Administration requirements, andeven taking attendance at schools. The compact size of the readers (the size of a text book),affordability of the tags (less than $1 each), and usability of the reader software makes this anideal technology for use in the teaching laboratory. Introducing RFID into the ECET curriculumserves two purposes: it teaches modern tools of the industry, and it gives a practical way to teachimportant radio frequency concepts.How RFID worksThere are four main components in an RFIDsystem: the interrogator or reader, the antenna(s)connected to interrogator, a computer interface,and the tag. (See Figure 1) The interrogator,antenna, and interface will all be part of aninstallation or a handheld system, while the tagwill be attached in
inthis applied mathematics course: 1. Exponential Function, aebx Page 12.1365.3 2. Logarithmic Function, a ln(bx ) , a log10 (bx ) 3. Trigonometric functions, a sin n (bx - s ) , a cosn (bx - s ) and a tan n (bx - s ) 2 4. Power Functions, ax n 5. Polynomial Functions, ÂA x n n nFirst, it is suggested in the virtual lab to understand the five ‘simple’ functions obtained byusing a ? 1, b ? 1 , s ? 0 , n ? 1 & An ? 1 for all n. Then, the values of constants ‘a’ and ‘b
, computer, or similara. the application of circuit analysis and design, computer programming, associated modifiers in their titles.software, analog and digital electronics, and microcomputers, and engineeringstandards to the building, testing, operation, and maintenance of 1. Curriculumelectrical/electronic(s) systems. The structure of the curriculumb. the applications of physics or chemistry to electrical/electronic(s) circuits in a must provide both breadth andrigorous mathematical environment at or above the level of algebra and depth across the range oftrigonometry. engineering topics
domestic nuclear power industry, someof its challenges and accomplishments, and developments forming new and expanding directionsfor the future of this truly remarkable industry. The second part of the paper deals exclusivelywith nuclear engineering technology, a part of the academic enterprise that nurtures and sustainsgrowth of the nuclear industry by providing it graduates with specialized work skills and a solidunderstanding of nuclear science basics. The paper examines course offerings of establishednuclear educational programs including that at the U. S. Navy’s Nuclear Power School. Thisinformation is used to develop the curriculum for a four-year Bachelor of Science degreeprogram in Nuclear Engineering Technology. The template for the
and Strengths of Materials CourseAbstractA lab-oriented course has been created to supplement lecture instruction in statics and strengthsof materials. The primary goal in initiating the course was to give students more problemsolving experience with a secondary goal of intuition-building hands-on experiences. Over 25activities have been developed with a limited budget.BackgroundSecond year students in Mechanical Engineering Technology take a four-credit lecture course instatics and strengths of materials during their fall semester. Prerequisites for the lecture courseinclude pre-calculus and college physics. The lecture course includes two-dimensional statics,stress and deformation for common loadings, and combined loadings with Mohr‟s
Outcomes Bloom's ABET Activity 1 2 3 4 5 6 7 8 9 Taxonomy Outcomes 1) Buoyancy K, App, A, E 2) Mass Flow Determination K, C, App, A a, b, c, d, e, 3) Pressure Drop K, C, App, A, S, E f, g 4) Time to Empty Tank K, C, A, E 5
survey. Most of them are from Texas. Our next study willcertainly sample a large number of participants that better represent the population of the USA inthe warehousing and industrial distribution industry. For example, we could choose some areasin the country that have the greatest number of warehousing and distribution centers. These areashave vastly different cultures and environments. This way, the results of the study would includea better reflection of how the future of work would impact varying cultures, thus providing abetter insight into how employees and managers would be willing to accept the changes neededto incorporate new technologies into the work environment.References:[1] S. S. Bhattacharyya and S. Nair, "Explicating the
), white board(s),projector(s), and printer(s). The author was the professor of record and independently designedthe course based on Purdue University CLOOs. In course planning and preparation, theinstructor adopted a learning-centered paradigm, while using a Learning Management System(LMS) (i.e., Blackboard) for course organization, file sharing, assignment posting/submission,grading, and testing. The instructor’s goal was to create a learning environment in which studentscould learn to restructure the new information and their prior knowledge into new knowledgeabout the content, and practice using it. Course design included a combination of mini/bridginglectures (as needed), readings, group discussions, exams, assignments, and a team project
