mammalian cells before switching to teaching. Dr. Hillsley’s primary focus for the past 10 years has been teaching the Unit Operations Lab. Dr. Hillsley is married and has four children.Dr. Xueyi Zhang, Pennsylvania State University Zhang is the John J. and Jean M. Brennan Clean Energy Early Career Assistant Professor of Chemi- cal Engineering at the Pennsylvania State University. Zhang’s teaching interests include mass transfer, unit operations, and chemical engineering lab. Zhang’s research interests are porous materials synthe- sis, membrane for separation, and catalysis. Before joining the Pennsylvania State University in 2015, Zhang obtained his Ph.D. from the University of Minnesota in 2013 (with Michael Tsapatsis
, she developed a passion for undergraduate education. This passion led her to pursue a career as a lecturer, where she could focus on training undergraduate chemical engineering students. She has been teaching at UK since 2015 and has taught Fluid Mechanics, Thermodynamics, Computational Tools and the Unit Operations Laboratory. She is especially interested in teaching scientific communication and integration of process safety into the chemical engineering curriculum.Prof. Samira Azarin Samira Azarin is an Assistant Professor of Chemical Engineering and Materials Science at the University of Minnesota. She earned her B.S. in chemical engineering from the Massachusetts Institute of Technol- ogy in 2006 and went
interested in student attitudes andsubsequent performance. To accomplish this, we will continue to track a single cohort ofstudents from material balances through the remainder of their career in the chemicalengineering program. We will keep track of student retention, subsequent courses and respectiveinstructors, as well as performance, attitudes, and external experiences such as research orinternships. We also are in the planning stages of a more homogeneous course model for materialbalances. The revised course model will focus on exposing students to problems that engage thefull spectrum of learning styles. As learning styles describe the cognitive processes involved ininformation gathering and problem solving, we believe it is important to teach
toassembly minimized concerns regarding the safe operation of the car.References:[1] Lewis RS, Moshfeghian A, Madihally SV. Engineering Analysis in Chem-E-Car Competition. ChemicalEngineering Education. 40(1): 66-72, 2006.[2] Rhodes M. Chem-E-Car Downunder. Chemical Engineering Education. 36(4): 288-291. 2002.[3] AIChE, Chem-E-Car Competition Rules, 2006 http://www.aiche.org/Students/Awards/ChemeCar.aspx[4] Patton CL, Ford LP. Chemically Powered Toy Cars: A Way to Interest High School Students in a ChemicalEngineering Career. Proceedings of the 2003 ASEE Annual Conference & Exposition. Session 2213.[5]. Bowman FM. ChemECar Experiments in a Chemical Engineering Freshman Seminar. Proceedings of the 2004
engineering among the next generation in the United States has beendeclining at an alarming rate for several decades. This may be caused from intimidation thatthese subjects pose to primary and secondary education students. Educating these students (K-12th grade) on the social and economic benefits of pursuing careers in science and technologythrough fun, unique, and interactive parties is an excellent opportunity and is the focus of thispaper. These science-oriented parties can be used for a plethora of occasions including: birthdayparties, Bar Mitzvahs, lock ins, celebrations, and much more. Typically, educational outreachprograms teach students who are already interested in science and engineering. Theseengineering parties are a surprise and
1, the students in ourmaterial and energy balance are no different, showing a strong preference for a visuallearning style (average score = - 5 on the Felder-Silverman scale). By creating a tool toaid in transforming written information into visual images, we believed that we couldhelp students develop an essential skill that they will need not only in the material andenergy balance class, but throughout their careers as engineers. Visual/Verbal 25 20 20 15 15 12 12 12 10 9 6 5
AC 2009-1609: A DESKTOP EXPERIMENT MODULE: HEAT TRANSFERAdrienne Minerick, Mississippi State University Adrienne Minerick is an Assistant Professor of Chemical Engineering at Mississippi State University. She received her PhD and M.S. from the University of Notre Dame and B.S. from Michigan Technological University. Since joining MSU, Dr. Minerick has taught the graduate Chemical Engineering Math, Process Controls, Introduction to Chemical Engineering Freshman Seminar, Heat Transfer, and Analytical Microdevice Technology courses. In addition, she is an NSF CAREER Awardee, has served as co-PI on an NSF REU site, PI on grants from NSF and DOE, and is the faculty advisor for MSU’s
,management skills, economics, intellectual property protection, and teaching methodology thatcould be considered as seminar topics. We had few seminars on ethics, legal studies andengineering attributes. Within the department, we have a faculty member who has degrees inlaw as well as chemical engineering. This individual discusses topics such as importance ofmaintaining a laboratory notebook, issues with intellectual property, and how to apply for apatent. Another faculty member who worked in the industry prior to academic career discussedon difference between academic environment and industrial practice, and plagiarism in themodern digital world. One could rotate between topics by assessing interest of students throughsurveys. This also reduces the
