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BioTalent Canada’s Animation to Promote Accessibility in Biotechnology Honoured with Award – Business Wire (press release)

Posted: April 22, 2017 at 11:42 pm

OTTAWA, Ontario--(BUSINESS WIRE)--BioTalent Canada announced today that its animated short, Expanding Accessibility in Biotechnology, has won the Platinum Award for Motion Graphics Information at the 2017 Hermes Creative Awards, an international competition overseen by the Association of Marketing and Communications Professionals (AMCP). The award showcases the talent and creativity of marketing and communications professionals, many of whom have contributed to public service or charitable organizations.

Expanding Accessibility in Biotechnology was created as part of BioTalent Canadas Accessibility for Ontarians with Disabilities Act (AODA) employer-awareness campaign, launched in 2016 and funded in part through the Government of Ontarios EnAbling Change Program. The campaign aims to reach and educate bio-economy employers on compliance with the new AODA accessibility standards.

As a national non-profit HR association for the Canadian biotechnology industry, BioTalent Canada works to ensure that the bio-economy has access to the talent it needs. According to research by the organization, only 7.6% of bio-economy companies had persons with disabilities on staff.

BioTalent Canadas animation seeks to increase awareness among employers on the importance of persons with disabilities as a strategically valuable labour market for Canadas biotechnology sector. Developed by eSolutions Group, the animation addresses the importance of creating an inclusive and diverse workforce, which in turn strengthens an organizations innovation.

Canadians with disabilities represent a valuable labour market, one which is under-represented in the bio-economy, says Rob Henderson, BioTalent Canadas President and CEO. It is encouraging to see an animation focused on the benefits of diversity win this award and get showcased at an international level.

Along with the animated short, BioTalent Canada is hosting events across Ontario to educate and train employers on AODAs accessibility standards and what they need to do to comply. The next event will be taking place on April 25th, in the heart of the City of Mississaugas life sciences core.

For more information on the Expanding Accessibility in Biotechnology event in Mississauga, or to register, visit BioTalent Canadas event page.

About BioTalent Canada

BioTalent Canada is the HR partner of Canadas bio-economy. As an HR expert and national non-profit organization, BioTalent Canada focuses on building partnerships and skills for Canadas bio-economy to ensure the industry has access to job-ready people. Through projects, research and product development BioTalent Canada connects employers with job seekers, delivers human resource information and skills development tools so the industry can focus on strengthening Canadas biotech business. For more information, please visit biotalent.ca.

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Stem cells and the art of giving – Zee News (blog)

Posted: April 22, 2017 at 11:42 pm

Madhu Srivastava/IANS

Our health scenario has undergone drastic changes over the past few decades. Is it not fair to say that given today`s lifestyles, finding someone who is completely fit and healthy is quite rare?

In an attempt to take precautions, people are doing their best such as exercising, controlling their diet, taking health supplements, undergoing periodic health check-ups and what not. However, these are only precautionary or preventive measures. How can you protect yourself or your family in the worst case of being diagnosed by a disorder that could take you by surprise?

The good news is that while more new diseases are being discovered, medical science is also growing at a matching pace with treatment solutions for such conditions. Here comes the role of stem cells. Stem cell treatment has been found to be a solution for many ailments that are not treatable by conventional methods of surgery or medication. Diseases such as leukemia ans thalassemia can now be treated by stem cells with a hope of survival, which was not possible even a decade or so ago.

As stem cell medicine keeps advancing with more conditions being researched, the future sounds quite promising as more and more disorders that were once considered as permanent or terminal will soon become treatable.

But, the question is, where does one find these stem cells? Well, the answer is, within you; in your bone marrow.

Unfortunately in more than 80 per cent of these disorders, your own stem cells cannot be used and you would need to seek them from someone else. Here comes the challenge of finding a matching donor and someone who is willing to donate his stem cells. Alternatively, you can source stem cells from a public bank which preserves umbilical cord stem cells of donors. Here, in addition to the rarity of finding a matching stem cell of Indian ethnicity, the problem gets compounded with the need of Rs 15 lakh to Rs 20 lakh for stem cell treatment. Seven out of 10 patients who require a matching stem cell do not find a match in their family.

Can this scenario change? Is there a hope for treating such dreaded conditions? The answer is yes. If you are expecting a baby in your family, then you are blessed.

We say a child is a blessing from God, which is true in real terms. While as parents we bless our children, now the baby can bless us to stay protected against such medical conditions.

The baby`s umbilical cord is a rich source of stem cells. These can be collected and preserved at the time of birth for future use so that it can come to the rescue when required. With the new concept of community stem cell banking by one of the leading stem cell banks in the country which preserves a baby`s stem cells by making him/her a member of the community of parents who have also preserved their baby`s stem cells. The stem cell of all the babies within the community forms a collective pool to be accessed by all members.

Hence, at any given time, one can access donor stem cells from this collective pool for treatment, protecting not just your baby but your family too from such ailments. There is only the initial cost of preserving your baby`s stem cells which is much lower than sourcing stem cells from a public stem cell bank. More importantly, the probability of finding a match of Indian ethnicity is higher and stem cells are readily available for treatment when required.

If you are worried about the uncertainties over the health of your family, you can now rest assured that your baby`s birth will now bless your family with the protection of good health.

