –molecules linked to, though more constant as compared to the peptides which made up the proteins. By organizing thousands of the peptides microscopically, the prototype of binding antibodies (a form of autoimmune molecule) and peptoids could be pictured. By observing samples drawn from animal models of an identified disease such as MS, peptoids which exhibited binding to antibodies closely linked with that disease could be easily identified.

Even better, peptoids which showed binding to the autoreactive T cells could be spotted with no awareness of the particular antigen (molecules that elicit the immune assault), offering an impartial approach with which to explore potentially beneficial compounds.

Kodadek stated that they had made a breakthrough where they set up a system that identifies T cell receptors which are copious in an ailing animal and in sapped levels in a healthy animal.

Potential for Curative Breakthrough

The novel process created a novel potential for curative finding. Molecules that targeted auto-reactive T cells in a direct way, while overlooking those T cells that identify foreign antigens, could provide the basis for a new drug development program intended at elimination of autoreactive cells with no affect on the normal functioning of the immune system.

Kodadek stated that the novel study is not the ultimate solution as it employed a model of MS elicited by a sole antigen whereas in human beings there could be 2 to even more antigens that trigger an autoimmune disease like MS that needs further investigation. The method could be applicable with ease to blood cancers, although as the disease-causative T cells have been completely characterized and there being quite a few of them.

Source: simplehealthguide.com

January 11, 2010

JAX–West Helps Search for Compounds That Radically Extend Lifespan

In 2004, Avi Kremer, a 29-year old Harvard Business School student, was diagnosed with ALS. Avi’s doctors told him there was nothing that modern medicine could do for him. In response, he and fellow students founded Prize4Life, Inc. , a non-profit organization dedicated to accelerating research for treating and curing ALS by using the leverage of large inducement prizes. In 2006, Prize4Life opened the “ALS Biomarker Challenge,” offering a $1 million prize to a researcher who could find a biomarker that would reliably measure disease progress in ALS patients. A year ago, it established the “Avi Kremer ALS Treatment Prize,” a $1 million award for finding a treatment candidate that reliably and significantly increases the lifespan of ALS mouse models. Competing teams are actively pursuing several approaches, including therapies to replace damaged cells, protein-based therapeutics, and small molecule drugs that interfere with ALS-implicated pathways. Competition for both prizes is open to all interested researchers. Both prizes have attracted research teams from industry and academia from around the world.

The SOD1 Mouse

Three percent of ALS cases are associated with mutations in the antioxidant enzyme superoxide dismutase-1 (SOD1) gene, the first gene associated with ALS. With so little known about the genetics of ALS, research so far has concentrated on the pathogenesis of SOD1 mutations in laboratory mice. To provide researchers with the most widely used ALS mouse models available for preclinical drug testing, Prize4Life has partnered with The Jackson Laboratory (JAX). The models, popularly known as SOD1 mice, are distributed from dedicated supply colonies maintained by JAX® Breeding Services. JAX currently distributes 12 different SOD1 models - with different forms of the SOD1 mutation and on different genetic backgrounds. Among the most widely used of these models is JAX® Mice strain B6SJL-Tg(SOD1*G93A)1Gur/J (002726). Like several other SOD1 models, this one has a high copy number of the mutant human superoxide dismutase 1 (SOD1) transgene, which contains the Gly93–>Ala (G93A) substitution. The mutation underlies the most studied form of inherited ALS in humans. The mice lose motor neurons in the spinal cord, become paralyzed in one or more limbs, and die by four to five months. These phenotypes closely model those of human ALS (Gurney et al. 1994). As noted by Dr. Tom Maniatis, Chair of Columbia University’s Biochemistry & Molecular Biophysics Program, a prominent ALS researcher, and a member of Prize4Life’s Scientific Advisory Board, “An effective treatment for ALS is desperately needed, and the existing [SOD1] mouse model is the primary gateway to clinical trials” (CheckOrphan 2009).

