An Alzheimer’s research pioneer, right here at Penn – Penn: Office of University Communications

A primary project for Garrett Gibbons, a postdoctoral researcher at the Center for Neurodegenerative Disease Research (CNDR), is to develop novel tau antibodies as possibletherapies to treat Alzheimers disease. When in the thick of it, the scientific process becomes a huge, timelyand sometimes redundanttask.

One particular experiment comes to mind: Gibbons and his colleagues were injecting tau into mice models, which the mice developed antibodies against, and when they were harvested, the cells were paired with another cell to make a hybridoma. The problem? After two times running the full experiment, the antibodies still didnt meet certain criteria to be applicable.

Gibbons, quite disheartened, told his adviserVirginia Man-Yee Lee, a Perelman School of Medicine professor and director of CNDR, that the benchmark was too high.

Virginia was like, Well, try again, Gibbons recalled. She pushed back and said how she thought we could do better.

Although admittedly frustrated at the time, Gibbons rethought the project, and, ultimately, underwent a revamped test a third time.

And we got better antibodies, performing better than the previous ones, he said. They are now the candidates that we are evaluating as immunotherapy in mice, as potential treatments for Alzheimers disease.

It is safe to say, noted Gibbons, that without this kind of persistence from Lee, Alzheimers research wouldnt be nearly as developed as it is today. A pioneer in the field of neurodegenerative diseases, Lee was recently recognized for her four decades of work with a $3 million Breakthrough Prize in Life Sciences, an award backed by major technology leaders from companies including Google and Facebook.

Growing up in Hong Kong in a very traditional Chinese family, my mother never wanted me to become a professional, let alone a scientist, Lee said to the crowd, while accepting her Breakthrough Prize at the Oscars of Science in Silicon Valley in early November. Thankfully John Trojanowski, my life partner and collaborator, convinced me to embark on this wonderful journey with him, identifying proteins that are involved in devastating neurological diseases, which affect more and more of us, but have no effective treatment.

Lee, with a background in biochemistry and neuroscience, and Trojanowski, who studied pathology and neuropathology, have toiled alongside each other at Penn since the mid-1980s. They began work in Alzheimers research when it was very uncommon to do soin fact, their mentors urged them to stay far, far away from it.

What [our mentors] saw as a swamp, said Trojanowski, we saw as a huge challenge and opportunity that has led to an engaging career.

Before Lee and Trojanowski, prior studies had determined that an Alzheimers patients brain progressively accumulates plaques, abnormal clusters of protein fragments called beta-amyloid, that build up between nerve cells, and tangles, which form inside dying cells. Using this as a starting point, the duo detected their first major finding in 1991: that tau is the building block protein of the neurofibrillary tangles.

In 1997, Lee and Trojanowski found that Lewy bodies, the hallmark brain pathology of Parkinsons disease, are formed by alpha-synuclein. Knowing what causes Lewy bodies is important to Alzheimers researchers because about 50 percent of Alzheimers patients have Lewy bodies that contribute to cognitive deficits.

Then, in 2006, they discovered the pathological protein deposits in amyotrophic lateral sclerosis, or ALS, and frontotemporal degeneration, or FTD, are formed by TDP-43, a multifunctional DNA- and RNA-binding protein, and these deposits are also present in a large number of Alzheimers patients brains.

Lee was specifically recognized for the Breakthrough Prize for discovering TDP-43 protein aggregates in FTD and ALS, and revealing that different forms of alpha-synuclein, in different cell types, underlie Parkinsons disease and Multiple System Atrophy.

This is exceptionally important work, and we are very proud that it is taking place at Penn. Penn President Amy Gutmann

The discoveries led by Dr. Lee and her team are extraordinary, and absolutely worthy of the prestigious Breakthrough Prize, said Penn President Amy Gutmann, who went to Silicon Valley to support Lee in receiving her honor. Dr. Lee and her team have worked to fully understand the different segments of Alzheimers disease and other related disorders, using that knowledge to develop models that are becoming the foundation for therapies that will, hopefully, stop or reverse these diseases. This is exceptionally important work, and we are very proud that it is taking place at Penn.

Its rewarding, Lee said, to reflect on how researchers are becoming increasingly interested in TDP-43s involvement in neurodegenerative diseases, and the biology that is able to follow, now.

It is gratifying that people can, and people are very interested in, using the system that weve built to identify potential therapies, Lee explained. I am really optimistic that maybe some treatment for Alzheimers and Parkinsons will become available in the next, lets say, one or two decades.

Gibbons, who can distinctly remember being a teenager and watching his grandfather cope with all the stages of Alzheimers, as well as the impact it had on his family, knew rather early it would be a field he would want to pursue. But, it wasnt until he was immersed in the research that he realized how complicated it really was.

When I first got to Penn, I was kind of blown away with the challenge and sort of became cynical and pessimistic, Gibbons said. But I like the way that Dr. Lee continues to forge ahead and isnt overwhelmed as a young investigator, that gives me a lot of inspiration and hope. Of course there will be failures, and of course science is hard. This is worthwhile, and we will get there.

In terms of Lee as a leader, Mike Henderson, a research associate in her lab, said he appreciates the way she guides him in his learning, but also provides him with the independence needed to encourage innovative, out-of-the box thinking.

She really shows you what it takes to be a good scientist in the field, he said, adding how inquisitive Lee always is. Shes very curious and I think thats really what has driven her lab and what has made her so successful.

The main reason Henderson came to Penn, he noted, was to work not only with Lee and Trojanowski, but also with the team theyve assembled through the creation of the CNDR, which celebrated its 25th year in 2018. About 50 people are part of the center today.

From the Maloney Building on Penns campus, where CNDR is housed, Lee and Trojanowski have been able to foster multidisciplinary collaborations between basic and clinical scientists, and provide resources to enable the very best research projects, including a brain and biosample bank, a drug discovery program, data management and biostastic support, and expertise in biochemistry, histology, molecular biology, microscopy, tissue culture, and genetics.

John and I spent a lot of time developing an infrastructure to do this type of work, and Penn has been such a fantastic environment, said Lee, who acknowledged all of her collaboratorsstudents, postdocs, and staff scientistsat the Breakthrough event. I truly want to thank them for their dedication and commitment, she said.

Talking later, Trojanowski added, They have made possible all that we have accomplished.

There is no doubt about it: Talking about his beloved wife of 40-plus years is probably one of Trojanowskis favorite things to do. Shes always pushing herself to be better, and shes always pushing me to be better. She is driven, hardworking, very bright, determinedall of the things that you expect to see and need to see in people that are going to be as successful as she is.

Not only is she passionate about science, he adds, shes determined to solve any problem she ever sets her eyes on. Plus, shes an amazing preceptor, trainer, encourager of science in young people. She is just exceptional, he added.

Trojanowski attended the Breakthrough event with his wife, thrilled to stand by her side on such an exciting day. Its an outstanding recognition, he said.

One might think a $3 million check in the bank could be a ticket out of work, but for Lee, she was back in Philadelphia after just a couple days. As always, she rode her bike to the officeready and willing to take on her next challenge.

What Id like to do in the next 10 to 20 years, Lee said, is really work with companiespharmaceutical companies and biotechnology companiesto come up with treatments.

Virginia Man-Yee Lee is the John H. Ware 3rd Endowed Professor in Alzheimers Research in the Department of Pathology and Laboratory Medicinein the Perelman School of Medicine.

John Q. Trojanowski is the William Maul Measey - Truman G. Schnabel, Jr., M.D. Professor of Geriatric Medicine and Gerontology in the Department of Pathology and Laboratory Medicinein the Perelman School of Medicine.

The Breakthrough Prize in Life Sciences, founded in 2013, honors transformative advances toward understanding living systems and extending human life. It is sponsored by Sergey Brin, Priscilla Chan and Mark Zuckerberg, Pony Ma, Yuri and Julia Milner, and Anne Wojcicki.

Homepage photo: Today, about 50 people make up the Center for Neurodegenerative Disease Research, led by Lee and Trojanowski, who both expressed how thankful they are for such a great team.

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An Alzheimer's research pioneer, right here at Penn - Penn: Office of University Communications

Artist Sarah Sze on Working With Neuroscientists – Columbia University

In her lab, where she works with flies, Rudy Behnia focuses on how the human brain sees the world and distinguishes colors and emotions, revealing complex sensory information. One of the metrics she uses is the flicker fusion rate, which is the frequency in which we perceive flicker. If we're looking at a screen, we don't see the flicker, but a fly has a higher flicker fusion rate than ours and sees the screen flickering in frames.

