Saturday, 23 March 2013

Jr Executive post at Biocon (Freshers can apply)


Requirement Jr Executive - HC/JC/2189/12
Location Bangalore
Experience 0.00 to 3.00 years
Education B.Sc
Skills
  • Good knowledge on centrifuge, reactors, filters pumps and chromatographs.
  • Should have knowledge of Current Good Manufacturing Practices. (cGMP) 
Job Description
  1. Support the manufacturing team and participate in shift operations (Effectively operate Reactors, clean room equipments, cleaning tanks, centrifuges, etc.)
  2. Adherence to Safety, Health and Environment measures.
  3. Calibration of weighing instruments in production.
  4. Monitoring and control of specific production operations.
  5. Adherence to available Standard Operating Procedures & product specifications.
  6. Entering data in Quality Records.
  7. Product handling and packaging.
  8. Adherence to cGMP.
  9. Reporting of product/system non-conformities, and implementation of corrective/ preventive actions in specific areas of operation. 

Click here to apply

Junior Executive" @ Novozymes


Qualifications: Bachelor in Chemistry, MicrobiologyBiotechnology.
  • Min. 3-5 years of experience from Biotechnology or pharmaceutical production
  • Strong understanding of GMP /Safety /Lean concepts.
  • Candidates with the related working experience in manufacturing environment, especially inBiotechnology/chemical industry will be an advantage.
  • Good team player
  • Ready to work in shifts
  • Be strong analytical and problem solving skills.
  • Ability to communicate effectively in English.

Click here to apply

Monday, 4 March 2013

JRF - Biotech/ Agriculture--Indian Institute of Horticultural Research in Bengaluru/Bangalore


Job DescriptionSend me Jobs like this
Number of post (s): One


Fellowship: Rs. 16,000/- PM+ HRA (1&2 years)

Rs.18,000/- PM+ HRA (3 &4years)


Qualifications:

Essential:

Essential: M.Sc in Biotech/ Agriculture, with experience in tissue culture and molecular biology.


Walk-In Interview:

Walk-In date & Time: 07.03.2013, 10.00 a.m. onwards.

Walk-In venue: IIHR, Hessaraghatta Lake Post, Bangalore- 560089


For more details: http://www.iihr.ernet.in/content/temporaryposts


Last Apply Date:
07 Mar 2013
Industry:
Education / Teaching / Training
Functional Area:
Engineering Design, R&D

Senior Project Fellows --CSIR-Institute of Microbial Technology in Chandigarh


Job DescriptionSend me Jobs like this
ADVERTISEMENT NO. 01/2013


No of vacancies: (Panel to be drawn)
Essential Qualification: M.Sc. 1st class in Physics, Life Science or Biology discipline such as Bio-Chemistry, Microbiology, Bio-informatics, Molecular Biology, Genetics, Biotechnology, Chemical Sciences with minimum 2 years research experience.

Desirable: Practical research experience in the areas mentioned above

Stipend: - Rs. 18,000/- + HRA @ 20%

Age limit :- 32 years as on 12.03.2013

Walk-in-interview at Seminar Hall, CSIR-Institute Of Microbial Technology, Sector 39-A, Chandigarh – 160 036 on 12.03.2013 (Tuesday) at 09.30 A.M. (Sharp)


For more details : http://imtech.res.in/components/com_chronocontact/uploads/Job/advt_01_2013.doc
Last Apply Date:
12 Mar 2013
Salary:
Rs. 18,000/- + HRA @ 20%
Industry:
Education / Teaching / Training
Functional Area:
Engineering Design, R&D

Thursday, 14 February 2013

Combining bio- and medtech for the diagnosis of cardiac diseases


The Department of Cardiology at Heidelberg University Hospital and Siemens Corporate Technology have been working together since 2011 to develop new software that improves the diagnosis of heart diseases. The new software analyses and manages data related to the genetic causes of cardiomyopathy and presents the data to physicians in a clear manner. Specific microRNAs in the blood of patients have the potential of being used as new biomarkers, thus making diagnosis of a heart attack more rapid and reliable.


