Professor/Associate Professor/Assistant Professor (Water/Wastewater Chemistry) job with CITY UNIVERSITY OF HONG KONG | 192179 – Times Higher Education…

Professor/Associate Professor/Assistant Professor (Water/Wastewater Chemistry) in the School of Energy and Environment[Ref. D/131/09]

City University of Hong Kong is a dynamic, fast-growing university that is pursuing excellence in research and professional education.As a publicly-funded institution, the University is committed to nurturing and developing students talents and creating applicable knowledge to support social and economic advancement. The University has nine Colleges/Schools. As part of its pursuit of excellence, the University aims to recruitoutstanding scholarsfrom all over the world in various disciplines, includingbusiness, creative media, data science, energy and environment, engineering, humanities and social sciences, law, science, veterinary medicine and life sciences.

Applications and nominations are invited for the above posts:

The School of Energy and Environment was established at City University of Hong Kong in July 2009 with the mission to perform cutting-edge research and provide professional education in energy-and environment-related issues. It is the first and only such School in Hong Kong and one of the few in Asia. The School has experienced tremendous growth over its ten years. For details of the School, please visit the website athttp://www.cityu.edu.hk/see.

The School is currently seeking outstanding candidates to submit applications for faculty positions in the following core areas: water or wastewater chemistry. This position is part of the strategic development of the School to strengthen research and education related to aquatic environments. The School welcomes research that involves field observation, laboratory experimentation and/or theoretical modeling. The successful candidate is expected to develop a vigorous, externally-funded research programme and provide excellence in teaching at all levels. The School collaborates with the State Key Laboratory in Marine Pollution (http://www6.cityu.edu.hk/sklmp/sklmp_en/index.asp) to pursue interdisciplinary water related research; candidates should be able to complement existing expertise both within and outside the School.

Applications and nominations are invited for the above posts:

Duties

Teach at both undergraduate and postgraduate levels, supervise research students at master and doctoral levels, conduct high-level research, develop new research directions and courses when necessary, and contribute creatively and professionally in the School, and for the benefit of the community and industry. The appointees will also be assigned to take up administrative duties to facilitate the development of the activities of the School.

Requirements

A PhD in closely-related disciplines with a strong research record in terms of grants, publications and patents, and good teaching ability.

Candidates for Associate Professor should have a number of high-impact publications and grants, and a demonstrated ability/potential to develop a research area on their own.

Candidates for Professor should have outstanding research and international reputation.

Information and Application

Information on the posts and the University is available athttp://www.cityu.edu.hk, or from the Human Resources Office, City University of Hong Kong, Tat Chee Avenue, Kowloon Tong, Hong Kong [Email :hrojob@cityu.edu.hk/Fax : 2788 1154 or 3442 0311]. Further information can be obtained from the School of Energy and Environment [Email :seedean@cityu.edu.hk/Fax : 3442 0688].

To apply, please submit an online application athttp://jobs.cityu.edu.hk, and include a cover letter, with the curriculum vitae, a detailed research plan (3 pages maximum), a teaching philosophy statement and plan (2 pages maximum), as well as a list of three referees. Nominations can be sent directly to the School of Energy and Environment [Email :seedean@cityu.edu.hk].The review process will continue until the position is filled. Only shortlisted applicants will be contacted; and those shortlisted for the post of Assistant Professor will be requested to arrange for at least 3 reference reports sent directly by the referees to the School, specifying the position applied for. The University's privacy policy is available on the homepage.

City University of Hong Kong is an equal opportunity employer and we are committed to the principle of diversity. Personal data provided by applicants will be used for recruitment and other employment-related purposes.

Worldwide recognition ranking 52nd, and 4th among top 50 universities under age 50 (QS survey 2020); 1st in Engineering/Technology/Computer Sciences in Hong Kong (ARWU survey 2016); and 2nd Business School in Asia-Pacific region (UT Dallas survey 2017).

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Professor/Associate Professor/Assistant Professor (Water/Wastewater Chemistry) job with CITY UNIVERSITY OF HONG KONG | 192179 - Times Higher Education...

Chemist – Wikipedia

A chemist (from Greek chm (a) alchemy; replacing chemist from Medieval Latin alchimista[1]) is a scientist trained in the study of chemistry. Chemists study the composition of matter and its properties. Chemists carefully describe the properties they study in terms of quantities, with detail on the level of molecules and their component atoms. Chemists carefully measure substance proportions, reaction rates, and other chemical properties. The word 'chemist' is also used to address Pharmacists in Commonwealth English.

Chemists use this knowledge to learn the composition and properties of unfamiliar substances, as well as to reproduce and synthesize large quantities of useful naturally occurring substances and create new artificial substances and useful processes. Chemists may specialize in any number of subdisciplines of chemistry. Materials scientists and metallurgists share much of the same education and skills with chemists. The work of chemists is often related to the work of chemical engineers, who are primarily concerned with the proper design, construction and evaluation of the most cost-effective large-scale chemical plants and work closely with industrial chemists on the development of new processes and methods for the commercial-scale manufacture of chemicals and related products.

The roots of chemistry can be traced to the phenomenon of burning. Fire was a mystical force that transformed one substance into another and thus was of primary interest to mankind. It was fire that led to the discovery of iron and glasses. After gold was discovered and became a precious metal, many people were interested to find a method that could convert other substances into gold. This led to the protoscience called alchemy. The word chemist is derived from the New Latin noun chimista, an abbreviation of alchimista (alchemist). Alchemists discovered many chemical processes that led to the development of modern chemistry. Chemistry as we know it today, was invented by Antoine Lavoisier with his law of conservation of mass in 1783. The discoveries of the chemical elements has a long history culminating in the creation of the periodic table by Dmitri Mendeleev. The Nobel Prize in Chemistry created in 1901 gives an excellent overview of chemical discovery since the start of the 20th century.

Jobs for chemists usually require at least a bachelor's degree, but many positions, especially those in research, require a Master of Science or a Doctor of Philosophy (PhD.). Most undergraduate programs emphasize mathematics and physics as well as chemistry, partly because chemistry is also known as "the central science", thus chemists ought to have a well-rounded knowledge about science. At the Master's level and higher, students tend to specialize in a particular field. Fields of specialization include biochemistry, nuclear chemistry, organic chemistry, inorganic chemistry, polymer chemistry, analytical chemistry, physical chemistry, theoretical chemistry, quantum chemistry, environmental chemistry, and thermochemistry. Postdoctoral experience may be required for certain positions.

Workers whose work involves chemistry, but not at a complexity requiring an education with a chemistry degree, are commonly referred to as chemical technicians. Such technicians commonly do such work as simpler, routine analyses for quality control or in clinical laboratories, having an associate degree. A chemical technologist has more education or experience than a chemical technician but less than a chemist, often having a bachelor's degree in a different field of science with also an associate degree in chemistry (or many credits related to chemistry) or having the same education as a chemical technician but more experience. There are also degrees specific to become a chemical technologist, which are somewhat distinct from those required when a student is interested in becoming a professional chemist. A Chemical technologist is more involved in the management and operation of the equipment and instrumentation necessary to perform chemical analyzes than a chemical technician. They are part of the team of a chemical laboratory in which the quality of the raw material, intermediate products and finished products is analyzed. They also perform functions in the areas of environmental quality control and the operational phase of a chemical plant.

In addition to all the training usually given to chemical technologists in their respective degree (or one given via an associate degree), a chemist is also trained to understand more details related to chemical phenomena so that the chemist can be capable of more planning on the steps to achieve a distinct goal via a chemistry-related endeavor. The higher the competency level achieved in the field of chemistry (as assessed via a combination of education, experience and personal achievements), the higher the responsibility given to that chemist and the more complicated the task might be. Chemistry, as a field, have so many applications that different tasks and objectives can be given to workers or scientists with these different levels of education or experience. The specific title of each job varies from position to position, depending on factors such as the kind of industry, the routine level of the task, the current needs of a particular enterprise, the size of the enterprise or hiring firm, the philosophy and management principles of the hiring firm, the visibility of the competency and individual achievements of the one seeking employment, economic factors such as recession or economic depression, among other factors, so this makes it difficult to categorize the exact roles of these chemistry-related workers as standard for that given level of education. Because of these factors affecting exact job titles with distinct responsibilities, some chemists might begin doing technician tasks while other chemists might begin doing more complicated tasks than those of a technician, such as tasks that also involve formal applied research, management, or supervision included within the responsibilities of that same job title. The level of supervision given to that chemist also varies in a similar manner, with factors similar to those that affect the tasks demanded for a particular chemist.