In my paintings, I think of perception in terms of hue, color or tone, yet I hadn't thought of it in terms of speed. After spending time with Rudy,I started a video piece that plays with the perception of image intensity and velocity, incorporating this fracturing, a speeding up or slowing down of shutters. When discussing the evolution of fly vision, Rudy explained how an insects eye perceives color during the day and black and white at night, and how the transition between these two states falls at dusk and dawn.

Ive also been focused on dusk and dawn for a largepublic project Im doing at LaGuardia Airport. The work tracks time through images of the sky, and is framed at either edge by images of dusk and dawn. Where night is, the work disappears.

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Artist Sarah Sze on Working With Neuroscientists - Columbia University

Longhorn Stop the Bleed receives 5 years of funding to expand emergency response training – UT The Daily Texan

The previously unfunded Longhorn Stop the Bleed program recently received five years of funding from Campus Safety and Security.

The program is a chapter of a national organization created after Sandy Hook to teach people how to respond in bleeding emergencies. UT alumna Claire Zagorski said she started a chapter of the program on campus to reduce fatality and helplessness.

I was inspired to bring it to UT after Harrison Brown was stabbed to death, program director Zagorski said. The bystander was saying, This is terrible because he was laying there bleeding and no one could do anything, just wait. Im a paramedic, and I knew that wasnt true, but I also knew people had to be taught what to do.

Zagorski said the funding will consist of $2,500 every year and is the result of safety advocacy nonprofit SafeHorns stressing the programs importance to Campus Safety and Security.

It was very validating, Zagorski said. Im glad that the work that were doing is getting noticed and that were making a difference, and now were going to be able to take a big step forward in expanding the program because of that.

Zagorski said the program will use the funds to buy more training equipment for larger classes and to launch a promotional campaign to increase awareness. She said the training is useful in many contexts, but people pay attention to the program if they see a recent uptick in campus violence.

UT is an open campus, biochemistry sophomore Sonia Patel said. I think its a necessity for people, and students especially, to be aware of what to do in the event of a shooting or stabbing. If we were aware of it, we could help save people.

Zagorski said the program partners with the certified EMTs in Longhorn EMS to lead training courses. David Wu, lead instructor of Longhorn Stop the Bleed in Longhorn EMS, said empowerment is a huge goal of the training.

It isnt necessarily having the skills, biochemistry junior Wu said. Its having the confidence of knowing you have the training to know what to do in that scenario. Most bystanders are in shock when something happens, and with a little training, it gives you a bit of confidence to go, Okay, I know what to do in this situation. This is how I should move forward.

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Longhorn Stop the Bleed receives 5 years of funding to expand emergency response training - UT The Daily Texan

Biochemical Sensor Market Size in Terms of Volume and Value – Crypto News Byte

The competition prevailing in the global biochemical sensor market is considerably high. As leading companies fight out for the lead in the market, product innovations and launches are on cards. Besides this, investments in research and development have scaled higher as market players aim for emerging at the fore. In order to boost operations, several players are concentrating on expanding their regional footprint, especially in Asia Pacific. Cheap labor, abundance of raw materials, and the rising demand from emerging nations make the region highly lucrative for investment, finds Trends market research(TMR) in a Recent study.

Some of the most prominent names in the global biochemical sensor market are GE Healthcare, Thermo Fisher Scientific, Honeywell International, Inc., Bio-Rad Laboratories, Inc., and Polestar Technologies, Inc., among others. Besides aforementioned strategies, many of the market players are also pushing mergers and acquisitions to capitalize on their expertise and expand their product portfolio.

Overall, the globalbiochemical sensor marketwill rise at a healthy CAGR of XX% by 2025. At this pace, the market is expected to reach US$XX bn by the end of 2025, from its valuation of US$XX bn in 2016. Based on product, electrochemical sensors constituted the leading segment with a share of XX% in 2016. Besides this, piezoelectric sensor, thermal sensor, gas sensor, and optical sensor make other key segments in terms of product.

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Regionally, North America held dominant with a share of over XX% in the global market in 2018. Europe and Asia Pacific followed closely as the second- and third-leading markets for biochemical in the same year. However, over the course of the forecast period, North America is likely to lose its market share, while Asia Pacific and Europe markets will witness accelerated pace of gains.

Application across Diverse Industries, Especially Healthcare, to Boost Growth

As biochemical sensors have found a leading end user in the healthcare sector, growth witnessed in the industry will subsequently fuel their demand. The healthcare infrastructure is a major consideration by governments when planning economic growth. Over the years, the industry has expanded exponentially. Additionally, investments in research and development are forecast to increase in the coming years.

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Biochemical sensors are used in the qualitative and quantitative assessment of clinical diagnosis in the healthcare sector, said a lead TMR analyst. The increasing aging population, coupled with the rising incidence of chronic ailments, will fuel the demand for precise diagnosis, thus providing significant impetus to the biochemical sensor market, he added.

Besides this, government initiatives to ensure superior food quality, advancements in material chemistry and wireless networks, the rising demand for advanced wearable biochemical sensors, and the growing population of point of care diagnostics will create lucrative market opportunities. RRI also prophesized that the rising oil extraction worldwide will tip scales in favor of the market. Rise in oil extraction would result in greater percentage of inflammable and toxic in the air. Spurred by this, the use of biochemical sensors will increase to detect the presence of toxic gas.

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Biochemical Sensor Market Size in Terms of Volume and Value - Crypto News Byte

Welcome | Department of Biochemistry | The School of …

Biochemistry at Illinois has a long tradition of excellence in biochemical research. Many of our undergraduate and graduate students as well as postdoctoral research associates have used their experiences at Illinois to establish careers of responsibility in both academia and the private sector.

I hope that you will take the time to explore our department by investigating our undergraduate and graduate programs so that you can learn about the intellectual opportunities now possible by breakthroughs in this postgenomic era of biology. The future of biochemistry has changed, and we believe that our department is well-positioned to provide training for your future.

Milan Bagchi, Interim Head

A career spanning six decades, over 400 papers, 25 graduate students, and numerous awards surely means a relaxing retirement? Not quite. Govindjee, at 86 years, is still dissecting the mechanisms of photosynthesis. He also collaborates with researchers across the globe to improve crops for food and energy production.

The Zhang lab recently published a paper in Cell Chemical Biology titled "Optogenetic delineation of receptor tyrosine kinase subcircuits in PC12 cell differentiation."

Our fall issue of the MCB magazine focuses on the diverse ways in which microbes affect our health.

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Welcome | Department of Biochemistry | The School of ...

Bicycle Therapeutics Announces Appointment of Veronica Jordan, Ph.D., to Board of Directors – Business Wire

CAMBRIDGE, England & BOSTON--(BUSINESS WIRE)--Bicycle Therapeutics plc (NASDAQ: BCYC), a biotechnology company pioneering a new and differentiated class of therapeutics based on its proprietary bicyclic peptide (Bicycle) technology, today announced the appointment of Veronica Jordan, Ph.D., to its Board of Directors, where she will serve as Chair of the Compensation Committee. Dr. Jordan was a corporate director for more than 15 years, with extensive experience in the biopharmaceutical industry, and has been an advisor to companies developing novel healthcare products.

Veronica is an accomplished international business leader who has expertise across diverse corporate functions, including clinical operations, business development, and corporate governance, said Kevin Lee, Ph.D., Chief Executive Officer of Bicycle. We believe that her valuable insight into these areas will be key to our success as we continue to advance our clinical pipeline and execute against our goals as a public company. I am pleased to welcome Veronica to Bicycles Board.

Since 2007, Dr. Jordan has served as an independent consultant to healthcare companies and contract research organizations and as Managing Director of Golden Seeds, an angel investor network. She was previously CEO and President of Medelle Corporation, a private medical device company, and held various executive roles at PAREXEL International during her 14 years on the companys management team. Dr. Jordan has been a member of the Board of Directors of Vermillion, Inc. since 2014 and currently serves as Chair of the Compensation Committee and a member of the Audit Committee. From 2006 to 2016, she was a Director of Albany Molecular Research, Inc. Dr. Jordan earned a B.A. in biochemistry from Cambridge University and a Ph.D. in biochemistry and cell biology from Oxford University.

About Bicycle Therapeutics

Bicycle Therapeutics (NASDAQ: BCYC) is a clinical-stage biopharmaceutical company developing a novel class of medicines, referred to as Bicycles, for diseases that are underserved by existing therapeutics. Bicycles are fully synthetic short peptides constrained with small molecule scaffolds to form two loops that stabilize their structural geometry. This constraint facilitates target binding with high affinity and selectivity, making Bicycles attractive candidates for drug development. Bicycles lead product candidate, BT1718, is a Bicycle Toxin Conjugate being investigated in an ongoing Phase I/IIa clinical trial in collaboration with the Centre for Drug Development of Cancer Research UK. Bicycle is headquartered in Cambridge, UK with many key functions and members of its leadership team located in Lexington, MA. For more information, visit bicycletherapeutics.com.

