performance correspond to thefollowing a through k ABET Program Outcomes. ABET a- Q 1 ABET b- Q 9 ABET d- Q 2 and 3 ABET e- Q 10 ABET f- Q 6, 7, 8, 11, and 12 ABET g- ReportThe Employer Assessment of Academic Preparation shown in Figure 2 are also designed tocollect data on the ABET a through k criteria. The 12 box scores cover 10 of the Criteria – athrough i and k. Criteria b on experimentation was split into two categories since their ability toanalyze and interpret data may be vary more due to their academic classification (Sophomoresvs. Seniors). Criteria g was also split to provide additional feedback on their writtencommunication vs. oral communication preparation. Criteria j feedback on knowledge
operating practices during the testing phase.To successfully accomplish the task all students were introduced to the salient features of thepump experimental system and the associated components. The energy equation was employedto explain the dependency of the flow rate Q upon the pressure head (H) added by the pump. Inideal conditions this imbalance is the pressure difference (∆P) between the system inlet andoutlet. So that the pressure head obtained by a pump is directly dependent upon the power (P)supplied to the pump. Students were then explained how various combinations of the appropriatepump parameters such as flow rate (Q), head (H), Power (P), Speed (N - rpm), and the impellerdiameter (D) yield affinity laws3, 4. It was further shown how
year of new faculty Page 11.674.3 L: Reduced teaching -load for research (release time for faculty) M: Forum to collaborate with other faculty/departments N: Mentoring new faculty O: Start-up funding for new faculty P: Administrative support for faculty Q: Computational infrastructure for research R: Quality of the teaching environment (classroom and online infrastructure) S: Establishment of a research center T: Establishment of a certificate program U: Working collaboratively with marketing-related divisions of the university V: Providing consultancy to professional organizations
sphere, Q dTavg Q ? t C pV dtwhere V is the volume of the sphere. Page 11.290.5 Figure 2: Experimental set-up. A hot sphere (near 420 C) dipped in near boiling water.The heat transfer coefficient, h , is obtained from Newton’s law of cooling, which is Q h? AFTwhere A is the area of the interface and FT is the difference between surface temperature andthe
theprojectile. Typically the comparator was set to switch at approximately 2.5 volts. The output ofthe analog comparator is open collector; this open collector output is connected to the +5voltsupply through a 10k ohm resistor. The output of the first analog comparator is used as a startsignal for the counter. The first sensor pair executes the start, and the second pair executes thestop. This start / stop is accomplished by the use of a J-K flip-flop. The start sensor wasconnected to the J input of the flip-flop and the stop sensor was connected to the K input. Whenthe start sensor was triggered high it sends the J input high and sets the flip-flop output 'Q' to alogic high. When the flip-flop's output is high the 1 MHz clock signal is then passed
., Katrina’s wake, EOS, American Geophysical Union, Vol. 86: 27, 333-334, 2005. 2. National Research Council. Meeting Research and Education Needs in Coastal Engineering, National Academy Press. Washington, D.C., 1999. 3. Graumann, A., Houston, T., Lawrimore, J., Levinson, D., Lott, N., McCown, S., Stephens, S., and Wuerts, D. Hurricane Katrina: A Climatological Perspective – Preliminary Report, Technical Report 2005-01, NOAA’s Nationa Climate Data Center, 2005. 4. Nickas, W. N., Renna, R., Sheppard, N., and Mertz, D. R., Hurricane-based wave attacks, Florida Department of Transportation, 2005 5. Chen, Q., Zhao, H., Hu, K, and Douglass, S. L, Prediction of wind waves in a shallow estuary. Journal of
) th e d riv in g fre q u e n c y f (2 ) f (1 ) f (3 ) f (4 ) F q  [H f ] f (5
11.767.6 Fig.3. Spectrum of reproducing signalMathematical model of the tape recorder is given below I ⋅q + c ⋅ q + k ⋅ q = Q(t) (9)where I, c, k are the parameters describing the inertial, damping and elastic properties of thedriving system. The generalized coordinates q of each rotating element can be presented as asum of two components; one from steady-rotation and the second one from vibrations. It meansthat qi = qoi (t ) + α i (t ) .Vibration of the elements adjacent to the head gives a variable component of the tape velocity.Velocity of the tape in the front of the head from the angular velocity of two neighboringelements is defined by the relation
binary data and the energy per bit are equal(P0 = P1 = 0.5 and Eb0 = Eb1 = Eb), is presented in the course lecture5. Page 11.1206.5 2 Eb Pb = Q N o The function Q is the complementary error function and No is the power spectral densityof the AWGN. The optimal threshold (Token 3) for the correlation receiver is set as τopt =0. SystemVue can calculate the statistics of the PCM binary data for the audio .wav file Figure 4. Autocorrelation of the BPSK