Colour Doppler echocardiography for the functional diagnosis of the heart (the photo shows the blood flow in a patient suffering from severe pulmonary valve stenosis). (© B. Meder, Heidelberg University Hospital)
People suspected to have suffered a heart attack, which is one of the main causes of death in industrial countries, need to be treated and diagnosed immediately. If their condition has been caused by the occlusion of coronary arteries, medical treatment (e.g. catheterisation to open the blocked artery) needs to be initiated within an hour of the first symptoms occurring in order to prevent the blood clot from blocking the artery and starving the heart muscle of oxygen, causing permanent damage and even cardiac death. ECG (electrocardiography) is currently the method of choice for identifying how much damage has occurred to the heart muscle; long-term ECG is the standard method for identifying continuous or undetected blood-flow disorders of the heart. However, ECG only detects typical heart attack signs in about 50% of patients and does not enable heart attacks to be differentiated from other cardiac disorders and diseases. A reliable diagnosis can only be made by also taking other criteria into account.

Morphofunctional characterisation of cardiac diseases

Using genome data for the diagnosis of heart diseases


Siemens software helps cardiologists to analyse genetic data. (© Siemens)
With this in mind, cardiologists from Heidelberg University Hospital teamed up in 2011 with colleagues from Siemens Corporate Technology, the global leader in ultrasound diagnostics and medical imaging, to develop new software that not only analyses and manages the huge amount of data generated by genetic tests, but also presents it to physicians in a very clear manner. “Here we used tried and tested software as a basis and then recombined the software components in an intelligent way,” said Dr. Andreas Keller, a researcher from the Chief Technology Office of Siemens’ Healthcare sector.

In September 2012, Siemens installed an initial demonstration unit for improved genetic analysis of heart muscle weakness (dilated cardiomyopathy) at Heidelberg University Hospital. The cardiologists in Heidelberg already have datasets for around a thousand patients and Keller believes that another 150 datasets will be added to the collection each year. This will provide doctors with an increasingly solid foundation for future studies. Keller added that the challenge is also to make sure that a physician is not just given simple lab results, as was previously the case, but is instead issued gigabytes of information on each patient. “This will not be a problem given the fact that Siemens has many years of experience and expertise in evaluating large amounts of data and extracting clinical information that doctors can understand,” said Keller. The demonstration unit will initially be used for the diagnosis of cardiomyopathy, but the systems can also be modified and used to detect other cardiovascular diseases, and even be applied to completely different areas, such as the early detection of cancer.

Blood biomarkers for the diagnosis of heart attacks




Tuesday, 12 February 2013

RNA Fragments May Yield Rapid, Accurate Cancer Diagnosis


A new method to noninvasively diagnose cancer and monitor its progression could eliminate the need for painful and sometimes life-threatening biopsies









 