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PolarityTE(TM), Inc. Enters Formal Agreement with Cell Therapy and … – Yahoo Finance

Posted: April 22, 2017 at 11:41 pm

SALT LAKE CITY, UT--(Marketwired - Apr 20, 2017) - PolarityTE, Inc. ("Polarity") ( NASDAQ : COOL ) announces the signing of a manufacturing agreement with Cell Therapy and Regenerative Medicine ("CTRM") at the University of Utah School of Medicine. CTRM is the established manufacturer of hematopoietic stem cell transplants for renowned institutions of the Salt Lake region such as the Huntsman Cancer Institute and Primary Children's Hospital. In addition, CTRM manufactures a variety of regenerative medicine products, is FACT accredited, and has technical expertise in current Good Tissue Practice (cGTP) and current Good Manufacturing Practice (cGMP).

Denver Lough, MD, PhD, Chairman and CEO, stated, "This agreement with CTRM should provide PolarityTE with rapid clinical translation of the promising products we are developing, and takes us one step closer to achieving our goal of clinical application of our launch product, SkinTE. As we prepare for market entry in 2018, our established relationship with CTRM creates a springboard for the anticipated scale-up to address the large burn and chronic wound markets, with the pursuit of our own independent manufacturing facility. Plans are solidifying for a unique solution to both commercial and emergent relief manufacturing of SkinTE and future Polarity products. Our goal is not only to meet demand, but also to be able to deliver promptly around the globe when urgent response is needed."

About Cell Therapy and Regenerative Medicine (CTRM) CTRM at the University of Utah is engaged in delivering some of the world's most advanced cellular therapies to patients.CTRM provides unique resources and expertise that feworganizations can internally create to achieve large scale manufacturing of cell- and tissue-based products for clinical trials.Highly experienced CTRM staff support the Blood and Marrow Transplant (BMT) Programs at Huntsman Cancer Institute and Primary Children's Hospital to deliver high quality stem cell products for the treatment of adult and pediatric patients diagnosed with leukemia, lymphoma, aplastic anemia and other types of blood diseases and disorders.CTRM is also developing and providing novel clinical grade cellular and tissue engineered products via comprehensive "bench" to "bedside" services that coordinate efforts of clinicians, entrepreneurs, researchers and bioengineers. CTRM with its industry partners is translating some of the newest cellular and tissue based discoveries into clinical applications to extend and improve the quality of life for individuals suffering from debilitating diseases and injuries.For more information go to http://www.medicine.utah.edu/cell.

About PolarityTE, Inc. PolarityTE, Inc. is the owner of a novel regenerative medicine and tissue engineering platform developed and patented by Denver Lough, MD, PhD. This radical and proprietary technology employs a patient's own cells for the healing of full-thickness functionally-polarized tissues. If clinically successful, the PolarityTE platform will be able to provide medical professionals with a truly new paradigm in wound healing and reconstructive surgery by utilizing a patient's own tissue substrates for the regeneration of skin, bone, muscle, cartilage, fat, blood vessels and nerves. It is because PolarityTE uses a natural and biologically sound platform technology, which is readily adaptable to a wide spectrum of organ and tissue systems, that the company and its world-renowned clinical advisory board, are poised to drastically change the field and future of translational regenerative medicine. More information can be found online at http://www.polarityte.com.

Forward Looking Statements Certain statements contained in this release are "forward-looking statements" within the meaning of the Private Securities Litigation Reform Act of 1995. Forward looking statements contained in this release relate to, among other things, the Company's ongoing compliance with the requirements of The NASDAQ Stock Market and the Company's ability to maintain the closing bid price requirements of The NASDAQ Stock Market on a post reverse split basis. They are generally identified by words such as "believes," "may," "expects," "anticipates," "should'" and similar expressions. Readers should not place undue reliance on such forward-looking statements, which are based upon the Company's beliefs and assumptions as of the date of this release. The Company's actual results could differ materially due to risk factors and other items described in more detail in the "Risk Factors" section of the Company's Annual Reports and other filings with the SEC (copies of which may be obtained at http://www.sec.gov). Subsequent events and developments may cause these forward-looking statements to change. The Company specifically disclaims any obligation or intention to update or revise these forward-looking statements as a result of changed events or circumstances that occur after the date of this release, except as required by applicable law.

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Diet rich in plant protein may prevent type 2 diabetes – Medical News Today

Posted: April 22, 2017 at 11:40 pm

Eating a diet with a higher amount of plant protein may reduce the risk of developing type 2 diabetes, according to researchers from the University of Eastern Finland. While plant protein may provide a protective role, meat protein was shown to increase the risk of type 2 diabetes.

More than 29 million people in the Unites States are affected by diabetes, with type 2 diabetes accounting for between 90 and 95 percent of all cases. An essential part of managing diabetes is partaking in regular physical activity, taking medications to lower blood glucose levels, and following a healthful eating plan.

According to the National Institute of Diabetes and Digestive and Kidney Diseases, healthy eating consists of consuming a variety of products from all food groups, with nonstarchy vegetables taking up half of the plate, grains or another starch on one fourth of the plate, and meat or other protein comprising the final fourth.

It is recommended that fatty or processed meat should be avoided and that lean meat, such as skinless chicken, should be opted for as an alternative.

Meat consumption has frequently been explored as a variable associated with diabetes, and previous research has found a link between a high overall intake of protein and animal protein, and a greater risk of type 2 diabetes. Eating plenty of processed red meat, in particular, has been connected with the condition.

