289 Tau Beta Pi Scholars
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Chemical Process Modeling in Modelica
Chemical Process Modeling in Modelica Ali Baharev Arnold Neumaier Fakultät für Mathematik, Universität Wien Nordbergstraße 15, A-1090 Wien, Austria Abstract model creation involves only high-level operations on a GUI; low-level coding is not required. This is the Chemical process models are highly structured. Infor- desired way of input. Not surprisingly, this is also mation on how the hierarchical components are con- how it is implemented in commercial chemical process nected helps to solve the model efficiently. Our ulti- simulators such as Aspen PlusR , Aspen HYSYSR or mate goal is to develop structure-driven optimization CHEMCAD R . methods for solving nonlinear programming problems Nonlinear system of equations are generally solved (NLP). The structural information retrieved from the using optimization techniques. AMPL (FOURER et al. JModelica environment will play an important role in [12]) is the de facto standard for model representation the development of our novel optimization methods. and exchange in the optimization community. Many Foundations of a Modelica library for general-purpose solvers for solving nonlinear programming (NLP) chemical process modeling have been built. Multi- problems are interfaced with the AMPL environment. ple steady-states in ideal two-product distillation were We are aiming to create a ‘Modelica to AMPL’ con- computed as a proof of concept. The Modelica source verter. One could use the Modelica toolchain to create code is available at the project homepage. The issues the models conveniently on a GUI. After exporting the encountered during modeling may be valuable to the Modelica model in AMPL format, the already existing Modelica language designers. software environments (solvers with AMPL interface, Keywords: separation, distillation column, tearing AMPL scripts) can be used. -
C:\Users\June\Documents\Corvair Files\NJACE\Fanbelt Archive\2019
May 2019 NJACE is going to the Restored Rusty Relics’ North Jersey Auto Show & Swap Meet at Bergen Community College 400 Paramus Road, Paramus Sunday, May 19 See the complete details in this issue! This Bizarro cartoon has been making the rounds of the internet in recent weeks. But we have a question: Why does the license plate on the Corvair read “New York” instead of “Gotham?” The Fanbelt is published monthly by the New Jersey Association of Corvair Enthusiasts (NJACE), Inc. P.O. Box 631, Ridgewood, NJ 07451. Deadline for contribution is the 20th of each month. Classified-style advertising of interest to Corvair owners is available, free of charge, to all persons. A commercial ad can be placed in an issue of the Fanbelt for $50 per full page, $30 per half page, $20 per quarter page, and $10.00 per business-card. (Generally, classified advertisers are those offering individual cars and/or a limited number of parts, while commercial advertisers are those offering services and/or parts from stock. NJACE reserves the right to make this determination). All advertising must be PC-compatible or type-able copy. NJACE is a chapter of the Corvair Society of America (CORSA), Inc., P.O. Box 607, Lemont, IL 60439. Meetings of NJACE are held periodically at locations and times as announced in this newsletter. All interested persons are welcome. Additional events and activities are held throughout the year. Membership in NJACE is open to individuals and families. Information and applications are available at any meeting or by writing to NJACE, P.O. -
Chemical Engineering Careers in the Bioeconomy
