1 14 2 17 3 25Caucasian 3 60 5 71 7 58 4 33Hispanic 0 0 1 14 1 8 0 0 Six BRCC students received the Pathway Scholarship for fall 2014, and six students received thescholarship for the spring 2015 semester. The engineering disciplines of this cohort were: onebiological, two chemical, one computer, two electrical, two mechanical and four petroleumengineering majors. The academic performance of this cohort at selection was also well above thescholarship criteria, and the demographics were diverse with respect both gender and race/ethnicitycompared to previous
Scale-Up of Educational Interventions. Rand Education.[13] Dearing, J. W. 2009. “Applying Diffusion of Innovation Theory to InterventionDevelopment.” Research on Social Work Practice 19 (5): 503-518.[14] Litzinger, T., Christman, J., Lau, A., Tuana, N., and Wise, J. 2003. “Learning and Teaching Ethics inEngineering: Preparing Engineering Faculty to Teach Ethics.” In Proceedings of American Society forEngineering Education Annual Conference.[15] Davis, M. 1993. Ethics Across the Curriculum: Teaching Professional Responsibility in TechnicalCourses. Teaching Philosophy 16(3): 205-235.[16] Tuana, N. 2007. Conceptualizing Moral Literacy. Journal of Educational Administration 45(4): 364-378.[17] Mendieta, E. 2016. “Engineering Ethics for Graduate
out answers to these questions inthis file and send to the observer one week ahead of the observation:1) What is the student make-up of the instructor’s class? number of students / grade levels / backgrounds / other2) What type of technology is used in this class? distance education / computers / specialized lab equipment / other3) How well does the instructor like the classroom being used?4) What is the instructor’s role in this course? number of times previously taught primary teaching methods / strategies of teaching degree of student input special problems / constraints5) What type of course is this? How does it fit into the student’s overall curriculum? lecture / activity / seminar / laboratory / other required
, Strength of Materials, Fluid Mechanics, PLCProgramming, Instrumentation, Computer Aided Design (CAD), and Economics. The studentsfound themselves to be fortunate to choose this project and they were very committed to itscompletion. However, the farther they got into the project, the more they realized it was a muchlarger task than they initially thought. During the design stage, it took a long time to create astructure in SolidWorks that would meet the project requirements, while staying within thebudget. It also gave the team a new insight for what could be considered as a small scale projectin an industrial environment. Verbal and technical communications along with an effectivedocumentation were the key factors for the water channel
, computer aided modeling and simulation,and construction documents. The initial design consists of a concrete slab, steel tube framingsupported by shallow concrete footings, a pitched metal roof, and the flexibility to utilize mixedmaterials for the walls.This research builds on the aforementioned research by engaging in the construction of thestructure using the initial design in Panama and carefully documenting the construction processesin Panama to identify needed improvements to the design based on limitations due to the remotework site location and limited resources available (e.g. tools, equipment, trained labor, etc.). Asecond structure was built in Lineville, AL which implemented solutions to the limitationsidentified at the construction
]. 1ContextThis analysis of team building and complementary skill sets emerges from our participatoryaction research with the NSF REvolutionizing engineering and computer science Departments(RED) teams to investigate the change process within STEM higher education. The RED fundingmechanism is designed to support awardees in creating systemic change, both to improveeducational outcomes in the middle years of college and to create more inclusive environmentsfor students. The currently funded projects range in scope from one department to a wholecollege. NSF requires that teams are multidisciplinary, including instructional faculty, educationresearchers, social scientists, and administrators (e.g., the department head or college dean).In addition to funding
scientists often develop new technologies ordiscover new phenonena from basic science research and seek to identify problems they cansolve. Technology-first designers follow a design process as they work on ill-defined problemswith many uncertainties and approach tasks with no right or wrong answers, only better or worse[20], [21].The I-Corps participants follow the curriculum developed by Steve Blank to investigate thecommercialization potential of their technology and identify various uses of technologies using astandard process that entails customer discovery to identify potential partners and meetings withinvestors to gain insights on developing a viable product [22]. Participants in the program arerequired to complete over 100 interviews with
Participant 2 Large Upper Lvl Mngmnt Computer Engineering Participant 3 Large Mid Lvl Mngmnt Civil Engineering Participant 4 Large Project Engineer Automotive Engineering Participant 5 Large Upper Lvl Mngmnt Industrial Engineering, MBA Participant 6 Small Upper Lvl Mngmnt Manufacturing, Regulatory Compliance Participant 7 Large Project Engineer
