Category Archives: Biochemistry

Biochemistry professor named Emerging Scholar – CSULA University Times

Dr. Cecilia Zurita-Lopez, Cal State LA assistant professor and biochemistry researcher, was awarded as a 2017 Emerging Scholar. As a researcher, she has made advances in detecting and modifying proteins which for improved disease detection.

Mimi Li, Staff Reporter February 24, 2017 Filed under News

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Dr. Cecilia Zurita-Lopez, a biochemistry faculty member at Cal State LA, is named one of the 2017 Emerging Scholars in Diverse: Issues in Higher Education for her research in biochemistry. She is featured alongside twelve other scholars for their academic achievements in higher education.

Growing up in La Puente, she studied biochemistry as an undergraduate student at Cal State LA. She attended graduate school at UCLA, focusing on biochemistry and molecular biology, and conducted postdoctoral research at Caltech and USC.

Zurita-Lopez was initially thinking about heading to medical school when she was in high school. This was during the time when her mother was diagnosed with breast cancer, so she had hoped to become a doctor to help cure patients. She also noticed that many of the medications that her mother was taking were for the purposes of reversing the side effects of others. Her mother passed away when she was an undergraduate student.

When I went to Cal State LA, that was my motivation, I thought I wanted to go to medical school, said Zurita-Lopez. And it wasnt until I realized that when you study biochemistry, you can design and do more work to contribute for better medical care. Unlike medical school, you also get to use your creativity to solve problems.

As a postdoctoral researcher at USC, she was a part of a biomedical engineering lab. She collaborated with other researchers to develop a light sensor to detect DNA and protein methylation. In detecting methylation, it is possible to detect cancer at its early stages. Unlike other types of detectors, the researchers measured methylation using changes in the wavelengths of light.

Her research in proteins can be applied to many diseases such as cancer and Alzheimers. In a disease state, she explains, proteins modifications are different and can often change each other incorrectly. In particular, she studies arginine methylation by enzymes called methyltransferases.

I think the long term goal for any researcher is to try to find cures but on a day to day, more than anything, we just want to understand whats happening in the cell, so even that, just to understand whats happening in a healthy cell versus a diseased cell, just to understand the rules would really help us, says Zurita-Lopez.

Zurita-Lopez is grateful to have come back to Cal State LA as an assistant professor since 2014. She enjoys mentoring students in her lab and seeing them excel in their educational pursuits as graduate students. Additionally, she contributes to the Minority Opportunities in Research Programs at Cal State LA.

My advice is not to give up! If you really like what youre doing and like what youre studying put in the time to study and to learn about careers, to make it a point to learn about all the opportunities that are out there, she says. There are many, many programs and internships for students in STEM, so I try to encourage my students to look for these opportunities because thats what makes them stand out and have an edge.

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Biochemistry professor named Emerging Scholar - CSULA University Times

Cutting Edge Science Literally – Seton Hall University News & Events

Wednesday, February 22, 2017

By Michael Ricciardelli, Christine Aromando

In Seton Hall's Department of Biochemistry, undergraduate students work in the lab alongside graduate students, Ph.D. candidates and professors on some of the leading biochemical and medical questions of the day. Lab 419 was custom built by Professors David Sabatino and Monika Raj to facilitate biomedical research, and the results to date have been groundbreaking.

With their most recent work published in a number of prestigious biochemistry journals, Professor Raj and her team of student researchers focus on developing new biochemical methodologies for the rapid sequencing, or "mapping," of proteins and their building blocks, peptides.

In sequencing or "mapping" these peptides and proteins in a sense the building blocks of life scientists can better see, identify, diagnose and fix malfunctions that can lead to disease.

To that end, the Raj research group works at synthesizing peptides and proteins to ultimately block disease states including cancer, Parkinson's and age-related maladies such as Alzheimer's.

Professor Raj was named Seton Hall Faculty Researcher of the Year in 2016. Notably, her article, "Site-Selective Chemical Cleavage of Peptide Bonds," authored along with Ph.D. student Hader Elashal and published in The Royal Society of Chemistry's Chemical Communications, was named "F1000 Prime recommended," which means that a global Faculty of the world's leading scientists and clinicians selected and honored this research as "important" work.