BioFutures Chemical engineering careers in the bioeconomy A selection of career profiles Foreword In December 2018, IChemE published the final report of its BioFutures Programme.1 The report recognised the need for chemical engineers to have a greater diversity of knowledge and skills and to be able to apply these to the grand challenges facing society, as recognised by the UN Sustainable Development Goals2 and the NAE Grand Challenges for Engineering.3 These include the rapid development of the bioeconomy, pressure to reduce greenhouse gas emissions, and an increased emphasis on responsible and sustainable production. One of the recommendations from the BioFutures report prioritised by IChemE’s Board of Trustees was for IChemE to produce and promote new career profiles to showcase the roles of chemical engineers in the bioeconomy, in order to raise awareness of their contribution. It gives me great pleasure to present this collection of careers profiles submitted by members of the chemical engineering community. Each one of these career profiles demonstrates the impact made by chemical engineers across the breadth of the bioeconomy, including water, energy, food, manufacturing, and health and wellbeing. In 2006, the Organisation for Economic Co-operation and Development (OECD) defined the bioeconomy as “the aggregate set of economic operations in a society that uses the latent value incumbent in biological products and processes to capture new growth and welfare benefits for citizens and nations”.4 This definition includes the use of biological feedstocks and/or processes which involve biotechnology to generate economic outputs. The output in terms of products and services may be in the form of chemicals, food, pharmaceuticals, materials or energy. -
National Honor and Recognition 1
National Honor and Recognition 1 National Honor and Recognition • National Honor Societies (p. 1) • National Recognition Societies (p. 1) National Honor Societies The following members of the Association of College Honor Societies have established chapters at Auburn: Alpha Delta Mu (Social Work), Alpha Epsilon (Biosystems Engineering), Alpha Epsilon Delta (Pre-Medicine), Alpha Kappa Delta (Sociology), Alpha Lambda Delta (Freshman Scholarship), Alpha Phi Sigma (Criminal Justice), Alpha Pi Mu (Industrial Engineering), Alpha Sigma Mu (Metallurgical & Materials Engineering), Beta Alpha Psi (Accounting), Beta Gamma Sigma (Business), Cardinal Key (Junior Leadership), Chi Epsilon (Civil Engineering), Eta Kappa Nu (Electrical and Computer Engineering), Kappa Delta Pi (Education), Iota Delta Sigma (Counselor Education), Lambda Sigma (Sophomore Leadership), Mortar Board (Student Leadership), Omega Chi Epsilon (Chemical Engineering), Omicron Delta Kappa (Student Leadership), Kappa Omicron Nu (Human Sciences), Phi Alpha Theta (History), Phi Beta Kappa (Arts and Sciences), Phi Eta Sigma (Freshman Scholarship), Phi Kappa Phi (Senior Scholarship), Phi Lambda Sigma (Pharmacy Leadership), Phi Sigma Tau (Philosophy), Pi Delta Phi (French), Pi Lambda Sigma (Pre-Law), Pi Sigma Alpha (Political Science), Pi Tau Sigma (Mechanical Engineering), Psi Chi (Psychology), Rho Chi (Pharmacy), Sigma Delta Pi (Spanish), Sigma Gamma Tau (Aerospace Engineering), Sigma Pi Sigma (Physics), Sigma Tau Delta (English), Tau Beta Pi (Engineering), Tau Sigma Delta (Architecture -
File C Interests Jim Freeman's Story Complete Document
Jim Freeman's Story: complete document Page 1 of 16 Jim Freeman's Own Story May 24, 1990 My first introduction to the motor business, in any active way, was at Ardrossan, SA in l924, and the first vehicle I drove was a Ford T. My father, Stanley Walter Gilroy Freeman (hereafter SWG) had joined S.A. (Bert) Cheney in promoting the l924 Dodge at the Kadina Show, and had been celebrating a few sales. My repeated requests to be allowed to drive were finally approved. I was to be given the test of driving home from the show. 'If you can miss the bumps, you can have a go'. This all happened for me at the tender age of 11 years. I missed the bumps well enough, for Dad did not wake up until we were going up the hill into Ardrossan. Early Days The Dodge 4 of l922-25 became recognised as the 'sturdy car for hard work'. It was, indeed, a really good, medium-weight, long-life vehicle. It was novel in its 12 volt electrical system, combination generator/starter motor, and 3-speed gearbox with the 'shift' positions opposite to the general trend. The Dodge was the next most popular to Ford, and about double the price. It was in such unit that Dad took the family to see Harry Butler land in Minlaton, after having flown his little red monoplane across the gulf from Adelaide, in 1924. Dad and Harry were great friends, and I can picture Harry Butler now, climbing from his plane, all rigged out with goggles, leather helmet, coat and gloves, exclaiming to Dad, 'I could see the bottom of the sea from up there!' Their friendship led to much in the future. -