involved in (mostly)industry-sponsored enterprise projects, in one of twenty enterprises. For furtherinformation about the MTU Enterprise Program, consult the references available in theengineering education literature1-6.The core enterprise experience occurs in the project work courses. There is a differentcourse number that can be correlated to the appropriate semester of the student’sacademic career. The courses are ENT1960 (2nd Semester Freshman), ENT2950 (1stSemester Sophomore), ENT2960 (2nd Semester Sophomore), ENT3950 (1st SemesterJunior), ENT3960 (2nd Semester Junior), ENT4950 (1st Semester Senior), ENT4960 (2ndSemester Senior). All courses are one credit except for ENT4950 and ENT4960 whichare two credits. Project work credits beyond the
progress through their academic career. The experience culminates whenstudents sign up for 2 credits of project work per semester during their senior year. Atthis time these students are often expected to take a leadership role within their respectiveenterprise. The seniors are also expected to work twice as long on the project. Projectwork credits beyond the 6 or 7 listed in Table 1 are optional.It is noted that the courses listed in Table 2 are co-listed in other departments at theUniversity. Courses are taught by • faculty with affiliations in the School of Business and Economics • engineering faculty who also advise engineering enterprises • instructors in the Engineering Fundamentals department who focus only on
Society for Engineering Education, 2019 Using Active Learning and Group Design Activities to Increase Student Perceptions of a Course’s Educational ValueIntroductionIn the chemical engineering curriculum, courses in process economics and preliminary processdesign aim to introduce students to topics that will be crucial to their success in their seniorcapstone projects as well as in their future careers. At the study institution, this course, entitledProcess Economics and Green Design, has traditionally been offered in a lecture-only format andhas at times suffered from poor attendance and low participation in class discussions. Thestudents’ perception of the educational value of the course has been lower than expected(average
The author has been fortunate to teach a wide variety of courses in our curriculum – fromthe multidisciplinary freshman engineering design course to the material & energy balancecourse to the junior year transport course to the senior year capstone design course. This hasbeen a great opportunity to help the students make progress with their engineering skills, and towitness their development over their entire college career. Up until capstone design, the studentsusually solve clearly defined technical problems while selecting appropriate mathematicalrelationships. In contrast, design requires the students to use different skills, which rely muchmore on practical knowledge – which is why an effort was made to distribute students
participating in these activities willbe able to effectively present technical content to a technically-versed audience and gain atoolbox to self-evaluate themselves in future presentations without a significant increase in timecommitment by the instructor. Page 26.927.21. IntroductionThe ability of students to communicate effectively is important for both their employability1 andsustained career success2. In fact, a study conducted by Cole and Tapper3 identified oralcommunication as the third highest trait necessary (behind problem solving and teamwork) byrecent Northeastern University Engineering graduates for their jobs. All of this considered
study at their own pace outside of the classroom or can beused to supplement lessons in the classroom. In addition, online videos are a useful referencematerial that students can review as needed later in their careers. Videos have also been used to demonstrate a wide variety of experiments and techniques.For example, the Harvard BioVisions series includes videos on aseptic technique and DNAmicroarray experiments.6 Several excellent experiment videos are also available on videosharing websites like Vimeo and YouTube (e.g. purification of green fluorescent protein byhydrophobic interaction chromatography11). The largest library of video experiments is providedby the Journal of Visualized Experiments (JOVE), a peer-reviewed online
Paper ID #17745A Pharmacokinetic Simulation-Based Module to Introduce Mass Balancesand Chemical Engineering Design Concepts to Engineering FreshmenGrace Katherine Harrell, Oklahoma State University Graduate of Oklahoma State University class of 2016 with a degree in chemical engineering. Currently pursuing a career in software engineering at Quorum Business Solutions in Dallas, TX.Ms. Alexandra Nicole McPeak, Oklahoma State University In 2016, Alexandra McPeak earned a B.S. in Chemical Engineering from Oklahoma State University. She is currently employed by International Paper at their Valliant, OK Mill. Her current role is in