It is important that those interested in a Chemistry degree understand the variety of roles available to them (on average), which vary depending on education and job experience. Those Chemists who hold a bachelor's degree are most commonly involved in positions related to either research assistance (working under the guidance of senior chemists in a research-oriented activity), or, alternatively, they may work on distinct (chemistry-related) aspects of a business, organization or enterprise including aspects that involve quality control, quality assurance, manufacturing, production, formulation, inspection, method validation, visitation for troubleshooting of chemistry-related instruments, regulatory affairs, "on-demand" technical services, chemical analysis for non-research purposes (e.g., as a legal request, for testing purposes, or for government or non-profit agencies); chemists may also work in environmental evaluation and assessment. Other jobs or roles may include sales and marketing of chemical products and chemistry-related instruments or technical writing. The more experience obtained, the more independence and leadership or management roles these chemists may perform in those organizations. Some chemists with relatively higher experience might change jobs or job position to become a manager of a chemistry-related enterprise, a supervisor, an entrepreneur or a chemistry consultant. Other chemists choose to combine their education and experience as a chemist with a distinct credential to provide different services (e.g., forensic chemists, chemistry-related software development, patent law specialists, environmental law firm staff, scientific news reporting staff, engineering design staff, etc.).

In comparison, chemists who have obtained a Master of Science (M.S.) in chemistry o
r in a very related discipline may find chemist roles that allow them to enjoy more independence, leadership and responsibility earlier in their careers with less years of experience than those with a bachelor's degree as highest degree. Sometimes, M.S. chemists receive more complex tasks duties in comparison with the roles and positions found by chemists with a bachelor's degree as their highest academic degree and with the same or close-to-same years of job experience. There are positions that are open only to those that at least have a degree related to chemistry at the master's level. Although good chemists without a Ph. D. degree but with relatively many years of experience may be allowed some applied research positions, the general rule is that Ph. D. chemists are preferred for research positions and are typically the preferred choice for the highest administrative positions on big enterprises involved in chemistry-related duties. Some positions, especially research oriented, will only allow those chemists who are Ph. D. holders. Jobs that involve intensive research and actively seek to lead the discovery of completely new chemical compounds under specifically assigned monetary funds and resources or jobs that seek to develop new scientific theories require a Ph. D. more often than not. Chemists with a Ph. D. as the highest academic degree are found typically on the research-and-development department of an enterprise and can also hold university positions as professors. Professors for research universities or for big universities usually have a Ph. D., and some research-oriented institutions might require post-doctoral training. Some smaller colleges (including some smaller four-year colleges or smaller non-research universities for undergraduates) as well as community colleges usually hire chemists with a M.S. as professors too (and rarely, some big universities who need part-time or temporary instructors, or temporary staff), but when the positions are scarce and the applicants are many, they might prefer Ph. D. holders instead.

The three major employers of chemists are academic institutions, industry, especially the chemical industry and the pharmaceutical industry, and government laboratories.

Chemistry typically is divided into several major sub-disciplines. There are also several main cross-disciplinary and more specialized fields of chemistry. There is a great deal of overlap between different branches of chemistry, as well as with other scientific fields such as biology, medicine, physics, radiology, and several engineering disciplines.

All the above major areas of chemistry employ chemists. Other fields where chemical degrees are useful include astrochemistry (and cosmochemistry), atmospheric chemistry, chemical engineering, chemo-informatics, electrochemistry, environmental science, forensic science, geochemistry, green chemistry, history of chemistry, materials science, medical science, molecular biology, molecular genetics, nanotechnology, nuclear chemistry, oenology, organometallic chemistry, petrochemistry, pharmacology, photochemistry, phytochemistry, polymer chemistry, supramolecular chemistry and surface chemistry.

Chemists may belong to professional societies specifically for professionals and researchers within the field of Chemistry, such as the Royal Society of Chemistry in the United Kingdom, or the American Chemical Society (ACS) in the United States.

The highest honor awarded to chemists is the Nobel Prize in Chemistry, awarded since 1901, by the Royal Swedish Academy of Sciences.

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Chemist - Wikipedia

Bioanalytical Chemist is Inventing New DNA-based Probes – UMass News and Media Relations

Assistant professor Mingxu You, chemistry, recently received a five-year, $1.9 million NIH Maximizing Investigators Research Award (MIRA) to fund his research in developing new tools DNA-based probes to quantify intercellular mechanical forces and understand a variety of mechano-sensitive cell signaling events at the molecular level.

As he explains, intercellular forces are critical regulators in many physiological and pathological processes, but scientists have until recently lacked the tools and approaches to characterize these mechanical events. It is a whole new way to understand growth, division, intercellular motion and interaction, You says.

Cells are usually touching each other or a substrate, pushing and pulling each other to work together as a tissue, an organ and at the whole body level, he adds. But these forces are so tiny and ever-changing, it is very hard to see how cells are physically communicating with each other, for example, during development, cell differentiation, normal physiological and various disease processes.

The You Lab, which includes postdoctoral researcher Bin Zhao and chemistry Ph.D. students Yousef Baheri and Puspam Keshri, will team with biologists Barbara Osborne and Tom Maresca, Lisa Minter of veterinary and animal sciences and Yubing Sun, mechanical and industrial engineering, to further develop these DNA-based tools to visualize, monitor and quantify such cellular forces.

You says, In the near future, people will be able to apply these tools broadly to depict the basic principles of tissue morphogenesis, growth, and homeostasis. They will serve as a critical foundation for developing novel strategies in tissue engineering, regenerative medicine, immunotherapy and cancer treatment.

Specifically, You says, We are interested in the Notch signaling pathway. Its widely conserved in most cells and organisms, very common to find, and its interesting because its really simple. There are only five Notch ligands and four Notch receptors but they regulate quite a diverse range of downstream functions, he adds.

Characteristics of Notch receptor-ligand expression vary in different physical environments, You says. Even though they are similar they can have very different effects, including opposite ones like tumor promoting or tumor reducing. Cells need force to activate the Notch pathway and we want to know how the different stress levels how strong the mechanical forces need to be to contribute to tumor growth or reduction. Using this new probe we can tell which protein ligand-receptor pair contributes to a particular intercellular force.

You says he learned about the force measurement challenge when he came to campus in 2016 and asked his friend, mechanical engineer Sun, to name an area in the emerging field of mechano-biology that needed attention. At the time, I had a system already developed that I used to modify DNA-lipid probe onto the cell membrane, and we realized we might be able to design a DNA structure to probe and detect intercellular forces, he notes.

DNA was a good candidate for the probe, he adds, because investigators can control its folding and hybridization, the sequence of nucleotides, very precisely. Also, we can control not only the structure but the dynamics, which in this case refers to zipping together and unzipping of the DNA. Once you have the probe, you can detect a distance-sensitive reaction between fluorophore, a dye, and a quencher that can suppress the fluorescence signal.

You can see this dye-labeled DNA directly under a fluorescence microscope, he explains. For some experiments we want to know just whether there is a force or not, but for others, we want to actually quantify the strength. We are now developing probes for both purposes.

