Category Archives: Engineering
Penn establishes the Center for Precision Engineering for Health with $100 million commitment | Penn Today – Penn Today
The University of Pennsylvania announced today that it has made a $100 million commitment in its School of Engineering and Applied Science to establish the Center for Precision Engineering for Health.
The Center will conduct interdisciplinary, fundamental, and translational research in the synthesis of novel biomolecules and new polymers to develop innovative approaches to design complex three dimensional structures from these new materials to sense, understand, and direct biological function.
Biomaterials represent the stealth technology which will create breakthroughs in improving health care and saving lives, says Penn President Amy Gutmann. Innovation that combines precision engineering and design with a fundamental understanding of cell behavior has the potential to have an extraordinary impact in medicine and on society. Penn is already well established as an international leader in innovative health care and engineering, and this new Center will generate even more progress to benefit people worldwide.
Penn Engineering will hire five new Presidents Penn Compact Distinguished Professors, as well as five additional junior faculty with fully funded faculty positions that are central to the Centers mission. New state-of-the-art labs will provide the infrastructure for the research. The Center will seed grants for early-stage projects to foster advances in interdisciplinary research across engineering and medicine that can then be parlayed into competitive grant proposals.
Engineering solutions to problems within human health is one of the grand challenges of the discipline, says Vijay Kumar, Nemirovsky Family Dean of Penn Engineering. Our faculty are already leading the charge against these challenges, and the Center will take them to new heights.
This investment represents a turning point in Penns ability to bring creative, bio-inspired approaches to engineer novel behaviors at the molecular, cellular, and tissue levels, using biotic and abiotic matter to improve the understanding of the human body and to develop new therapeutics and clinical breakthroughs. It will catalyze integrated approaches to the modeling and computational design of building blocks of peptides, proteins, and polymers; the synthesis, processing, and fabrication of novel materials; and the experimental characterizations that are needed to refine approaches to design, processing, and synthesis.
This exciting new initiative, says Interim Provost Beth Winkelstein, brings together the essential work of Penn Engineering with fields across our campus, especially in the Perelman School of Medicine. It positions Penn for global leadership at the convergence of materials science and biomedical engineering with innovative new techniques of simulation, synthesis, assembly, and experimentation.
Examples of the types of work being done in this field include new nanoparticle technologies to improve storage and distribution of vaccines, such as the COVID-19 mRNA vaccines; the development of protocells, which are synthetic cells that can be engineered to do a variety of tasks, including adhering to surfaces or releasing drugs; and vesicle based liquid biopsy for diagnosing cancer.
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Air Force Research Laboratory awards Battelle Major Contract to Conduct Human Performance Research and Engineering for Warfighter Readiness – Business…
COLUMBUS, Ohio--(BUSINESS WIRE)--Battelle has received a five-year, $89.6 million task order contract to conduct human performance research and engineering for the Air Force Research Laboratorys (AFRL) 711th Human Performance Wing.
We are extremely excited to support AFRLs 711th Human Performance Wing mission by providing our research and engineering expertise from across Battelle to combine ideas, resources, and technologies to enhance AFRLs position as a world leader in the study and advancement of human performance, said Matt Zemanek, Division Manager in National Security.
Continuing its long heritage of managing U.S. government laboratory programs, Battelle will support AFRL by administering a Live-Virtual-Constructive (LVC) test bed located within the Warfighter Interactions and Readiness Division. The program utilizes a distributed, virtual environment to conduct research and training to support both Conventional and Special Operations Forces (SOF) as they pivot their train like you fight focus from regional conflicts to Joint All-Domain Operations (JADO) in Great Power Competition (GPC) environments. Because the test bed is an operational capability, Battelle developed an approach to mitigate the impacts of transition on the workforce, AFRL team, and military end-users who rely on the training.
Also on the team that will conduct the work with Battelle is Modern Technology Systems Inc (MTSI).
About Battelle
Every day, the people of Battelle apply science and technology to solving what matters most. At major technology centers and national laboratories around the world, Battelle conducts research and development, designs and manufactures products, and delivers critical services for government and commercial customers. Headquartered in Columbus, Ohio since its founding in 1929, Battelle serves the national security, health and life sciences, and energy and environmental industries. For more information, visit http://www.battelle.org.