Department of Electrical & Computer Engineering
Department of Electrical & Computer Engineering Texas Tech University | Edward E. Whitacre Jr. College of Engineering About the Department of Electrical emerge from the lab sequence as confident, competent & Computer Engineering engineers who are highly sought after by Industry. The ECE Department has earned national and international recognition in Nano-Photonics, Pulsed Power, Nano- Preparing you for a Global Future Technology, Electric Energy, Radar Technology, and Bio-Medical applications including genomics. The ABET- • The Department of Electrical and Computer accredited undergraduate curriculum encompasses Engineering (ECE) is very research-active, with electrical engineering and computer engineering. competitive awards of more than $7 million in 2019, The ECE department houses modern laboratories, representing more than $250k/per faculty member. classrooms, and computer facilities for both teaching and • Graduate students have opportunities for course research. Several classrooms and a large undergraduate work and research experience leading to masters teaching laboratory have undergone recent renovations and doctoral degrees in electrical engineering. and support state of the art pedagogical methods. • The ECE Department has a number of very active research laboratories that are led by world renowned Points of Pride faculty and employ graduate as well as undergraduate • World renowned faculty students, providing outstanding • 7 Teaching Academy faculty members educational experiences. • Faculty & Staff provide personal attention -
Handbook of Chemical Engineering Calculations
Source: HANDBOOK OF CHEMICAL ENGINEERING CALCULATIONS SECTION 1 PHYSICAL AND CHEMICAL PROPERTIES Avinash Gupta, Ph.D. Senior Principal Chemical Engineer Chevron Lummus Global Bloomfield, NJ 1.1 MOLAR GAS CONSTANT 1.2 EQUATIONS AND LIQUID-LIQUID 1.2 ESTIMATION OF CRITICAL EQUILIBRIUM DATA 1.44 TEMPERATURE FROM EMPIRICAL 1.21 ACTIVITY-COEFFICIENT-CORRELATION CORRELATION 1.2 EQUATIONS AND VAPOR-LIQUID 1.3 CRITICAL PROPERTIES FROM EQUILIBRIUM DATA 1.46 GROUP-CONTRIBUTION METHOD 1.3 1.22 CONVERGENCE-PRESSURE 1.4 REDLICH-KWONG EQUATION VAPOR-LIQUID EQUILIBRIUM K OF STATE 1.5 VALUES 1.49 1.5 P-V-T PROPERTIES OF A GAS 1.23 HEAT OF FORMATION FROM MIXTURE 1.8 ELEMENTS 1.64 1.6 DENSITY OF A GAS MIXTURE 1.12 1.24 STANDARD HEAT OF REACTION, 1.7 ESTIMATION OF LIQUID STANDARD FREE-ENERGY CHANGE, AND EQUILIBRIUM CONSTANT 1.67 DENSITY 1.14 1.25 STANDARD HEAT OF REACTION FROM 1.8 ESTIMATION OF IDEAL-GAS HEAT HEAT OF FORMATION—AQUEOUS CAPACITY 1.15 SOLUTIONS 1.68 1.9 HEAT CAPACITY OF REAL GASES 1.20 1.26 STANDARD HEAT OF REACTION FROM 1.10 LIQUID HEAT CAPACITY— HEAT OF COMBUSTION 1.68 GENERALIZED CORRELATION 1.22 1.27 STANDARD HEAT OF FORMATION 1.11 ENTHALPY DIFFERENCE FOR IDEAL FROM HEAT OF COMBUSTION 1.70 GAS 1.24 1.28 HEAT OF ABSORPTION FROM 1.12 ESTIMATION OF HEAT OF SOLUBILITY DATA 1.71 VAPORIZATION 1.24 1.29 ESTIMATION OF LIQUID VISCOSITY 1.13 PREDICTION OF VAPOR AT HIGH TEMPERATURES 1.73 PRESSURE 1.27 1.30 VISCOSITY OF NONPOLAR AND 1.14 ENTHALPY ESTIMATION— POLAR GASES AT HIGH GENERALIZED METHOD 1.29 PRESSURE 1.73 1.15 ENTROPY INVOLVING A PHASE 1.31 -
The Tau Beta Pi Association
THE TAU BETA PI ASSOCIATION SUMMARY OF ACTIONS OF THE 2009 CONVENTION Convention Actions (Convention minutes pages in parentheses) Constitution Amendment Approved by the Convention BUT Subject to Ratification by the Chapters 1. Require an Executive Council to take office within 11-14 months after its election— Constitution Art. III, Sec. 3 (h) Convention minutes pages 11, 13, and 14 Bylaw Amendment Approved by the Convention NOT Subject to Ratification by the Chapters 2. Allow half-stipend scholarships to be awarded — Bylaw XI, Sec. 11.01, 11.03 (a), and 11.07 Convention minutes pages 11, 13, and 14 3. Remove the word such — Bylaw XI, Sec. 11.08 Convention minutes pages 11, 13, and 14 4. Gave the R.C. Matthews Outstanding Chapter Award for 2008-09 to Florida Alpha at the University of Florida. Honorable mention was given to Michigan Gamma at the University of Michigan. (p. 17) 5. Gave the R.H. Nagel Most