Chemical Cleavage

At its most basic level, life is comprised of amino acids and the proteins they help to form. Amino acids are bonded together to form peptides, and strings of bonded peptides form proteins. On some level, life itself can be described as a series of protein to protein interactions. In fact, most diseases can be linked to proteins within the body and the brain interacting badly, with one protein being the "instigator" so to speak.

Much like a mother separating two unwieldy children, as the study of disease and its cures advances, modern molecular and medical research has put much of its emphasis on separating these proteins behaving badly. Unlike parenthood, however, the ultimate goal in medical research is to isolate the instigator and kill it.

But to kill a bad acting protein, one must know itand that's where the work of Professor Raj and her students comes in. They have found a way to chemically cleave or break the offending proteins apart in a way that gives researchers a clear view of the transgressor, allowing them to sequence, or "map," the diseased or mutated proteins. Previous cutting methods, although good for healthy proteins, were not compatible with the cutting of these diseased or mutated ones.

The cutting or cleavage process developed by Professor Raj's team allows researchers to clearly see and map the constituent parts of malfunctioning proteins as well as, importantly, isolating them. This allows researchers the ability to devise remedies including synthesizing unique peptides and proteins to essentially eliminate the diseased or mutated ones that are specific for these affected molecules without adversely affecting other healthy molecules in near proximity.

Revolutionizing Protein Synthesis: Faster, Better, More

If most of life itself can be seen as a series of protein to protein interactions (it can), then a laboratory that specializes in examining and attempting to repair life on a molecular level is going to have to synthesize a great many peptides and proteins.

The Raj group has revolutionized protein synthesis. In laboratories all across the world, scientists synthesize peptides and then group these peptides together to formulate proteins. At present, it is a cumbersome and tedious process, with many steps burdened by the necessary addition of many extraneous substances; it is largely governed by the limitations of the current state of lab machinery which allows for the combination of only 50 amino acids at a time to create peptides. Proteins often contain 100,000 amino acids. The process can take days.

Through their discovery of a totally chemical process for synthesizing protein, Professor Raj and her team of students have cut that time down to hours, excised many of the input substances from the process (thus extremely limiting a number of extraneous byproducts in the results) and increased the yield of protein by double-digit multiples. In short, they have found a way to synthesize proteins chemically in significantly less time with greater purity and a far greater yield: Faster, better, more.

What does all of this mean for the general public? The ability to clearly observe mutated proteins and then synthesize new ones more efficiently and in less time will ultimately pave the way for pinpoint accuracy in disease eradication. This level of accuracy can be readily appreciated by anyone who has experienced the ravages of chemotherapy and other disease treatments that are necessarily widespread in their application.

The revolutionary research on protein synthesis, published for 2017 as an Advance Article in The Royal Society of Chemistry's high-impact journal, Chemical Science, is entitled "Serine promoted synthesis of peptide thioester-precursor on solid support for native chemical ligation." Professor Raj authored the work along with graduate students Hader Elashal and Yonnette Sim.

Additional research and publications from the Raj Group for 2016

Organic Letters, "Glutamic Acid Selective Chemical Cleavage of Peptide Bonds," authored by Professor Raj along with Ph.D. student Neelam Lahankar and undergraduate students Lyssa Buiserreth and Joseph Nalbone '16.

Chemical Communications, "Fmoc solid-phase synthesis of C-terminal modified peptides by formation of a backbone cyclic urethane moiety" authored by Professor Raj along with Ph.D. students Hader Elashal and Ryan Cohen.

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Cutting Edge Science Literally - Seton Hall University News & Events

Dr. Richard McCann Appointed Assistant Dean of Faculty Affairs and Professional Development – Mercer News

MACON Dr. Jean R. Sumner, dean of Mercer University School of Medicine (MUSM), recently announced the appointment of Dr. Richard McCann as assistant dean of faculty affairs and professional development.

Working with Dr. Marie Dent, associate dean of faculty affairs and professional development, Dr. McCann will continue providing guidance and professional development opportunities for faculty, said Dr. Sumner. Dr. McCann is a proven leader, scientist and outstanding teacher who embodies a commitment to students, colleagues and the mission of Mercer University School of Medicine.