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First Drive: GTO Engineering Recreates One of the Most Beautiful and Coveted Ferraris Ever Made – Robb Report
If you grew up in the 1980s, then an iconic scene from classic teen movie Ferris Buellers Day Off is probably etched in your memory; the one where a red Ferrari gets airborne while the title theme to Star Wars provides the soundtrack. This cinematic moment stars a Ferrari 250 California Spyder on a full-throttle joyride around Chicago. The Prancing Horse used during filming, however, was actually a fiberglass replica based on a humble MGB. The faux California Spyder Im testing, though, is rather different.
The latest Revival project from GTO Engineering, following its replica 250 GT SWB we drove earlier this year, is an inch-perfect, toolroom copy of the Ferrari original. Even Enzo himself might have struggled to spot the differenceunless he got behind the wheel. It turns out that this reborn 1960s supercar, which uses the identity of a scrapped classic Ferrari for legal purposes, has a few hidden secrets.
GTO Engineerings replica of the Ferrari 250 GT SWB California Spyder.Photo by Barry Hayden, courtesy of GTO Engineering.
As its name suggests, the Ferrari 250 California Spyder was designed for the US market, specifically the Golden State. Just 105 were made between 1958 and 1962, the first 50 with a 102-inch wheelbase (LWB), followed by 55 with a shorter 94-inch wheelbase (SWB). Today, both versions count among the rarest and most expensive Ferraris of all, as attested to by the fact that James Coburns California Spyder sold for $10 million in 2008, and few are ever seen outside of museums or private collections.
I wont attempt to get all four wheels off the ground today, yet I do plan to drive as il Commendatore intended. After all, the Revival may cost $1 million plus taxes, but its still a bargain compared to the real thing. Sadly, Im about 5,400 miles from California and the weather here is decidedly more British. Yes, its raining. Did I mention the car has no roof?
A birds-eye perspective of the toolroom copy.Photo: Courtesy of GTO Engineering.
Even through a mist of morning drizzle, the California Spyder replica looks jaw-droppingly gorgeous. The original was styled by Pininfarina, its hand-rolled aluminum body combining timeless Italian elegance with head-turning Hollywood glamour. A Ferrari with tail fins really shouldnt work, yet somehow it does. Other 250-series models, such as the Testa Rossa, LM and GTO, are more exciting, but theyre not as achingly beautiful.
Frankly, few cars sound this exquisite either. The naturally aspirated, triple-carb Colombo V-12 is built in-house by GTO Engineering and offered in three states of tune: a stock 3.0-liter Ferrari spec with 280 hp, a 3.5-liter with 320 hp, or a 4.0-liter with 350 hp. With the middling 3.5-liter motor and just 2,315 pounds to shift, this example hits 60 mph in 6 seconds and has a hair-tousling top speed of 150 mphyet it feels faster.
Originally made for the US market, the Ferrari 250 GT Spyder featured a left-hand-drive configuration, replicated here on the recreation.Photo by Barry Hayden, courtesy of GTO Engineering.
After a few steady miles to let the oil warm through and the manual shift to loosen up, I finally get a chance to let rip. The V-12 wakes up at 3,000 rpm, then piles on speed with dizzying intensity. Dont forget, this is an engine that won Le Mans multiple times, and its racing roots are still readily apparent. Hearing its metallic war cry in the open air is a privilege that makes getting wet seem totally worthwhile.
The cars naturally aspirated, triple-carb Colombo V-12 is built in-house by GTO Engineering.Photo by Barry Hayden, courtesy of GTO Engineering.
On hedge-lined lanes strewn with deep puddles, Im initially reluctant to push too hard. However, despite a live rear axle, skinny Michelin tires and complete lack of driver aids, this car has a chassis that quickly breeds confidence. The Revivals reinforced sills are much stiffer than those of the 1960s Ferrari, which adds accuracy to the slow-paced steering and sharpens its neutral yet eminently throttle-adjustablecornering attitude. Its straightforward, old-fashioned fun.
As for the lack of a roof, GTO Engineering founder Mark Lyon says the company can create one, but he thinks the Spyder looks better without it. Also, he reckons most cars will find homes in hotter climes, including California, where clinging, rain-soaked jeans are rather less likely. At least my Mazda has heated seats for the long drive home.
While Ferraris original model has reached eight figures at auction, the GTO Engineering replica costs $1 million.Photo by Barry Hayden, courtesy of GTO Engineering.