Paper ID #23695Just the Flippin’ FAQsDr. Julie L. P. Jessop, University of Iowa Dr. Julie L. P. Jessop is an Associate Professor of Chemical & Biochemical Engineering at the University of Iowa. She received her B.S. in 1994 and her Ph.D. in 1999, both in Chemical Engineering from Michi- gan State University. Dr. Jessop’s research interests include spectroscopy, epoxide/acrylate photopoly- merizations, dental resins, electron-beam polymerizations, and polymers from renewable resources. She has received a National Science Foundation CAREER award, the 2017 University of Iowa President & Provost Award for
approximately half of students are first-time students and half are second-time students. • Experiments are categorized into three “focus areas”: Classical, Environmental, and Biological. Students complete a survey to identify their focus area preference based on their career interests. • Students are surveyed to identify other students with whom they prefer not to be grouped (based on past group work experiences or personal conflicts) and dates when they would prefer not to attend lab (e.g. due to job interviews or other personal commitments).A note on team assignment criteriaThe development of strategies for team assignment that maximize the performance and learningexperience of engineering students is an active area of
answer towards the idea of a standalone course.Many programs have integrated process safety and ethics within the senior undergraduate levelcourses. However, this can be far too late in the curriculum to make the most impact. There is aneed to introduce process safety principles in the lower level undergraduate courses to exposestudents early in their careers to the importance of process safety and ethics. Challenging thisidea is the fact that programs are required to meet specific outcomes towards ABETaccreditation. As such, finding time in the lower level courses to discuss these concepts is at apremium. Each of these challenges has led to discussions on implementation techniques that areable to reach across all years within Chemical
iscampus- or curriculum-based assessment. This paper does not address program educationalobjectives, which describe career and professional accomplishments of program alumni. Theformer usually requires different evaluation and assessment tools than the latter; although, someoverlap does exist. In addition, we will also refer to course objectives, which are not to beconfused with program educational objectives. Therefore, given this context and the imminent importance of using direct assessmentmethods, this paper provides a review of direct assessment measures. These methods include,but are not limited to, instructor end-of-course assessments, use of targeted assignments(assigned problems, exam questions, projects), capstone examinations
engineering design. 2Many articles have been published on the topic. Twenty years after Mayer and Greenointroduced this method, Albanese and Mitchell presented a meta-analysis of more than 100articles on the application of PBL.3 Today, a search for articles about PBL on Google Scholarreports more than 2,250,000 results! Felder and Silverman offered my first introduction toproblem-based learning and other active-learning approaches.4 Early in my teaching career Iread this article and, shortly thereafter, attended one of Dr. Felder’s workshops. This convincedme to try stepping outside of the traditional methods that I had experienced and to make everyeffort to provide an improved learning environment for my students. Some changes have beeneasy to
technologycourses, others have not.To address this deficiency, a new survey course in Particle and Crystallization Technology(PACT) was developed that blended theory with practical applications. The goal was to provideinstruction that was not being covered in the core curriculum that would be helpful for studentsin their future careers. This course was offered twice as a split-level elective course withundergraduate and graduate students. Topics included characterization of particle size and shapedistributions, filtration, continuous and batch settling, cyclone and hydrocyclone design, particlesize reduction and enlargement, and crystallization. This course is novel in its inclusion ofcrystallization, ternary solid-liquid equilibrium phase diagrams, and
guest speakerswho can help students understand the application of what they are learning in theprofession. Depending on the focus of the course, this could include both “traditional”speakers who directly address topics related to process design and operation, as well asengineering graduates who have had non-traditional careers (medicine, law, pharmacy,business, teaching, or entrepreneurship). Financial planning, business and electronicetiquette, and professional dress are issues which students will soon face. Alumni panelson “Making the Transition from Student to Employee”, “Changing Jobs”, and “GraduateSchool” can be a very effective way to address these issues
being an important skill in its own right, theability to map a written problem to a visual diagram allows students to continue learningusing their preferred learning style. By creating a tool to aid in transforming writteninformation into visual images, we believed that we could help students develop anessential skill that they will need not only in the material and energy balance class, butthroughout their careers as engineers.Development of a Software Tool To provide this scaffolding we wished to design a software tool that would aid inthe transition from written to visual to mathematical representations. Such a task faces afundamental challenge: how to provide students with enough guidance that they canmaster the skill, without giving