Dr. McCann, a native of Brunswick, graduated from Glynn Academy and earned his B.S. in biochemistry and Ph.D. in biochemistry and molecular biology from the University of Georgia. He was an American Heart Association Postdoctoral Research Fellow at Johns Hopkins University School of Medicine in the Department of Biological Chemistry.

Prior to joining Mercers faculty in 2008, Dr. McCann was an assistant professor of biochemistry at the University of Kentucky College of Medicine in Lexington.

He currently serves MUSM as an associate professor of biochemistry.

Throughout his career, Dr. McCann has combined a research program on cell adhesion withteaching. He advised three Ph.D. students and one M.D./Ph.D. student at the University of Kentucky. He also taught cell biology, genetics and biochemistry in the Master of Science in Biotechnology Program at Johns Hopkins and in the Integrated Biomedical Sciences Program at Kentucky.

At Mercer, Dr. McCann has served as a tutor in the first-year medical curriculum, and from 2011-2015, he was phase coordinator for the cellular basis of medicine in the Biomedical Problems Program curriculum. He is currently Block 1 co-chair for the Macon Campus in the revised Patient Based Learning curriculum.

Dr. McCann is the founding director of MUSMs Master of Science in Biomedical Sciences, and for the next three years, he will chair the Cell Structure and Survival Review Panel for the American Heart Association.

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Dr. Richard McCann Appointed Assistant Dean of Faculty Affairs and Professional Development - Mercer News

Rowan staff and students mourn loss of chemistry professor Timothy Sheehan – The Whit Online

Adjunct and three-quarter time Rowan professor Timothy Sheehan diedon Feb. 13, according to a Rowan Announcer Extra Edition email sent to facultyTuesdayevening.

Sheehan was a professorin the chemistry and biochemistry department and worked at Rowan since spring 2009, according toGregory Caputo, chemistry and biochemistry department chair.

According to Caputo,Sheehan taught two general chemistry courses as well as an advanced college chemistry series.

One thing that always stood out about Tim was that he was always really positive and really upbeat and energetic and really brought that into the classroom, Caputo said in a phone interview. [His passing] came as a real shock to all of us.

According to his obituary from legacy.com, Sheehan was a father, husband and grandfather from Mt. Laurel, New Jersey. He died age 66 from natural causes.

Assistant professor of chemistry and biochemistry Tim Vaden was similarly shocked and saddened by the news of Sheehans death.

Up until last week, he seemed healthy and normal, Vaden said. He was very positive and never complained about anything at all.

Vaden admiresSheehan for his reliability, saying, Whether it was 8 a.m. or evening classes, he was always open to whatever we needed him to do, with a smile on his face.

Along with the faculty, Rowan students shared positive remembrances about Sheehan as an individual.

Sophomore biology major Jenn Hopkins, who had Sheehan for Chemistry 2, appreciated his frequent anecdotes.

He shared a lot of stories and experiences about his work in chemistry throughout the class, which made it really interesting to learn from him, she said.

Freshman biochemistry major Justin Roldan respected Sheehans affability and clarity.

He was always friendly, like a grandpa figure to the class, Roldan said. Even if the lessons would get confusing, professor Sheehan would take time to make the lessons more relatable and talk about his past experiences in pharmaceutical companies.

Roldan added that two grieving counselors were available for his class during lecture period.

Freshman biochemistry major Edward Taggart, paralleled the comments expressed by others, touching on Sheehans helpful nature, extensive experience and the feelings of grief that have come as a result of hisdeath.

He was a kind man with a lot of personality, and it came as a great shock to me and the entire class the morning after he passed. Im just more at a loss for words, and hoping the rest of the semester proceeds as he would have wanted, he said.

Additional reporting by Justin Decker.

For comments/questions about this story, email news@thewhitonline.com or tweet @thewhitonline.