Strands of genetic information preserved inside microvesicles, called exosomes, may help scientists diagnose certain forms of cancer and monitor tumor progression.Image: everystockphoto
Fragments of RNA that cells eject in fatty droplets may point the way to a new era of cancer diagnosis, potentially eliminating the need for invasive tests in certain cases.
Cancer tumor cells shed microvesicles containing proteins and RNA fragments, called exosomes, into cerebral spinal fluid, blood, and urine. Within these exosomes is genetic information that can be analyzed to determine the cancer’s molecular composition and state of progression. Researchers at Massachusetts General Hospital discovered that exosomes preserve the genetic information of their parent cellsin 2008, however exosomes have not seen widespread clinical testing as a means of cancer diagnosis until now.
“We have never really been able to detect the genetic components of a tumor by blood or spinal fluid,” says Harvard University neurologist Fred Hochberg. “This is really a new strategy.” He says exosome diagnostic tests could potentially detect and monitor the progression of a wide variety of cancers. He is one of the lead researchers in amulticenter clinical study using new exosomal diagnostic tests developed by New York City-based Exosome Diagnostics to identify a genetic mutation found exclusively in glioma, the most common form of brain cancer.
When treating other forms of cancer, surgeons are able to biopsy tumors to diagnose and monitor the state of the disease. For brain cancers like glioma, however, multiple biopsies can be life threatening. Bob Carter, head of neurosurgery at the University of California, San Diego, says well-preserved RNA in blood and spinal fluid enables researchers to test and monitor for these genetic changes noninvasively.
He says study researchers separate exosomes from bio-fluids with a diagnostic kit and then extract the relevant genomic information. Once the specific cancer mutation is identified, clinicians will periodically draw additional bio-fluids to monitor the mutation levels to determine whether a patient is responding to therapy.  
Whereas Magnetic Resonance Imaging (MRI) is a useful tool, tumors only show up on imaging scans once they are at least one millimeter in diameter and comprise about 100,000 tumor cells. By that time, it may be too late for an early intervention. On the flip side, MRIs can also yield false positives. Hochberg says individuals who have been treated with conventional radiation therapy often have benign residual tissue from dying tumor cells that have been killed by the treatment but which the body has not yet eliminated. This tissue is often mistaken for tumor growth on a MRI scan. “You would identify to the patient that the drug is not working when in reality it is doing well,” Hochberg says. “On the other hand, having an easily accessible biomarker for glioma would give you a clear response.”
There are 18 U.S. hospitals participating in the clinical trial, sponsored by theAccelerated Brain Cancer Cure Foundation. Hochberg says study researchers have recruited 41 of 120 patients so far. Preliminary results will be presented in April at the International Society for Extracellular Vesicles Symposium in Boston.
From a technical standpoint I don’t believe there is a barrier,” Carter says. “This test can certainly be used now, what we are trying to finalize is the sensitivity and specificity of the test.”
Exosomes may be a reliable method of screening for prostate cancer as well. A PSA test is currently the most common, noninvasive means to screen for prostate cancer in the U.S. PSA testing measures for elevated levels of prostate-specific antigen, a protein produced by the prostate gland that is used to liquefy semen in men. The higher a man’s PSA level, the more likely it is that he has prostate cancer, says James McKiernan, director of urologic oncology at Columbia University Medical Center. There are additional reasons, however, for high PSA levels-and some men with prostate cancer do not always have elevated PSA, he added. In addition, for many cases of prostate cancer, new research published in May 2012 in The New England Journal of Medicine shows that treatment does not actually extend the life of the patient.
“Honestly PSA is not cancer-specific,” says Sudhir Srivastava, head of the NationalCancer Institute’s Cancer Biomarkers Research Group. “Exosomes could be very much [more] cancer specific. PSA might give you one specific biomarker for cancer identification, but exosomes can give you an entire disease specific profile so you would know whether or not it is a form of prostate cancer that necessitates treatment.”
Researchers at Exosome have developed a diagnostic kit for prostate cancer with a diagnostic accuracy of around 75 percent-a rate comparable with that of actually taking a tissue biopsy, says Wayne Comper, a renal physiologist and chief science officer at Exosome. He says the first diagnostic kit could be available commercially by the end of 2013.
Researchers use the kit to look for the genetic biomarker TMPRSS2:ERG or T:E in exosomes taken from a urine sample. Comper says levels of T:E are nine times higher in a cancerous prostate versus a healthy one.
McKiernan says researchers found these exosomal diagnostic tests gave better predictive results for cancer than current prescreening methods, such as PSA. PSA levels are measured via a blood draw but also require a visit to a doctor’s office for a digital rectal exam, something that isn’t necessary with an exosomal diagnostic test. “Our study got enough interest to put together a series of sites for investigation to lead to potential FDA approval of this particular kit,” he says. “That is ongoing right now and the last time I checked there were about 1,000 patients who have been enrolled in the study.”
Srivastava says Exosome's prostate kit could prove to be extremely relevant in cancer treatment if it survives the U.S. Food and Drug Administration’s grueling approval process. He says it is a precursor to what he hopes will be a series of multiple-gene-signature cancer tests. “We are looking for something with about 90 percent accuracy before it can be used by itself for clinical diagnosis,” he says. “NCI has done two prostate trials with exosomes to date and is looking into creating standard isolation procedures to make the tests more specific.”
In the meantime Srivastava says exosomal tests could be used in conjunction with current methods of diagnosis like PSA to help physicians better determine if the nature of a prostate tumor is severe enough to warrant radical treatment or removal without ever performing a biopsy. “If someone has high PSA and also has biomarkers which are positive in exosomes that would be a great test,” he says. “Exosomes have the potential to really further the detection of cancer and help analyze things that would have otherwise not been detected noninvasively.”
http://www.scientificamerican.com/article.cfm?id=rna-fragments-may-yield-rapid&page=2