SOD1 Mice Need Special Care

Many of the initial studies conducted with Tg(SOD1*G93A)1Gur/J mice have provided a wealth of information and insight on how to best use them in preclinical trials. However, like other highly expressed transgenes, the G93A transgene can spontaneously lose copy number, which can greatly confound experimental results. Therefore, the mice need to be handled carefully. When Prize4Life approached JAX to establish a dedicated supply for their researchers, Dr. Melanie Leitner (Chief Operating Officer and Chief Scientific Officer for Prize4Life), Dr. A. Sheila Menzies (Scientific Program Officer for Prize4Life), and Dr. Cathleen Lutz (Associate Director for Genetic Resource Science at JAX) produced a companion set of informational materials entitled “Working with ALS Mice”. The materials are available at www.jax.org/jaxmice/literature/factsheet/working_with_ALS_mice.pdf.

“Prize4Life spearheaded this effort,” say Lutz. “It’s really targeted to those investigators who are new to the field of ALS and who are working with the SOD1 mice and designing their preclinical trials. The scientific community has learned a great deal about how to work with these mice over the years. It’s important to make that information more widely known so that valuable time and resources aren’t wasted by repeating past mistakes.”

If Prize4life succeeds in its goal of bridging the critical steps between academic discovery and therapy in the clinic, it could have major implications for ALS patients and for any group trying to solve a biomedical problem. Interested researchers can learn more at www.prize4life.org.

References

CheckOrphan. 2009. Prize4Life marks one-year anniversary of Avi Kremer ALS Treatment Prize. http://www.checkorphan.org/news/prize4life_marks_one_year_anniversary_avi_kremer_als_treatment_prize. October 13, 2009.

Gurney ME, Pu H, Chiu AY, Daly Canto MC, et al. 1994. Motor neuron degeneration in mice that express a human Cu,Zn superoxide dismutase mutation. Science 264:1772-5.

Source: animallab.com

October 8, 2009

Ore Pharmaceuticals Announces Upcoming Publication of Research Study on ORE1001

Ore Pharmaceuticals Inc. (Nasdaq:ORXE), announced today the publication of an
article in the online version of the journal Inflammation Research titled,
"Effects of the ACE2 inhibitor GL1001 on acute dextran sodium sulfate-induced
colitis in mice."

This article discussed the efficacy of Ore`s lead drug candidate, ORE1001
(formerly GL1001), in the dextran sodium sulfate animal screening model for
inflammatory bowel disease drugs. The results show that treatment with ORE1001
displayed efficacy on par with that of the oral standard, sulphasalazine.
ORE1001 improved common measures of the extent of damage, such as
histopathology, in a dose-related and statistically significant manner.
Moreover, ORE1001 markedly decreased tissue myeloperoxidase activity, a
well-known marker of inflammation. The findings, when considered along with
other studies of ORE1001, support further development of the compound in
gastrointestinal inflammatory conditions. ORE1001 has progressed through
multiple dose clinical phase I testing in the U.S. and is on track to commence a
Phase Ib/IIa trial in ulcerative colitis, one of the two main disorders that
comprise inflammatory bowel disease (IBD), in the second half of 2009.

It is estimated that up to one million Americans are affected by IBD. With
typical onset in childhood or early adulthood, these disorders cause many
decades of pain and suffering and result in significant lost productivity, in
addition to the direct costs of medical and surgical care. The burden on the
U.S. healthcare system alone is significant; IBD is associated with health care
costs estimated at more than $1.7 billion. Ore believes that ORE1001, if
approved, could represent a significant enhancement to current therapies for
treating this debilitating disease.

The print article is expected to be published in an upcoming issue of
Inflammation Research. The full text article is currently available online at:
http://www.springer.com/birkhauser/biosciences/journal/11.

Ore Pharmaceuticals Overview

Ore Pharmaceuticals Inc. (the "Company") is a pharmaceutical asset management
company. The Company acquires interests in pharmaceutical assets whose value, it
believes, it can significantly enhance through targeted development, with the
goal of then monetizing these assets through a sale or out-licensing. Initially,
the Company will focus on developing and monetizing its current portfolio, which
includes four clinical-stage compounds in-licensed from major pharmaceutical
companies. The Company`s four compounds in its development portfolio are:
ORE1001, its lead compound, ORE10002, ORE5002 (tiapamil) and ORE5007
(romazarit).