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Rowan staff and students mourn loss of chemistry professor Timothy Sheehan - The Whit Online

SSCI Expands Biochemistry Services to Meet Growing Industry … – Benzinga

Intended to meet rapidly growing needs of the biopharmaceutical sector

WEST LAFAYETTE, Indiana (PRWEB) February 16, 2017

SSCI, a division of Albany Molecular Research Inc. has further extended its industry leading Biochemistry Services specifically targeting the rapidly growing needs of the biopharmaceutical sector. This service offers state-of-the-art cGMP techniques and methods for the biochemical and biosimilar characterization, product-related impurity characterization, aggregation state characterization, structure elucidation, protein formulation development, comparability, analytical method development and validation, and protein and peptide crystallization. Included in the diverse array of services available, an ultra-high resolution Q-TOF mass spectrometry is the cornerstone a state of the art instrument that significantly enhances SSCI's capabilities in analysis and data interpretation for large molecules, including biologic drugs such as antibodies and antibody-drug conjugates, metabolites and polymers to meet the expectations outlined in the ICH Q6B Specifications: Test Procedures and Acceptance Criteria for Biotechnological/ Biological Products.

"Innovative proteins and biopharmaceuticals comprise the fastest growing class of new chemical entities in the industry," commented Patrick Tishmack, PhD, Director Analytical Development , who leads the Biochemistry Services at SSCI. "Many of these therapeutic proteins typically exist in the solid state as lyophilized powders during their manufacture or in a final formulation. Few proteins are produced as crystals or formulated as mixtures of crystalline and amorphous protein. Therefore, SSCI is uniquely positioned to provide an understanding of the properties of biologics in the solid-state or as liquid formulations, which is of critical importance both in the development of the product and for regulatory approval."

About SSCI SSCI, a division of Albany Molecular Research Inc., provides industry leading contract solid-state and analytical testing services and exists to help companies in the pharmaceutical, food, agrochemical, and other chemical industries develop better products and get them to market more quickly. Over the past quarter century, SSCI has provided comprehensive cGMP research and analytical services in the characterization and chemistry of solid materials, with particular expertise in small and large molecules being investigated for pharmaceutical use. As the AMRI's Center of Excellence for Solid State Chemistry, its offerings include early candidate support services (in vitro analysis, stability, solubility, dissolution, excipient compatibility), solid form screening and polymorph, salt and cocrystal screening, form selection, particle engineering (process development, particle size method development), property improvement, crystallization of difficult materials, process control, biochemical analysis, full analytical chemistry support including method development and validation, intellectual property consulting and litigation support, and related research activities.

For more information about SSCI's biochemistry services, please contact 1-800-375-2179 or visit http://www.ssci-inc.com.

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Chemistry Seminar by Fr. Gerald Buonopane – Seton Hall University News & Events

Wednesday, February 15, 2017

By Nicholas Snow

The Department of Chemistry and Biochemistry Rose Mercadante Seminar Series is pleased to present a seminar entitled "Effect of Cold Plasma Processing on Sweet Basil and the Chemistry of its Essential Oils" by Fr. Gerald Buonopane, Dr. Cosimo Antonacci and Dr. Jose Lopez of the Departments of Chemistry and Biochemistry and Physics of Seton Hall University.

The seminar will take place in the Helen Lerner Amphitheater, Science and Technology Center, Seton Hall University at 5:45 P.M. on Tuesday February 21, 2017. Refreshments are available at 5:30 PM.

This interdisciplinary research project, which focuses on the emerging field of plasma agriculture, seeks to better understand the chemical and physical effects of cold plasma processing on plants and their essential oils. Cold plasma processing has been shown to be a rapid, economical, and pollution-free method to improve plant seed performance and crop yield. Essential oils are aromatic oily liquids extracted from different parts of plants, such as the leaves, flowers, and roots. Among the various beneficial properties of essential oils is their demonstrated antioxidant effect directly applicable to foods that are prone to oxidative consequences such as poor flavor, bad odors, and spoilage. Antioxidants, either synthetic (e.g., butylated hydroxytoluene, BHT) or natural (e.g., Vitamin C), are routinely added to processed foods to inhibit or delay oxidation. Essential oils are examples of natural antioxidants. Although synthetic antioxidants like BHT and BHA (butylated hydroxyanisole) are very effective, they have been shown to be potentially harmful to human health with demonstrated evidence of causing cancer in laboratory animals. As a result, food scientists have been seeking alternative natural compounds as substitute antioxidants, such as essential oils. We have observed a growth effect in our preliminary studies treating basil plants with cold plasmas. We have also observed that plasma treatment increases the antioxidant activity of essential oils. Our preliminary work further revealed a difference in the composition of individual antioxidant components between the plasma-treated and non-plasma-treated basil. In follow-up studies, we seek to better understand cold plasma's physical and biochemical-molecular effects on basil plants.