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Bioanalytical Chemist is Inventing New DNA-based Probes - UMass News and Media Relations

The art of construction: Chemistry lab takes center stage in an artist’s exhibition – MIT News

From many perspectives, a construction site represents a headache an area in flux, hovering between functional and unusable, a source of financial and emotional stress. When will the work be completed? When can the area return to its finished state? And will it be done by the estimated, yet counted upon deadline, for the estimated, yet counted upon budget? To perceive a space mid-renovation in any other way to take it even further and actually be inspired, as opposed to daunted requires a truly unique vision. Angel Chen MS '17, a recent masters degree recipient from MITs Program in Art, Culture, and Technology (ACT), not only possesses that vision, but defines it.

Chen, who received her bachelors degree in philosophy and computer science from McGill University in 2009, came to MIT in 2015, and made quite an impact over the course of her time in ACT. The 2017 second-place recipient of MITs Harold and Arlene Schnitzer Prize in the Visual Arts, Chens art practice at MIT has revolved around understanding complex and technical systems. [ACT] supports my background and interest very well because it encourages experiments in new modes of relating a critical art practice to culture and to technology, she explains.

When it came time to execute her thesis work, Chen set off in search of a construction site on campus to stage an art installation. She pitched her idea to create an artwork that would explore the connection between building construction and nanoscale fabrication to Dick Amster, MITs director of campus construction. Amster then put her in touch with Janis Burke, manager of the Institutes Committee for Renovation and Space Planning, who introduced Chen to four project managers and their respective renovation projects on campus.

One of the projects in contention was the renovation of Department of Chemistry laboratory spaces on the fourth and and fifth floors of Building 18, overseen by campus construction project manager Meredith Fydenkevez. Fydenkevez was assisted by project coordinators Julie Azzinaro and Mike Morizio. Members of the project team also included Department of Chemistrys administrative officer Richard Wilk and facilities administrator Brian Pretti. Columbia Construction Company was represented by project manager Mike Ausevich, assistant project manager Sarah Neff and field superintendent Erik Julio.

Chen presented her idea to the project team, and they determined the project could accommodate her request to utilize the space during construction. Department of Chemistrys senior administrative assistant Emrick Elias assisted by providing Chen daily access to the space, with construction beginning in May. The spaces will soon belong to Professor Laura L. Kiessling, and in order to accommodate her research group, they had to undergo a few changes. When Chen first viewed the fourth floor space in April, prior to the start of any construction, she was immediately drawn to it. I was initially attracted to quality of the natural light I experience walking down the hallway. It makes you want to believe in something, or at least be hopeful for something, she said.

Chen also discovered a meaningful connection to the building as a whole: My ACT studio is in an I.M. Pei building from 1985, and Building 18 is also designed by I.M. Pei, but in 1967. 1967 is also the year my program's predecessor, Center for Advanced Visual Studies (CAVS), was created. Going in between these spaces inspired me to reflect on how artists and scientists came together to collaborate at different times in the history of the Institute. Having landed on the perfect location, Chen began production on the art installation, entitled Looking for Space: Arriving at a Laboratory Under Construction.

From April 18 through May 23, Chen was a daily fixture in the fourth floor construction site, arriving at various times of day, staying for intermittent amounts of time, and absorbing the environment as a whole as well as the minutiae that made up the space. Every little interaction was very meaningful to me, she says. All the interactions together make up one very memorable and impactful moment. I did really enjoy being surprised by what would happen at any given day running into people at the elevator, Brian and Meredith bringing me a MIT hardhat with my name on it, and the quiet but continuous alarm sound the cold room made when it was put to rest.

Ultimately, Chens project evolved into more than what she had originally intended; it became not only a place for an art installation, a site in transition/in flux/in limbo to be witnessed and photographed, but also a nest of sorts. Chen described the spaces evolution from her expectation to the ultimate result in the description of her installation as a place to spend time in, to reflect on my position as an art student. By forming this nest, through every day interacting, observing, and learning, I encountered specific people, procedures, processes, traces, gossip and memories that together make up this place.

On May 22, Chen opened the installation for her fellow ACT classmates, as well as professors both from MIT and beyond, as a public display of her thesis work. Groups donned hard hats and walked through the renovation that had become Chens nest, observing the items she had carefully arranged amidst the chaos, dust, and debris of an ongoing construction zone. Chens goal for the scene was to instigate a different way of thinking. My intention was to create a space that really urges people to look at a lab space differently, regardless of where they are coming from, through paying attention to different materials, to placements of objects, through trying to discern which things have been brought in by me from my studio, and through noticing traces of time as demonstrated by marks left by many different people, machines, and processes. That the lab is under renovation means that certain aspects electrical outlets, walls are quite literally open, adding to the mix of materials.

The exhibit was a multifaceted success, for Chen, for the Department of Chemistry, and for all who had the privilege of experiencing it firsthand. This project, Chen muses, experimental in nature, has given me an incredible opportunity to develop artistic research and exhibition-making methods that I will take with me and continue to refine for years to come. Chens work has inspired a thoughtfulness among those who work in Building 18. It has promoted the notion that the space that is experienced on a daily basis can be easily taken for granted. Moments are finite, and the lab renovation on the fourth floor of Building 18 will soon be complete, but Chens artistic vision helped to instigate an appreciation for the fleeting passage of time, and all of the tiny elements that make up an average day.

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The art of construction: Chemistry lab takes center stage in an artist's exhibition - MIT News

Eagles: Chemistry between Wentz and Jeffery will be key against Redskins – Inside the Iggles

The chemistry between Carson Wentz and Alshon Jeffery will be a determining factor in the Eagles week one contest with the Redskins.

Its finally here! Meaningful football is just around the corner and there are plenty of storylines to take a look at. The Philadelphia Eagles will travel down I-95 to take on the Washington Redskins, and if they want to walk away with a victory, theyll need big performances from quarterbackCarson Wentz and wide receiverAlshon Jeffery.

If theres one thing that all Eagles fans can agree on, its that the big plays through the air were few and far between last year. A big factor in that lack of production was lack of talent. The best wide receiver on the team was Jordan Matthews who was reliable but didnt really create those splash plays. The lack of big plays allowed teams to cover the shorter underneath routes more, and load the box against the run.

The addition of Jeffery however should help alleviate those concerns. Jeffery is a big bodied receiver who can make plays when Wentz just throws one up for grabs. The two have already created some of that chemistry in practice, but game situations are a whole different story. Even though Jeffery isnt a burner, hes still a legitimate downfield (20+ yards) threat. If the two players are able to grow together during the season, then the offense will really take off.

There is an old saying that goes the best ability is availability. Through the preseason, this certainly didnt apply to Jeffery. He missed significant time during camp and got very limited work in-game action. Now, we all know what he brings to the table as a player, but things are different when players change teams. This is especially true with receivers. They need todeveloptiming and a feel for their quarterbacks. If they are not on the same page, the lapses in communication can lead to turnovers.

Jefferys lack of playing time this preseason is a bit concerning, but it doesnt mean that fans should push the panic button quite yet. He and Wentz still have time to develop that chemistry, but with game one being against a division rival, a lack of chemistry could lead to a rough start.

Want your voice heard? Join the Inside the Iggles team!

There is no doubt that Alshon Jeffery is one of the most talented receivers that the Eagles have had in the last few years. Still, all that talent could be wasted if there isnt a good rapport with Wentz. A division game is a rough way to start the season, but a lack of production in the passing game could make for a long afternoon. If everything is clicking, then this should be a fun game to watch. If not, well, well Philly will have to that bridge when we come to it.

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Eagles: Chemistry between Wentz and Jeffery will be key against Redskins - Inside the Iggles

Chemistry Major | Chemistry | SIU

Main Content Chemistry is all around us

It impacts everything we can see, touch, smell and taste. The programs of the Department will prepare you to understand,investigate and apply the principles of chemistry to a wide variety of careers from the study of the environment, to solving criminal cases, to working in a chemically related business, to using chemistry to understand biological systems and processes, to preparing for a career as a research chemist.

For those wishing to prepare for advanced study in chemistry we offer both Master's and Doctoral Programs in all major fields of Chemistry.