11.1320.5 PBASIC is easy to use and has good help system; examples of code can be cut and pasted inthe active programming window, and tried out. The PBASIC software and Excel add-in programare free and can be downloaded from the Parallax website3.Results and DiscussionInitial experiments were done to understand the behavior of the valve. In fluid mechanics,students will have learnt about flow through constrictions when dealing with flow meters.Figure 2 shows the measured relationship between flow rate and pressure drop with the valvefully open for a particular valve. Over most of the flow regime, the flow is laminar and so therelationship may be represented by Q = Cv(x).∆PHere Q is the volumetric flow rate, Cv is the valve coefficient, x is
the paucity of computing resources in the undergraduatecurriculum, we emphasized derivation of simplified analytical solutions, and extensive problem-solving using paper and pencil to assimilate analysis methods. Space studies were spread acrossdepartments of engineering science, mechanics, thermal sciences and physics. This fit well withthe demands of graduate curricula and research programs.Table 1 shows the compression in the fluid dynamics/ aerodynamics portion of the curriculumsince the mid 1980s. The second column indicates the number of hours allotted to this subjectarea, with Q denoting Quarter and S Semester. Column 3 compares the number of equivalentsemester hours. The last column is subjective, indicating the breadth of the content
Å c m% w ÖPressure loss due to the throttle valve is found by multiplying the valve closure (%throttle) by aninput change in pressure per %-closed value. A conditional check was included to ensure thepressure does not go below zero. Currently it is assumed that the valve is isenthalpic (constantenthalpy) and that the exit temperature is the saturation temperature at the exit pressure.There was not an easy way to determine the power out of the Variac as a function of controlknob position (%Variac). Therefore, the power delivered ( Q% input ) is computed from the knob Page 11.461.7position and a power per % knob position value. The
-Dimensional Equilibrium of a Particle Page 11.788.6 Figure 5: 3-Dimensional Equilibrium of a ParticleBasic vector operations moduleThis panel provides a comprehensive tool for the basic vector operations such as cross product,scalar product, unit vectors, and dot product. Figure 6 illustrates the structure of this module. Page 11.788.7 Figure 6: Vector product moduleThe cross product, also known as vector product, is an operation on coplanar vectors P and Q isdefined as 10: f f f
conductivity is awell known material property, and can either bedescribed in the in terms of material structure,heat transfer properties, with analogy toelectrical conductivity, or in a separate chapteron thermal properties. However it isintroduced, it is by relatively simple extensionthat the biology-oriented property of thermalconductance is introduced. As illustrated inTable 3, thermal conductance is used todescribe the heat-retaining capabilities ofbiological species, particularly hair- and fur-bearing animals. Whereas heat flow, Q, isrelated to thermal conductivity, k, cross-sectional area, A, and a temperature gradient,dT/dy, according to the following equation Q = -kA(dT/dy)the same quantity is related to thermal
1 U ? 2 2 (2) 2 2Rayleigh’s dissipation function describing viscous dissipation in the dampers is: Q ? 1 2 * c1 y% 1 / x% - l1s% +2 - 1 2 * c 2 y% 2 / x% / l 2s
professors go through it enough timesnot to be bothered by it anymore. For example, one of the most common thermodynamic jargon terms is “adiabatic,”coined in 1859 by William John Macquorn Rankine. He used it to mean “no heat is lost orgained by the system.” It is a word (like many of the thermodynamic jargon terms) that is really •a number. Numerically it means Q = 0 (and Q = 0). A modern English term for it is“insulated.” Students quickly understand what “insulated” means, but struggle throughout thesubject interpreting “adiabatic.” We could just say, “there is no heat transfer,” or “the system isinsulated,” but we don’t, we say “adiabatic system,” as we were taught. However, “adiabatic”really
. Note that Page 11.878.4Eq. (4) is extremely useful and important in solving problems by the virtual work method!III. Relevant Fundamental ConceptsIn teaching and learning the virtual work method, it is well to recall the following relevant fun-damental concepts:̇ Work of a forceIf a force F acting on a body is constant and the displacement vector of the body from positionA1 to position A2 during the action is q, then the work U1› 2 of the force F on the body is2-6, 8,9 U1› 2 ? F © q ? FqE (5)where F is the magnitude of F and qE is the scalar component of q parallel to
anequation is not explicit in an unknown variable. Such situations are common in chemicalengineering courses starting with the sophomore year. Figure 3 illustrates a case fromthermodynamics4 in which a given equation relates τ, a dimensionless variable equal to atemperature divided by the initial temperature To, to other parameters such as heat transfer Q, thegas constant R, the initial temperature To, molar amount n and a heat capacity relationshipdependent on the material (parameters A, B, C and D). Q = nR[ATo(τ-1) + BTo2 (τ2-1)/2 + CTo3 (τ3-1)/3 + D(τ-1)/τTo]As the equation is cubic in τ it is not able to be solved analytically by first year students.However, an iterative approach (or “trial and error” in student-speak) does