Friday, 8 February 2013

Small-molecule drug drives cancer cells to suicide Studies in mice show therapy is effective even in hard-to-treat brain tumours.

Cancer researchers have pinned down a molecule that can kick-start the body’s own tumour-destroying systems, triggering cell death in cancerous but not healthy tissue in mice. The molecule, TIC10, activates the gene for a protein called TRAIL (tumour-necrosis-factor-related apoptosis-inducing ligand), which has long been a target for cancer researchers looking for drugs that would avoid the debilitating effects of conventional therapies. “TRAIL is a part of our immune system: all of us with functional immune systems use this molecule to keep tumours from forming or spreading, so boosting this will not be as toxic as chemotherapy,” says Wafik El-Deiry, an oncologist at Pennsylvania State University in Hershey and lead author of the study, which is published today in Science Translational Medicine1. Related stories Cellular suicide spurs cancer Cancer-proof mice live longer Stem cells home in on brain cancer Experiments showed that TIC10 had potent effects against a variety of tumours, including breast, lymphatic, colon and lung cancer. It was especially effective at triggering cell suicide in glioblastoma, a kind of brain tumour that is notoriously difficult to treat2. Mice with glioblastomas that were treated with TIC10 and bevacizumab — a drug used against diseases including brain tumours, and sold under the name Avastin — survived three times as long as untreated mice. However, they survived only 6% longer than mice treated with bevacizumab alone. Quick and collaborative El-Deiry says that TIC10 is so effective because it is much smaller than proteins that have previously been tested as TRAIL-based drugs. The molecule is so compact that it can cross the blood–brain barrier, which separates the main circulatory system from the brain. This barrier normally acts to prevent hazardous agents such as microbes from infecting the brain, but can also thwart anti-cancer drugs by keeping them out. “We didn’t actually anticipate that this molecule would be able to treat brain tumours — that was a pleasant surprise,” says El-Deiry. Furthermore, it seems that TIC10 activates the TRAIL gene not only in cancerous cells, but also in healthy ones. This gives it enormous potential to create a 'bystander effect', in which apoptosis — or cell death — is induced in cancer cells immediately next to healthy ones. Healthy cells are also stimulated to increase the amount of TRAIL receptors on their cell surface. These receptors can then bind to the adjacent cancerous cells, triggering their demise. “It’s almost like TRAIL-plus — it does so much more,” says El-Deiry. Tough TRAIL This is by no means the only mechanism thought to trigger cell death in cancer. In particular, cancer researchers have been developing a number of drugs, including TRAIL-based therapeutics, that work by activating the cellular messenger tumour protein 53 (p53). But p53-based methods are not always effective, says El-Deiry. "Most tumours have dysfunctional p53, so in order to develop new therapeutics for cancer, one needs them to be effective in tumours with mutated p53,” he explains. His team's approach bypasses p53 entirely. Although the study was limited to mice, the team is confident that a similar approach would work in humans. Other researchers are sceptical, in part because TRAIL-based strategies have not lived up to past hype. The potential for TRAIL to usher in a new age in cancer therapy was first identified in the mid-1990s3. However, although early clinical trials for TRAIL-based therapies showed little toxicity, they were not very successful at treating cancer, says Andrew Thorburn, an oncologist at the University of Colorado Denver, who co-authored a review on the subject last year4. “All the large clinical trials found no significant survival benefit to adding TRAIL-based therapeutics to standard treatments,” he ads. Many large biomedical research groups have shelved their TRAIL-based drugs. http://www.nature.com/news/small-molecule-drug-drives-cancer-cells-to-suicide-1.12385