indicating progression towards the deliverablesWhen the proposed projects are approved, students are required to discuss with faculty and selecta faculty member, or a group of faculty members, with expertise that are closely related to theproposed project to serve as their faculty advisor(s). Students are also required to arrange aweekly meeting with their faculty advisor(s) to report their project progress and discuss theirplans throughout the semester. As the semester progress, students will submit a mid-term reportand present orally their advancement towards the goals outlined. At the end of the first semester,students will give an oral presentation and submit a report to include the following details of theproject. • Complete design
Mathematics) wasdeveloped by the NSF (National Science Foundation), beginning as SMET and settling as STEMin 2001 [2]. The disciplines were grouped because it was recognized that they all emphasizeproblem solving and critical thinking skills [3]. STEM has been recognized in educationalreports since the 1980’s [2]. Though each discipline within STEM stands apart, they are alsointertwined-for example, physics and chemistry play a role in engineering and ET, and math isstudied in all disciplines [4]. STEM does not include the arts in this grouping.STEAM (Science, Engineering, Technology, Arts, and Mathematics) is an acronym developed atthe Arts-National Policy Roundtable in 2007 [5]. The acronym adds a “A” to STEM toemphasize the importance of arts
the subject areas below. 8Post-program interests in STEM was different among genders. Male students were more likely toselect “interested” or “very interested” in all four STEM areas than their female peers. Femalestudents were more likely to select “slightly interested” option for technology and engineeringmajors than their male peers. Option “not interested” was selected more times by female studentsthan male students for each one of the STEM fields. 100% Pre and Post-Survey - Male 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% S-Pre S-Post T-Pre T-Post E-Pre E-Post M-Pre M-Post Not
/sec); i(t) isthe armature current, in A; R is the armature resistance, in Ω; eb(t) is the back emf, in V; Tl(t) isthe load torque, in N-m; Tm(t) is the motor torque, in N-m; Tf(t) is the friction torque, in N-m; θ isthe rotor displacement, in rad; L is the armature inductance, in H; ea(t) is the applied voltage, inV; J is the rotor inertia, in kg-m2; and Kemf = Ki. A MATLAB model was derived based onequation (1): 1 1/J s load
abroad experience. Given the 24 required credit hours,if a student comes in as a freshman, s/he can finish 3 Honors credit hours per semester (requiredto maintain Honors College good standing) and graduate in 4 years (or 8 semesters) with anHonors diploma. However, if a student transfers in at practically the sophomore level, s/he has todouble up on his/her Honors course or Honors contract in two semesters, which can bechallenging and time-consuming. Practically, it is not recommended for juniors or seniors toconsider Honors College, if they are not already in the Honors College.Although the 24 Honors credit hours can be earned through either Honors courses or Honorscontracts, the engineering and technology students have little to no capacity
that the intent was to ascertain whether the outcomes of the program, as mutuallyviewed by the WMP’s administrators and graduates, have been satisfied. And, if so, to whatdegree or level of quality? Additionally, because the findings were used to improve the operationand content of the WMP the design clearly incorporated a formative aspect.After establishing the evaluation design described in the preceding paragraphs, the researchersdeveloped a set of 6 research question(s) that served to structure the data gathering: 1. What is the overall assessment of the WMP by its graduates over time (i.e., by cohort)? 2. What are the participant’s assessments of the WMP’s effects on their personal portfolio of skills (by cohort)? 3. Is there
AC 2009-1779: INTEGRATING GREEN ENGINEERING INTO AMULTIDISCIPLINARY SEMINAR COURSEDavid Cottrell, University of North Carolina, Charlotte DR. DAVID S. COTTRELL is an Assistant Professor in the Department of Engineering Technology, University of North Carolina at Charlotte. He graduated from the United States Military Academy in 1978 and retired in 2000 after more than 22 years of service with the US Army Corps of Engineers. Studies at Texas A&M University resulted in an MS Degree in Civil Engineering in 1987 and a PhD in 1995. He is a registered Professional Engineer and has taught courses in statics, dynamics, mechanics of materials, graphic communications, engineering economy, and