heat transfer rate for a section of building can be found by q = UA∆T (9)Each section of the building envelope will have a different value of U and A, dependingon construction materials and surface area of the section. If the inside temperature is keptat a constant Ti, the total heat transfer, Q, during a time interval can be calculated by Q = ∑ UA ∫ (Ti − To (t ))dt (10). all sec tions timeThe ∑UA term is a constant in time for a given building, while the integral
software of the profile of a two dimensional plate cam. Figure 1 P r o b l e m 3 -4 6 s u m X --> A (8 . 8 4 ) + C ( 3 . 7 5 ) + B ( 1 3 ) = 2 5 . 5 9 s u m Y --> A ( 8 . 8 4 ) + C ( -6 . 5 ) + B (-7 . 5 ) = -5 . 1 6 R = s q r t (2 5 . 5 9 ^ 2 + 5 . 1 6 ^ 2 ) = 2 6 . 1 t h e t a = i n v t a n ( -5 . 1 6 / 2 5 . 5 9 ) = -1 1 . 4 d e g Page 11.1334.4 Figure 2
) Design 1 1.25 1.5 Supply Fan Efficiency, η (%) 70.3 60.6 63.7 65.5 Return Fan Efficiency, η (%) 47.5 53.6 40 40 Table 1: Fan efficienciesTo determine coil effectiveness for the heating coil, values for qc (actual heat) and qmax(maximum possible heat) must be determined, as shown in Equations 2 and 3. q c = CC ⋅ (T2 − T1 ) (2) q max = C min ⋅ (T3 − T1 ) (3)Where qc is the actual heat for the colder flow, qmax is the maximum possible heat transfer
improvement decisions are arrived at based on the results ofthe feedback loops. Irrespective of the tools and methods used, the adoption of the pilot program,or a variation thereof, should be based on quantitative results that show measurable Page 11.1257.11improvements in student learning outcome. Course Course Assessment Data [Q] Q = Quarterly Student A = Annually S = Semiannually Course
work whether I am employed by a multi-national firm or not. 1 Question 2 – It is essential that the MET program and faculty 0 be involved in and knowledgeable about Q. 1 Q. 2 globalization and international issues.Figure 1.The manufacturing engineering technology program is not the only group at BYU which isbeginning to focus on the effects of
Ç q$1 Ç 0 1 Ç q1 Ç 0 È q$ Ù ? È /y 2 - /2|yn Ú ÈÉ q2 ÙÚ ÈÉ K yn2 ÙÚ Ù F É 2Ú É nClearly all of the parameters in the state variable model can be obtained from the transferfunction for this system. The mathematical models are actually stored as state variable modelsand converted to transfer functions when needed. In the initial two or three labs the studentsmust construct models for at least two different systems. These models will be used throughoutthe course. The students are also given loose guidelines in terms of how to
and comfort levels withthe material were more apparent. For example, on question 3, the two strongest students Page 11.325.5immediately recognized this as a conservation of energy problem. Both of these studentsdeveloped their own equations, using dimensional analysis to organize the given information.Both students displayed a solid understanding of specific heat capacity and heat transfer. The next tier of students began the problem by organizing the given into a table ordiagram. These students could also identify this as an energy balance question. With minimalprompting or clues (e.g., q = mC∆T), these students could develop a
) Information presented Materials provided Amount of time for activities Opportunities for Q&A Opportunities to learn from others Relevance for your classroom Information about enhancing mathematics Information about infusing math into science and technology Figure 3 Teacher
points. From these frequencies, Q of the resonance filter can be calculated as: Fr Q= F1 − F2 (3)Where Fr is the resonance frequency, and F1 and F2 are the 3db points respectively. The setupis shown in Fig. 3. . Fig.3 - Setup for Observing and Measuring Frequency Response and the BandwidthThe instrument discussed next is the curve tracer. With the advent of new IC-basedinstruments, the use of curve tracer is limited; however, some of its important circuit’s Page 11.471.5functions
students carefully explained the refrigeration cycle from athermodynamic point of view. They also describe the cycle using the first law ofthermodynamics. They provided T-s diagrams for the real and ideal cycles and identifiedopportunities for efficiency improvements based on the Carnot Cycle. The group alsopresented the appropriate metric, COPrefrigeration for a household refrigerator as shownbelow: Q% evaporator COPREFRIGERATION ? W% electric _ motorWhere,Q% evaporator = Evaporator load, kWW% = Electric motor load, kW electric _ motorExperimental Design: The students outlined in detail all the necessary steps to measurethe proposed metric. The outlined steps
traditional lectures.4.3 Student Preference for Research Papers and Presentations:The third survey question inquired about the usefulness of research papers andpresentations for enriching the students’ understanding of the course material, andwhether the students would prefer traditional exams in place of these assignments.Only two students (Q and HH) stated that they would prefer exams. One, StudentQ, explained, “I would prefer exams over presentations, but I like the researchpapers”.Student Q expressed displeasure with the knowledge gained from the researchassignment: These papers/presentations, as far as individual research is concerned, do not give us a full scope of the reg(ulation)s. I would prefer traditional exams if they