Some Ferrari purists dislike the idea of replicas, no matter how faithful to the original. But when the genuine article is too valuable to drive, these cars recreate an experience that is otherwise out of reach. Whether youre blasting along country lanes in southern England, cruising Stateside on Pacific Coast Highway or simply watching it drive by, the Revival offers an experience to savor. Its a car to seize the day and live in the moment. I think Ferris Bueller would approve.
Learn more aboutRobb Reports 2022 Car of the Year at the event taking place in Napa Valleyhereand in Boca Ratonhere.
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Nearly All of Evolution Is Best Explained by Engineering – Discovery Institute
In recent articles, I have summarized lectures at CELS (Conference on Engineering in Living Systems) that described an engineering model for adaptation and explained how adaptation derives from organisms internal capacities (here,link).Now I will summarize another CELS lecture that expanded upon these themes by outlining a second complementary engineering model for adaptation.
Standard evolutionary theory assumes that genetic variation expands throughDNA mutating or otherwise altering randomly. Concurrently, natural selection and other processes transform species over time gradually throughnumerous, successive, slight modifications. The results are unpredictable, and in different subpopulations they can vary greatly.
In stark contrast, the presented engineering-based model assumes that organisms adapt to the environment using the same engineering principles seen in human tracking systems (here,here). More specifically, they continuously monitor the environment and track pre-specified environmental conditions. When the right conditions occur, internal mechanisms induce pre-determined responses such as targeted genetic changes, physiological adjustments, and/or anatomical alterations. These adaptive processes are directed by irreducibly complex systems that consistently include three components:
The resulting changes are targeted, rapid, and often reversible. They are also predictable and repeatable. And their magnitude can range from minor alterations to dramatic transformations, but changes are bounded and predefined.
Over the past few decades, every facet of the engineering model has been increasingly affirmed by everyone from mainstream biologists to third-wave evolutionists to leading creationists (here,here,here,here). The strongest supportive evidence comes from studies of what have been termed natural genetic engineering (NGE) and phenotypic plasticity.
NGE refers to genetic alterations that are not random. Instead, they result from cells employing highly complex machinery to direct targeted DNA modifications. Leading researcher James Shapiro describes the processes in a2016 review article:
Combinatorial coding, plus the biochemical abilities cells possess to rearrange DNA molecules, constitute a powerful toolbox for adaptive genome rewriting. That is, cells possess ReadWrite Genomes they alter by numerous biochemical processes capable of rapidly restructuring cellular DNA molecules. Rather than viewing genome evolution as a series of accidental modifications, we can now study it as a complex biological process of active self-modification.
He further elaborates on the editing systems in a2017 review article:
Like all classes of cellular biochemistry, NGE DNA transport and restructuring functions are subject to control by regulatory circuits and respond to changing conditionsNGE activities typically affect multiple characters of the variant cell and organism. Consequently, major phenotypic transformations can occur in a single evolutionary episode and are not restricted to a gradual accumulation of numerous, successive, slight modifications.
One could contest Shapiros claims about what NGE accomplished in the past, but his general description clearly matches the engineering models central features. The regulatory circuits that respond to environmental conditions correspond to sensors integrated with logic mechanisms. And the transport and restructuring functions correspond to specified output responses. In addition, the DNA modifications are targeted, rapid, and bounded as the engineering model expects.
NGE has been identified in all domains of life from the simplest to the most complex. Yeast cells respond to nutrient starvation by increasing themutation rates at specific locationsreferred to as mutational hot spots. And the remarkable diversity in dog breeds is not the result of completely random mutations, but it also results from mutational hot spots that allow for increases in targeted genetic variation that can drive rapid adaptation. BiophysicistsJohn Fondon and Harold Garner noted:
The high frequency and incremental effects of repeat length mutations provide molecular explanations forswift, yet topologically conservative morphological evolutionWe hypothesize that gene-associated tandem repeats function as facilitators of evolution, providing abundant, robust variation and thus enabling extremely rapid evolution of new forms.
Equally striking, plant genomes contain DNA segments known as transposable elements (TEs) that can move to new locations, allowing them to alter the activity of local genes. Specific environmental stimuli can initiate relocation to target locations (here,here), and stimuli can activate the TEs, resulting in adaptive benefits. For instance, TEs modify gene regulation in maize to confer drought tolerance, alter flowering time, and enable plants to grow in toxic aluminum soils (here,here).