The new research - published in the British Journal of Nutrition - adds to the growing body of evidence suggesting that the source of dietary protein may be important in altering the risk of developing type 2 diabetes.

The researchers set out to investigate the links between different dietary protein sources and type 2 diabetes risk. They used data from the Kuopio Ischaemic Heart Disease Risk Factor Study (KIHD), which was carried out at the University of Eastern Finland.

When the KIHD study began in the years between 1984 and 1989, the diets of 2,332 men aged 42 to 60 years old were assessed. None of the individuals had type 2 diabetes at the onset of the study. Over the course of the 19-year follow-up, 432 men were diagnosed with type 2 diabetes.

Jyrki Virtanen, a certified clinical nutritionist and an adjunct professor of nutritional epidemiology at the University of Eastern Finland, and colleagues discovered that a diet high in meat was associated with an increased risk of type 2 diabetes. The association was seen across all types of meat in general, including processed and unprocessed red meat, white meat, and variety meats.

The researchers say that the association may be a result of other compounds found in meat other than protein, since meat protein alone was not connected with the risk of type 2 diabetes.

Men who included a higher intake of plant protein in their diets also had healthier lifestyle habits. However, their lifestyle habits were not shown to fully explain their reduced risk of diabetes.

Male study participants who had the highest intake of plant protein were 35 percent less likely to develop type 2 diabetes than men with the lowest plant protein intake. Furthermore, using a computer model, Virtanen and team estimate that replacing around 5 grams of animal protein with plant protein per day would diminish diabetes risk by 18 percent.

The link between plant protein and reduced diabetes risk may be explained by the effect of plant protein in the diet on blood glucose levels. Those people who consumed more plant protein had lower blood glucose levels at the start of the study.

The primary sources of plant protein in this study were grain products, with additional sources including potatoes and other such vegetables.

A diet preferring plant protein to meat protein may help protect against type 2 diabetes. The authors conclude that:

"Replacing 1 percent of energy from animal protein with energy from plant protein was associated with [an] 18 percent decreased risk of type 2 diabetes. This association remained after adjusting for BMI. In conclusion, favoring plant and egg proteins appeared to be beneficial in preventing type 2 diabetes."

Overall protein, dairy protein, and fish protein were not connected with a risk of type 2 diabetes, the researchers note. The team also revealed that, confirming the group's earlier studies, a higher intake of egg protein was identified as able to lower the risk of type 2 diabetes.

Learn how legumes may reduce the risk of type 2 diabetes.

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UAB performs Alabama’s first transplant where cadaver liver is ‘kept … – Medical Xpress

Posted: April 22, 2017 at 2:46 am

April 21, 2017 by Tyler Greer This normothermic perfusion machine pumps the liver with warm, oxygenated blood and nutrition at or just below body temperature for up to 24 hours before transplant. Credit: UAB News

Physicians in the University of Alabama at Birmingham Department of Surgery have transplanted Alabama's first patient with a cadaver liver that was recovered from the donor and "kept alive" and preserved at body temperature instead of the standard cold solutiona technique that enables the patient to receive a liver that surgeons can watch produce bile before it is transplanted.

The transplant was performed recently by UAB Medicine surgeons on Lana Wiggins, a Valley, Alabama, resident, as part of a clinical trial using a normothermic machine perfusion technique developed by OrganOx. Surgeons place the cadaver liver in the normothermic machine, which then pumps the organ with warm, oxygenated blood and nutrition at or just below body temperature for up to 24 hours before transplant. Devin Eckhoff, M.D., director of UAB's Division of Transplantation, says the technique has shown great success in European studies and appears to provide a significant improvement in the quality of the transplanted cadaver organ.

"Because there is a large shortage of livers available for transplantation, the transplant community is continuing to push the boundaries to increase the availability of organs," Eckhoff said. "These normothermic machines enable us to preserve the liver under near perfect physiological conditionsas opposed to the usual hypothermic conditions in which the organ is typically transplanted. With the normothermic preservation, the liver maintains all aspects of graft function throughout the preservation process; it allows for pre-transplant assessment of organ function and thereby viability to predict suitability for implantation and the delivery of potential agents such as stem cells to further improve the tissue damage caused when blood supply returns to the tissue after a lack of oxygen."

UAB's School of Medicine and UAB Hospital have joined 14 other transplant centers in the United States in this study. Research efforts like this clinical trial have focused on overcoming the limitations of cold storage, which is the current universal standard for organ preservation, with a move toward normothermic machine perfusion.

Wiggins, who educated and aided families on the value of being an organ donor as a registered nurse at East Alabama Lanier Hospital for 25 years, says she feels better than she has in three years. That was when the combination of a blood clot, fatty liver disease and medications she had taken her whole life for lupus converged to cause the beginning of liver failure.

"I'm doing fantastic, just wonderful, and I'm already back home doing everything I did before my transplant," said the 63-year-old. "It's ironic that I would be the one in need after all of the years of talking about organ donation with patients or patient families. Even before I was a donor coordinator, I believed in organ donation. I signed up when I was in my early 20s. I'm beyond grateful to have received this gift now."

Normothermic preservation advantages

Although limited in terms of the duration of preservation, cold storage has the major advantages of simplicity, portability and affordability. However, with increased use of marginal organs in recent years because of the dearth of livers available, the limitations of static cold storage are a major factor influencing patient and graft survival rates.