, analogOutcome 12 and digital electronics, and microcomputers to the building, testing, operation and maintenance of electrical/electronic(s) systems. (ABET 8.a) The application of physics or chemistry to electrical/electronic(s) circuits in a rigorousOutcome 13 mathematical environment at or above the level of algebra and trigonometry. (ABET 8.b) The ability to analyze, design and implement control systems, instrumentation systems,Outcome 14 communication systems or power systems. (ABET 8.c)Outcome 15 The ability to apply project management techniques to electrical/electronic(s) systems. (ABET 8.d) The ability to utilize statistics/ probability, transform methods
percent of the participants statedtheir sibling(s) did not have an influence on their decision to major in an engineering program.Fifty-four percent of the African American respondents and 40% of the Caucasian respondentsindicated their mother/female guardian had a strong positive influence on their choice of major.Thirty-one percent of the Caucasian respondents and 16.6% of the African Americanrespondents stated their mother/female guardian had a somewhat positive influence on theirdecision to enroll in an engineering major. Twenty-one percent of the Caucasian respondentsand 12.3% of the African American respondents felt that their mother/female guardian did nothave any influence on their choice of major.Fifty percent of the Caucasian
. The minimumparking space length can be obtained from the solution of θ, which is Lmin = 104 cm. Lpmin thenhas to be 94cm. From the result that S+ Lp = 138 cm, and choosing Lp =100 cm > 94 cm, one canobtain S = 38 cm. The rear sensor should read a distance around dr = 30 cm at the turning point P.To avoid accident, the parking space length is set as L = 110 cm > 104 cm and is then used in thecriteria for parking space finding in Eq. (1). 9 Figure 7. The picture of the modified RC toy car.The toy car does stops after finding a proper parking space and start backing up to park.However the parked positions are not at the theoretical location and are also not identical
studentswrote in the triggering phase (Wang & Chen, 2008). This includes doing further research on atopic in order to support an argument being made against another student’s post or exploringother research because a student’s attention was brought to another aspect of the topic byanother student’s initial post. The final phase is the most important and is when a studentintegrates what s/he learned from discussion with other students (Wang & Chen, 2008). Thiswould typically be seen in a post later in the discussion after there has been enough discussionfor students to process the new perspectives and assimilate them to their understanding. Theguidelines that the online learning coordinator provides to encourage meaningful participationin the
. In the aggregate, the results did indicate a potential level of interestadequate to financially support a test should one be available. Survey questions and acompilation of the results are documented in the reference, which can be viewed on theAssociation‟s page of the ETD website.(ii)The key results, however, had to do with the costs which respondents were willing to pay foraccess to testing. Respondents were asked to identify a price level at which they would bewilling/able to take advantage of testing, and to estimate how many students they would test eachyear at that price level. Those results provided a basis for estimating a price point that wouldmaximize revenue from an ongoing testing program. When these results were reviewed with
school system‟s ability to involvestudents as well as individual teachers‟ ability to meaningfully involve students in different kinds ofclassroom learning opportunities.”5Several key questions guided the research such as: (1) What content makes a successful online learningenvironment for students? (2) What can institutions do to better impact student engagement in thesesystems? (3) And what types of tools do students really desire in these systems?MethodsData collection was first conducted via an electronic student survey of undergraduate students in theSchool of E & T at IUPUI. The survey was a voluntary activity and available for student participationfor exactly three weeks. A participation rate of 17.2% was recorded from all 2,418
sin 𝜔1 𝑡 + 𝜔2 𝑡 + 𝜙𝑖𝑛 𝑡 + 𝜙𝑉𝐶𝑂 (𝑡) 2 (Eq. 3)Where, Vin(t) is the input signal Ain is the amplitude of Vin(t) 1 is the radian frequency of Vin(t) (rad/s) in(t) is the phase angle of the input signal (rad) Vvco(t) is the VCO signal Avco is the amplitude of Vvco(t) 2 is the radian frequency of Vvco(t) (rad/s) vco(t) is the phase angle of the VCO (rad) VPD(t) is the output signal of the phase detector KPD is a multiplier in the phase detectorSignal Vin(t) is represented by a sine function and Vvco(t) is represented by a cosine
and active exercise would be to calculate the longitudinal speed ofsound in aluminum, point out the E/ is also the specific stiffness of a material, and thendemonstrate how easy it is to initiate both the longitudinal and transverse waves in a rodby hitting them with a hammer (a rubber mallet) parallel and perpendicular to the end ofthe aluminum rod14. The typical speed of sound in aluminum is 5150 m/s while in steel itis about 5100 m/s. 2.84 x10 9 N / m 2v? = 1551.4 m/s (Average Values, Extruded Acrylic11) 1.18 x10 3 kg / m 3 12.0 x10 9 N / m 2v? = 5855 m/s (measured values, soundboard Engelmann Spruce) 0.35 x10 3 kg / m 3The calculated speed of a longitudinal wave in a