Ordained as a priest of the Archdiocese of Newark in 2006, Fr. Gerry's area of specialization is food chemistry. He earned a B.S. in Biology from Northeastern University (1978), a M.S. in Nutritional Science from the University of Connecticut (1981) and a Ph.D. in Food Science from Penn State University (1988). Prior to seminary and the priesthood, Fr. Gerry held a number of positions in academia, the federal government (USFDA), and in the food and pharmaceutical industries. His research areas of interest are: Chemical Deterioration of Food Lipids: Oxidative Reactions; Essential Oils as Natural Antioxidants; and Cold Plasma Treatment of Botanicals and Essential Oils.

Dr. Cosimo Antonacci holds BS and PhD degrees in Chemistry from Seton Hall University. He is currently Undergraduate Laboratory Manager in the Department of Chemistry and Biochemistry, where he supervises all activities in the department's teaching laboratories. He is an active researcher in biochemistry with ongoing collaborations in Biochemistry, Biological Sciences and Physics.

Professor Jose L. Lopez is an Associate Professor in the Department of Physics at Seton Hall University in South Orange, New Jersey, USA. He earned a B.S. in Physics from Saint Peter's University in Jersey City, New Jersey in 2000, an M.S. in Physics in 2003 and a Ph.D. in Physics in 2006 from the Stevens Institute of Technology in Hoboken, New Jersey.

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Roses are red, violets are bluewhat gives flowers those eye … – Phys.Org

February 13, 2017 by Cheryl Dybas Knock-your-eyes-out red: A flowering plant native to Mexico called early jessamine or red cestrum. Credit: Stacey Smith

To solve the mystery of why roses are red and violets are blue, scientists are peering into the genes of plant petals.

"When you ask anyone how one flower is different from another, for most of us, color is the feature that first comes to mind," says evolutionary biologist Stacey Smith of the University of Colorado Boulder.

Most people don't think about why a flower is a particular color, but it's an important question for biologists, says Prosanta Chakrabarty, a program director in the National Science Foundation's (NSF) Division of Environmental Biology, which funds Smith's research.

Smith and her team are "looking at the genetics of flower colors, and at changes in those colors over time," Chakrabarty says.

It all comes down to biochemistry

In nature, flowers come in hues that span the rainbow.

"On a microscopic level, the colors come from the biochemical composition of petal cells," Smith says.

Pigments are the main chemicals responsible. Plants contain thousands of pigment compounds, all of which belong to three major groups: flavonoids, carotenoids and betalains. Most flower colors come from flavonoids and carotenoids.

"In addition to giving flowers their colors, carotenoids and anthocyaninswhich are flavonoidshave antioxidant and other medicinal properties, including anti-cancer, antibacterial, antifungal and anti-inflammatory activity," says Simon Malcomber, a program director in NSF's Division of Environmental Biology.

Malcomber says the research could show how plants evolved to synthesize the carotenoids and anthocyanins that produce red flowers. "The results could be used in future drug discovery research," he says.

Much of Smith's work is focused on understanding how changes in flavonoid and carotenoid biochemistry relate to differences in flower colors. She and colleagues conduct research on the tomato family, a group of about 2,800 species that includes tomatoes, eggplants, chili peppers, tobacco and potatoes.

"These domesticated species don't have a terribly wide range of flower colors and patterns, but their wild relatives often do," Smith says. "So we study wild, or undomesticated, species, which are most diverse in South America."

Hot pursuit of red-hot color

Smith has had her share of adventures in the fieldlike the time she tried to find a plant with red flowers that lives at the base of a volcanic crater in Ecuador.

"It was my very first field trip, and I wasn't super-savvy," Smith says. "I took a bus to the outside of the crater, dragged my suitcase up to the rim then down into the crater, assuming there would be a village and a way to get out. There was neither. Thankfully, there was a park station nearby where I was able to stay overnight. I found the species in full flower in the forest the next day."