The machine that houses the liver to preserve it prior to transplant is the first completely automated liver perfusion device of its kind. It works similar to a greenhouse, and is constructed from basic components that make up conventional cardiopulmonary bypass, including basic roller pumps, oxygenators and heat exchangers.

"This machine can really help in a number of ways," said Stephen Gray, M.D., liver transplant surgeon and director of UAB's Abdominal Transplant Fellowship. "The fact that the machine can perfuse the organ with oxygenated red blood cells at normal body temperaturejust as it would be inside the bodyand that we can observe it making bile before transplant is just an extraordinary feat, and a significant benefit to us as surgeons and our patients. With these normothermic machine-perfused livers, we can assess whether it is going to work before we transplant it into the patient, whereas we typically do not know if the liver will work until the transplant takes place."

This kind of advancement could mean livers can eventually be shipped from coast to coast in the United States, an impossibility for cold-stored livers. If that is the case, geography would not be as much of a hurdle to transplant those most in need. It also means surgeons would not have to operate overnight if a liver can be kept viable for up to 24 hours.

"You can use a liver for transplant that was placed in cold storage for up to 12 hours; but cooling the organ to ice temperature to slow down its metabolism does not stop it from deteriorating, usually within the first six to eight hours," Gray said. "And if the organ is damaged in some way, perhaps by being deprived of oxygen, the combined effect can be catastrophic for the organ. The perfused machine would allow us to extend the storage time and only enhance the viability of the liver."

Eckhoff added that preliminary evidence from clinical trials in Europe have shown organ preservation by normothermic machine perfusion is superior to static cold storage, a breakthrough that could be a major benefit to those with end-stage liver disease.

"If this is as successful as it appears it can be, it will be a significant benefit to those in need of liver transplantation," Eckhoff said. "About 60,000 patients die of liver disease annually in the United States, and many of them could theoretically have been treated with a liver transplant. This device has the potential to change that radically by enabling us to transplant many organs that are simply unusable with current techniques."

The clinical trial at UAB is expected to last 18 months.

For Wiggins, she is just happy to have a second chance at a healthy life.

"It's hard to describe how you feel about someone who makes the decision to give life to others after they are gone by choosing to be an organ donor," Wiggins said. "I had a cousin who died when he was 19, and his parents donated all of his organshis heart, kidneys, livereverything they could. He was a healthy young boy who helped save several lives. To have someone do the same for me is overwhelming. A tremendous blessing."

Explore further: Organ transplants, deceased donors set record in 2016

Organ transplants performed at the University of Alabama at Birmingham and across the United States in 2016 reached record highs, according to preliminary data from UAB and the United Network for Organ Sharing.

Organ donation after circulatory death (DCD), in which transplant organs are taken from donors after ay period of no blood circulation or oxygenation, is often considered inferior to donation after brain death, in which circulation ...

A new preservation system that pumps cooled, oxygen-rich fluid into donor livers not only keeps the organs in excellent condition for as long as nine hours before transplantation, but also leads to dramatically better liver ...

British surgeons said Friday they have performed successful liver transplants on two patients using a revolutionary technique which keeps the organ warm and functioning while outside the body.

People waiting for organ transplants may soon have higher hopes of getting the help that they need in time. Researchers at the RIKEN Center for Developmental Biology have developed a new technique that extends the time that ...

There's new hope for patients with liver disease who are waiting for a donor liver to become available for transplantation.

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Just as an athlete might work to build up stamina before a race, a person entering the hospital also can benefit from prepping the mind and body. Even minor adjustments to diet and mental health could help some individuals ...

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Cher Zhao recently had the rare opportunity to practice skills belonging to the most advanced surgeons: reconstructive cartilage grafting.

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3D-printed Patch Can Help Mend a ‘Broken’ Heart | Technology … – Technology Networks

Posted: April 22, 2017 at 2:46 am

A team of biomedical engineering researchers has created a revolutionary 3D-bioprinted patch that can help heal scarred heart tissue after a heart attack. Two of the researchers involved are biomedical engineering Associate Professor Brenda Ogle (right) and Ph.D. student Molly Kupfer (left). Credit: Patrick OLeary, University of Minnesota

A team of biomedical engineering researchers, led by the University of Minnesota, has created a revolutionary 3D-bioprinted patch that can help heal scarred heart tissue after a heart attack. The discovery is a major step forward in treating patients with tissue damage after a heart attack.

See Also:How 3D Printing Could Revolutionise Organ Transplantation

According to the American Heart Association, heart disease is the No. 1 cause of death in the U.S. killing more than 360,000 people a year. During a heart attack, a person loses blood flow to the heart muscle and that causes cells to die. Our bodies cant replace those heart muscle cells so the body forms scar tissue in that area of the heart, which puts the person at risk for compromised heart function and future heart failure.

In this study, researchers from the University of Minnesota-Twin Cities, University of Wisconsin-Madison, and University of Alabama-Birmingham used laser-based 3D-bioprinting techniques to incorporate stem cells derived from adult human heart cells on a matrix that began to grow and beat synchronously in a dish in the lab.

Watch a video of the cells beating on the patch.