Our faculty provide teaching and research expertise in all major areas of Chemistry

Please Note: Our grateful thanks to Dr and Mrs Victor Garsky who have donated $10,000 to the Department in acknowledgement of the help and guidance given to Dr Garsky by Emeritus Professors Gerard V. Smith and David F. Koster. The gift will be used as financial support for part-time employment of undergraduate students with the expressed goal of giving these students laboratory research experience.

The Department offers weekly seminars by faculty from departments throughout the United States and beyond describing the latest advances in their fields.

Departmental Seminars are held in the Van Lente Auditorium (Neckers 240) at 4:00 pm unless otherwise indicated below.

ProfessorAndrew Ferguson, Institute for Molecular Engineering, University of Chicago, Friday, January 18, 2019

" Machine Learning and Data Science for Understanding and Design in Colloidal Assembly and Protein Folding "

Abstract:Data-driven modeling and machine learning have opened new paradigms and opportunities in the understanding and design of soft and biological materials. The automated discovery of emergent collective variables within high-dimensional computational and experimental data sets provides a means to understand and predict materials behavior and engineer properties and function. I will describe our recent work in the use of two machine learning techniques for collective variable discovery within molecular simulation nonlinear manifold learning using diffusion maps, and nonlinear dimensionality reduction using autoencoding neural networks (autoencoders). First, I will describe our applications of graph matching and diffusion maps to determine low-dimensional assembly landscapes for self-assembling patchy colloids. These landscapes connect colloid architecture and prevailing conditions with emergent assembly behavior, and we use them to perform inverse building block design by rationally sculpting the landscape to engineer the stability and accessibility of desired aggregates. Second, I will describe our use of autoencoders to perform automated discovery of collective variables in protein folding. We interleave deep learning variable discovery and enhanced sampling directly within the discovered variables to perform simultaneous on-the-fly variable discovery and accelerated sampling of protein folding funnels.

Materials Technology Center Seminar Series

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Chemistry Major | Chemistry | SIU

Meghan McCain "Refused a Chemistry Test" Before She Was Hired on ‘The View’ – Decider

Even before Meghan McCain was hired on The View, she refused to follow the shows rules. On Friday, the conservative co-host compared her experience auditioning for The Viewto Joe Biden choosing his vice presidential running mate, a process that has dominated political discourse this week. McCain said that while both the ABC talk show and Bidens camp have relied on chemistry tests to identify potential candidates, the method is ineffective, as anyone can turn on the charm for 20 minutes. In fact, McCain feels so strongly about the fruitless process that she refused a chemistry test before she was hired on The View. In hindsight, that tracks.

Moderator Whoopi Goldberg opened Fridays show with a discussion about Bidens escalating VP search. Joe Biden has been adjusting to campaigning in this crisis by holding virtual events with some of his potential VP picks, like Stacey Abrams, Elizabeth Warren, and Amy Klobuchar, she explained at the top of the segment. Some people are saying [this] is the Biden Reality Show. Do you think thats the appropriate way to refer to this?

While Sunny Hostin praised Bidens creative and inventive strategy of at-home campaigning, McCain felt otherwise. Im not a big believer in chemistry tests across the board, said the conservative firebrand. I think they can be sort of a short illusion, and anyone can perform really well in a short period of time.

Not to make this about me, but when I was originally offered the job on this show, they wanted to test me with a bunch of the ladies, and I said, No. You see what I can do,' recalled McCain. Fast forward to a few years later, I again refused a chemistry test, and I ended up getting hired anyway. I think vice presidential picks are the exact same way. I think you probably know.

McCain went on to say that Sen. John McCain should have listened to this advice during his 2008 campaign. My father and I know people get very triggered when I talk about him, so just bear with me he chose an unorthodox running mate, and he chose someone that he hadnt had a lot of experience with, she said. In fact, I believe that he had only met Sarah Palin twice before announcing her as his vice presidential pick.

I think in the case of Joe Biden, and in the kind of times were in, he has to go with a person who is going to lead us out of this absolute epidemic, pandemic, generational crisis, said McCain. This sort of beauty queen contest, who can perform the best in front of a camera for 20 minutes, is probably completely ill-suited for this time.

Where to streamThe View

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Meghan McCain "Refused a Chemistry Test" Before She Was Hired on 'The View' - Decider

College of Charleston chemistry professor explains how sunscreen … – Moultrie News

Most everyone knows to protect their skin from direct sunlight in the summer. But do you know how sunscreen works and whats actually in the stuff youre lathering all over your skin?

Tim Barker, an assistant professor of organic chemistry at the College of Charleston, answers some questions concerning ingredients in sunscreen and tries to separate the science from the hype.

Heres what he had to say:

Q: What chemicals are used in most sunscreens, and how do they work to protect us from damaging rays and from getting sunburns?

A: Both inorganic and organic chemicals serve as active ingredients in sunscreens. The inorganic compounds, titanium dioxide and zinc oxide, work by reflecting the radiation. The organic chemicals, two examples include avobenzone and oxybenzone, absorb the UV radiation with their chemical bonds before it interacts with the skin.

Q: What are some of the other applications for these same chemicals?

A: Zinc oxide is used in many things, but the most common use is in the vulcanization natural rubber into the rubber found in tires and other materials. Zinc oxide also has antibacterial properties so it has many medicinal uses.

Most of the organic compounds used as active ingredients in sunscreen are also used for sun protection in hair products and cosmetics.

Q: What should someone look for in a sunscreen for maximum protection?

A: It is important to use a sunscreen with active ingredients that protect against UV-A and UV-B rays. Avobenzone (organic) and zinc oxide (inorganic) are the only two active ingredients approved by the FDA and currently in use that protect against UV-A rays. Some studies with avobenzone and other organic chemicals used as active ingredients have suggested that these compounds may be endocrine disruptors. Especially for young children, zinc oxide would be the better active ingredient.

Q: What about sunscreen substitutes? Can natural ingredients whipped up at home provide protection against the sun?

A: The best natural sun protection would be to wear a hat and long sleeves. I would be wary of natural sunscreen ingredients. All natural ingredients are still chemicals.

Q: As a chemistry professor who can read a sunscreen label and actually know what the listed chemicals are, what type of sunscreen do you use?

A: I look for sunscreen with both UVA and UVB protection. Typically it will be SPF50 and contain zinc oxide which protects against UVA and UVB light as well as several other active ingredients.

Q: The U.S. Food and Drug Administration is investigating the efficacy and safety of spray-on sunscreens. Why would aerosol sunscreens be of particular concern?

A: When being exposed to a chemical there are different risks associated with the type of exposure. When you use a lotion, absorption through the skin is the main route of exposure. The aerosol sunscreens introduce inhalation as a route of exposure that has not been as well studied as absorption through the skin. If you like aerosol sunscreen, just spray it on your hand to apply it to your face to avoid inhalation.

Q: Have you ever had a bad sunburn? What went wrong?

A: I have gotten a sunburn at the beach when I did not reapply sunscreen after spending a lot of time in the water. The terms waterproof and water-resistant are really just marketing ploys on sunscreen bottles. The FDA has cracked down on the use of waterproof on sunscreen containers and made companies qualify how long a sunscreen is water-resistant since then, but I found out the hard way.

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College of Charleston chemistry professor explains how sunscreen ... - Moultrie News

What’s the Most Toxic Chemical? – Gizmodo

Illustration: Angelica Alzona (Gizmodo)

People say America doesnt make things anymore. But what about toxic chemicals? We make so many of those, we throw half of them in rivers, for free. The problem is, it can be hard to get a handle on which of those chemicals are extremely toxic and which of them are merely somewhat toxic. If one or another shows up in a scan of your stomach, should you freak out or just be grateful it wasnt something worse? For this weeks Giz Asks, we reached out to a number of experts to find out what the most toxic chemical is.