Improved Chapter Award for 2008-09 to Minnesota Alpha at the University of Minnesota–Twin Cities. (p. 17) 6. Granted new chapters to Western Kentucky University and Boise State University. (p. 9) 7. Applauded the presentation of 30 Chapter Project Awards for excellent project work in 2008-09 to: Alabama Alpha, California Chi, Michigan Delta, Minnesota Alpha, New Jersey Alpha, Ohio Alpha, Ohio Kappa, Pennsylvania Zeta, Puerto Rico Alpha, South Carolina Alpha, South Dakota Alpha, West Virginia Alpha, and Wisconsin Delta, and to the following 17 chapters that had won three consecutive Chapter Project Awards and were presented Chapter Performance Scholarships of $500 each: Alabama Epsilon, California Alpha, California Psi, District of Columbia Alpha, Florida Alpha, Florida Gamma, Indiana Delta, Iowa Alpha, Michigan Gamma, Michigan Epsilon, Michigan Iota, New Mexico Gamma, New York Tau, Ohio Iota, Texas Alpha, Vermont Beta, and Wyoming Alpha. -
When Chemical Reactors Were Admitted and Earlier Roots of Chemical Engineering
When Chemical Reactors Were Admitted And Earlier Roots of Chemical Engineering 9 Biographical sketch of L. E. ‘Skip’ Scriven L. E. 'Skip' Scriven is Regents' Professor and holder of the L E Scriven Chair of Chemical Engineering & Materials Science at the University of Minnesota. He is a Fellow of the Minnesota Supercomputer Institute, founded the Coating Process Fundamentals Program, and now co-leads it with Professor Lorraine F. Francis. He is distinguished for pioneering researches in several areas of fluid mechanics, interfacial phenomena, porous media and surfactant technologies, and the recently emerged field of coating science and engineering. He promoted close interactions with industry by showing how good theory, incisive experimental techniques, and modern computer-aided mathematics can be combined to solve industrial processing problems. He graduated from the University of California, Berkeley, received a Ph.D. from the University of Delaware, and was a research engineer with Shell Development Company for four years before joining the University of Minnesota. He received the AIChE Allan P. Colburn Award four decades ago, the William H. Walker Award two decades ago, the Tallmadge Award in 1992, and the Founders Award in 1997. He has also been honored by the University of Minnesota and the American Society for Engineering Education for outstanding teaching. He has co-advised or advised many undergraduate, graduate and postdoctoral research students, including over 100 Ph.D.’s. Elected to the National Academy of Engineering in 1978, he has served on several U.S. national committees setting priorities for chemical engineering and materials science research. In 1990-92 he co-chaired the National Research Council's Board on Chemical Sciences and Technology, and in 1994-97 he served on the governing Commission on Physical Sciences, Mathematics, and Applications. -
DMAC Registry [email protected]
DMAC Registry Dear Durant Motors Automobile Club Member: We are asking for your help to create an updated, accurate Registry of existing and produced Durant related automobiles. The value of gathering this data in the Registry is many fold. It is mainly to accurately preserve the history of all Durant vehicle production, and the companies and factories which produced our vehicles. It also acts as an accurate historical source for researchers and restorers, and as a starting place where technical dialogue between like-model owners can begin. The preservation of accurate historical facts is a task requiring many hours of research and cross referencing of specific details. This can only be accomplished with input from DMAC members and other interested parties providing accurate and complete as possible details. The result is a Registry of the best possible Durant information for DMAC members and those interested in Durant. This is not only the history of Durant, this is your club's heritage and deserves a place in the great world of automotive history. The interaction of DMAC members sharing and participating in the updating of the Registry will no doubt result in many new and valuable friendships, a brotherhood if you will, of Durant Partners for your hobby and for generations to come. The current Registry has not been up-dated for some years now. It is sadly lacking in recent participation to provide complete and accurate details of existing vehicles. Details maybe as little as the numbers from an existing ID plate (if that is all that remains of a car), or it may be some or all of the data requested on the Registry Data Entry Form. -