materials and 3D printing approachMaterials and solid mechanics are critical subjects for successful undergraduate mechanicalengineering education. Current curriculum in mechanical engineering has provided adequatetraining through learning to solve textbook problems. Students are tasked with memorizing andunderstanding equations to know how to use the equations to solve given problems. However,engineering practice can be dramatically different from any textbook problems. Engineers needto know how to summarize a real engineering challenge into a series of questions and preparesolutions through subtasks. Integrating materials, manufacturing, and testing provides a uniqueopportunity for students to gain such experience. Since most engineering
taken to teach students about the various tools and supplies through traditionallecture methods. Unfortunately, these models tend to compartmentalize topics within students’ minds whichcan be especially problematic in the context of Bioengineering or Biomedical Engineering(hereafter referred to as Bioengineering). Bioengineering programs tend to be extremely broad,encompassing chemical, electrical, material science, and mechanical engineering elements, aswell as computer science. Oftentimes, students take lab classes, for example related to molecularbiology, in a specific lab meant only for that area of study. A different lab class dealing with adifferent field would then be done in a different lab. The challenge with these models is
. Toyohashi, Japan - At Toyohashi University of Technology (TUT) research projects forstudents include areas such as Chemistry, Mechanical Engineering, Computer Science,Biomedical Science/Engineering, Material Science and Nanotechnology. Five (5) studentsparticipated in the inaugural group in 2018. The summer program also provide culturalexperience for the participating students. Beijing, China - A recently developed partnership with the departments/faculty at BeijingUniversity of Chemical Technology (BUCT) for selected students to develop and/or work onexisting STEM research projects. The summer program also provides cultural experience for theparticipating students. The program includes 4 to 6 students each summer. The areas of researchare
struggles were discussed. The feedback from ES Leaders were used to informthe development of subsequent ES worksheet problems.The project team coordinated with the instructors of the Engineering sections of Calculus anddeveloped the ES worksheets. An older version of the worksheets is available at the followingwebsites:MATH 150 – Calculus I:https://www.dropbox.com/sh/20c1r5xly4hr5iz/AADxCqGrIaKYmrjexzsdNU0KaMATH 152 – Calculus II:https://www.dropbox.com/sh/2ytb1pk0jpkvjk1/AAANU0ltAOOYo3px2BifGWb_aDuring each ES meeting, students are divided into groups of 4 or 5 and are provided worksheetsthat contained both computational and conceptual problems. The problems in each worksheetcovered material that was discussed in the related lecture as well as
educationalcommunity access to a broader range of instructional tools and curriculum development thatotherwise a school district might not be able to provide alone.An important initiative meant to help students improve their high school learning outcomes wasthe introduction of dual credit and Advanced Placement (AP) courses. Recent studies haveshown that students who participate in dual-enrollment programs are more likely to go on toobtain a college degree [8] – [10]. In addition to earning college credit, these courses offer highschool students several benefits: They provide a smoother transition between high school and college They offer first-hand exposure to college-level work while still in high school The students taking these
spatial skill level are concrete. The visualizations are of real tangible objects fromdifferent orientations. Process diagrams, however, are schematics— abstractions of tangibleobjects and processes. Perhaps assessing experts from each engineering domain could informthe types of spatial skills necessary for different engineering fields. For example, an engineerwho predominately works with computer aided design software to design fixtures probably usesa different set of spatial skills than does a process or quality control engineer.References1 Wai, J., Lubinski, D., & Benbow, C. P. (2009). Spatial ability for STEM domains: aligning over 50 years of cumulative psychological knowledge solidifies its importance. Journal of Educational
Paper ID #16184Development of Authentic Engineering Problems for Problem-centered Learn-ingDr. Yen-Lin Han, Seattle University Yen-Lin Han is an Assistant Professor in the department of Mechanical Engineering at Seattle University. Her research interests include micro-scale Molecular Gas Dynamics and heat transfer applications such as the Knudsen Compressor, a temperature driven micropump with no moving parts. Her work in exper- imental and computational investigations of gas transport phenomena has been published in high impact journals including Physics of Fluids, Applied Materials and Interfaces, and Journal of
