McCormick School of Engineering的动态

?? Proud to share that I have successfully completed Advanced Transport Phenomena (CHE 822) and Advanced Chemical Reaction Engineering (CHE 831) at Michigan State University! ??♂? In Advanced Transport Phenomena, I delved into: Derivation of balance equations for mass, energy, and momentum. Constitutive equations for multicomponent fluids. Estimates of transport properties. Models for turbulent and boundary layer flows. Solving complex boundary value problems. ??♂? In Advanced Chemical Reaction Engineering, I explored: Characterization of solid catalysts. Heterogeneous reaction rate expressions. The interplay of mass and heat transport with chemical reactions in porous catalysts. Designing and optimizing fixed-bed and fluidized-bed reactors. Applications in industrial catalytic reactions. ??These courses have deepened my understanding of the fundamental principles and advanced techniques in chemical engineering, equipping me with the knowledge to tackle real-world challenges. A big thank you to my professors and peers for their support and collaboration throughout this journey. Excited to apply these skills in my future endeavors! #ChemicalEngineering #TransportPhenomena #ReactionEngineering #MSU #LifelongLearning #EngineeringExcellence

How does the balance between energy and disorder affect the stable state of materials? Learn this – and how to apply the fundamental laws of thermodynamics to solve materials science & engineering problems with "Thermodynamics of Materials," an online course from the MIT Department of Materials Science and Engineering (DMSE). Open now, self-paced. Learn more and enroll https://bit.ly/46zTYgm #Thermodynamics #MaterialsScience #Engineering #Education #OnlineCourses

In the June Issue of Nature Chemical Engineering, we stress the importance of Damk?hler - the person, his numbers, and his legacy for chemical reaction engineering systems. We feature a Perspective by Yuzhang Li, Xueliang Sun, Changhong Wang and co-workers on all-solid-state lithium–sulfur batteries, where the authors highlight key reaction engineering principles, such as mass transport, electrochemical kinetics and thermodynamics, and the relevance of the dimensionless Da number to elucidate transport and kinetics limitations in these systems. Free access link here (??): https://rdcu.be/dMb6S and a By the Numbers article by Daniele Marchisio who highlights the brief and brilliant career?of Gerhard Damk?hler, the impact and applications of his dimensionless numbers. Free access link here (??): https://rdcu.be/dMb8j Here are the links to the web versions: https://lnkd.in/eGd_FCRk https://lnkd.in/eGeGTbgM

Do you want to know more about our graduate program in Materials Science and Engineering? Check the following testimony of our student Shweta Lingayat. https://lnkd.in/gQF7XsVw #mechanicalengineering University of Michigan-Dearborn #materialscience

Great work being done at CIVS, especially relevant to the heart of US steelmaking that is northwest Indiana. The blast furnaces as they stand are not in vogue due to their high rates of carbon intensity. A lot work needs to be done on all fronts to either transition away from this technology or transform this technology to come even more efficient; which is possible. Physics-based visualizations like those being done at Purdue allow us to see what is likely to happen before going though live full scale trials helping to provide a needed shortcut. In the quest for decarbonization, it is important to not add to the economics as much as possible. While most of us want to decarbonize, most of us do not want to pay more to do it and not all of us can afford to pay more for things; and steel is everywhere! In my opinion, work must continue on all of the above technologies and this includes the blast furnace. Thanks to CIVS and the SMSVC for their contributions!

#FreepaperFriday is here again, and I want to do a bit of cross promotion about graduate courses available from Purdue University School of Materials Engineering, where we offer both online and in person courses tied to high temperature materials performance for enrolled students as well as continuing education opportunities at the MS and PhD level. It might be a hypersonic materials course from Prof. Rodney Trice or in this case, about superalloys (sign up this fall for an online superalloys course) from Prof. Michael Titus. So, this paper I'm picking this week is about Haynes 244 and gamma triple prime precipitates. Increasing the operating temperature and strength at temperature for alloys is a continual challenge, and Prof. Titus, with former PhD student Thomas Mann and michael fahrmann at Haynes International recently described how these precipitates evolve over time in this high performance alloy. https://rdcu.be/dMbZ4

?? ???? Chris Holland ???????????? ???? ?????? ?????? ?????????????????? ?????????????? ?????????? ?????????? ???? ?????????????????? ?????????? ?? ???????????????????? ??.?? ???? ???? ???????? ?????????????? ?????????????????? ???????? ???? ???????????? ???????? ?? Chris is a Senior Lecturer in the Department of Materials Science & Engineering at The University of Sheffield. Watch the video below to hear more about the types of testing Chris carries out and his thoughts on the technology being used today and his key takeaways from the Materials Testing Forum #materials #materialstesting #engineering

As an experienced someone with over a decade in the industry, I believe it's crucial to bridge the gap between academia and real-world challenges. Many companies grapple with technical issues, ranging from quick fixes to innovative solutions and research. What if these companies collaborated with engineering universities, presenting their challenges as project options for students? Imagine students tackling real industry problems, gaining hands-on experience in areas like Engineering Research and Design, Equipment Installation and Maintenance, Financial and Contract Management, and more. This initiative not only addresses industry needs but also equips students with practical skills, ready to make an impact from day one. Let's work together to cultivate the next generation of engineers and solve real-world problems!

Trinity College Dublin is leading the development of multicomponent systems, such as co-crystals and salts, using mechanochemical processes. Among all the techniques to do so, our partner has a vast expertise in one of them: spray drying. It involves atomizing a liquid solution into small droplets and then drying or cooling these droplets in contact with gas. ?? Once particles are formed, they are separated from the gas and collected. These methods are just proofs of concept, which will allow us to test and study these new mechanochemical routes towards scale-up. We must ensure everything works before building big stuff! Trinity College Dublin’s background of collaboration with industry will be vital to choose the correct path. #MeetOurPartners ?? ?? Learn more here: buff.ly/3SLojDH

A “new voice” for scientific collaboration ???? ?? The College of Engineering caught up with Jessica Menold, associate professor of engineering design and mechanical engineering, to discuss her selection as a New Voices member of The National Academies of Sciences, Engineering, and Medicine. Read the Q&A ? https://bit.ly/3wpINcc?? ?? #PennState #PennStateEngineering #PennStateSEDI #PennStateME #NewVoice?