Safe Harbor Statement

This press release contains "forward-looking statements," as such term is used
in the Securities Exchange Act of 1934, as amended. Such forward-looking
statements include our ability to identify strategies for making its businesses
successful and the impact of such strategies on our business and financial
performance and on shareholder value. Forward-looking statements typically
include the words "expect," "anticipate," "believe," "estimate," "intend,"
"may," "will," and similar expressions as they relate to Ore Pharmaceuticals or
its management. Forward-looking statements are based on our current expectations
and assumptions, which are subject to risks and uncertainties. They are not
guarantees of our future performance or results. Our actual performance and
results could differ materially from what we project in forward-looking
statements for a variety of reasons and circumstances, including particularly
risks and uncertainties that may affect the Company`s operations, financial
condition and financial results and that are discussed in detail in the our
Annual Report on Form 10-K and our other subsequent filings with the Securities
and Exchange Commission. They include, but are not limited to: whether the
compounds we develop will be commercially viable; whether we will be able to
begin to generate sufficient new revenue from licensing or other transactions
early enough to support our operations and continuing compound development;
whether there will be valid claims for indemnification from the buyers of our
Genomics Assets; whether there will be claims from the landlords of the leased
properties we have assigned, the buyer of our Preclinical Division or the
assignee of our Cambridge facility lease, that we would be required to pay as
guarantors of such leases; whether we will be able to collect amounts due under
the terms of promissory notes from the buyers of our Genomics Assets and
molecular diagnostic business; whether we will be able to manage our existing
cash adequately and whether we will have access to financing on sufficiently
favorable terms to maintain our businesses and effect our strategies; whether we
will be able to maintain our NASDAQ listing; whether we will be able to attract
and retain qualified personnel for our business; and potential negative effects
on our operations and financial results from workforce reductions and the
transformation of our business. Ore Pharmaceuticals Inc. undertakes no
obligation to update or revise any forward-looking statements, whether as a
result of new information, future events or otherwise.

Ore Pharmaceuticals Inc.
Benjamin L. Palleiko
SVP & CFO
617-649-2001
bpalleiko@orepharma.com
Source: Reuters

Evotec Announces Research Agreement With Biogen Idec

HAMBURG, Germany and OXFORD, UK, Sept. 9, 2009 (GLOBE NEWSWIRE) -- Evotec AG
(Frankfurt:EVT) (Nasdaq:EVTC), a leading provider in the discovery and
development of novel small molecule drugs, today announced that it has entered
into a research agreement with Biogen Idec (Nasdaq:BIIB), a leading
biopharmaceutical company headquartered in Cambridge, Mass., USA.

Evotec will use its expertise and technologies in protein production, assay
development and high throughput screening to identify hit molecules for Biogen
Idec. Under the research agreement Evotec will screen a target selected by
Biogen Idec with the option to add further targets as agreed. Evotec will
provide Biogen Idec with access to its full range of screening technologies and
diverse library of high quality compounds and will use its expertise in protein
production and assay development to develop new assays for the target.

Dr. Mark Ashton, Evotec's EVP, Business Development commented: "We believe that
the quality of future drug candidates is very much dependent on the
identification of high quality starting points. To this end we have established
a platform of screening technologies that have been proven to identify
high-class hit molecules. We are looking forward to working with Biogen Idec and
identifying interesting hit compounds for them."

Evotec has built a comprehensive platform of hit finding technologies that allow
it to screen challenging targets and identify new classes of hit compounds that
can be progressed towards new treatments for various diseases. These proven
screening technologies coupled with Evotec's high quality screening library have
been shown to unlock numerous biological targets and identify excellent start
points for subsequent optimization.

No financial details are disclosed.

About Evotec AG

Evotec is a leader in the discovery and development of novel small molecule
drugs. The Company has built substantial drug discovery expertise and an
industrialized platform that can drive new innovative small molecule compounds
into the clinic. In addition, Evotec has built a deep internal knowledge base in
the treatment of diseases related to neuroscience, pain, and inflammation.
Leveraging these skills and expertise the Company intends to develop
best-in-class differentiated therapeutics and deliver superior science-driven
discovery alliances with pharmaceutical and biotechnology companies.