Smith is currently in hot pursuit of an answer to the question: When did red flowers first appear in the tomato family? "We thought that red flowers might have evolved many times independently of each other because red-flowered species are scattered among many branches of this family tree," she says.

Just 34 species in the entire tomato family, however, have red flowers.

"With such a small number, we can take samples of every one of these species to find out whether it represents an independent origin, and to determine the biochemistry of how it makes red flowers," Smith says.

She and other biologists traveled from Brazil to Colombia to Mexico to track down red flowers and measure their pigments. "We found surprising patterns," Smith says, "including that nearly every red-flowered species represents a new origin of the color, so red flowers have evolved at least 30 different times."

While the researchers expected that flowers would be red due to the presence of red pigments, they found that plants often combine yellow-orange carotenoids with purple anthocyanins to produce red flowers.

"Our studies are now aimed at tracing the entire genetic pathway by which plants make flower colors and identifying genetic changes to see if there are common mechanisms," Smith says.

The scientists want to know, for example, what changes have taken place since flowers first became red.

Answers in a petunia

"We're focusing on a single branch of the tomato family [petunias], creating an evolutionary history and conducting measurements of gene expression, pigment production and flower color," says Smith.

Petunias and their colorful relatives are good choices for this research, according to Smith.

"Most of us have seen the tremendous variation in petunia colors at our local nurseries, and indeed, petunias have served as models for studying flower color and biochemistry for decades."

Few people, though, are aware of the variation in petunias' wild relatives, most of which are found in Argentina and Brazil. "We're harnessing this natural diversity, as well as genetic information already available from ornamental petunias, to reconstruct the evolutionary history of flower colors," says Smith.

"If earlier studies taught us anything," she adds, "we shouldn't expect flowers to play by the rules."

Will roses always be red, and violets blue?

Explore further: Turning pretty penstemon flowers from blue to red

While roses are red, and violets are blue, how exactly do flower colors change?

Flower colors that contrast with their background are more important to foraging bees than patterns of colored veins on pale flowers according to new research, by Heather Whitney from the University of Cambridge in the UK, ...

(Phys.org) -- A team of researchers in Australia has shown that the evolution of flowers in that country was driven by the preferences of bees, rather than the other way around. In their paper published in the Proceedings ...

Researchers have uncovered the secret recipe to making some petunias such a rare shade of blue. The findings may help to explain and manipulate the color of other ornamental flowers, not to mention the taste of fruits and ...

Male hummingbirds drive female birds away from their preferred yellow-flowered plant, which may have implications for flower diversification, according a study published Jan. 27, 2016 in the open-access journal PLOS ONE by ...

Roses are red, violets are blue. Everybody knows that, but what makes them so? Although plant breeders were aware of some of the genes involved, there was as yet no quantitative study of how pigment turns a flower red, blue ...

A new report from the Stowers Institute for Medical Research chronicles the embryonic origins of planaria, providing new insight into the animal's remarkable regenerative abilities.

How plant cells divide and how that contributes to plant growth has been one of the longstanding unsolved mysteries of cell biology. Two conflicting ideas have fueled the mystery.

Watching the smooth movement generated by hundreds of fish as they swim in unison is truly mesmerising. But it's not only its sheer beauty that makes it so hard to look away, for scientists, it's also the fact that its emergence ...

Recent evidence demonstrates that the origins of photosynthesis can be found in deep sea hydrothermal vents, where microbes evolved to obtain energy from ejected hydrogen sulfide and methane gases. These microbes are capable ...

A new study of songbird dehydration and survival risk during heat waves in the United States desert Southwest suggests that some birds are at risk of lethal dehydration and mass die-offs when water is scarce, and the risk ...

Scientists have discovered a new protein that likely will advance the search for new natural antibiotics, according to a study by Texas A&M AgriLife Research published Feb. 13 in the journal Nature Microbiology.

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The Biochemistry of Love and Herbal Aphrodisiacs – Lawrence, Kansas

Dive deep into this dynamic, hands-on intensive to discover the biochemistry behind love, arousal, connection, and the medicinal plants that can aid us in these completely natural and healthy processes. We will look in-depth at six different powerful aphrodisiac herbs, the phytochemistry of how they work in the body, contraindications, and practical ideas for application. We will finish the class with smelling, tasting and finally making our own Damiana Cordial to take home. Class is taught by Shannon Ryan, Professional Herbalist and Licensed Acupuncturist. Note: While beginners are welcome, content is most suitable for attendees with some basic knowledge of herbal medicine.