Phenotypic plasticity refers to an organisms ability to transform its anatomy and physiology in response to environmental stimuli. The changes do not result from genetic alterations but from internal adaptive mechanisms. Developmental biologist Ralf Sommer enumerated these mechanisms essential components in a2020 review article:
plasticity requires developmental reprogramming in the form of developmental switches that can incorporate environmental information. However, the associated molecular mechanisms are complicated, involving complex loci, such as eud-1, that function as switches and GRNs. While still early, it is likely that switch genes point to a general principle of plasticity because other examples of plasticity also involve complex switch mechanisms.
The incorporation of environmental information tacitly implies the presence of sensors and signal transmission pathways. The switch incorporating the sensory output equates to a logic-based analyzer, and the gene regulatory network (GRN) activity corresponds to the output response. In summary, the core components perfectly match those of the engineering model for adaptation.
Phenotypic plasticity has been observed in numerous species in diverse taxa.Gulls of the familyLaridaetrack the sodium level in their blood with sensors in heart vessels. When the level reaches a threshold, gulls generate a specialized gland that extracts excess sodium from the blood and excretes it through the beak. If the gull migrates to a freshwater environment, the gland disappears.
Cichlid fish demonstrate phenotypic plasticity for multiple traits.Muschicket al.in a 2011 studyraised Midas cichlids on food with different hardnesses. The different diet groups developed significantly different pharyngeal jawbones, and the differences resembled qualitatively the differences in jawbones found in specialized species.Hreret al.in a 2019 study exposed Midas cichlids to light of different frequencies. In response to a change in frequency, the cichlids switched the expression of cone opsin genes crucial for color vision in only a few days. Other such mechanisms likely exist, based on the observation that cichlids rapidly converge to thesame basic forms repeatedly.
As a final example, fish residing in cave environments display distinctive traits such as reduced eyes and pigmentation. The standard evolutionary story is that these traits gradually developed through natural selection. But experiments over the past decade on the effects of exposing fish to cave-like conditions are changing the narrative.
Rohneret al.in a 2013 studyraisedA. mexicanusembryos in water with low conductivity mimicking cave conditions. The embryos developed into adults with significantly smaller eyes.Corral and Aguirre in a 2019 studyraisedA. mexicanusin different temperatures and different levels of water turbulence. The variant conditions resulted in adult fish differing in vertebral number and body shape. For instance, fish raised in more turbulent water displayed more streamlined bodies and extended dorsal and anal fin bases that improved their mobility in that environmental condition. AndBilandijaet al.in a 2020study raised the same species in darkness, and the fish developed many cave-related traits such as resistance to starvation and altered metabolism and hormone levels. Future research will likely uncover even more examples where cave-specific adaptations result not from random mutations but from internal mechanisms.
The engineering model not only best fits the latest experimental and observational data, but it can help guide future research. Whenever a species rapidly and predictably adapts to a specific environmental condition (here,here,here), investigators can expect that changes are directed by sensors, logic-based analyzers, and output response mechanisms. They can then focus research on identifying and understanding these components.
Traditional evolutionary processes do play a part in biological adaptation, but mounting evidence demonstrates that their role is relatively minor in the drama of life (here,here). Instead, engineered adaptive mechanisms that direct targeted modifications perform on center stage.
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Nearly All of Evolution Is Best Explained by Engineering - Discovery Institute
A Day in the Life of Mechanical Engineer Alia – All Together – Society of Women Engineers
Alia is an R&D Product Development Engineer at TE Connectivity. Learn more about her work in the medical device industry and how you can #BeThatEngineer!
I was homeschooled my whole life until college. Junior and senior year of high school, I did the Post-Secondary Education Option (PSEO) full-time where I completed over 60 college credits. I then attended the University of St. Thomas in St. Paul, MN where I obtained my Bachelor of Science degree in Mechanical Engineering and my minor in Chinese. I graduated in 2020.
I chose the engineering route because growing up, I loved math, puzzles, and activities that involved critical thinking. I have many uncles and cousins who are engineers, so I grew up hearing about their work and how much they enjoyed being an engineer. I chose Mechanical Engineering because I wanted to go into a broad discipline. I wasnt 100% sure what kind of industry I wanted to work in, and mechanical engineering gave me the flexibility to look into multiple different industries.
In the end, I chose the medical device route.