meet with the water resources design student and their faculty mentor.Facilities. Shared mentoring requires other elements to be effective. For example, the departmentreorganized work spaces to simplify mentoring opportunities. The senior projects studio lab wasreorganized into 4-person work pods and meeting time for classes in that work space wasminimized to give more students time during the day to work together as a team. Large screenmonitors were placed around the room to allow teams to more easily work on common projectwork on their computers with each other and with faculty mentors. The larger monitors alsofacilitated more convenient preparation of engineering drawings. Evening and weekend hours foraccess to the project space were
Boise State University in January 2015. Donna’s current interests center around education issues in general, and in particular on increasing access and success of those traditionally under-represented and/or under-served in STEM higher education.Dr. Janet Callahan, Boise State University Janet Callahan is the Founding Associate Dean for the College of Engineering at Boise State University and a Professor of Materials Science and Engineering. Dr. Callahan received her Ph.D. in Materials Sci- ence, her M.S. in Metallurgy, and her B.S. in Chemical Engineering from the University of Connecticut. Her educational research interests include freshman engineering programs, math success, K-12 STEM curriculum and
authors developed a general framework adapted fromthe field of Systems Engineering for thinking about the purpose and utility of any canvas. A‘system’ is considered to be an entity that accepts inputs, performs processing, and providesoutputs and interacts with systems around it (Buede, 2016). Given this broad definition, systemscan be natural or man-made, conceptual or physical. For example, a conventional product ordevice, such as a laptop computer, is clearly a system because it takes in audio, visual,mechanical, and digital input; processes that input; and provides various forms of output. In thebusiness world, the business model system would describe how resources and inputs interactwith customers and stakeholders, process information
technical sinsagainst well-documented laws of science.” Additional readings and tutorial content comes fromprofessional development articles in the periodical Chemical Engineering Progress published bythe professional society for chemical engineers AIChE, and reference books on professionaldevelopment of engineers14, 15, 16, 17, 18, 19.Project management concepts and tools are also included in the curriculum of the online coopcourse, particularly during the experimentation parts of each exercise. Readings from ProjectManagement Lite by J.C. Craig are used to cover common, standard practices of projectmanagement20. Project Management Lite also comes with generic documents for professionallymanaging projects, such as planning, budgeting and money
Generation 1.5 designation, it is crucial that SJSU focuson improving its writing resources, models, curriculum, and instructional approaches in context ofand response to Generation 1.5.ENGR 81WFor the last eleven years, the college offered an optional class, ENGR 90W, to students who arenot proficient in writing. The goal of ENGR 81W is to improve on the framework of ENGR 90Wand cater to needs of our project’s target population. ENGR 81W is a one-unit writing labdesigned to improve students' writing skills and ultimately enable them to succeed on the WritingSkills Test and ENGR 8 and ENGR 10. Students enrolled in ENGR 81W meet once a week fortwo hours and are given weekly writing activities that include: instruction in basic grammar,proofreading
performance in adefined work setting. [Each] model provides a clear description of what a person needs toknow and be able to do – the knowledge, skills, and abilities – to perform well in aspecific job, occupation, or industry… Competency models articulate the business andindustry requirements that are essential components for the development of curriculum,skill assessment instruments, and certifications.Competency models also facilitate the development of career pathways and career latticesproviding the framework for career advancement. Competency models are the foundationfor important human resource functions such as: recruitment and hiring, training anddevelopment, and performance management. Competency models generally aredeveloped as a platform
two components: computer based video instruction outside of the classroom andinteractive learning activities inside the classroom. The intent is to create an active and engagingclassroom experience that can be tailored to meet the needs of students possessing a wide rangeof learning styles. This can potentially reduce attrition, improve knowledge retention, andenhance skill development in engineering. The main goal of this study was to compare andcontrast the effectiveness on student learning of a flipped versus a traditional lecture-basedclassroom in a first course in mechanics of materials. Two five-week summer session courses inmechanics of materials were used to conduct the study; one following traditional methods andthe second in a