Associate Professor, Environmental and Occupational Health, George Washington University

You may find good agreement on this question but some may disagree. Most any toxicology class I took would say that the most toxic chemical is Botulinum Toxin. Toxicity can be measured in a variety of ways but one popular way is how much it takes to kill 50% of the individuals. We call this LD50 or Lethal Dose for 50% of the individuals. And Botulinum Toxin produced by anaerobic bacteria has a very low LD50. It can be found in spoiled foods that have been sealed off by processes like canning. Ironically, its also the stuff that some pay to have injected into their faces to reduce wrinkles and make us look younger, more commonly known as botox. The botox is a very dilute form of the botulinum toxin that relaxes the smooth muscles around our eyes and forehead to reduce wrinkles.

Adjunct Professor, Environmental Health, Harvard University

Toxicity is traditionally thought of as a result of the substance properties along with the dose plus its duration. As we have begun to identify many serious toxicants, such as lead, mercury, dioxin, and asbestos, it has become obvious what needs to be done to protect people against them. In practice, lead and other poisons have thereby become less toxic, not because they disappear, but because we at least know what to do.

But there is another factor that needs to be emphasized: Whether we know enough to make the call or not. Some industrial chemicals have turned out to be much more toxic than we thought, in part because toxicity reports were hidden by the producers. Accordingly, too little attention was paid to the possible health risks from these secret chemicals. Belatedly, we are now beginning to understand that the perfluorinated chemicals, such as PFOA used for raingear and non-stick kitchen utensils, are highly persistent in the environment and also much more toxic to humans than was claimed in the past. Likewise, certain pesticides, such as chlorpyrifos, thought for decades to be safe, now turn out not being highly toxic. So in my mind, the most worrisome are those secretly toxic chemicals, like PFOA and chlorpyrifos, that we are unwittingly being exposed to.

Assistant Professor, Environmental Health, Boston University

For me lead is the most toxic chemical.

I know from toxicology that the most toxic chemicals are those that would make you sick or kill you fastest at smaller doses. However, when thinking broadly in a public health sense through history, I think that by far lead is the most toxic chemical for humans. Lead may not kill you at small doses like some more potent poisons, however lead is a silent killer as there is no safety threshold of lead in our bodies. Lead has been identified as a poison since the ancient cultures and was further reaffirmed as toxic during the Industrial Age. Lead, however, has made its way into our everyday life still today because it was used for decades in gasoline, paint, and water pipes, therefore contaminating our soil, our duelings, and our water infrastructure. It is also still found in many everyday items like electronics, jewelry, toys, and cosmetics.

Lead poisoned children often experience developmental, behavioral, and many other health problems. Lead is associated with higher criminality and adverse mental health outcomes, as well as a decline in cognitive function and intelligence. When older, lead can still continue to affect our neurological and cardiovascular health, and even cause cancer. Lastly, lead contributes to todays public health disparities as it is often found in substandard housing affecting those in most need. Disproportionally, also those holding the most dangerous jobs and their families are at a greater risk of suffering the consequences of lead myriad of health issues.

Professor, Environmental Health Sciences, University of Michigan

Botulinum toxin is considered the most toxic chemical, based on the fact that a very small amount of ita nanogram quantitywill kill a human being. Its a naturally occurring chemical, made by a bacteria (Clostridium botulinum). It most commonly develops when certain vegetables are not canned properly. You might know it by its pharmaceutical name, Botoxits used to treat certain health conditions, like chronic migraine headaches, and to smooth out wrinkles on the face. The chemical inhibits one of the chemical transmitters that goes from the nerve to the muscle to make the muscle contract. The muscles become relaxed and wont contract. If you have a sufficient amount of this neurotoxin in your lungs, for instance, the body will stop being able to breathe.

Ricin is a close second. Its another naturally occurring toxin, derived from the castor bean plant. Ricin targets a structure in the cell called the ribosome. It attaches to the outside of this cell structure, and then gets taken up into it, and poisons it from inside. A single ricin molecule can inactivate thousands of ribosomes in a minuteit shuts down protein synthesis very rapidly, and then the cells die. Famously, it was used in the 1978 Umbrella Assassin case, in which the Bulgarian dissident Georgi Markov was injected with a poison-tipped umbrella containing ricin while waiting for the bus. He felt a stinging pain, and subsequently died from the poisoning.

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What's the Most Toxic Chemical? - Gizmodo

Layoffs to hit blast-damaged tire and rubber chemical plant in Texas – FreightWaves

After fiery explosions shut down a chemical plant near Houston last year, the company that owns the facility is cutting about 100 jobs and plans to temporarily stop production at the site.

The TPC Group Plant in Port Neches, Texas, will now be used as a transportation terminal and distribution center as it rebuilds the site from the devastating Nov. 27 explosion, according to company officials.

As the company continues site response efforts, it has become clear that a potential rebuild of our Port Neches plant could take up to five years. Unfortunately, this timeline necessitates a reduction in our current workforce, Houston-based TPC Group stated in a Tuesday news release.

TPC Group said the layoffs will impact salaried, union and hourly workers. Around 100 employees in total learned Tuesday that their role will be eliminated, according to the TPC release.

No fatalities were reported in the explosion and fire at the 218-acre plant, but state and county officials ordered a mandatory evacuation for 50,000 people within a four-mile radius. The plant had as many as 183 employees prior to the accident, according to the TPC Group.

On Dec. 5, the U.S. Chemical Safety Board, an independent federal agency tasked with investigating the Port Neches plant explosion and fire, said a vapor cloud over a butadiene unit exploded in the early morning of Nov. 27, setting off the catastrophic explosion at the TPC Group. However, state and federal officials have not definitively determined what caused the TPC Group plant explosion and fire at this time.

The chemical manufacturing complex had produced synthetic rubber used for tires and hoses in the automotive industry. TPCs customers have included Goodyear Tires, Firestone Tires and Dow Chemical Co.

Texas Attorney General Ken Paxton filed a lawsuit against the TPC Group in Travis County District Court on Feb. 21. The suit alleges the TPC Group violated clean air laws multiple times from January 2018 to September 2019.

TPC Group officials responded to the lawsuit in a statement.

We remain focused on safely bringing this event to an end, minimizing impact to the environment while preserving the safety of the community, TPC Group spokeswoman Sara Cronin said. We have been working in cooperation with the relevant agencies and will continue to do so.

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Layoffs to hit blast-damaged tire and rubber chemical plant in Texas - FreightWaves

Chemistry’s Mahsa Lofti-Marchoobeh Wins Three Minute Thesis Final – University of Arkansas Newswire

Photo submitted by the Office of Graduate Student Support.

Mahsa Lotfi-Marchoobeh delivers her 3MT presentation to the audience.

Mahsa Lotfi-Marchoobeh is the winner of the University of Arkansas Three Minute Thesis competition. She earned the top prize for her presentation A Miniaturized Neural Probe for Detection of Chemicals in the Brain.

As the top finisher, Lotfi-Marchoobeh won $750 and entry to the Conference of Southern Graduate Schools' regional Three Minute Thesis contest.

Lotfi-Marchoobeh is a doctoral student in the Department of Chemistry and Biochemistry and is advised by Ingrid Fritsch. In the regional contest Lotfi-Marchoobeh will compete against roughly 80 students from universities across the Southern Region. The contest will be held March7 in Birmingham, Alabama.

Abass Oduola and Firuze Kordshuli tied for the People's Choice award, voted on by members of the audience. They each won $500 for their presentations. Oduola, a cell and molecular biology doctoral student advised by Griffiths Atungulu, presented Impact of Selected Infrared Wavelengths on Inactivation of Microbes on Rough Rice. Kordshuli presented Incorporation of Cu-SIO2 Nano Particles in PDA/PTFE Thin Films, as part of her doctoral research in mechanical engineering with advisor Min Zou.

Lotfi-Marchoobeh, Oduola and Kordshuli were three of five students who earned a spot in the University of Arkansas final. Each student booked their spot in the final by winning contests in their academic colleges in February.