After my freshman year of college, I was an FDA Testing Analyst Intern at Augustine Surgical Inc. I coordinated the testing of a new medical device and made sure that it complied with federal regulations. After my sophomore year, I was a Research & Development (R&D) Intern at AVEKA Inc. Here, I gathered data for projects that involved hammer milling, jet milling, and spray drying. In addition, I analyzed the impact of particle sizes on products being made and gained experience in writing technical reports. I started my third internship as an Engineering Intern at Nordson Medical at the beginning of my second semester of junior year and continued until the end of my senior year. I got to work on designing fixtures to protect medical products and testing whether the product met certain specifications. All three of these internships made me realize how much I loved working in the medical device industry, knowing that Im helping people and possibly even saving their lives.
Outside of my classes and internships, during all four years of college, I swam for the womens swim team and helped streamline the swim teams recruiting and overnight system as their Overnight Coordinator. In addition, I was a member of the Society of Women Engineers.
After I graduated, I worked as a Process Development Engineer at Boston Scientific. One of my favorite projects was when we were developing a device that removed clots from the body. This project was in its earlier stages, which allowed a ton of collaboration with team members, brainstorming, and testing. This project allowed me to be very hands-on, which is something that I love.
I am currently an R&D Product Development Engineer at TE Connectivity where I work with catheters for the heart. My job involves updating processes for the manufacturing line. I also develop fixtures and tooling to improve usability, to decrease the amount of scrap or waste, and to ensure continuous improvement of the products I work on. I love the collaborative atmosphere in the office. Working as a team is critical in engineering; if you cant work well with others, your project and your work wont be too successful.
To high school girls interested in engineering, dont be afraid to try something new and always ask questions. Engineering can be daunting, but its also so rewarding. If youre unsure if engineering is for you, try taking an introductory engineering class, sign up for a STEM or engineering camp, or reach out to an engineer and see what their day-to-day life is like. In high school, I attended two engineering camps (one at the University of Minnesota and one at Notre Dame). These camps confirmed that engineering was a degree I wanted to pursue, and they also helped me narrow down what engineering discipline I wanted to go into.
Kristine Loh
Kristine Loh is a PhD student in Chemical Engineering at the University of Minnesota - Twin Cities and the Day in the Life reporter for the high school SWENext newsletter. She graduated from Drexel University in 2020 with her bachelors in Chemical Engineering and her masters in Materials Science and Engineering.
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A Day in the Life of Mechanical Engineer Alia - All Together - Society of Women Engineers
Triveni Engineering bets big on ethanol blending, to invest Rs 350 crore to increase distillation capacity – Economic Times
Sugar and engineering major & Industries plans to invest Rs 350 crore to double its alcohol manufacturing capacity over the next nine months, as the company seeks to gain from the governments push for ethanol blending in petrol.
With the investment, the company will set up two new distilleries and increase the capacity at its existing two distilleries, eventually raising its alcohol manufacturing capacity from 320 kilolitres per day (klpd) to 660 klpd.
The target of 660 klpd is expected to be achieved by the first quarter of the next financial year, according to Tarun Sawhney, managing director of Triveni Engineering & Industries.
The actual return on capital employed for this new capex is going to be very, very high because the enhanced revenue for such a small amount of capital is quite large, Sawhney told ET.
The governments ethanol blending programme involves mixing ethanol with petrol to reduce pollution and the import of crude oil. This will also create an additional revenue stream for farmers and the sugar industry, as cane syrup is primarily used to produce ethanol.
In June this year, the Centre had advanced the target of achieving E20, or blending 20% ethanol in petrol, by five years to 2025. At present, the national average for ethanol blending is 8-9%.
Over 90% of Trivenis revenue comes from its sugar and alcohol business. It has grown at a compounded annual growth rate (CAGR) of 13% over the past four years.
Sawhney attributes this to increased production of sugar--from 600,000 tonnes to almost a million tonnes a year over this period. This was done by increasing the capacity across its seven sugar mills in Uttar Pradesh and by helping farmers who supply to its mills to increase their yield.
Over the last five years, I can certainly say this about our farmers--their take home income has grown by 3x. And it is because of the increase in yield, because sugarcane is paid for by weight, Sawhney said.
However, Sawhney said that over the coming years, the growth in revenue will be aided more by its engineering businesses, which include manufacturing power transmission systems and water purification plants.
The engineering businesses are going to be growing at a faster pace compared to sugar. And the reason is simple. Our increases in production are going to be limited, he said.