When the cell patch was placed on a mouse following a simulated heart attack, the researchers saw significant increase in functional capacity after just four weeks. Since the patch was made from cells and structural proteins native to the heart, it became part of the heart and absorbed into the body, requiring no further surgeries.

This is a significant step forward in treating the No. 1 cause of death in the U.S., said Brenda Ogle, an associate professor of biomedical engineering at the University of Minnesota. We feel that we could scale this up to repair hearts of larger animals and possibly even humans within the next several years.

Related:Synthetic Cardiac Stem Cells Developed

Ogle said that this research is different from previous research in that the patch is modeled after a digital, three-dimensional scan of the structural proteins of native heart tissue. The digital model is made into a physical structure by 3D printing with proteins native to the heart and further integrating cardiac cell types derived from stem cells. Only with 3D printing of this type can we achieve one micron resolution needed to mimic structures of native heart tissue.

We were quite surprised by how well it worked given the complexity of the heart, Ogle said. We were encouraged to see that the cells had aligned in the scaffold and showed a continuous wave of electrical signal that moved across the patch.

Ogle said they are already beginning the next step to develop a larger patch that they would test on a pig heart, which is similar in size to a human heart.

The research was funded by the National Science Foundation, National Institutes of Health, University of Minnesota Lillehei Heart Institute, and University of Minnesota Institute for Engineering in Medicine.

This article has been republished frommaterialsprovided by University of Minnesota. Note: material may have been edited for length and content. For further information, please contact the cited source.

Reference:

Gao, L., Kupfer, M. E., Jung, J. P., Yang, L., Zhang, P., Sie, Y. D., . . . Zhang, J. (2017). Myocardial Tissue Engineering With Cells Derived From Human-Induced Pluripotent Stem Cells and a Native-Like, High-Resolution, 3-Dimensionally Printed ScaffoldNovelty and Significance. Circulation Research, 120(8), 1318-1325. doi:10.1161/circresaha.116.310277

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Mending broken hearts – The Sydney Morning Herald

Posted: April 22, 2017 at 2:46 am

3D printing incorporating human stem cells might soon become a standard technique for treating heart attack victims, according to US researchers.

Scientists from universities in Minnesota, Wisconsin and Alabama last week unveiled a way of incorporating cells into a bio-printed matrix that will potentially reduce the risk of a second heart attack.

During a heart attack, blood flow to the organ decreases, resulting in massive cell death. These dead cells do not regenerate and are replaced instead by scar tissue which increases the risk of another adverse event.

The US team, led by biomedical engineer Brenda Ogle at the University of Minnesota, used laser-based 3D printing to bind human stem cells into a matrix that at least in a Petri dish in the lab began to beat like heart muscle.

In a further test, the team created 3D-printed heart patches using mouse cells and implanted them into the damaged hearts of lab mice.

After four weeks, the researchers reported "significant increase in functional capacity" in the rodents.

Because the stem cells and supporting proteins used in the biofilm had come originally from each individual animal, the patches became absorbed into each heart. There was no immune system resistance, and no need for follow-up surgery.

Although the technique is still at proof-of-concept stage and faces years of rigorous clinical trials, it represents an important shift towards personalised, regenerative therapies. It also represents a major new direction for 3D printing.

"We were quite surprised by how well it worked given the complexity of the heart," Ogle said. "We were encouraged to see that the cells had aligned in the scaffold and showed a continuous wave of electrical signal that moved across the patch."

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The U.S. Regulations for Biotechnology Are Woefully Out of Date – Slate Magazine

Posted: April 22, 2017 at 2:45 am

CRISPR is a gene-editing tool that enables scientists to do things like turn off the enzyme that makes mushrooms turn brown when bruised or cut.

Brand X Pictures/Thinkstock

In April 2016, an unlikely thing made headlines: the common white button mushroom.

Gene-Edited CRISPR Mushroom Escapes US Regulation, wrote Nature.

Whats a GMO? Apparently Not These Magic Mushrooms, wrote Grist.

And from MIT Technology Review: Who Approved the Genetically Engineered Foods Coming to Your Plate? No One.

The white button mushroom in question looked like any other in the grocery store, with one imperceptible difference: It was missing a gene that codes for an enzyme called PPO, or polyphenol oxidase, which makes mushrooms turn brown when theyre bruised or cut. Scientists at Pennsylvania State University essentially turned off this PPO geneone of six in the mushroomwith a new gene-editing tool called CRISPR, or clustered regularly interspaced short palindromic repeats. CRISPR is a bit like a biological word processor. It zooms to a specific genetic sequence in any living thingthe biotech equivalent of using Ctrl+F. Then, the tool can add, delete, or replace genetic information like an editor tweaking a sentence.

While the Penn State scientists used biotechnology to manipulate the mushrooms genes, their work didnt trigger government oversight, in part because current law doesnt necessarily apply to food made with CRISPR. The case highlights a chronic challenge with biotechnology regulation: It cant keep up with the fast pace of innovation. No surprise there: The relevant laws havent had a proper update in more than 30 years.

Not only that, the regulations are cobbled together, says Jaydee Hanson, a senior policy analyst at Center for Food Safety, an advocacy group. If you were writing a sci-fi novel, your editor would say, Thats just too unbelievable. No one would ever do it that way.

Your Cheat-Sheet Guide to Synthetic Biology

What Exactly Is Synthetic Biology? Its Complicated.