Roadmap Chemical Reaction Engineering an Initiative of the Processnet Subject Division Chemical Reaction Engineering
Roadmap Chemical Reaction Engineering an initiative of the ProcessNet Subject Division Chemical Reaction Engineering 2nd edition May 2017 roadmap chemical reaction engineering Table of contents Preface 3 1 What is Chemical Reaction Engineering? 4 2 Relevance of Chemical Reaction Engineering 6 3 Experimental Reaction Engineering 8 A Laboratory Reactors 8 B High Throughput Technology 9 C Dynamic Methods 10 D Operando and in situ spectroscopic methods including spatial information 11 4 Mathematical Modeling and Simulation 14 A Challenges 14 B Workflow of Modeling and Simulation 15 C Achievements & Trends 20 5 Reactor Design and Process Development 22 A Optimization of Transport Processes in the Reactor 22 B Miniplant Technology and Experimental Scale-up 24 C Equipment Development 25 D Process Intensification 29 E Systems Engineering Approaches for Reactor Analysis, Synthesis, Operation and Control 32 6 Case studies 35 Case Study 1: The EnviNOx® Process 35 Case Study 2: Redox-Flow Batteries 36 Case Study 3: On-Board Diagnostics for Automotive Emission Control 37 Case Study 4: Simulation-based Product Design in High-Pressure Polymerization Technology 39 Case Study 5: Continuous Synthesis of Artemisinin and Artemisinin-derived Medicines 41 7 Outlook 43 Imprint 47 2 Preface This 2nd edition of the Roadmap on Chemical Reaction Engi- However, Chemical Reaction Engineering is not only driven by neering is a completely updated edition. Furthermore, it is the need for new products (market pull), but also by a rational written in English to gain more international visibility and approach to technologies (technology push). The combina- impact. Especially for the European Community of Chemical tion of digital approaches such as multiscale modeling and Reaction Engineers organized under the auspices of European simulation in combination with experimentation and space Federation of Chemical Engineering (EFCE) it can be a contri- and time-resolved in situ measurements opens up the path to bution to help to establish a Roadmap on a European level. -
D. Jason Owens Jeremy B. Dreiling Blake M. Andrews Justin T. Brown
Centennial Fellow No. 21 Fife Fellow No. 82 Fife Fellow No. 84 D. Jason Owens Blake M. Andrews Jeremy B. Dreiling Jason is a chemi- Blake earned his civil Jeremy graduated cal engineering and engineering degree from the architec- mathematics major at Ohio University, tural engineering from the University where he graduated program at Kansas of South Carolina, first in his engineer- State University. He where he had the ing class. He devel- now begins an archi- opportunity to tutor oped an interest in tectural engineering students, individu- teaching while men- dual-degree program ally, teach in front of toring and helping at his alma mater. a class, and perform other students with His initial course- research in three dif- their studies. As he work will include ad- ferent laboratories. This dual interest re- begins graduate school at the University vanced studies in mechanical, electrical, and mains strong as he begins pursuing a Ph.D. of Illinois at Urbana-Champaign, his early plumbing systems design for buildings, with in chemical engineering at the University studies will include finite-element analysis, particular attention to healthcare-related of Minnesota-Twin Cities as an NSF fellow. computer-aided structural design, and dy- design. In addition, he plans to become His research interests are in biomedical namic structural analysis. He will then turn accredited in the leadership in energy and engineering, although his particular area of to research involving positioning remote environmental design (L.E.E.D.) course concentration is unknown. His first semester sensors in members and structures for use in before he graduates.