Sanjay Manyal of ICICI Securities wrote in August that Triveni was one of the most efficient sugar companies in India, having the third-largest sugarcane crushing capacity.
TEL would be a beneficiary of higher global sugar prices, given it is holding large sugar inventories and is capable of exporting white sugar (fetches better realisations). With the negligible impact of lower sugarcane yields, recovery rates, higher export potentials (and) sustainable distillery operations, we believe the company would witness stronger operating profit growth, Manyal wrote.
On Tuesday, shares of Triveni Engineering & Industries closed 1.77% higher on the BSE at Rs 174.9.
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Electrical Engineering – Utah State University
American Council of Engineering Companies: ACEC is the voice of America's engineering industry. Council members, numbering more than 5,300 firms throughout the country, are engaged in a wide range of engineering works that propel the nation's economy and enhance and safeguard America's quality of life. The council's mission is to contribute to America's prosperity and welfare by advancing the business interests of member firms.
Engineers without Borders: The USU chapter of Engineers without Borders is a nonprofit organization. Contributions help the organization build projects that developing communities will own and operate. EWB works with communities worldwide to improve the quality of life by promoting sustainable development in water supply, housing construction, food production, energy, sanitation, transportation, communication, and employment. EWBs vision is a world where all people have the knowledge and resources needed to meet basic human needs. It involves international professionals and students inall fields as they build this vision together.
National Engineers Week Foundation: This foundation strives to be the global leader in cultivating and celebrating the engineering profession. Its cornerstone program is Engineers Week. All programs are designed to reach out to current and future generations of engineering talent.
Utah Engineers Council: The UEC is an umbrella organization of 14 different local chapters and sections of engineering societies.The purpose of the UEC is to advance the art and science of engineering and to provide a forum for communication between the varying engineering societies.
Tau Beta Pi Honor Society: Tau Beta Pi is the only engineering honor society representing the entire engineering profession. It is the nation's second-oldest honor society. It marks, in a fitting manner, those who have conferred honor upon their alma mater by distinguished scholarship and exemplary character as students in engineering, or by their attainments as alumni in the field of engineering. There are now collegiate chapters at 236 U.S. colleges and universities, active alumnus chapters in 16 districts across the country, and a total initiated membership of more than 500,000.
Engineering Student Council: The Engineering Council is an organization of engineering students. The council provides students with the opportunity to communicate opinions and suggestions to the College of Engineering administration, university administration, and the Associated Students of Utah State University. The Engineering Student Council represents students who are in the College of Engineering, communicates with engineering students about concerns, and publicizes programs and activities.
Future Association of Tomorrows Engineers: FATE is the USU regional campus engineering club. It aims to promote and support engineering throughout the USU regional campus system via social networking, community outreach, recruitment, and fun (possibly geeky) activities.
Institute of Electrical and Electronics Engineers Student Chapter: IEEE is the worlds largest professional association dedicated to advancing technological innovation and excellence for the benefit of humanity. IEEE and its members inspire a global community through IEEE's highly cited publications, conferences, technology standards, and professional and educational activities.
National Society of Black Engineers Student Chapter: NSBE has more than 35,700 members and is one of the largest student-governed organizations in the country. Founded in 1975, NSBE now includes more than 450 colleges, pre-college, and technical professional/alumni chapters in the United States and abroad. NSBEs mission is to increase the number of culturally responsible black engineers who excel academically, succeed professionally, and positively impact the community. NSBE offers its members leadership training, professional development, mentoring opportunities, career placement services, and more.
Society of Hispanic Professional Engineers Student Chapter: SHPE is a national organization that aims to build unity through diversity of engineering students. The club holds fund-raising and service activities, participates in engineering-related campus wide activities and competitions, and hosts activities with local middle and high school students aimed at science and technology. The national organization holds an annual conference, which is the major event and the largest technical and career conference for Hispanics in the country. The conference is an opportunity for engineering companies and corporations to recruit top talent from SHPE.
Society of Women Engineers: Utah State Universitys Society of Women Engineers is open for both male and female members. SWE is committed to encouraging women engineers to attain high levels of educational and professional achievement, serve as a center of information for women in engineering, and promote the value of diversity.
With the second oldest undergraduate research program in the nation, USU offers students a wide range of opportunities to gain hands-on research experience. USUs Honors Program prepares students for excellent graduate programs by helping them build relationships with professors, participate in research projects, take smaller, more intensive classes, and develop leadership skills.