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Bicycle Therapeutics Announces Appointment of Veronica Jordan, Ph.D., to Board of Directors - Business Wire

Alternative Medicine and Clinical Laboratory Practice – American Association for Clinical Chemistry (AACC)

The Complementary and Alternative Medicine (CAM) marketincluding everything from yoga and meditation to acupuncture and naturopathyis projected to be worth $210.12 billion by 2026, according to Grand View Research.

CAM practitioners often order the same clinical laboratory tests as traditional physicians, and with blood drawn by laboratories like Quest, LabCorp, and some hospitals, said Jaquel Patterson, ND, president of the American Association of Naturopathic Physicians (AANP) and owner of Fairfield Family Health in Fairfield, Connecticut. She mentioned specialized rheumatology assays from reference labs as an example of how she uses clinical laboratory testing.

But some specialty tests that naturopathic practitioners order are not available from local clinical laboratories, which she hopes will change. Its hard to get in relationships with a lab to do courtesy draws, she said.

The challenge for naturopaths? Many clinical laboratory professionals are wary of playing a role in what many see as an unregulated, belief-based system of medicine.

Twenty-two states, plus Washington D.C., Puerto Rico, and the U.S. Virgin Islands regulate naturopathic practitioners. According to the AANP, naturopathic practitioners in these states must fulfill state-mandated continuing education requirements annually and have a specific scope of practice as defined by their states law.

A study published in Annals of Clinical Biochemistry looked at how laboratory tests are commonly used in CAM in the U.S., U.K., and Australia (Ann Clin Biochem 2019 May;56:310-25). Little to no data have been published about which tests are ordered most often, according to the lead author of this paper, Stuart Jones, MSc, FRCPath, consultant clinical biochemist in the department of clinical biochemistry at King Georges Hospital in London. But the most widely available that he has come across in his work include IgG antibodies for food intolerance, nutritional or metabolic profiles, and tests for heavy metal toxicity.

Often, laboratories specializing in CAM perform these tests. To meet the growing demand for CAM testing, a number of small reference laboratories around the world now offer specialty testing specifically marketed to naturopathic providers. Some operate entirely outside of any recognized accreditation program while others are accredited to the standard of established clinical laboratories, said Jones. Some CAM practitioners also offer some of their own tests directly to the public.

There are some CAM practitioners that will use established, validated tests in an appropriate way, but what we have found is that there seems to be a preference in this community for using unvalidated or even discredited tests, often to justify potentially unnecessary treatments and therapies, he said.

This isnt surprising, said Britt Marie Hermes, a PhD student at the University of Kiel in Germany and a former naturopathic doctor who writes about the industry at naturopathicdiaries.com. There is a large degree of variability with regard to how licensed naturopaths practice, she said. Some naturopaths may order and interpret lab tests according to established medical standards, but, based on having worked as a naturopath for several years and having practiced alongside many naturopaths, I can say from personal experience that naturopaths do not use lab tests like medical doctors.

Hermes said this is important for clinical laboratorians to know, and that they should be aware that naturopaths are providing patients with information that conflicts with information put out by medical professionals, she said. She gave as an example the issue that naturopaths will use different criteria to diagnose disease and make medical treatment recommendations.

In their study of CAM laboratories and testing, Jones and his co-authors also note that in the U.S., surveyors from the Centers for Medicare and Medicaid Services no longer routinely inspect CLIA-waived laboratories, which represent thousands of small testing sites.

The authors also point out that CLIA certification requires laboratories to meet standards in a variety of areas including staff qualifications, proficiency testing and test accuracy, reliability, and timeliness. It does not require demonstration of clinical validity and utility. Thus, CAM laboratories in the U.S. can be CLIA certified while offering tests that are neither clinically valid nor clinically useful.

Michael Astion, MD, PhD, medical director in the department of laboratories at Seattle Childrens Hospital and a clinical professor of laboratory medicine at the University of Washington, said he encounters CAM often, usually through parents who consult naturopaths or other CAM practitioners in addition to seeking medical treatment for their children. I think they have a role in the healthcare system, he said. There is some fraud and abuse there, but its not that common in laboratory services. He mostly sees CAMs using traditional laboratory tests, and not over-ordering.

Hes more concerned about tests that go beyond the scope of traditional medicine and how those tests are interpreted. Thats especially true with tests that are done at specialty laboratories. In general the problem with those labs is that tests tend to come back positive because the thresholds for positivity are very low, he said.

One example: hair analysis. Hair is not very good [as an analyte] for anything except maybe arsenic, and thats only good in the hands of some very excellent labs, Astion said. Its a very difficult specimen but CAM labs will do all kinds of toxicity testing on hair that come back with fairly alarming reports. Two other concerning tests are for allergies and food sensitivity. These are tests that youd never see a normal allergist or board-certified gastroenterologist order, he said.

His second concern is the overuse of screening tests and the ordering of very large panels. When you apply the wellness movement to laboratory medicine, you make everybody sick, he said, which is followed by treatments for diseases that arent there.

Requests for urinalysis for heavy metals is also a problem. Everyone is going to have some metals in their urine if they receive a heavy metal chelator, Astion said, but this doesnt mean that theyre sick. That doesnt mean you can eat a bag of fertilizer or drink a can of Raid, but it does mean you can probably use Raid in your house occasionally, and you can fertilize your lawn and, you can paint your house, he said.

Astion doesnt think that CAM practitioners are bad people or trying to make their patients sick, but that many are operating outside the scope of their knowledge. He likens it to the popularity of total body computed tomography scanning businesses in the early 2000s. If I image you from the top of your head to the bottom of your toes, youll have a lot of anomalies. That doesnt mean that theyre disease causingmost of them are not, he said. Thats why all those places closed. They were telling all these people they were sick, which led them to having unnecessary procedures. Thats exactly what happens when you get outside of the scope of your practice.

When patients bring in requests to have blood drawn for CAM testing, Astion said his institution typically refuses and gives parents an information sheet that says we do patient-centered testing. We do not do patient directed testing, he said. We dont judge them. We treat them just like if you came into my Italian restaurant and ordered Japanese food, he said. You can have Japanese food, but you cant have it here.

He will also ask CAM practitioners to stop requesting those kinds of blood draws from his hospital and give them information for a reference laboratory that might work with them. The message to CAM practitioners is, that order doesnt make sense to us. We practice conventional medicine, Astion said. Im not criticizing you, but I dont want to be party to it. Use another lab.

Jen A. Miller is a freelance journalist who lives in Audubon, New Jersey.+TWITTER:@byJenMiller

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Alternative Medicine and Clinical Laboratory Practice - American Association for Clinical Chemistry (AACC)

Biochemistry | College Of Science and Technology | Temple …

Biochemistry is the study of the chemical processes occurring in living matter. As a field, biochemistry is rapidly expanding and highly interdisciplinary. Biochemical concepts and techniques have become the basis for research in physiology, nutrition, environmental and health sciences, and many other disciplines.

The program prepares students for excellence in graduate or medical school, employment in the chemical, biotechnological, or pharmaceutical industries. The degree is a terrific stepping stone for graduate programs in Biochemistry, Bioengineering, Biotechnology, Cell Biology, and many other related fields.

The program consists of basic courses in calculus, biology, chemistry and physics. Advanced courses in both Biology and Chemistry are included, along with specialty Biochemistry courses offered jointly in the Biology and Chemistry departments. Laboratory courses form an important component of the curriculum and include such diverse techniques as PCR, protein purification, gel electrophoresis, computational chemistry, and spectroscopy. This "hands-on" experience is essential to provide the appropriate context for knowledge obtained in the lecture courses.

After completing this program, students should:

Biochemistry Advising Sheets and Flowcharts

Department of Biology

Department of Chemistry

Biochemistry Program Requirements

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Biochemistry | College Of Science and Technology | Temple ...

Ling Yang, PhD | Lewis Katz School of Medicine at Temple …

Research Interests

Our laboratory utilizes both computational and experimental biology to identify and characterize previously unknown genes, especially long non-coding RNA genes which drive metabolic disorders including but not limited to fatty liver disease, obesity, diabetes, and hepatocellular carcinoma. We are applying bioinformatics, genetics, genomics, biochemistry, molecular biology, cellular biology, and CRISPR-mediated genome engineering to explore the complex regulatory networks of metabolic disorders, and to translate our findings into novel therapeutics that target RNAs, proteins, or the interactions between RNAs and proteins to treat metabolic diseases.