Can You Patent an Organism? The Synthetic Biology Community Is Divided.

The U.S. Regulations for Biotechnology Are Woefully Out of Date

The CRISPR mushroom doesnt appear to pose a health or environmental threat, so in this case the regulatory gaps may not matter. But what about a potentially damaging biotech creation made the same way? How will we regulate synthetic organisms made with technologies that dont yet exist? These questions arent just about food, as important as that istheyre also key for any biotech or synbio product, such as mosquitoes engineered to curb diseases and microbes made from scratch.

Depending on whom you talk to, the CRISPRd mushroom isnt strictly defined as synthetic biology. Still, genetic technology exists on a continuum, and the regulatory conundrum the mushroom raises is relevant to any organism tweaked in a lab.

Over the past two years, policymakers had a fleeting chance to improve biotech lawsand they missed it. Now that were in the wild and unpredictable world of the Trump administration, the future of biotech regulation is a big fat question mark.

To understand biotech regulations, we have to go back in time to 1986, when the cool kids were pegging their jeans, Top Gun was in the theaters, and Lionel Richie and Bananarama dominated the airwaves.

Another trend back then: recombinant DNA. Scientists discovered this genetic engineering tool in the early 1970s, when they first swapped genes from one species into another using the bacteria E. coli. The discovery was a landmark for biotechnology. By the 1980s, companies were commercializing microbes and plants made with recombinant DNA, and regulators ears perked up.

The decision fell to the White House Office of Science and Technology Policy, which has two main jobs. The first is to advise the president on matters of science, tech, and engineering. The second is to help coordinate multiple agencies on scientific policy. Rather than writing a new law, the OSTP decided to fit genetically engineered products into existing laws. The result, called the Coordinated Framework for the Regulation of Biotechnology, published in June 1986. A small update in 1992 didnt change much.

Under the coordinated framework, regulation falls to the Environmental Protection Agency, the U.S. Department of Agriculture, and the Food and Drug Administration.

Yang Labs

The EPAs job is to protect human health and the environment. Several laws allow the EPA to do this, but the two relevant for biotech regulation relate to pesticides and toxic materials. Under the coordinated framework, the EPA can regulate any biotech organisms that produce these chemicals in some way. A genetically engineered crop that makes its own insecticide, for example, would trigger EPAs oversight on pesticides, while a microbe altered to produce biofuel would trigger the rules for potentially toxic chemicals.

The USDAs job, in part, is to protect U.S. agriculture. When it comes to biotech, the relevant laws that give USDA power relate to plant health. When the coordinated framework first published, the state-of-the-art genetic engineeringrecombinant DNAused microbes to deliver new genes. In crops, for example, scientists used agrobacterium, a bacterium that can infect plants. Its a weird way to apply the lawthese microbes arent likely to hurt crops. But the microbes are technically plant pathogens, which gives the USDA the authority to regulate any crop made this way.

As for the FDA, part of its job is to keep our food safe. Under the coordinated framework, companies proposing to sell a biotech food may submit to a voluntary safety review, to prove that its not going to poison anyone or give them a horrifying allergic reaction.

The original coordinated framework was a messy solution, but it worked OK for the technologies that were available back in the 80s and 90s. Today? Not so much. Take the CRISPRd mushroom. Because the mushroom doesnt produce pesticides or potentially toxic chemicals, the EPA had no reason to regulate it. The Penn State scientists who made the mushroom didnt use microbes to deliver DNACRISPR doesnt require that stepand so their work didnt trigger USDA oversight. As for the voluntary FDA review, the agency hasnt published anything on the mushroom so far.

Policymakers knew the coordinated framework was rickety even before the mushroom came along. In July 2015, the Obama administration asked the OSTP to take another look at the policy to ensure that the system is prepared for the future products of biotechnology.

To do this, the OTSP proposed three steps. One was to commission a report from the National Academies of Science exploring new biotech that may come out over next five to 10 years (more on this in a minute). For the other two, the agencies had to update their role in current biotech regulation and spell out a long-term strategy for future products.

The update took more than a year and included a series of closed and public meetings. A draft published last September, and the final version came out in early January. It was a lot of work for an underwhelming document. Rather than update the coordinated framework, the document lists a series of hypothetical biotech products and explains how each agency might regulate them. But none of the hypothetical exercises explored how products made with new technologies, like the CRISPR mushroom, may fit the current rules.

Its hard to imagine President Trump giving biotech much thought.

I thought it was a missed opportunity, says Jennifer Kuzma, a professor of science and technology policy and co-director of the Genetic Engineering and Society Center at North Carolina State University.

A better approach may have been to blow the whole thing up and start over: Write a new law that could adapt to future technologies. Such a law would have a broad scope that could capture any biotech or synbio product, regardless of how its made. Ideally, the law would also be more elastic when it comes to risk. We should let the traits of the organism determine the level of regulation, says Greg Jaffe, biotechnology director for the Center for Science in the Public Interest. Things that are potentially more risky should get more scrutiny, and things that are potentially less risky should have less scrutiny.

Of course, writing new biotech laws would require legislative approvala tough job in any year, made even more unlikely in todays hyperpartisan, dysfunctional Congress.

But there are other ways biotech laws could change. Remember, the OSTP also tasked the agencies with a long-term strategy for future biotech products. In January, just days before Obama left office, the FDA published draft guidance on regulating genetically altered animals, which will include CRISPR and other new technologies, as well as guidance on gene-edited foods and mosquitoes.