AggieAir Flying Circus: AggieAir Flying Circus provides high-resolution, multispectral aerial imagery using a small, unmanned aerial system. The system is able to map small areas quicker, more frequently, at greater resolution, and at a smaller cost than conventional remote sensing. Some applications for AggieAir include monitoring of soil moisture and evapotranspiration in agriculture, riparian habitat mapping, road and highway surface monitoring, wetland mapping, and fish and wildlife tracking.
Anderson Center for Wireless Teaching and Research: This center provides state-of-the art wireless communication teaching and research with emphasis on industry-relevant design projects.
Center for Active Sensing and Imaging: CASI uses radar-like, laser-based LIDAR technology to measure distances instead of radio waves for a variety of industrial applications, including sitting wind farms, controlling emissions, and rapid replacement of bridges, runways, and other infrastructure.
Center for Atmospheric and Space Sciences: CASS is recognized nationally and internationally as a progressive research center with advanced space and upper atmospheric research programs. CASS scientists are tackling the adverse consequences of space weather. Undergraduate and graduate students are involved in numerous research projects in CASS that provide opportunities to program computers, analyze data, and build instrumentation.
Center for High Performance Computing: HPC at USU is a research service center that serves and expands the computational needs of the USU community. HPC at USU houses a 256-processor cluster called Uinta, with three networks.
Center for Self-Organizing and Intelligent Systems: CSOIS is a multi-disciplinary research group at USU that focuses on the design, development, and implementation of intelligent, autonomous mechatronic systems, with a focus on ground vehicles and robotics.
Center for Space Engineering: CSE is a multi-disciplinary group of faculty at USU involved in space technology, systems, and science. The center brings together academics, industry, and government to advance the understanding of the space environment and to train the next generation.
Energy Dynamics Laboratory: EDL bridges the gap between academia and industry, confronting the challenges of prototyping, deployment, and commercialization of enabling technologies for renewable and advanced energy systems. USU researchers originate projects to derive energy from non-fossil fuels, such as biofuels, wind, and solar power. With EDLs collaboration, research develops through pilot projects to commercial application.
Energy Laboratory: This lab seeks to develop solutions to America's most intractable energy problems through scientific and technological innovation. It provides a cohesive framework permitting faculty, students, and partnering institutions to focus on contemporary energy-related research issues.
Environmental Management Research Group: EMRG is a research unit of the Utah Water Research Laboratory focused on integrated watershed management and systems analysis of environmental problems. EMRG provides software development, watershed and water quality modeling, and GIS data analysis service to internal and external entities directed at solving integrated watershed and environmental management-related problems of a variety of scales.
Institute for Intuitive Buildings: Because a considerable amount of energy is wasted in lighting, cooling, and ventilating commercial buildings, the I2B team will create real-time scene measurement and interpretation techniques for electric lighting systems.
Rocky Mountain NASA Space Grant Consortium: RMNSGC is one of 52 National Space Grant Consortia in the United States. As a member of the consortium, USU has awarded more than 100 fellowships to students interested in aerospace-related education and careers. The majority of Space Grant student awards include a mentored research experience with university faculty and NASA scientists, engineers, and technologists.
Space Dynamics Laboratory: SDL is known for sending 500+ successful experiments into space and brings in $54 million per year in revenue, the majority coming from grants, contracts, and appropriations. SDLs expertise in the development of sensors and calibration, small satellites and real-time intelligence has made it an internationally known organization in the space arena.
Synthetic Biomanufacturing Center: SBC uses the chemical makeup present in single-cell organisms to transform raw materials into environmentally friendly products, such as low-cost bioplastics, biodiesel, light energy, and pharmaceuticals.
Utah Transportation Center: The UTC uses its expertise in natural hazards to research congestion chokepoints, evacuation occurrences, infrastructure renewal, and operations as it relates to multi-modal transportation.
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Xianda Shen Appointed Assistant Professor of Civil & Environmental Engineering at Clarkson University – Clarkson University News
Xianda Shen has been appointed assistant professor of civil & environmental engineering at Clarkson University.
He received his Ph.D. in geosystems engineering and master of science degree in computational science engineering from Georgia Institute of Technology, his master of science in tunnel and underground engineering from Tongji University, and his bachelor of science degree in civil engineering from Southwest Jiaotong University.