. in computer and information science from the University of Oregon in 1993 and 1999. Having previously served both as a Postdoc and Assistant Professor at the University of Hawaii, Manoa, Hundhausen is presently an Associate Professor in the School of Electrical Engineering and Computer Science at Washington State University, where he directs the Human-centered Environments for Learning and Programming (HELP) Lab (http://helplab.org/). Recipient of more than $2 million in funding from the National Science Foundation, including a CAREER Award, Hundhausen applies the methods of human-computer interaction to the design and empirical evaluation of software environments and pedagogical approaches to improve learning and
career.”was a bit different from typical • “Yes, it was a good assignment.”engineering homework sets. Do • “I thought it was a really interesting way to learn theyou think that the DOE concepts.”assignment demonstrated therelevance of DOE concepts ineveryday life?Was the DOE assignment more • “Yes! It was a fun assignment that challenged students’enjoyable to complete than a creativity.”typical homework assignment? • “Yes! I liked it a lot.” • “I'm not sure if enjoyable is the right word, but it is a great way to illustrate the concepts in DOE.” • “I don't usually consider homework to ever be
Learning”, J Deaf Studies and Deaf Education, 11(4) pp421-437 2006[2] Lang, H.G., et al., “A Study of Technical Signs in Science: Implications for LexicalDatabase Development”, J Deaf Studies and Deaf Education, 12(1) pp 65-79 2006[3] Marschark, M. et al., “Learning via Direct and Mediated Instruction by DeafStudents”, J Deaf Studies and Deaf Education, 13(4) pp 546-561 2008[4] Santos, Carol, “New program encourages deaf to pursue engineering careers”, PurdueNews, Accessed January 10, 2012,, February 1996[5] Schock, Jaimie, “How engineering instructors adapt to the needs of deaf and hard-of-hearing students”, PRISM, January 2011[6] Lang, H., “Teaching Science, Enigneering, and Mathematics to Deaf Students: TheRole of Technology in Instruction and
literature hasproven that students learn by doing, through team-based interactive projects3-8.It is noted that the Alternative Fuels Group Enterprise is one of over twenty enterprises oncampus. The Enterprise program is an opportunity for teams of students from various disciplines(such as chemical, electrical, and mechanical engineering, as well as business) and differentlevels of their academic careers (sophomore, junior, and senior) to work in a business-like settingto solve real-world problems. Each Enterprise is intended to operate like a real company in theprivate sector and is run by the students with faculty supervision.The Alternative Fuels Group has been in existence since fall 2002. Students can enroll inenterprise project work courses in
requirements (Burke and Snyder – 2008). Doing so can help inspire and engage this newage of students who are more used to digital tools and devices. Even the more traditional learnercan use the sites as an opportunity to gain understanding in new technology, which can becomeskills for future careers. Other work have utilized video technology with Chemical Engineering students.Liberatore has utilized YouTube to relate course topics to real world applications (Liberatore –2010). Falconer and colleagues have compiled screencasts where a narrator goes over aparticular chemical engineering concept, or a detailed problem solution (Falconer 2009 and 2012).A recent paper from JEE states that students who use screencasts and perceive their benefit
Paper ID #7268Tools for Teaching Batch Distillation Inductively using Process SimulationLandon Mott, University of KentuckyDr. Jeffrey R Seay, University of Kentucky Dr. Jeffrey R. Seay is an assistant professor of Chemical and Materials Engineering at the University of Kentucky at Paducah Extended Campus. Dr. Seay joined the University of Kentucky in 2008 following a twelve year career in the chemical industry. Dr. Seay completed his B.S. and Ph.D. from Auburn University and his M.S. from the University of South Alabama, all in Chemical Engineering. His primary research area is process systems engineering focused on
vehicle to apply the chemicalengineering fundamentals to broad problems in sustainable energy production and use.This is particularly helpful in chemical engineering, as most of our majors choosechemical engineering as a career so that they can help others.This paper describes the use of energy modules in the chemical engineering curriculumat Mississippi State University. The paper outlines efforts in the freshman seminarcourse, mass and energy balances course, the mass transfer / separations course, theengineering materials course, and the chemical engineering reactor design course, aswell as an elective course on hydrogen energy fundamentals.The modules illustrated in this paper show a connection between traditional chemicalengineering