Evotec has long-term discovery alliances with partners including Boehringer
Ingelheim, CHDI, Novartis, Ono Pharmaceutical and Roche. The Company has a P2X7
antagonist for the treatment of inflammatory diseases in clinical development
and a series of preclinical compounds and development partnerships, including a
strategic alliance with Roche for EVT 101, a subtype selective NMDA receptor
antagonist, for use in treatment-resistant depression. For additional
information please go to www.evotec.com

Forward-looking statements

Information set forth in this press release contains forward-looking statements,
which involve a number of risks and uncertainties. Such forward-looking
statements include, but are not limited to, statements about our expectations
and assumptions concerning regulatory, clinical and business strategies, the
progress of our clinical development programs and timing of the results of our
clinical trials, strategic collaborations and management's plans, objectives and
strategies. These statements are neither promises nor guarantees, but are
subject to a variety of risks and uncertainties, many of which are beyond our
control, and which could cause actual results to differ materially from those
contemplated in these forward-looking statements. In particular, the risks and
uncertainties include, among other things: risks that the Company may be unable
to reduce its cash burn through recent restructuring and cost containment
measures and may not recognize the results of such measures within the expected
timeframe; risks that product candidates may fail in the clinic or may not be
successfully marketed or manufactured; the risk that we will not achieve the
anticipated benefits of our collaborations, partnerships and acquisitions in the
timeframes expected, or at all; risks relating to our ability to advance the
development of product candidates currently in the pipeline or in clinical
trials; our inability to further identify, develop and achieve commercial
success for new products and technologies; the risk that competing products may
be more successful; our inability to interest potential partners in our
technologies and products; our inability to achieve commercial success for our
products and technologies; our inability to protect our intellectual property
and the cost of enforcing or defending our intellectual property rights; our
failure to comply with regulations relating to our products and product
candidates, including FDA requirements; the risk that the FDA may interpret the
results of our studies differently than we have; the risk that clinical trials
may not result in marketable products; the risk that we may be unable to
successfully secure regulatory approval of and market our drug candidates; and
risks of new, changing and competitive technologies and regulations in the U.S.
and internationally. The list of risks above is not exhaustive. Our most recent
Annual Report on Form 20-F, filed with the Securities and Exchange Commission,
and other documents filed with, or furnished to the Securities and Exchange
Commission, contain additional factors that could impact our businesses and
financial performance. We expressly disclaim any obligation or undertaking to
release publicly any updates or revisions to any such statements to reflect any
change in our expectations or any change in events, conditions or circumstance
on which any such statement is based.
Source: Reuters

KINAXO launches KinAffinity® services for efficient profiling of kinase inhibitors in cells or tissue

Martinsried, Germany, October 01, 2009 / b3c newswire / -  KINAXO Biotechnologies GmbH announced today that it added KinAffinity® to its service portfolio. KinAffinity® provides invaluable information about a kinase inhibitor’s selectivity in a cell or tissue of interest. It simultaneously determines affinities for native kinases expressed within a cellular proteome and thus overcomes the limitations of traditional biochemical assays that only use recombinant proteins.

Kinase inhibitors with favorable pharmaceutical properties are extensively pursued as therapeutics in numerous oncological, neurological and inflammatory indications. However, their development faces significant challenges such as target specificity for the disease-relevant target proteins. Here, KinAffinity® provides critical information to select the right lead compound for clinical development.

KinAffinity® combines proprietary chemical proteomics methods with state-of-the-art quantitative mass spectrometry (see Sharma et al., Nature Methods 2009). Endogenously expressed, post-translationally modified kinases are enriched by a ready-to-use affinity matrix in the presence of native binding partners and competed with the kinase inhibitor of interest. Subsequently, bioinformatic methods are used to reveal the inhibitor’s quantitative cellular target profile. The inhibitor’s targets are ranked by their affinities and reported to the customer.

KinAffinity® is applicable for type I and type II kinase inhibitors. It facilitates selectivity analysis on an organism level that accounts for differences in protein expression between different cells, as well as their mutational and modification status that might affect drug binding.