Technology (ETEC), with at least 50 sustainingenrollments of 200+ students in fall 2010 according to ASEE data. On the other hand, since the1980’s only about 14 institutions have created master’s degrees in ETEC. Some M.S. programshave evolved from Master of Science in Technology (M.S.T.) or Master of Technology (M.T.)versions. One fundamental question posed in the debate is whether ETEC curricula rise to thenecessary scientific rigor of traditional M.S. degrees. This paper asserts that the M.S. in ETECshould stand on equal footing with M.S. programs in any other field and particularly inengineering when viewed from the perspective of (i) the scientific level of graduate ETECcourses; (ii) the roles that ETEC graduates perform in the engineering
, and microcomputers to the building, testing, operation and maintenance of electrical/electronic(s) systems. (ABET 8.a) The application of physics or chemistry to electrical/electronic(s) circuits in a rigorous Outcome 13 mathematical environment at or above the level of algebra and trigonometry. (ABET 8.b) The ability to analyze, design and implement control systems, instrumentation systems, Outcome 14 communication systems, power systems, or hardware and software computer systems. (ABET 8.c) The ability to apply project management techniques to electrical/electronic(s)/computer Outcome 15 systems. (ABET 8.d
, Sweden, Chapman & Hall, 1997.[2] J. St-Pierre, D. P. Wilkinson, S. Knights and M. Bos, “Relationships between watermanagement, contamination and lifetime degradation in PEFC,” Journal of New Materials forElectrochemical Systems, Volume (3), 99-106, 2000.[3] T. J. P. Freire and E. R. Gonzalez, “Effect of membrane characteristics and humidificationconditions on the impedance response of polymer electrolyte fuel cells,” Journal ofElectroanalytical Chemistry, Volume (503), 57-68, 2001.[4] D. Chu and R. Z. Jiang, “Performance of polymer electrolyte membrane fuel cell (PEMFC)stacks part I, evaluation and simulation of an air-breathing PEMFC stack,” Journal of Power
presentations.BackgroundThis laboratory is designed to be completed in a two-hour laboratory session for thosesuccessfully completing pre-laboratory exercises. While a number of RF simulation packagesmay be used to perform the listed simulations, the real-time tuning capabilities of Microwave Page 14.38.2Office provide for a high degree of interactivity which is a primary component of thisexperiment. Minimal equipment requirements include a RF frequency generator and a spectrumanalyzer; however, the use of a vector network analyzer with s-parameter capabilities providesadditional opportunities to reinforce concepts demonstrated in the design and simulation phasesof this
engineering technology. That is my main interest, and I will probably be looking for a job after college in one of those fields. I believe that learning about these areas of business would help shape U.D.’s students into better managers and engineers. If there is anything I can do to help (i.e. focus groups, surveys, general input, etc.) please feel free to contact me. I have wanted our department to offer these classes or cover this material for some time. I am always happy to help with improving our department. …even though I am getting my dual degree in manufacturing, I will more than likely be looking at government, logistics, hospitals and banks. I do not actually see myself in a
reflected on the curriculum of theprogram.References[1] M. H. Hugos, Essentials of supply chain management. John Wiley & Sons, 2018.[2] M. E. Johnson and D. F. Pyke, “A framework for teaching supply chain management,” Prod. Oper. Manag., vol. 9, no. 1, pp. 2–18, 2000.[3] M. Christopher, Logistics & supply chain management. Pearson UK, 2016.[4] “Gross Domestic Product | U.S. Bureau of Economic Analysis (BEA).” [Online]. Available: https://www.bea.gov/data/gdp/gross-domestic-product. [Accessed: 10-Jan- 2019].[5] J. A. Periatt, S. Chakrabarty, and S. A. Lemay, “Using personality traits to select customer-oriented logistics personnel,” Transp. J., pp. 22–37, 2007.[6] P. Matkovic, P. Tumbas, M. Sakal, and V
. Page 22.1402.1 c American Society for Engineering Education, 2011Teaching Spreadsheet-Based Numerical Analysis with Visual Basic for Applications and Virtual Instruments AbstractLabVIEW, EXCEL and VBA are currently used in a number of engineering schools and industries forsimulation and analysis. By introducing virtual instrumentation (LabVIEW) and EXCEL/VBA to theexisting laboratory facilities and course(s) the students can be well trained with the latest designtechniques and computer aided instrumentation, design and process control used throughout industry.This will also allow the students greater interaction with the subject matter and