Current Projects:

1) Long non-coding RNAs(lncRNAs) in metabolic diseases

The lncRNAs are an emerging and rapidly-growing class of functional genomic elements, and a number have been shown to regulate fundamental biological processes, but the scope of their influence in metabolic disorders remains unclear. Identifying and characterizing metabolically-relevant lncRNAs will be crucial to obtaining a better understanding the pathophysiology of metabolic diseases.

2) RNA or RNA targeted therapies to treat metabolic diseases

Our current therapeutic options for metabolic diseases such as fatty liver disease, obesity, and diabetes are very limited, partly due to the gaps in our understanding of metabolism and metabolic pathophysiology. The lncRNA metabolic regulators characterized in our laboratory will provide novel therapeutic targets for metabolic diseases.

3) Multi-Omics approach to dissect the pathological process of metabolic diseases

Recent advances in genomics, transcriptomics, proteomics, metabolomics, and computational biology have made the 21st century a golden age for bioscience research. With the rapid growth of biological data, our laboratory applies both computational and experimental approaches to understand the complex metabolic network of human health and diseases.

View PubMed Publications

Yang L., Li P., Yang W., Ruan X., Zhu J., Cao H. Integrative Transcriptome Analyses of Metabolic Responses in Mice Define Pivotal LncRNA Metabolic Regulators. (Cell Metabolism 2016; 24(4):627-639)

Ruan X., Li P., Cangelosi A., Yang L., Cao H. A Fasting-induced Long Non-coding RNA Regulates Hepatic Glucokinase Expression and Glycogen Storage. (Cell Reports 2016; 14(8):1867-75)

Li P.*, Ruan X.*, Yang L.*, Kiesewetter K., Zhao Y., Luo H., Chen Y., Gucek M., Zhu J., Cao H. A Liver-Enriched Long Non-Coding RNA, lncLSTR, Regulates Systemic Lipid Metabolism in Mice. *equal contribution. (Cell Metabolism 2015; 21(3):455-67)

Yang L., Zhang Y., Wang L., Fan F., Zhu L., Li Z., Ruan X., Huang H., Wang Z., Huang Z., Huang Y., Yan X., Chen Y. Amelioration of high fat diet induced liver lipogenesis and hepatic steatosis by interleukin-22. (Journal of Hepatology 2010; 53(2): 339-347)

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Ling Yang, PhD | Lewis Katz School of Medicine at Temple ...

What Is Biochemistry? – Introduction and Overview

Biochemistry is the science in which chemistry is applied to the study of living organisms and the atoms and molecules which comprise living organisms. Take a closer look at what biochemistry is and why the science is important.

Biochemistry is the study of the chemistry of living things. This includes organic molecules and their chemical reactions. Most people consider biochemistry to be synonymous with molecular biology.

The principal types of biological moleculesor biomolecules are:

Many of these molecules are complex molecules called polymers, which are made up of monomer subunits. Biochemical molecules are based on carbon.

Many biochemists work in chemistry labs. Some biochemists may focus on modeling, which would lead them to work with computers. Some biochemists work in the field, studying a biochemical system in an organism. Biochemists typically are associated with other scientists and engineers. Some biochemists are associated with universities and they may teach in addition to conducting research. Usually, their research allows them to have a normal work schedule, based in one location, with a good salary and benefits.

Biochemistry is closely related to other biological sciences that deal with molecules. There is considerable overlap between these disciplines:

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What Is Biochemistry? - Introduction and Overview

Global Biochemistry Analyzer Market to Grow at a CAGR of 6 … – Business Wire (press release)

DUBLIN--(BUSINESS WIRE)--Research and Markets has announced the addition of the "Global Biochemistry Analyzer Market 2017-2021" report to their offering.

The global Biochemistry Analyzer market to grow at a CAGR of 6.02% during the period 2017-2021.

The report, Global Biochemistry Analyzer Market 2017-2021, has been prepared based on an in-depth market analysis with inputs from industry experts. The report covers the market landscape and its growth prospects over the coming years. The report also includes a discussion of the key vendors operating in this market.

The latest trend gaining momentum in the market is modular design of biochemistry analyzer. The fully automatic biochemistry analyzer is used to analyze many biochemical parameters of blood sample like blood glucose, urea, protein, etc., to detect various diseases like kidney, liver, and other metabolic disorders. Therefore, by analyzing these parameters, the biochemistry analyzer helps in diagnosing various health disorders. It is a high performance-based micro-controller inbuilt with the photometric technology.

According to the report, one of the major drivers for this market is growing aging population. The increase in median age due to the reduction in fertility rate and the increase in life expectancy result in the growing aging population. These two demographic effects reflect the change in a country's population with a rising aging and a declining child population.

Key vendors

Other prominent vendors

Key Topics Covered:

PART 01: Executive summary

PART 02: Scope of the report

PART 03: Research Methodology

PART 04: Introduction

PART 05: Market landscape

PART 06: Market segmentation by end-user

PART 07: Geographical segmentation

PART 08: Decision framework

PART 09: Drivers and challenges

PART 10: Market trends

PART 11: Vendor landscape

For more information about this report visit https://www.researchandmarkets.com/research/v5qf2j/global

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Global Biochemistry Analyzer Market to Grow at a CAGR of 6 ... - Business Wire (press release)

Biochemistry | Nebraska

At the University of Nebraska's Department of Biochemistry, we are developing the worlds next great scientists and researchers.

They come here to learn from and with our distinguished faculty internationally recognized researchers who work at sciences cutting edge, maintaining externally funded laboratories that investigate an array of exciting questions. They come here because we offer both a strong undergraduate major and a thriving graduate program.

And they come here because many of our significant discoveries are made by undergraduate, graduate, and postdoctoral researchers working closely with our faculty.

We are Nebraska's premier biochemistry program, largely because we have created an engaging environment that positions our students to succeed. The Department is one of only four BIG Ten universities accredited by the American Society for Biochemistry and Molecular Biology (ASBMB). Seniors who pass the ASBMB Accreditation exam are recognized by the professional society has earning a certified degree!

We feature award-winning professional advisers, and incomparable mentorship opportunities. We get students out of the book, and into the lab.

Our faculty treat students as future colleagues, working hand-in-hand on high-impact research projects addressing real-world problems related to areas such as metabolism and metabolic engineering, structural and chemical basis of protein function, molecular mechanisms of disease, plant and microbial biochemistry, and biotechnology.

Our graduates go on to excel in their careers both academic and in private industry focusing their talents on medicine, law, pharmaceutical, bio-technology, agriculture, dental and many other fields.

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Comprehensive Analysis on Mobility Aid Devices Market based on types and appli – News.MarketSizeForecasters.com

The ' Mobility Aid Devices market' study Added by Market Study Report, LLC, provides an in-depth analysis pertaining to potential drivers fueling this industry. The study also encompasses valuable insights about profitability prospects, market size, growth dynamics, and revenue estimation of the business vertical. The study further draws attention to the competitive backdrop of renowned market contenders including their product offerings and business strategies.

The Mobility Aid Devices market report is a comprehensive document containing details about the business scenario of this industry. It thoroughly analyzes the production and consumption trends prevailing in the market with respect to various segments.

Request a sample Report of Mobility Aid Devices Market at:https://www.marketstudyreport.com/request-a-sample/2560363?utm_source=Itresearchbrief.com&utm_medium=PSR

Speaking on production aspect, the study encompasses data regarding the manufacturing of product, revenue generated, and margins earned by various product manufacturers over the forecast period. While, with respect to consumption outlook, the report elaborates on product consumption value and product consumption volume. Details regarding the unit cost offered across various regions, alongside the import and export graphs for product are given.

Highlights of the reginal terrain:

An insightful summary of the product outlook:

Ask for Discount on Mobility Aid Devices Market Report at:https://www.marketstudyreport.com/check-for-discount/2560363?utm_source=Itresearchbrief.com&utm_medium=PSR

Elaborating the application spectrum:

Overview of the competitive landscape:

The research report on the Mobility Aid Devices market, in essence, is a collection of data which influence the business scenario of the industry as it analyzes the market from upstream raw materials to downstream customer base, along with the established distribution channel.