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Chemistry's Mahsa Lofti-Marchoobeh Wins Three Minute Thesis Final - University of Arkansas Newswire

There’s a Cancer Treatment That Gives People ‘Night Vision’, And We Finally Know Why – ScienceAlert

Amongst all the different types of cancer treatment,photodynamic therapy- where light in is used to destroy malignant cells - might have one of the strangest side effects: patients are often better able to see in the dark.

Now researchers have figured out why this happens:rhodopsin,a light-sensitive protein in the retinas in our eyes,interacts with a photosensitive compound called chlorin e6, a crucial component of this type of cancer treatment.

The work builds on what scientists already know about the organic compound retinal, which is found in the eye and usually isn't sensitive to infrared light.

Visible light triggers retinal to separate from rhodopsin - this is converted into the electrical signal our brains interpret to see. While we don't get much visible light at night, it turns out this mechanism can also be triggered with another combination of light and chemistry.

Under infrared light and with a chlorin injection, retinal changes in the same way as it does under visible light.

"This explains the increase in night-time visual acuity," chemist Antonio Monari, from the University of Lorraine in France, told Laure Cailloce at CNRS.

"However, we did not know precisely how rhodopsin and its active retinal group interacted with chlorin. It is this mechanism that we have now succeeded in elucidating via molecular simulation."

Together with some high-level chemistry calculations, the team used a molecular simulation to model the movements of individual atoms (in terms of their respective attraction or repulsion), as well as the breaking or creating of chemical bonds.

The simulation was run for several months and chewed through millions of calculations before it was able to accurately model the chemical reaction caused by infrared radiation. In real life, the reaction would happen in mere nanoseconds.

"For our simulation we placed a virtual rhodopsin protein inserted in its lipid membrane in contact with several chlorin e6 molecules and water, or several tens of thousands of atoms," Monari told CNRS.

As chlorin e6 absorbs the infrared radiation, it interacts with the oxygen in the eye tissue, transforming it into highly reactive singlet oxygen as well as destroying cancer cells, singlet oxygen can also react with retinal and enable a boost in night vision, the molecular simulation shows.

Now scientists know the chemistry underpinning this weird side effect, they might be able to limit the chance of it happening in patients undergoing photodynamic therapy, who have reported seeing silhouettes and outlines in the dark.

Further down the line, this chemical reaction could even be harnessed to help treat certain types of blindness or over-sensitivity to light though it's absolutely not recommended trying to use chlorin e6 to give yourself superhuman night vision.

It's another example of the insights we can get from molecular simulations too, and how the most powerful computers on the planet are able to give us a deeper understanding of science than we would have otherwise.

"Molecular simulation is already being used to shed light on fundamental mechanisms for example, why certain DNA lesions are better repaired than others and enable the selection of potential therapeutic molecules by mimicking their interaction with a chosen target," Monari told CNRS.

The research has been published in the Journal of Physical Chemistry Letters.

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There's a Cancer Treatment That Gives People 'Night Vision', And We Finally Know Why - ScienceAlert

Why sacrificing chemistry for cash is one of the biggest mistakes agencies can make – PRWeek

However, experience tells me that overlooking bad chemistry with a future client because it involves a sexy brand name and big budget is the biggest mistake an agency can make.

The thing is, you cant force chemistry; its a gut feeling, an emotion, and it cant be scored with a number.

But we know most business models are built around bringing home the bacon cold, hard cash.

New business teams are tasked with expanding the pipeline and jumping at every possible chance to add to the companys bottom line.

The idea of turning down work based simply on the mood in the room seems ludicrous.

But while its no secret that chemistry is important to every successful relationship, we must not underplay its significance in producing the very best work from agencies.

A relationship based on trust and respect and, lets be real, basic manners is always going to triumph and accomplish better things than one based on lack of trust and a reluctance to engage.

You can mainly tell from that initial 60-minute face-to-face meeting how a relationship is going to go.

Just like in a happy marriage, fundamental, respectful human behaviours hold things together.

It helps keep energy levels high through the ups and downs of a campaign and maintains the magic that keeps creativity flowing and results flooding in.

The tension between profit and positive working relationships is an emotional dichotomy and believe me, Ive learned this the hard way.

Short-term gain for the P&L often leads to long-term pain if the fit just isnt right; bad team morale, over-serviced accounts, staff resignations and, ultimately, leaving an agency worse off than if it had just said its polite goodbyes at the chemistry meeting and walked away.

Instinct and smart business sense tell us to partner brands and clients that share similar values.

But do we do it enough? Probably not.

PRs needs to get better at giving potential clients their own feedback after chemistry meetings.

Rather than a one-way street of clients score-carding agencies, PRs need to set their own standards and criteria for prospective clients and stick to them.

These include shared values and cultures, engagement and attention to the conversation or presentation, as well as passion, enthusiasm and energy.

How many times have agencies turned up to chemistry meetings with key decision-makers checking emails or typing away at laptops?

These behaviours can be signs of how a future relationship might turn out.

Agencies need to experience how empowering it is to turn down work because you respect your talent and team too much to put them through the pain of working with bad clients.

Good chemistry results in a motivated workforce, better results and, ultimately, more like-minded clients.

Its a cycle of good energy.

So, when do you say no? How do you know when enough is enough?

Unfortunately, its not an exact science.

Yes, there are some obvious signs but really, your best guide is your gut. Your natural intuition is the one thing that never lies; you just have to trust it and be brave.

Sometimes the chemistry just isnt there even if the money is.

Natalie Neave is a director at Tin Man Communications

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Why sacrificing chemistry for cash is one of the biggest mistakes agencies can make - PRWeek

New England governors work together to curb industrial chemical use, ease impact on climate change – Boston.com

PROVIDENCE, R.I. (AP) The governors of Rhode Island, Massachusetts and Maine say theyre planning new regulations to reduce the use of a group of industrial chemicals primarily used in cooling, to ease the impact of climate change.

The states are preparing to regulate hydrofluorocarbons, or HFCs, according to the Rhode Island Department of Environmental Management. Democratic Gov. Gina Raimondo said they must use every tool available to take urgent action on climate change.

In the absence of federal leadership, Im proud to stand with governors on both sides of the aisle who recognize the dangers of HFCs. Its time to regulate these harmful pollutants, she said in a statement.

Massachusetts Republican Gov. Charlie Baker said that for Massachusetts to reach its ambitious greenhouse gas reduction targets, it needs to act to curb high-emitting sources like HFCs. Maine Democratic Gov. Janet Mills said states can forge important progress in fighting climate change.

Rhode Island officials expect to file new regulations this summer. The regulations will be substantially consistent with rules being developed by Massachusetts, Maine and other states that have joined the U.S. Climate Alliance, a group created in response to President Donald Trumps withdrawal from the 2015 Paris agreement on climate change, the environmental management department said.

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2-vehicle crash causes chemical spill and temporarily closes part of East Coast Highway near Newport Center – Los Angeles Times

A stretch of East Coast Highway near Newport Center was temporarily closed Tuesday after a two-vehicle crash caused a chemical spill, police said.

At about 7:45 a.m., Newport Beach police responded to the highways intersection with Newport Center Drive following a collision between a truck and a sedan, according to Sgt. Peter Carpentieri.

Carpentieri said the truck was carrying a cleaning chemical that spilled, prompting authorities to launch a cleanup operation.

One person was taken to Orange County Global Medical Center in Santa Ana with a complaint of pain, Carpentieri said.

He said he didnt know what chemical the truck was carrying or how much was spilled, but said there was no danger to the community and that the cleanup was out of an abundance of caution.

All westbound lanes on East Coast Highway were closed in the area until around 1:30 p.m., as were the southbound lanes on Newport Center Drive, Carpentieri said.

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2-vehicle crash causes chemical spill and temporarily closes part of East Coast Highway near Newport Center - Los Angeles Times

49ers’ bond makes them team of potential Super Bowl heroes – New York Post

Chemistry is a fickle thing in team sports. Some teams have it. Some dont.

The 49ers have it, and its a significant reason theyll be playing for the Lombardi Trophy in Super Bowl 2020 against the Chiefs on Feb. 2 in Miami.