from 2 to 3 seconds was includ-ed to force the students to consider adding integral control to reduce the steady state error in thisregion. The bottom plot shows the error function which was computed from the absolute valueof the difference between the reference and measured signals and summed for each data point.The sum of the error values was displayed as the “Error Function” value and used to measure theperformance of the PID controller design. The Error Function value of 83 shown in the figurewas among the best performing controllers in the class. The evaluation and the figure was auto-matically generated after the test by implementing an m-file in the Simulink callback function.Students were given the plot and could use the data to refine
has to be anotherway to meet this challenge. In conventional course occurrences, events like a midterm, final andassignments tend to overlap between classes, and can cause big spikes in student workload. Withan increased number of students in each class, students can also feel the pressure of increasedcompetition. These stresses’ on both faculty and students, negatively affect the positive outcomesdesired by both groups. This paper describes the formulation, design, and execution of twoplanning methods used to help balance the needs, workload, and time resources for both thefaculty and students in an Engineering curriculum. One approach compares weekly instructorworkload for the planning and delivery across three classes. Covering items from
-line. 2. One-on-one people skills development: Read through the simple pocket book Dale Carnegie’s How to Win Friends and Influence People [6]. As instructor, I would play the role of discussion leader, using examples from the book, my own experience, and the student’s initial interactions with their individual design project client. It should be noted that I was not attempting to teach a communication skills course (one was already part of their curriculum). The reader interested in this line of research is referred to the article by Riemer [7]—a broad article on communication skills for engineers, including an explanation of emotional intelligence which is closely related to the extent and
and Degree Attainment of Women and Minority Engineering Undergraduates.” Hesborn’s research uses mixed meth- ods approaches to investigate the implicit factors associated with the under representation of women and minorities in STEM education. He strives to improve K-20 STEM learning experiences and degree at- tainment. He received his Ph.D. in Measurement & Evaluation and M.Ed. in Curriculum & Instruction both from the University of South Florida, and his B. Ed in Mathematics from the University of Nairobi, Kenya.Dr. Julie P Martin, Clemson University Julie P. Martin is an assistant professor of Engineering and Science Education at Clemson University. Her research interests focus on social factors
engineering University of Texas at Treatment processes Austin Water resources Fluid mechanics and ocean engineering Water quality management Air resources Environmental engineering science Carnegie Mellon Advanced Infrastructure Systems University Environmental Engineering, Sustainability and Science Mechanics Materials and Computing California Technological Environmental biology University Environmental chemistry Environmental physics Environmental engineering The Johns Hopkins
needs, Concept of Operations (ConOps), requirements, and RFPgeneration, all aspects of the integrated SE curriculum. To avoid increasing the coursedeliverables to seven reports, the original six reports were re-structured into five reports. Thiswas done by re-distributing and in many cases combining the deliverables more evenly across allreports. Only one deliverable content was eliminated, although this content was still included inthe lectures. In addition to changes to the Oral Reports, instructors addressed the addition of SEtopics in the course using a couple of methods. Telecons with representatives fromindustry/government organizations were added to the course to provide actual SE experience indefining requirements. In addition, overlap
work on projects virtually (with studentproject members located at two or more universities) and hence be better prepared for ‘real worldwork scenarios,’ when they graduate and go into industry. This course curriculum design andresearch will include mapping engineering management courses between the EngineeringManagement Departments at Texas Tech University and California State University, Northridgeand creating distributed project teams, by virtue of which the students would be compelled towork both traditionally (intra-university) and virtually (inter-university) and learn aboutmanaging partially distributed teams. Pedagogically, the researchers/professors will also becompiling information and lessons learned in coordination of this inter
in theConstruction Science Management (CSM) degree plan in the Engineering TechnologyDepartment at Texas State University and is a required course for the American Council forConstruction Education (ACCE) accreditation. Additionally, the ACCE accreditation requires aspecific course outcome related to using modern technology to solve construction relatedproblems through the use of computers in the scheduling of construction projects. It has becomeincreasingly essential for students pursuing a career in the construction industry to have anunderstanding of Project Management Software (PMS)7-10. Therefore, it is required and vital tothe students’ education to learn how to use modern PMS. The CPMS course at Texas State University has been