For More Details On this Report:https://www.marketstudyreport.com/reports/global-mobility-aid-devices-market-research-report-2020-segment-by-key-companies-countries-types-applications-and-forecast-2021-to-2026

Some of the Major Highlights of TOC covers:

Development Trend of Analysis of Mobility Aid Devices Market

Marketing Channel

Market Dynamics

Methodology/Research Approach

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NASA and Square Roots Launch Innovative Research Project to Better Understand the Impact of Induced Stress – PR Newswire (press release)

"Motherhood is extraordinary in many ways. This includes high levels of prolonged stress," says Morad Fareed, Founder and CEO of Square Roots. "NASA is informing us how astronauts cope and rebound from the extreme physical and emotional stress of space flight and how these metabolic responses are applicable to an expectant mother's metabolic responses during pregnancy. Amazing. We can improve the pregnancy experience through science and creativity, and are honored to be working with NASA."

NASA's Nutritional Biochemistry Laboratory, which will manage all aspects of the research project, intends to share the results this research in scientific journals and at scientific conferences and to develop educational materials and outreach efforts designed to further our understanding of the effects of stress on the human metabolome. Square Roots will distribute the findings through its network of government, academia, medicine, business and other partners that are committed to positively influencing maternity health and infant development.

Following the culmination of the analysis, NASA's Nutritional Biochemistry Laboratory will develop educational material to support additional research and outreach efforts. Square Roots believes the findings will be directly relatable to in-utero metabolic responses, and ultimately support the company's ongoing research efforts to advance maternal health and wellness. Through an established network of cross-sector leaders, Square Roots will distribute findings to stakeholders from government, academia, medicine, business and other sectors that influence maternal health.

NASA's Nutritional Biochemistry Laboratory personnel will support all aspects of the research, including documentation and review, data management and analysis, and presentation and publication in scientific venues.

About NASA's Nutritional Biochemistry LaboratoryNASA's Nutritional Biochemistry Laboratory works to keep astronauts healthy from a nutrition perspective. While food is important the nutrients contained in those foods support the underlying biological systems bone, muscle, cardiovascular, vision and more. Optimizing nutrition will help keep astronauts healthy on ISS missions, will enable missions beyond low-Earth orbit, and will have broad implications for terrestrial medicine and the general population.

About Square RootsSquare Roots (www.squareroots.com) is a mission-driven company focused on pregnancy health and wellness. By integrating new technology and scientific findings with intelligent partnerships from medicine to policy to maternal care takers, Square Roots brings needed solutions and resources to the most critical period of life: our beginning. We identify the highest impact programs and tools that have a proven health impact for mothers and coordinate the distribution of these programs and tools between academia, policy, public agencies, and private companies.

Contact: Kayla Keller, 281-682-6212 Sara Gurkin, 202-280-2398 squareroots@sunshinesachs.com

To view the original version on PR Newswire, visit:http://www.prnewswire.com/news-releases/nasa-and-square-roots-launch-innovative-research-project-to-better-understand-the-impact-of-induced-stress-300481224.html

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NASA and Square Roots Launch Innovative Research Project to Better Understand the Impact of Induced Stress - PR Newswire (press release)

High school students explore chemistry and biochemistry at Misericordia University’s annual Career Exploration Camp – The Dallas Post

Misericordia University hosted a Chemistry-Biochemistry Sciences Career Exploration Camp in June. High school students participating in the camp are, from left, first row, Kyra Grzymski, Shavertown; Lainey Mentrikoski, Mountain Top; Laura Miller, White Haven; Tyler Mendoza, Wilkes-Barre; Cole Yantiss, Vienna, Va.; Charles Saladino, an associate professor; Beth Haas, an assistant professor; Darren Tomeo, Laflin; Erika Wintersteen, Dallas; Hunter Kline, Dallas and Catherine Falzone, Dallas.

DALLAS Misericordia Universitys Chemistry-Biochemistry Sciences Career Exploration Camp gave high school juniors and seniors a chance to explore careers in cosmetic and food chemistry, alternative energy, the pharmaceutical industries.

Students created nylon fibers, extracted essential oils from orange peels, designed and created batteries, made hand lotion, along with other exciting projects and experiments during the three-day residential camp.

Misericordia University also offered camps in biology, communications and media, literature, occupational therapy and speech-language pathology.

The camp programs provide high school students with an opportunity to explore career fields, experience on campus residential life and interact with faculty and current college students.

For more information about the 2017 Chemistry-Biochemistry Sciences Career Exploration Camp, call Anna Fedor, the assistant professor and chair of the Department of Chemistry and Biochemistry, at 570-674-6769 or at afedor@misericordia.edu.

Misericordia University hosted a Chemistry-Biochemistry Sciences Career Exploration Camp in June. High school students participating in the camp are, from left, first row, Kyra Grzymski, Shavertown; Lainey Mentrikoski, Mountain Top; Laura Miller, White Haven; Tyler Mendoza, Wilkes-Barre; Cole Yantiss, Vienna, Va.; Charles Saladino, an associate professor; Beth Haas, an assistant professor; Darren Tomeo, Laflin; Erika Wintersteen, Dallas; Hunter Kline, Dallas and Catherine Falzone, Dallas.

http://www.mydallaspost.com/wp-content/uploads/2017/06/web1_FOR-PUBLICATION-Chemistry-Biochem.jpgMisericordia University hosted a Chemistry-Biochemistry Sciences Career Exploration Camp in June. High school students participating in the camp are, from left, first row, Kyra Grzymski, Shavertown; Lainey Mentrikoski, Mountain Top; Laura Miller, White Haven; Tyler Mendoza, Wilkes-Barre; Cole Yantiss, Vienna, Va.; Charles Saladino, an associate professor; Beth Haas, an assistant professor; Darren Tomeo, Laflin; Erika Wintersteen, Dallas; Hunter Kline, Dallas and Catherine Falzone, Dallas.

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High school students explore chemistry and biochemistry at Misericordia University's annual Career Exploration Camp - The Dallas Post

Alterations in Kidney Function in Overweight and Obese Children and Adolescents – DocWire News

Worldwide, the public health problem of obesity is increasing. The prevalence of overweight and obesity is extremely high in Mexico in both the adult and pediatric population (72% and 35%). Among adults, there are strong associations between obesity and kidney disease; however, there are few data available regarding such associations in adolescents and children.

Researchers in Guadalajara, Mexico, led by Fabiola Martin-del-Campo, LN, MSc, recently conducted a cross-sectional analysis designed to compare the frequency of renal damage according to the presence of overweight-obesity in the pediatric population. The study also sought to compare nutritional and biochemical risk factors according to the presence of kidney alterations. Results of the analysis were reported in the Journal of Renal Nutrition [2019;29(5):370-376].

The study cohort included 172 children and adolescents; 27% (n=42) were classified as normal weight, 32% (n=55) as overweight, and 41% (n=71) as obese. Participants in the obesity group had significantly higher proportion of family history of obesity and higher systolic blood pressure compared with the other two groups. In the group with obesity, there was a nonsignificant trend to higher birth weight, higher diastolic blood pressure, and more sedentary activities. There were no other differences observed regarding age, sex, and family history of diabetes, hypertension, or kidney disease

Biochemical Characteristics

Compared with controls, participants in the overweight and obesity groups had significantly higher prevalence of abdominal obesity (0% vs 69%), hypertension (19% vs 26%), hyperuricemia (11% vs 28%), hypertriglyceridemia (11% vs 47%), high low-density lipoprotein cholesterol (2% vs 8%), and low high-density lipoprotein cholesterol (2% vs 28%).

Those in the overweight and obesity groups had higher prevalence of risk factors for kidney disease than those in the normal weight group. Individual prevalence of risk factors such as dyslipidemia, hyperinsulinemia, and abdominal obesity was >60% in children and adolescents in the overweight and obesity groups.

There were no significant differences in serum creatinine, glomerular filtration rate (GFR), and albuminuria between the groups. However, the researchers did note that there was one case of decreased GFR as well as four cases of hyperfiltration in the obesity group, and one case of hyperfiltration in the overweight group. Microalbuminuria was present in four cases (none with hypertension); one case was in the overweight group and the other three were in the obesity group. Including both alterations in GFR and microalbuminuria, the frequency of kidney alterations was ~10% in the obesity group, 4% in the overweight group, and 0% in the normal weight group.

In multivariable analysis, there was a negative correlation between GFR and age, uric acid, and intake of monounsaturated fatty acid. Age and uric acid levels were also negatively correlated with albuminuria; sodium intake and protein intake had a positive correlation (P<.05 for all). In multivariant analysis, significant predictors of kidney alterations were higher body mass index and lower HDL cholesterol.

The researchers said, In conclusion, kidney alterations were observed in 5.3% of the whole sample of children and adolescents of this sample. Such alterations were present only in subjects with overweight (3.6%) and obesity (9.9%), who additionally displayed several cardiometabolic and kidney disease risk factors more frequently than those with normal weight. Screening for kidney alterations in high-risk children and adolescents with overweight/obesity may be an excellent opportunity in helping to prevent the burden of kidney failure in adulthood.