Shens research interests include multi-scale geomechanics, thermo-hydro-chemo-mechanical couplings in porous and fractured media, energy-storage systems, and the application of data-driven methods to geotechnical engineering.
He has co-published in Journal of Geophyscial Research, Rock Mechanics and Rock Engineering, International Journal of Solids and Structures, International Journal for Numerical and Analytical Methods in Geomechanics, Acta Geotechnica, and Petroleum Geoscience.
Shen also serves as a reviewer for a number of academic journals, including International Journal of Rock Mechanics and Mining Science, Rock Mechanics and Rock Engineering, Natural Resources Research, Bulletin of Engineering Geology and the Environment, Granular Matter, International Journal for Numerical and Analytical Methods in Geomechanics, International Journal of Damage Mechanics, and Gotechnique Letters.
Prior to joining Clarkson, he served as a postdoctoral fellow at Northwestern University.
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Biomedical Engineering Professor Elected as Fellow of the American Heart Association – University of Arkansas Newswire
Photo Submitted
Morten Jensen
Morten Jensen, associate professor of biomedical engineering, was recently awarded the title of Fellow of the American Heart Association. In a letter from the leadership chair of the Council on Basic Cardiovascular Sciences, Dr. Elizabeth McNally, wrote that Jensen was recognized for his scientific and professional accomplishments, volunteer leadership and service to the AHA.
The prestigious AHA Fellowships are awarded to physicians, scientists and other healthcare professionals with a particularly productive career in advancing the treatment of cardiovascular diseases and stroke. The fellowship comes with the right, privilege and entitlement to use the designation FAHA, recognizing the selection to be in "the world's most eminent organization of cardiovascular and stroke professionals."
"I am honored by this recognition," Jensen said. "Our work in collaboration with clinicians and colleagues in Arkansas, the United States and beyond helped me towards this. My focus is to advance medical procedures and devices to improve treatment of patients suffering from cardiovascular disease. In addition, educating not just students, but also the public, about the importance of our work is one of the top priorities for the AHA."
Raj R. Rao, professor and head of biomedical engineering, said that this national recognition for Jensen signifies the importance of Jensen's research. "I am pleased about Dr. Jensen's election as an AHA Fellow," Rao said. "We encourage our faculty to research ideas and technologies that are of interest to them. Over the years, Dr. Jensen has demonstrated his dedication to creating solutions and devices for cardiovascular surgeries. This recognition indicates that his peers and professional organizations recognize the excellent research to which he strives," Rao concluded.
To learn more about Jensen's research, visit the Cardiovascular Biomechanics Laboratory's website: https://cblab.uark.edu/
Find more news about the Department of Biomedical Engineering.
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Engineers Day: Five Signs That You Were Born To Be an Engineer – News18
Engineers build nations and mould ideas into reality. Our apartments, the spires of temples, designs of aeroplanes, computer programmes and almost everything in our sight evolve from an engineers brain. There are almost always some signs, right from childhood, that one is born to construct reality. Below we look at five signs that suggest an engineering career for you.
You like taking things apart
Some folks particularly love dismantling items like clocks, cell phones, radios, walkmans, or toys. If you were extra curious as a child and took apart a lot of stuff to learn about their inner workings, you might do well as an engineer. Hopefully, you didnt swallow any such parts and gave your parents a heart attack.
You love to build stuff
You may love building sandcastles, making oddly interesting shapes with sticks and clay, your Lego bricks or Do-It-Yourself (DIY) toy sets like Mechanix. If the answer is yes, you might wear those white plastic caps one day and attend a construction site or become an inventor.
You are logical and analytical
Engineers have a meticulous thought process and problem-solving skills. They like to tackle an issue from all sides by careful examination of the details. If you love solving problems, then an engineering job might make you feel right at home.
You like maths and science
Many may start sweating at the prospect of solving a math equation, chemistry or physics formulas, but not budding engineers. Anything that requires logical deconstruction or problem-solving is their chief skill. If you are as described above, an engineering degree may do you wonders.
You are obsessed with the latest technology
Many of us like window shopping online about the latest television or laptop in the market. A budding engineer, however, is obsessed with emerging tech. They look at the parts that make the whole such as the software and hardware used, the calibration, the chipsets, et all. If youre one of them, you might do great as an electronic engineer.
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Engineers Day: Five Signs That You Were Born To Be an Engineer - News18