Around the same time, the USDA proposed new rules on biotech plants. In addition to potential plant pests that it already monitors, USDA wants to use a law that lets it regulate noxious weedsplants that pose a threat to the environment, the economy, or society, such as invasive species. Using this law would broaden the agencys ability to do risk assessments on genetically engineered products. The new rules would also allow the USDA to revise previous decisionsfor example, if there is evidence that an approved product is causing unexpected ecological damage.

Before the FDA and USDA proposals can move forward, theyll go through public comment periods, which end on June 19. The draft changes can help fix some of the problems with the coordinated framework, says Kuzma. Theyre not the entire solution, but theyre patches.

The other piece that could inform new policy is the National Academies report on biotech, which was published in March. It lays out several possible recommendations for regulating biotech in the future. For example, one suggestionwhich has the support of many policy folks, including Jaffeis to create a single point of entry for biotech regulation. This could do away with needless regulatory overlap. It would also be easier for companies to navigate.

But the new administration doesnt seem to be paying much attention to any of this. Science and agriculture arent high-priority, if the proposed budget cuts for 2018 are any indication. Trump still hasnt named a science adviser or a director for the OSTP. Some on Team Trump reportedly want to do away with the OSTPa tricky proposal for biotech, since the office organizes and guides the relevant policies and agencies. And its hard to imagine President Trump giving biotech much thought. A search of his tweets, a direct line into his stream of consciousness, shows no mention of genetically modified organisms. Or biotechnology. Or biology.

It could be that the agencies will just plug along under the radar and get some real work done. Or the changes and recommendations will languish, and well be stuck with the 30-year-old coordinated framework. Or the Trump administration could wipe the regulations out completely, like it has with rules on clean water or protecting hibernating bears.

Those last two choicesdoing nothing or wiping out regulations altogetherwould be huge mistakes. Either could allow for a flood of unregulated, and potentially risky, products. It would be much wiser to let the agencies continue the hard work of updating the laws for biological innovations, so we can have confidence to pile a helping of CRISPRd mushroom on our plate.

This article is part of the synthetic biology installment of Futurography, a series in which Future Tense introduces readers to the technologies that will define tomorrow. Each month, well choose a new technology and break it down. Future Tense is a collaboration among Arizona State University, New America, and Slate.

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The U.S. Regulations for Biotechnology Are Woefully Out of Date - Slate Magazine

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Favorable Media Coverage Likely to Affect Puma Biotechnology (PBYI) Share Price – The Cerbat Gem

Posted: April 22, 2017 at 2:45 am

Favorable Media Coverage Likely to Affect Puma Biotechnology (PBYI) Share Price
The Cerbat Gem
Puma Biotechnology logo Headlines about Puma Biotechnology (NYSE:PBYI) have been trending positive recently, according to AlphaOne. AlphaOne, a service of Accern, identifies negative and positive press coverage by monitoring more than twenty ...

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Favorable Media Coverage Likely to Affect Puma Biotechnology (PBYI) Share Price - The Cerbat Gem

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March for Science: Agony and ecstasy of a Malaysian agricultural biotechnology science communicator – Genetic Literacy Project

Posted: April 22, 2017 at 2:45 am

What can be more challenging than slogging in the laboratory, burning the midnight Bunsen burner, changing the methodology a few times, dealing with contaminated cell cultures and losing them, not having the transferred genes express themselves, and mining large genomics data in the terabytes?

It is communicating the science behind the research, repackaging it into plain language and dispelling the misinformation created by technology skeptics to ensure that viable science projects that help address food security and sustainable agriculture practices are commercialized, approved and reach the farms and our forks. This is no small task. Science communication is a complex field requiring special skills, training and experience. The heterogeneity of the public makes science communication both challenging and exciting. There is no cookie-cutter approach. Every audience, topic and concern must be approached differently. Each one is unique, requiring a customized communication strategy.

I have been a science communicator for 14 years and I have enjoyed every one of them, although it is not a bed of roses all the time. It requires patience and the ability to learn from our past mistakes and to perfect our techniques. Here I am sharing my agony and ecstasy.

The agony

Why is it that when scientists speak up for genetically modified (GM) crops we are immediately labeled as industry advocates and as recipients of industry money? In contrast, those who evangelize about organic products are seen as angels and saints? Yet, many of the critics of GM crops receive financial support from the organic industry and this industry has been no angel to science. Scientists who collaborate with agri-companies or receive funding from them are also demonized and their credibility trashed by critics. But, industry collaboration is not new in research at universities. The organic industry widely funds research. Why are only agribiotechnology scientists singled out?

Mahaletchumy Arujanan

Critics create myths about organic foods; instill guilt in mothers who dont feed their families with organic foods; and force consumers to pay hefty premiums in the pretext of serving more nutritious and sustainably grown foods. The claims that organic foods are more nutritious have been debunked many times. In spite of all this, GM crops and those who support them are painted as evil. For these reasons, I avoid organic foods like the plague it simply goes against my conscience.

Why is our job made so difficult while critics of GM crops have it easy? They create fear, doubts and myths. But those who embrace science take years to challenge the myths and doubts created by others. It takes years of research. Every time a doubt is created and turned into an unnecessary regulation, farmers pay the price in terms of economic losses. A good example is the failure to approve and commercialize insect resistant Bt brinjal in the Philippines (note the benefits were publicly acknowledged seven years ago but opponents successfully blocked its approval) and GM mustard in India.