Takeaway Points

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COVID-19 Impact on Biochemical Sensor System Identify Which Types of Companies Could Potentially Benefit or Loose out From the Impact of COVID-247 -…

Due to the pandemic, we have included a special section on the Impact of COVID 19 on the Biochemical Sensor Market which would mention How the Covid-19 is Affecting the Biochemical Sensor Industry, Market Trends and Potential Opportunities in the COVID-19 Landscape, Covid-19 Impact on Key Regions and Proposal for Biochemical Sensor Players to Combat Covid-19 Impact.

Complete study of the global Biochemical Sensor market is carried out by the analysts in this report, taking into consideration key factors like drivers, challenges, recent trends, opportunities, advancements, and competitive landscape. This report offers a clear understanding of the present as well as future scenario of the global Biochemical Sensor industry. Research techniques like PESTLE and Porters Five Forces analysis have been deployed by the researchers. They have also provided accurate data on Biochemical Sensor production, capacity, price, cost, margin, and revenue to help the players gain a clear understanding into the overall existing and future market situation.

Key companies operating in the global Biochemical Sensor market include _ Honeywell, TE Connectivity, NovaSensor, AMS AG, Tekscan, Measurement Specialties, Sysmex, AMETEK, Melexis, Beckman Coulter Inc, Bio-Rad Laboratories, Inc., Endress+Hauser, First Sensor Medical, Pressure Profile Systems, SMD Sensors, Microchip Technology Inc, NXP Semiconductors, BioVision Technologies, Analog, etc.

Get PDF Sample Copy of the Report to understand the structure of the complete report: (Including Full TOC, List of Tables & Figures, Chart) :

https://www.qyresearch.com/sample-form/form/1537211/global-biochemical-sensor-market

Segmental Analysis

The report has classified the global Biochemical Sensor industry into segments including product type and application. Every segment is evaluated based on growth rate and share. Besides, the analysts have studied the potential regions that may prove rewarding for the Biochemical Sensor manufcaturers in the coming years. The regional analysis includes reliable predictions on value and volume, thereby helping market players to gain deep insights into the overall Biochemical Sensor industry.

Global Biochemical Sensor Market Segment By Type:

Temperature, ECG, Image, Motion, Pressure

Global Biochemical Sensor Market Segment By Application:

, Diagnostics, Monitoring, Other

Competitive Landscape

It is important for every market participant to be familiar with the competitive scenario in the global Biochemical Sensor industry. In order to fulfil the requirements, the industry analysts have evaluated the strategic activities of the competitors to help the key players strengthen their foothold in the market and increase their competitiveness.

Key companies operating in the global Biochemical Sensor market include _ Honeywell, TE Connectivity, NovaSensor, AMS AG, Tekscan, Measurement Specialties, Sysmex, AMETEK, Melexis, Beckman Coulter Inc, Bio-Rad Laboratories, Inc., Endress+Hauser, First Sensor Medical, Pressure Profile Systems, SMD Sensors, Microchip Technology Inc, NXP Semiconductors, BioVision Technologies, Analog, etc.

Key questions answered in the report:

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TOC

Table of Contents 1 Biochemical Sensor Market Overview1.1 Product Overview and Scope of Biochemical Sensor1.2 Biochemical Sensor Segment by Type1.2.1 Global Biochemical Sensor Production Growth Rate Comparison by Type 2020 VS 20261.2.2 Temperature1.2.3 ECG1.2.4 Image1.2.5 Motion1.2.6 Pressure1.3 Biochemical Sensor Segment by Application1.3.1 Biochemical Sensor Consumption Comparison by Application: 2020 VS 20261.3.2 Diagnostics1.3.3 Monitoring1.3.4 Other1.4 Global Biochemical Sensor Market by Region1.4.1 Global Biochemical Sensor Market Size Estimates and Forecasts by Region: 2020 VS 20261.4.2 North America Estimates and Forecasts (2015-2026)1.4.3 Europe Estimates and Forecasts (2015-2026)1.4.4 China Estimates and Forecasts (2015-2026)1.4.5 Japan Estimates and Forecasts (2015-2026)1.4.6 South Korea Estimates and Forecasts (2015-2026)1.5 Global Biochemical Sensor Growth Prospects1.5.1 Global Biochemical Sensor Revenue Estimates and Forecasts (2015-2026)1.5.2 Global Biochemical Sensor Production Capacity Estimates and Forecasts (2015-2026)1.5.3 Global Biochemical Sensor Production Estimates and Forecasts (2015-2026) 2 Market Competition by Manufacturers2.1 Global Biochemical Sensor Production Capacity Market Share by Manufacturers (2015-2020)2.2 Global Biochemical Sensor Revenue Share by Manufacturers (2015-2020)2.3 Market Share by Company Type (Tier 1, Tier 2 and Tier 3)2.4 Global Biochemical Sensor Average Price by Manufacturers (2015-2020)2.5 Manufacturers Biochemical Sensor Production Sites, Area Served, Product Types2.6 Biochemical Sensor Market Competitive Situation and Trends2.6.1 Biochemical Sensor Market Concentration Rate2.6.2 Global Top 3 and Top 5 Players Market Share by Revenue2.6.3 Mergers & Acquisitions, Expansion 3 Production Capacity by Region3.1 Global Production Capacity of Biochemical Sensor Market Share by Regions (2015-2020)3.2 Global Biochemical Sensor Revenue Market Share by Regions (2015-2020)3.3 Global Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)3.4 North America Biochemical Sensor Production3.4.1 North America Biochemical Sensor Production Growth Rate (2015-2020)3.4.2 North America Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)3.5 Europe Biochemical Sensor Production3.5.1 Europe Biochemical Sensor Production Growth Rate (2015-2020)3.5.2 Europe Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)3.6 China Biochemical Sensor Production3.6.1 China Biochemical Sensor Production Growth Rate (2015-2020)3.6.2 China Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)3.7 Japan Biochemical Sensor Production3.7.1 Japan Biochemical Sensor Production Growth Rate (2015-2020)3.7.2 Japan Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)3.8 South Korea Biochemical Sensor Production3.8.1 South Korea Biochemical Sensor Production Growth Rate (2015-2020)3.8.2 South Korea Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020) 4 Global Biochemical Sensor Consumption by Regions4.1 Global Biochemical Sensor Consumption by Regions4.1.1 Global Biochemical Sensor Consumption by Region4.1.2 Global Biochemical Sensor Consumption Market Share by Region4.2 North America4.2.1 North America Biochemical Sensor Consumption by Countries4.2.2 U.S.4.2.3 Canada4.3 Europe4.3.1 Europe Biochemical Sensor Consumption by Countries4.3.2 Germany4.3.3 France4.3.4 U.K.4.3.5 Italy4.3.6 Russia4.4 Asia Pacific4.4.1 Asia Pacific Biochemical Sensor Consumption by Region4.4.2 China4.4.3 Japan4.4.4 South Korea4.4.5 Taiwan4.4.6 Southeast Asia4.4.7 India4.4.8 Australia4.5 Latin America4.5.1 Latin America Biochemical Sensor Consumption by Countries4.5.2 Mexico4.5.3 Brazil 5 Production, Revenue, Price Trend by Type5.1 Global Biochemical Sensor Production Market Share by Type (2015-2020)5.2 Global Biochemical Sensor Revenue Market Share by Type (2015-2020)5.3 Global Biochemical Sensor Price by Type (2015-2020)5.4 Global Biochemical Sensor Market Share by Price Tier (2015-2020): Low-End, Mid-Range and High-End 6 Global Biochemical Sensor Market Analysis by Application6.1 Global Biochemical Sensor Consumption Market Share by Application (2015-2020)6.2 Global Biochemical Sensor Consumption Growth Rate by Application (2015-2020) 7 Company Profiles and Key Figures in Biochemical Sensor Business7.1 Honeywell7.1.1 Honeywell Biochemical Sensor Production Sites and Area Served7.1.2 Honeywell Biochemical Sensor Product Introduction, Application and Specification7.1.3 Honeywell Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.1.4 Honeywell Main Business and Markets Served7.2 TE Connectivity7.2.1 TE Connectivity Biochemical Sensor Production Sites and Area Served7.2.2 TE Connectivity Biochemical Sensor Product Introduction, Application and Specification7.2.3 TE Connectivity Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.2.4 TE Connectivity Main Business and Markets Served7.3 NovaSensor7.3.1 NovaSensor Biochemical Sensor Production Sites and Area Served7.3.2 NovaSensor Biochemical Sensor Product Introduction, Application and Specification7.3.3 NovaSensor Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.3.4 NovaSensor Main Business and Markets Served7.4 AMS AG7.4.1 AMS AG Biochemical Sensor Production Sites and Area Served7.4.2 AMS AG Biochemical Sensor Product Introduction, Application and Specification7.4.3 AMS AG Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.4.4 AMS AG Main Business and Markets Served7.5 Tekscan7.5.1 Tekscan Biochemical Sensor Production Sites and Area Served7.5.2 Tekscan Biochemical Sensor Product Introduction, Application and Specification7.5.3 Tekscan Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.5.4 Tekscan Main Business and Markets Served7.6 Measurement Specialties7.6.1 Measurement Specialties Biochemical Sensor Production Sites and Area Served7.6.2 Measurement Specialties Biochemical Sensor Product Introduction, Application and Specification7.6.3 Measurement Specialties Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.6.4 Measurement Specialties Main Business and Markets Served7.7 Sysmex7.7.1 Sysmex Biochemical Sensor Production Sites and Area Served7.7.2 Sysmex Biochemical Sensor Product Introduction, Application and Specification7.7.3 Sysmex Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.7.4 Sysmex Main Business and Markets Served7.8 AMETEK7.8.1 AMETEK Biochemical Sensor Production Sites and Area Served7.8.2 AMETEK Biochemical Sensor Product Introduction, Application and Specification7.8.3 AMETEK Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.8.4 AMETEK Main Business and Markets Served7.9 Melexis7.9.1 Melexis Biochemical Sensor Production Sites and Area Served7.9.2 Melexis Biochemical Sensor Product Introduction, Application and Specification7.9.3 Melexis Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.9.4 Melexis Main Business and Markets Served7.10 Beckman Coulter Inc7.10.1 Beckman Coulter Inc Biochemical Sensor Production Sites and Area Served7.10.2 Beckman Coulter Inc Biochemical Sensor Product Introduction, Application and Specification7.10.3 Beckman Coulter Inc Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.10.4 Beckman Coulter Inc Main Business and Markets Served7.11 Bio-Rad Laboratories, Inc.7.11.1 Bio-Rad Laboratories, Inc. Biochemical Sensor Production Sites and Area Served7.11.2 Bio-Rad Laboratories, Inc. Biochemical Sensor Product Introduction, Application and Specification7.11.3 Bio-Rad Laboratories, Inc. Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.11.4 Bio-Rad Laboratories, Inc. Main Business and Markets Served7.12 Endress+Hauser7.12.1 Endress+Hauser Biochemical Sensor Production Sites and Area Served7.12.2 Endress+Hauser Biochemical Sensor Product Introduction, Application and Specification7.12.3 Endress+Hauser Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.12.4 Endress+Hauser Main Business and Markets Served7.13 First Sensor Medical7.13.1 First Sensor Medical Biochemical Sensor Production Sites and Area Served7.13.2 First Sensor Medical Biochemical Sensor Product Introduction, Application and Specification7.13.3 First Sensor Medical Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.13.4 First Sensor Medical Main Business and Markets Served7.14 Pressure Profile Systems7.14.1 Pressure Profile Systems Biochemical Sensor Production Sites and Area Served7.14.2 Pressure Profile Systems Biochemical Sensor Product Introduction, Application and Specification7.14.3 Pressure Profile Systems Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.14.4 Pressure Profile Systems Main Business and Markets Served7.15 SMD Sensors7.15.1 SMD Sensors Biochemical Sensor Production Sites and Area Served7.15.2 SMD Sensors Biochemical Sensor Product Introduction, Application and Specification7.15.3 SMD Sensors Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.15.4 SMD Sensors Main Business and Markets Served7.16 Microchip Technology Inc7.16.1 Microchip Technology Inc Biochemical Sensor Production Sites and Area Served7.16.2 Microchip Technology Inc Biochemical Sensor Product Introduction, Application and Specification7.16.3 Microchip Technology Inc Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.16.4 Microchip Technology Inc Main Business and Markets Served7.17 NXP Semiconductors7.17.1 NXP Semiconductors Biochemical Sensor Production Sites and Area Served7.17.2 NXP Semiconductors Biochemical Sensor Product Introduction, Application and Specification7.17.3 NXP Semiconductors Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.17.4 NXP Semiconductors Main Business and Markets Served7.18 BioVision Technologies7.18.1 BioVision Technologies Biochemical Sensor Production Sites and Area Served7.18.2 BioVision Technologies Biochemical Sensor Product Introduction, Application and Specification7.18.3 BioVision Technologies Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.18.4 BioVision Technologies Main Business and Markets Served7.19 Analog7.19.1 Analog Biochemical Sensor Production Sites and Area Served7.19.2 Analog Biochemical Sensor Product Introduction, Application and Specification7.19.3 Analog Biochemical Sensor Production Capacity, Revenue, Price and Gross Margin (2015-2020)7.19.4 Analog Main Business and Markets Served 8 Biochemical Sensor Manufacturing Cost Analysis8.1 Biochemical Sensor Key Raw Materials Analysis8.1.1 Key Raw Materials8.1.2 Key Raw Materials Price Trend8.1.3 Key Suppliers of Raw Materials8.2 Proportion of Manufacturing Cost Structure8.3 Manufacturing Process Analysis of Biochemical Sensor8.4 Biochemical Sensor Industrial Chain Analysis 9 Marketing Channel, Distributors and Customers9.1 Marketing Channel9.2 Biochemical Sensor Distributors List9.3 Biochemical Sensor Customers 10 Market Dynamics10.1 Market Trends10.2 Opportunities and Drivers10.3 Challenges10.4 Porters Five Forces Analysis 11 Production and Supply Forecast11.1 Global Forecasted Production of Biochemical Sensor (2021-2026)11.2 Global Forecasted Revenue of Biochemical Sensor (2021-2026)11.3 Global Forecasted Price of Biochemical Sensor (2021-2026)11.4 Global Biochemical Sensor Production Forecast by Regions (2021-2026)11.4.1 North America Biochemical Sensor Production, Revenue Forecast (2021-2026)11.4.2 Europe Biochemical Sensor Production, Revenue Forecast (2021-2026)11.4.3 China Biochemical Sensor Production, Revenue Forecast (2021-2026)11.4.4 Japan Biochemical Sensor Production, Revenue Forecast (2021-2026)11.4.5 South Korea Biochemical Sensor Production, Revenue Forecast (2021-2026) 12 Consumption and Demand Forecast12.1 Global Forecasted and Consumption Demand Analysis of Biochemical Sensor12.2 North America Forecasted Consumption of Biochemical Sensor by Country12.3 Europe Market Forecasted Consumption of Biochemical Sensor by Country12.4 Asia Pacific Market Forecasted Consumption of Biochemical Sensor by Regions12.5 Latin America Forecasted Consumption of Biochemical Sensor 13 Forecast by Type and by Application (2021-2026)13.1 Global Production, Revenue and Price Forecast by Type (2021-2026)13.1.1 Global Forecasted Production of Biochemical Sensor by Type (2021-2026)13.1.2 Global Forecasted Revenue of Biochemical Sensor by Type (2021-2026)13.1.2 Global Forecasted Price of Biochemical Sensor by Type (2021-2026)13.2 Global Forecasted Consumption of Biochemical Sensor by Application (2021-2026) 14 Research Finding and Conclusion 15 Methodology and Data Source15.1 Methodology/Research Approach15.1.1 Research Programs/Design15.1.2 Market Size Estimation15.1.3 Market Breakdown and Data Triangulation15.2 Data Source15.2.1 Secondary Sources15.2.2 Primary Sources15.3 Author List15.4 Disclaimer

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A biochemists extraction of data from honey honors her beekeeper father – Science News

WASHINGTON One scientists sweet tribute to her father may one day give beekeepers cluesabout their colonies health, as well as help warn others when crop diseases orpollen allergies are about to strike.

Those are all possible applications thatbiochemistry researcher Roco Cornero of George Mason University in Fairfax, Va.,sees for her work on examining proteins in honey. Cornero describedher unpublished work December 9 at the annual joint meeting of the AmericanSociety for Cell Biology and the European Molecular Biology Organization.

Amateur beekeepers often dontunderstand what is stressing bees in their hives, whether lack of water,starvation or infection with pathogens, says Cornero, whose father kept beesbefore his death earlier this year. What we see in the honey can tell us astory about the health of that colony, she says.

Bees are like miniature scientists thatfly and sample a wide variety of environmental conditions, says cell biologist LanceLiotta, Corneros mentor at George Mason. As bees digest pollen, soil and water,bits of proteins from other organisms, including fungi, bacteria and virusesalso end up in the insects stomachs. Honey, in turn, is basically bee vomit,Liotta says, and contains a record of virtually everything the bee came incontact with, as well as proteins from the bees themselves.