Link to the news release
About KINAXO – www.kinaxo.com
KINAXO Biotechnologies GmbH is a privately-held biotechnology company based in Munich/Martinsried, Germany. As a spin-off of the Max Planck Institute of Biochemistry in Martinsried, we closely cooperate with several of the Institute’s most outstanding scientists in the field of chemical proteomics and quantitative mass spectrometry, namely Dr. Henrik Daub, Prof. Jesper Olsen and Dr. Jürgen Cox. KINAXO’s technology portfolio delivers direct insights into a compound’s cellular interactions and its mode of action and is routinely applied to decrease drug development times and improve therapeutic strategies. To expand its KinAffinity® platform, KINAXO recently received financial funding from the Bavarian Ministry of Economics. The underlying technology was licensed from the Max Planck Society and co-developed by scientists of the Max Planck Institute of Biochemistry and KINAXO’s scientists.
KINAXO has several ongoing collaborations with major pharmaceutical and biotechnology companies such as Boehringer Ingelheim, Johnson & Johnson and Bayer, and is financed by European investors BioM, High-Tech Gründerfonds, KfW, the Max Planck Society, and Mountain Partners.

Source:  B3C Newswire

August 26, 2009

Researchers develop screening test for cells that activate immune system

UT Southwestern Medical Center researchers are the first to design a large-scale, cell-based screening method that identifies which compounds activate immune-return cells that hold compact for prospective cancer-fighting vaccines.
The new screening technique can scan thousands and even millions of compounds to identify those that activate dendritic cells, which are on constant recon patrol throughout the body to scout out cancerous or infected cells and alert the immune system.
“Our assay is unique from other conventional ones in its sensitivity and cost- and time-efficiency,” said Dr. Akira Takashima, professor of dermatology and vice chairman for research and head of the project.
Dendritic cells (DCs) are considered key to developing future vaccines that can either mimic the body’s natural immune response or turn on immune responses that failed - due, for example, to cancer or an immune deficiency.
The team, which also included Dr. Norikatsu Mitzumoto, assistant professor of dermatology and the study’s lead author, and Drs. Hironori Matsushima and Hiroaki Tanaka, postdoctoral researchers in dermatology, created the cell-based biosensor system.
“We basically engineered DCs to express a fluorescent signal only when sensing activation signals so that you can identify immuno-stimulatory agents very easily,” said Dr. Takashima. Immuno-stimulatory agents launch the immune system.

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The research appears on Blood magazine’s online Web site and will appear in a future issue.
“We have optimized the high-throughput screening capability - an experienced scientist can now test one thousand chemicals a day almost single-handedly,” added Dr. Mizumoto. Previously, scientists would have to test each compound individually, a time-consuming process.
Their research already has led to the discovery of several compounds that turn on dendritic cells, which are found throughout the body from skin to blood. They continuously scan the body at the cellular level looking for antigens - foreign cells and materials invading the body - and for molecular signatures of tissue damage or infection.
“Their primary job is to present antigens to the immune system so that you develop protective immunity for infection and cancer,” said Dr. Takashima.
The DC biosensor system should help pharmaceutical and biotech companies sift through large numbers of chemicals for ones that tell the dendritic cells to launch the immune response. It may also prove useful in identifying biothreat agents because it detects infectious pathogens with high sensitivity.
Dr. Takashima said he hopes to garner additional funding to discover potent immuno-stimulatory drugs by screening high-quality libraries of compounds.
Doing so may be the first step toward developing a new class of vaccines that force or trick the natural immune system to kick on, or initiate an immune response that can be copied and initiated artificially.
Other UT Southwestern researchers from dermatology involved in the study were Dr. Yasushi Ogawa, postdoctoral researcher, and Dr. Jimin Gao, former instructor.
The research was funded by the National Institutes of Health, the Dermatology Foundation Career Development Award and the American Cancer Society Junior Investigator Award.
http://www.utsouthwestern.edu/

August 24, 2009

Research and Markets: Accelerating Lead Generation: Emerging Technologies and Strategies

Filed under: Press Releases, Compound Screening, R & D — Editor @ 11:30 am

(live-PR.com) - DUBLIN, Ireland (Research and Markets) - Research and Markets (www.researchandmarkets.com/research/fb1566/accel ..) has announced the addition of the “Accelerating Lead Generation: Emerging Technologies and Strategies” report to their offering.

The number of approvals for new drugs and biologics has fallen steadily in recent years, despite increasing R&D expenditure. Cost effective and innovative approaches to drug discovery and development have therefore become particularly important