It is not easy fighting ideology and hypocrisy with science. The opposition to GM crops has become a cult that no amount of science can dispel. I feel helpless when powerful tools are confiscated from farmers (see how EU Urges the G8 member states not to support GMO crops in Africaclause 72). They are deprived of technological innovations that could help them practice agriculture sustainably, prevent occupational hazards that are caused by the use of pesticides, increase their income and reduce their loss and costs.

A common accusation by critics is that GM seeds are patented by big agri-companies. But they fail to acknowledge that organic products are patented as well. Another favorite of scaremongers is that GM crops are dangerous and can even kill. Yet, since 1996 not a single GM-related health hazard has been reported. Not one. We cant however, say the same for organic produce. Read here, here and here to see the reality of safety of organic foods.

In spite of the mounting evidence on the benefits of GM crops, critics confuse the public with cooked-up evidence demonizing GM crops. For a science communicator backed by science, this is agonizing and makes my job extremely difficult.

The Ecstasy

When Malaysia was developing its Biosafety Act, I was involved in creating awareness about the need for a balanced, science-based regulatory instrument. I faced character assassination, accusations and sarcastic remarks.They were agonizing moments. But the agony turned to ecstasy when the act, and later the regulations and guidelines, became more science-based. Today, I sit in many meetings with the Ministry of Natural Resources and Environment to help implement the regulations in a balanced manner.

There have been other moments of ecstasy as well. Years ago, I waded into untested waters when I tackled issues related to Islamic principles (Shariah compliance) and GM foods. As a non-Muslim, I took a risk in handling such a sensitive topic but there were many countries that were contemplating a fatwa (decree) against GM crops, i.e. to declare GM foods and crops as haram (non-permissible). I didnt want the misinformation to spread among Muslim countries so I organized a dialogue between religious scholars and scientists.

The first meeting collapsed halfway through with many accusations hurled at me by GM opponents. I took a break from this topic for a while and analyzed my mistakes, found new credible partners and organized another high-level dialogue with top Islamic scholars from the Muslim world. It was a huge success. Here is the resolution that is used as a reference in many countries today that resulted from the discussion. Philippines became the first country after the dialogue to reverse its anti-GM rules, where initially they had a blanket decree claiming all GM foods were haram.

In 2010, I took a creative approach to educating a group that otherwise wouldnt take a second look at biotechnology fashion students, and through them a wider womens group. I engaged a university and got its fashion students to design outfits based on biotechnology themes and organized a fashion show. This was part of a bigger event called Bio Carnival with poster drawings, coloring, public speaking, debate, quizzes and spelling competitions for students, and exhibitions and hands-on sessions for the public. It was a rewarding experience when the university later introduced biotechnology as a special project for fashion students after realizing how it inspired fashion designs through its colors and unique patterns. With this approach, all the students had to search for information on biotechnology and we educated them about science and innovation.

Then there is my favorite project. I was long frustrated with the amount of space the mainstream media devoted to science issues. I tried making friends with journalists and organizing media training for scientists but it really did not effect much change. So, I decided to create my own playing field, The Petri Dish the first science newspaper in Malaysia. It is now seven years old and this year it graduated to become a digital portal to reach a wider audience.

The Petri Dish reaches all key stakeholders in Malaysia academia, researchers, policymakers, politicians (all cabinet members receive a copy), students, industry and the general public. We make it available at shopping malls and Starbucks outlets. I know a number of ministers who read it, and once a topic was fiercely debated at the cabinet meeting after being reported in The Petri Dish.

This is our initiative in bringing science to the headlines. It is aimed at creating awareness among all stakeholders on biotechnology so the public will be more receptive to emerging technologies and policymakers will be able to make informed decisions on regulations and funding. It also encourages young people to pursue STEM education and careers. Every time, I receive positive feedback on Petri Dish, I feel a rush of ecstasy. It is a struggle to sustain a science newspaper but the feeling of inspiring people about science is rewarding.

Another area I enjoy is talking to students both at schools and universities. These are uncorrupted minds and they are receptive to information backed by science when it is presented by a credible person. Every year, I reach out to more than 2000 students who are inspired by science and believe it offers solutions to many global problems.

The biggest lesson I have learned is that we need to build trust with our audiences before we start communicating with them: Connecting first and then communicating.

I believe the agony and ecstasy will continue, with exciting new developments in synthetic biology, gene editing and gene drives.

Mahaletchumy Arujanan is the Executive Director of Malaysian Biotechnology Information Centre (MABIC) and Editor-in-Chief of The Petri Dish the first science newspaper in Malaysia. She is also an Adjunct Lecturer at Monash University Malaysia. She has a degree in Biochemistry and Microbiology from Universiti Putra Malaysia, Masters in Biotechnology and PhD in science communication from the University of Malaya. She is an active science communicator who addresses policies, regulations, ethics, religions, STEM and other areas pertinent to biotechnology development. You can follow her onFacebook and Twitter @maha_mabic.

For more background on the Genetic Literacy Project, read GLP on Wikipedia

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March for Science: Agony and ecstasy of a Malaysian agricultural biotechnology science communicator - Genetic Literacy Project

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