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The information archive in honey isunbelievable, Liotta says. But until now, scientists have had a hard timestudying proteins in honey. Its so gooey and sticky and hard to work with,he says. Sugars in honey gum up lab equipment usually used to isolate proteins.

So Cornero developed a method to pullpeptides bits of proteins out of honey using nanoparticles a feat noother researchers have previously managed, Liotta says. Once extracted from thehoney, the peptides are analyzed by mass spectrometry to determine the order ofamino acids that make up each fragment of protein. Those peptides are thencompared with a database of proteins to determine which organisms produced thehoney proteins.

A group of high school students workingat George Mason for the summer collected 13 honey samples from Virginia,Maryland. Two additional samples came from Corneros hometown of Mar del Platain Argentina. The Argentine honey was from the last batches her fathercollected from his bees.

Proteins from bees, microbes and a widevariety of plants were among the components of the honey. Peptides in honeyfrom one sample came from several bacteria, including some that normally livein bees guts and a few disease-causing varieties. Proteins from viruses andparasites that infect bees, including deformed wing virus and Varroa mites,which have been implicatedin colony collapse disorder, were also found in the sample (SN: 1/17/18). Those results could meanbees from that location may have trouble surviving the winter when the insectsimmune systems are less able to fight infections.

Cornero also determined by looking atpollen and plant proteins in the honey that bees had pollinated a variety ofplants, including sunflowers, lilacs, olive trees, red clover, potatoes andtomatoes. By analyzing pollen peptides, scientists may one day be able to learnwhether claims that certain honey is made from wildflowers, clover or orangeblossoms are really true.

Whats more, counting pollen peptides inlocal hives could, for example, give allergy sufferers a better idea of whenhay fever is likely to flare in their area, Cornero says. The researchers alsofound plant virus proteins in the honey, an indication of the types of diseasesthat may be stalking local crops.

Next, Cornero hopes to develop a rapid proteintest that would allow beekeepers to plunge a dipstick into honey and rapidly gaugetheir hives health. Having my dad as a beekeeper, I know how beekeepers work,and it would be a great way to honor his work, she says.

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A biochemists extraction of data from honey honors her beekeeper father - Science News

January: smoking cessation | News – University of Bristol

As smokers know all too well, nicotine is highly addictive. Its hard to quit smoking, a habit that claims the lives of more than seven million people each year.

Smoking tobacco delivers nicotine to the neuroreceptors responsible for addiction, affecting the nervous system and causing addiction.

A new study, led by scientists from the University of Bristol, into the molecular interactions involved has revealed how these neuroreceptors respond to nicotine.

The researchers used new computational simulation methods to discover how receptors in the brain respond to nicotine.

One of the key features of the study is the speed at which the discovery was made, thanks to the use of Oracle Cloud Infrastructure, which allowed the researchers to run a large number of simulations in unprecedentedly short time.

The work brought together computational chemists, biochemists and research software engineers, working together to deploy large numbers of simulations of nicotine receptors in the cloud.

Reducing the time to results to just five days using Oracles high-performance cloud infrastructure is transformational from a research perspective. Calculations that might otherwise have taken months to complete were completed in a matter of days.

The study, carried out by researchers from Bristol in partnership with Oracle, whose cloud technologies were a key part of the investigation, is reported in the Journal of the American Chemical Society, the flagship publication of the American Chemical Society, the worlds largest scientific society and a global leader in providing access to chemistry-related research. The project was supported by funding from EPSRC.

Co-author of the study, Professor Adrian Mulholland, from Bristols Centre for Computational Chemistry, part of Bristols School of Chemistry, said: Nicotine is highly addictive: its very hard to give up smoking. To understand why it is so addictive, and to make molecules to help people quit, we need to understand how it affects the nervous system.

We have used simulations to model and understand how nicotine affects receptors in the brain. Using the power of cloud computing, we were able to show how nicotine exerts its effects, at the molecular level, the first stage of signaling in the brain. This information, and the methods we have developing, will help in developing new smoking cessation aids.

Researchers are now working with Achieve Life Sciences to design and develop molecules that mimic nicotine, and computer simulations that will help test their potential effectiveness. This work builds on previous studies using chemical synthetic approaches to develop new smoking cessation aids, which will be investigated and tested in simulation scenarios.

Smoking is the second most common cause of death worldwide, but most current anti-smoking drugs are only moderately effective in reducing symptoms of withdrawal and may cause undesirable side effects. New, specific and effective smoking cessation aids are needed.

Nicotine is the major psychoactive agent in tobacco and causes addiction by binding to specific receptors in the brain. Understanding how nicotine binds to these receptors and creates the nicotine hit and subsequent craving is a key focus for public health research.

The study saw researchers perform 450 individual molecular dynamics simulations of the biochemistry associated with the binding of nicotine to a subtype (7) of nicotinic acetylcholine receptors in the brain. They were able to compare with other types nicotine receptor and identify common features of receptor activation.

The study also showed how cloud computing can be combined effectively with more traditional high-performance computing.

This work shows how rigorous simulations can be used to predict effects on drug targets in a matter of days.

On this quick timescale, calculations help to plan and interpret experiments, and will help design and develop effective drugs. More broadly, the agility and other benefits of using cloud computing for research offers the potential to accelerate the pace of discovery dramatically.

Paper:

A general mechanism for signal propagation in the nicotinic acetylcholine receptor family by A. Oliveira, C. Edsall, C. Woods, P. Bates, G. Viedma-Nunez, S. Wonnacott, I. Bermudez, G. Ciccotti, T. Gallagher, R. Sessions and A. Mulholland in Journal of the American Chemical Society

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January: smoking cessation | News - University of Bristol

How a Parkinson’s Protein Wreaks Havoc in the Brain – Technology Networks

Parkinson's disease is a long-term (chronic) neurological condition that affects around 12,000 people in Ireland and between 7 and 10 million people worldwide. The disease affects the way the brain co-ordinates body movements like walking and talking, but cognitive abilities are also affected. There is currently no cure for the disease, but researchers at Trinity have recently published findings of a study which may lead to better treatments for this debilitating illness.Neurons in the part of the brain called substantia nigra (dark matter) produce and release a hormone called dopamine. This hormone acts as a messenger between these cells in the substantia nigra and other parts of the brain which control body movements.

"If these specialized neurons become damaged or die, the amount of dopamine in the brain is reduced. This means that the parts of the brain that control movement cease to function normally. The only treatment for Parkinson's disease in the last 20 years has been dopamine replacement therapy. This involves providing a substitute to try to increase the levels of the hormone in the brain. However, the treatment is not completely effective and can wear off over time, and it also has side effects," said Amir Khan, Associate Professor, School of Biochemistry and Immunology at Trinity.

"The main reason why we lack new treatments is that we don't understand the fundamental mechanism of how neurons become sick and die. No one knows why these particular neurons in the substantia nigra are affected."

"In the last few years, the field has completely changed. We have new insight into a gene called LRRK2, which is the most common cause of inherited Parkinson's disease. Although only 10% of Parkinson's cases are inherited, the enzyme that is produced by the LRRK2 gene seems to be overactive in both inherited and 'sporadic' cases."

"In other words, afflicted individuals may not have an LRRK2 mutation, but the enzyme 'runs amok' in their neurons anyway. Inhibitors of this enzyme are now in late clinical trials for treatment of Parkinson's disease."

The team at Trinity has studied the effects that LRRK2 has on other proteins in neuronal cells. To understand how LRRK2 affects the brain and leads to Parkinson's disease, the team has simulated the activity of the enzyme in the laboratory.

"The research allowed us to visualize the 3-D structure of a protein complex that is formed when LRRK2 is overactive. From these structural studies of proteins, we can understand how LRRK2 is able to impose its profound effects on neurons. We are the first group to report the effects of LRRK2 in 3-D detail using a method called X-ray crystallography," Professor Khan continued.

"An overactive LRRK2 runs loose in neurons and wreaks havoc on motor and cognitive abilities. In a way, we are chasing the footprints that LRRK2 leaves in the brain to understand what it does, and find ways to stop it."

"We are hopeful that these studies may eventually lead to new treatments for Parkinson's disease, for which there is currently no cure."ReferenceWaschbsch et al. (2020) Structural Basis for Rab8a Recruitment of RILPL2 via LRRK2 Phosphorylation of Switch 2. Structure. DOI: https://doi.org/10.1016/j.str.2020.01.005This article has been republished from the following materials. Note: material may have been edited for length and content. For further information, please contact the cited source.

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How a Parkinson's Protein Wreaks Havoc in the Brain - Technology Networks