~ $35 ~ *Space is Limited and Pre-Registration is Required*

* Call Lawrence Acupuncture to Register (785) 371-1141 or book online at http://www.lawrenceacupuncture.com

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Laurie Stargell named chair of Department of Biochemistry and … – Colorado State University News (press release)

The Department of Biochemistry and Molecular Biology baton has been passed into the hands of Professor Laurie Stargell, who is ready to go full speed ahead as the new chair of that department in Colorado State Universitys College of Natural Sciences.

Laurie Stargell, professor and department chair, biochemistry and molecular biology

Stargell strives to continue her mentoring, to grow and strengthen her department ranks, and to develop new programs and ideas. But these are just the start to her plans as department chair. She said, I feel strongly that we should empower our people, whether they be faculty, staff or students, with the knowledge and skills they need to succeed.

Stargell earned her B.A. in biology at the University of Virginia in 1986. She then went on to become a pre-doctoral fellow at the University of Rochester, where she received her Ph.D. in biology. There, she began studying basic machinery for RNA polymerase II transcription. This led into her research with chromatin, histone variants, and transcription processes in the model organism Tetrahymena.

After completing her studies at Rochester, Stargell began her postdoctoral research in genetics at Harvard Medical School and finished in 1996. As a postdoctoral fellow, she became fascinated by the power and breadth of approaches available in the yeast system for understanding mechanisms of transcriptional regulation, which she continues to make headway on today.

Stargell has been a part of CSU for the past 20 years and is committed to mentoring and providing research opportunities for students at all levels. She started out as an assistant professor in 1996, and moved up to associate professor in 2002. She has been the associate chair for undergraduate studies since 2006 and is involved in creating curriculum, advising, and helping with the scholarship processes for the growing undergrad population in biochemistry and molecular biology.

In 2008, she became a full professor in the Department of Biochemistry and Molecular Biology and continues to teach introduction to genetics, molecular genetics, a biochemistry seminar, and molecular biology. Thanks to her research and her ability to mentor at CSU, past students have reached career goals and now hold positions in academia and in the field.

She is also the chair of the board of directors for the Institute of Genome Architecture and Function. She has received honors from CSU such as the Jack E. Cermak Advising Award, CNS Professor Laureate, and Oliver P. Pennock Distinguished Service Award. She was also awarded, along with fellow CSU professor Jennifer Nyborg and former CSU professor Karolin Luger, a $7.8 million grant from the National Institutes of Health to study how chromosomes unravel to depict genes that dictate cell behavior.

Stargell also started an elementary outreach program along with fellow CSU Associate Professor Eric Ross, to get young students excited about science. Biochemistry is Elementary, is an eight-week-long program that has engaged over 600 fifth graders. It allows students to get hands on experience introducing genetics and biochemistry, while showing the value of studying model systems.

With a new chair being filled, the department looks ahead to keep research and advancement growing in the Department of Biochemistry and Molecular Biology under new chair, Laurie Stargell.

The College of Natural Sciences extends its gratitude to Shing Ho who has been the departments chair for the last 10 years. As he returns to his faculty position, the department appreciates the progress he made during his time as chair. Biochemistry and molecular biology is now the fourth largest major in the college. And as of 2016, the entering class was 130, pushing majors to over 300 students. Whats more, its faculty continue to produce groundbreaking research.

Stargell sees her role as continuing this success. She said, Each member of our department, whether faculty, staff, or student, is important and essential, and together we are responsible for the overall health and welfare of the department.

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Chemistry & Biochemistry | College of Letters & Science

A Search-and-Destroy Strategy for Killing Tumors

March 12, 2015 1:24 pm

One of Chemistrys Assistant Professors, Dr. Xiaohua Peng, was featured in the 2015 edition of the UWM Research Report. Current cancer drugs do not distinguish between malignant cells and healthy ones. In order to destroy tumors, drugs must target all... Read more

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Chemistry & Biochemistry | College of Letters & Science