The fact it was journeyman running back Raheem Mostert, playing for his seventh NFL team, who emerged as the star of the 49ers 37-20 rout of the Packers in Sundays NFC Championship game at Levis Stadium was as symbolic as it was fitting.

A week earlier, in the 49ers 27-10 divisional playoff win over the Vikings, it was a different running back, Tevin Coleman, who carried the load, rushing for two touchdowns.

We are a team that can win any kind of way, 49ers left tackle Joe Staley said. This is a really hard team to play against and hard to beat.

Ask any 49ers players or coaches and theyll point to the unmistakable chemistry on the team as a starting point to the teams success.

This is a very close locker room, Staley said. Its been really special to watch everyone work together. We have genuine fun coming to work. That is really rare.

Staley, in his 13th NFL season, should be considered an authority on this. Just three seasons ago, when coach Kyle Shanahan and GM John Lynch arrived and were about to begin their rebuild, he was strongly considering retirement because it no longer was fun coming to work after going 7-25 in the two seasons before the new regime entered the picture.

Shanahan and Lynch talked Staley into hanging in for one more rebuild, and Staley is thankful he listened, because hes having the time of his life. Hes going to the Super Bowl.

There are no egos, Staley said. Nobody cares about what credit they get.

Indeed, quarterback Jimmy Garoppolo was asked to throw only eight passes Sunday and, in two playoff games, hes thrown just 27 passes, completing 17 for 208 yards.

And he couldnt care less.

Tight end George Kittle, the 49ers leading receiver with 85 receptions this season and 178 in the past two years, caught one pass for 19 yards Sunday and has four receptions for 35 yards in the playoffs.

He, too, couldnt care less.

Ive been on some pretty tight teams, but this is right up there with them, said veteran cornerback Richard Sherman, who won a Super Bowl with Seattle. Its really special to be a part of.

This chemistry, Sherman noted, has not coincided with wins.

We had it before we were winning, he said, referring to last seasons 4-12 team.

Both Lynch and Shanahan actually wondered at some points last season if the team was content with losing because the players got along so well together.

Why is everyone so happy at 4-12? Lynch asked himself.

We had [chemistry] a lot better than I expected the first couple years and it didnt result in winning, Shanahan said. Sometimes we almost [wondered], Does that mean we need some worse guys? But we stuck with it. We brought in a few guys who thought the same as our [existing] guys. I feel like our team has been this way since the beginning. And when you do that and win, it only gets stronger.

Sherman, signed before last season, said, Getting the right guys, that was a big part of it. Guys who want to do everything they can to win, guys that are selfless, guys that are compassionate, guys that show humility to one another.

An incident that took place in the divisional round win exemplified the selflessness that has permeated their locker room. Cornerback Ahkello Witherspoon was beaten on a long TD pass to Minnesota receiver Stefon Diggs early in the game and was immediately benched by Shanahan, replaced by Emmanuel Moseley.

Instead of pouting on the sideline, Witherspoon marched right up to Shanahan and offered to take Moseleys snaps on special teams to keep him fresher on defense.

Teamwork makes the dream work, kicker Robbie Gould said.

I love these guys and when you have that kind of chemistry all through the organization, the skys the limit, said veteran receiver Emmanuel Sanders, who played on Super Bowl teams with Pittsburgh and Denver before he joined the 49ers this season.

Its the team John and Kyle built, right tackle Mike McGlinchey said. We have weapons all over the place. It doesnt matter whos up or down. We have guys all over the place that are capable of taking over football games. Raheem is the biggest proof of that.

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49ers' bond makes them team of potential Super Bowl heroes - New York Post

Will the 2020 Washington Nationals be able to recreate the chemistry that helped them win the World Series in – Federal Baseball

Washington Nationals GM Mike Rizzo talked during the Winter Meetings about all the things that came together that allowed the club to bounce back from a 19-31 start to claim the first Wild Card spot, which got them into the postseason, and, eventually, allowed them to battle their way to a World Series championship.

They counted us out, Rizzo said. They knocked us down. We had injuries early, we didnt perform like we wanted to, but not one person pointed a finger, no anonymous quotes, no clubhouse lawyers, no backbiting. Loyalty. And thats why were here today.

The clubhouse culture, and the relationship between the players on the club, allowed them to stick together and battle back after the rough start to go 74-38 from late May on and win five elimination games in the postseason on the way to the first World Series win by a D.C.-based team since 1924.

So, how do they go about recreating the vibe and the chemistry in the clubhouse that led them where they got in 2019?

Obviously you need a certain type of player, certain type of person in the clubhouse, reliever Daniel Hudson said in an MLB Network Radio interview this winter when asked about recreating what made last years Nationals special.

You need certain all different types of cultures, backgrounds in the clubhouse, and you need to have one or two or three vocal leaders, guys that have been around for a long time, like we had everybody has been talking about how we had the oldest team in baseball, but I also think and I think a lot of guys said it throughout our run, that if they had a young team, there was no way that they pull themselves out of a 19-31 start. So to have guys like [Ryan Zimmerman], to have guys like Howie Kendrick, to have guys like Matt Adams and [Max] Scherzer, and just guys that have been around the block, have seen everything thats possible in this game, except for, obviously, until we won four in a row on the road [in the World Series], its just one of those things where everybodys tugging from the same side of the rope, and its tough to create.

I think that you just have to let it manifest itself and get the right people in there.

As of this moment (8:51 EST on January 2nd), Hudson, Zimmerman, and Adams are still free agents. Kendrick returned on a 1-year/$6.25M deal.

Theres mutual interest with Zimmerman, the so-called Face of the Franchise continuing his 15-year career in D.C., and there is a bench spot still to be filled if Adams wants to bring his left-handed bat back to the nations capital for more backup work at first base.

But there have already been changes to the club that won it all (losing Anthony Rendon to free agency chief among them) and the roster the Nationals have on Opening Day will look decidedly different from the one that won it all just two months back.

Do I want all our guys back? manager Davey Martinez asked rhetorically when he spoke to reporters at the Winter Meetings early last month.

Absolutely. Is it going to happen? I dont know. But these guys, theyve got to think about their families, and things always change. So what I do know about our group of guys, our ownership, [Rizzo], myself, were very competitive, and were going to put a team out there that can compete in 2020.

Rendon is in LA. Gerardo Parra, the mastermind of the dugout dance celebrations and the Baby Shark phenomenon, signed on to play in Japan. Brian Dozier is a free agent. Asdrbal Cabrera is a free agent as well, though still unsigned.

Stephen Strasburg, whod tested the free agent market before coming back home to the Nationals on a 7-year/$245M deal, talked in the press conference announcing the contract about his comfort-level in D.C. playing a role in his decision to stick with his one employer as a pro.

Having a great support system here is key, Strasburg explained. Having Max here. Even Anbal Snchez that we brought here. [Patrick] Corbin. [Pitching Coach] Paul Menhart. The group of people that Im able to be around helps me achieve that and helps me focus on what I can do to continue to be successful.

I knew where I wanted to be, Strasburg added at another point, ... and I trust that moving forward the team is committed to winning and that we want to go out there next year keep going right where we left off.

Rizzo said during the same press conference that it took a village to win it all and it will take the same type of effort to try to repeat.

It took Stras, it took Max, it took a bunch of guys to come together when everybody was shoveling dirt on us this year, Rizzo explained. They proved that if you believe in yourself you can do special things.

Zimmerman, who is on record saying hell either play for the Nationals in 2020 or play more golf, talked during the World Series in October about the work Rizzo has done to make sure to get the right guys in the clubhouse.

Hes huge on chemistry and clubhouse stuff, not bringing in bad teammates, not bringing in bad guys, Zimmerman said.

Before he makes really any sorts of moves hell will reach out to us and ask if weve heard anything about this player or that player. So hes big on that kind of stuff.

I think weve always had good groups of guys here. And obviously talented, as well, but when you get that blend of talent and guys who are in it for the right things, you get special groups.

Martinez, whos entering the third year of the 3-year/$2.8M deal he signed with the club in late 2017, said his approach in 2020 will be the same one he pushed throughout 2019.

Status quo really, Martinez said. We went 1-0 all year. The message is going to be clear: Hey, were not going to sneak up on anybody this year, thats for sure. So weve got to be ready to go from day one. With that being said, I want them to understand, Hey, were going to do business like weve done in the past, and were just going to try to go 1-0 every day. Why change something that works?

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Will the 2020 Washington Nationals be able to recreate the chemistry that helped them win the World Series in - Federal Baseball

Advantages of characterising pharmaceuticals using DSC and TGA – Chemistry World

Click the button below to register3rd December 3pm (GMT)

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This webinar will give an overview of how APIs, excipients and formulations can be investigated by DSC (differential scanning calorimetry) and TGA (thermogravimetric analysis, sometimes in combination with a gas analysing system).

Presenting the webinar will be Gabriele Kaiser, who will explain the attributes and functions of DSC and TGA the most widely used thermal analytical methods for investigating pharmaceuticals.

For example, DSC is well suited to measure phase transformations such as melting, crystalization or glass transition. This is important for studying polymorphism phenomena as well as interactions between the components of a physical mixture.

In addition, TGA detects mass losses quantitatively and is ideally suited for compositional analysis or for revealing thermal stability regions of pharmaceuticals. Coupled to a gas analysing system it is additionally possible to identify the gas species evolved from a sample during heating.

This webinar has been designed to be especially useful for laboratory personnel, laboratory managers and project managers working in R&D and QC.

The NETZSCH Group is an owner-managed, internationally active technology company with headquarters in Germany. The business units Analyzing & Testing, Grinding & Dispersing as well as Pumps & Systems stand for individual solutions at the highest level. More than 3,600 employees in 35 countries and a worldwide sales and service network ensure customer proximity and competent service.

Our performance standards are high. We promise our customers Proven Excellence - outstanding performance in all areas. Since 1873, we have proven time and again that we can do this.

Dr Gabriele Kaiser studied chemistry in Erlangen, Germany. After receiving her doctorate in physical chemistry, she joined NETZSCH-Gertebau in 1991. She acquired her experience in thermal analysis of more than 25 years as Head of customer training, Head of applications laboratory and Head of scientific and technical communication department. Since 2017, she has held the position of Business field manager in pharmaceuticals, cosmetics and food.

Ben is the digital editor ofChemistry World magazine, producing video and podcasts to accompany the magazine and website. Prior to joining the Royal Society of Chemistry, he was the producer of the award-winning Naked Scientists, making local and national radio programmes for the BBC, the Australian Broadcasting Corporation and Primedia in South Africa.

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If you proceed by clicking Register below, the information you supply will be submitted toNetzsch for the purposes of enabling you to access the webinar and for marketing and communication purposes. Netzsch will store and handle your data according to their own Privacy Policy. If you want to update or remove the information stored by Netzsch, or withdraw your consent forNetzsch to use or retain your information, please contact Netzsch directly.By electing to submit this information, you are providing your consent to the information being submitted to Netzsch which will enable you to take part in the webinar. The information will be submitted to Netzsch only we will not send this information to any other third party.

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‘Christmas in the Lab’ celebrates 50 years of chemistry and comedy – University of Wisconsin-Madison

What began as a holiday treat for long-suffering freshman chemistry students has turned into a 50-year tradition. Professor Bassam Shakhashiri took to the stage to perform Once Upon a Christmas Cheery in the Lab of Shakhashiri to packed houses Saturday and Sunday, amazing and delighting with a series of chemistry experiments. If you couldnt score a ticket, watch it on PBS Wisconsin Dec. 16 at 5 a.m., Dec. 18 at 9 a.m., Dec. 20 at 11 a.m., Dec. 22 at 7 a.m., Dec. 24 at 5 a.m. or Dec. 25 at 11 a.m.

1 On stage at far left, Shakhashiri and Rodney Schreiner, a senior scientist emeritus, perform science accompanied by the Science Is Fun Band, led by Mike Leckrone. Photo by: Jeff Miller

2 Explosions the bigger and louder, the better are a key part of the show. Photo by: Jeff Miller

3 Bucky Badger helps Shakhashiri perform a color-changing experiment. Photo by: Jeff Miller

4 A color-changing chemical reaction gives the Tin Man, played by Sam Taylor, the heart he's always wanted as Dorothy and Shakhashiri look on. Photo by: Jeff Miller

5 Dorothy, played by Faith Oldenburg, prepares to make a rainbow from monochromatic chemicals. Photo by: Jeff Miller

6 Shakhashiri says his goal "is to trigger cerebral and emotional engagement to heighten the audience's joy in learning and to celebrate the role of science in society." Photo by: Jeff Miller

7 Santa Claus and Shakhashiri swirl some liquids... Photo by: Jeff Miller

8 ... to create gleaming silver holiday ornaments. Photo by: Jeff Miller

9 Attendees received a holiday goodie bag containing a "science is fun" button and experiments to try at home. Photo by: Jeff Miller

10 The Van Rossum family of Fitchburg show off their elf attire: from left, Joey, Dakota and Brenda. Photo by: Jeff Miller

11 A cascade of balloons ends the show. Photo by: Jeff Miller

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'Christmas in the Lab' celebrates 50 years of chemistry and comedy - University of Wisconsin-Madison

SVSU – Chemistry

From the wonder of covalent bonds to the intricacy of DNA, chemistry touches every aspect of the life we live and the world we help to create. When you are at SVSU, you study those bonds and relationships up close. Whether assisting faculty with their research or conducting your own, SVSU helps you NOT ONLY CONQUER THE CLASSROOM BUT DISCOVER THE WORLD BEYOND IT. And at SVSU, were graduating chemists who go on to become doctors, analysts, professors and researchers all over the country. Join themand start your Cardinal story.

Beneath the umbrella of chemistry, SVSU offers an elite and engaging set of majors for all kinds of driven scientific minds. From training for secondary chemistry educators to more specialized approaches such as business chemistry and chemical physics, the academic options at SVSU blend rigorous study in the classroom with creative and empowering training in the lab. SVSU faculty offer both brilliance and empathy to our students, not only helping you understand critical concepts but also working hard to support you in your personal career aspirations. Whether you have a passion for organic chemistry and inorganic chemistry or prefer something in the physical, analytical and environmental chemistriesSVSU offers the support you need to cultivate your passion and thrive.

At SVSU, well teach you the basics but also take you far beyond the classroom. Cardinal undergraduate students benefit from conducting their own research projects in a chemistry laba privilege rarely experienced at bigger universities. SVSU arms you with skills that outpace all competition as you consider options such as medical school, graduate programs and career opportunities with large research companies. In addition, SVSU offers chemistry students the chance to join a variety of organizations such as the Chemistry Club as well as participate in active research in the Kawkawlin River. Click to experience more of the Cardinal opportunities available at SVSU.

Many SVSU students aspire to enter the medical profession and many achieve their goal because at SVSU we not only offer you goal setting and progress check-ins with our pre-medical adviser, we also connect you with elite in-hospital programs such as the Medical Scribes program with Covenant Hospital. SVSU students have interned with distinguished health organizations such as Michigan State and have been accepted at leading medical schools across the nation, from our backyard in Lansing to Nashville. At SVSU you will find professors and opportunities to help you succeed in your pre-medical goals.

The life of a chemist can take you anywhere, be it the classroom, the boardroom or the research lab. SVSU is proud of our Cardinal graduates who achieve a 95 percent placement rate after graduation. Students who major in chemistry go on to work for organizations such as the EPA, NASA and the CDC. Youll also have the opportunity to apply your skills in power plants, universities, agriculture and pharmaceuticals or any production industry in the world. Click to explore even more of the options available when you pursue chemistry at SVSU.

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SVSU - Chemistry