Paper ID #20255Bringing the great pumpkin to life with technology, art, and engineeringMr. Mike Thomas Pitcher, University of Texas, El Paso Mike Pitcher is the Director of Academic Technologies at the University of Texas at El Paso. He has had experience in learning in both a traditional university program as well as the new online learning model, which he utilizes in his current position consulting with faculty about the design of new learning experiences. His experience in technology and teaching started in 1993 as a student lab technician and has continued to expand and grow over the years, both technically as well as
Paper ID #11560WORK IN PROGRESS: THE STEAM POWERED PUMPKIN PATCH –HOW AN EXTRACURRICULAR PROJECT IS SHEDDING LIGHT ONPROFESSIONAL SKILLS DEVELOPMENTMichael Thomas Pitcher, The University of Texas at El Paso Mike Pitcher is the Director of Academic Technologies at The University of Texas at El Paso. He has had experience in learning in both a traditional university program as well as the new online learning model, which he utilizes in his current position consulting with faculty about the design of new learning experiences. His experience in technology and teaching started in 1993 as a student lab technician and has
throwing an 8-lb pumpkin246 feet away.The design of a pumpkin thrower was assigned to three Mechanical Engineering Technologystudents as a project for senior level "ETME 475 - Mechanical Systems Design" course. As a firststep, each student worked on their own pumpkin thrower. During the final phase, students workedon the design and manufacturing of the different parts of the project. During the early Fallsemester one student, with faculty supervision, worked on the project to redesign the pouch andtune the system. Students from the Engineering Society have also helped to set it up for tests anddecorations. Competition day was of course a Department affair.Students enjoyed working on this good engineering applications project. The Project
varying thenumber of unplugged holes and the height of the water column, a number of experiments can bepreformed. After lab, the students are presented with the appropriate theory and use MS Excel tocompare the theoretical and experimental results.“Save the Pumpkins” is a freshman team design project performed around Halloween. Each teamdesigns and builds an enclosure or apparatus to protect a pumpkin from damage when droppedfrom the 3rd story of the engineering building. The designs are evaluated (sometimes destructively)during a class period. The project grade is based primarily on the contents and appearance of a Page 6.515.1final
Society for Engineering Education, 2020 A Comparison of Succeeding Mission-Critical Mechanical Engineering Design/Fabrication Projects.The project, aimed at drawing crowds of local people to our combination Charity event andEngineering Open house late in October, became known as “The Halloween Pumpkin Flingingfor Charity at Baker College School of Engineering”.The first attempt was successful both from a financial standpoint ($350 raised) and perhaps moreimportantly, showed creditable data indicating that student groups, when faced with a problembeyond or outside their skillsets, naturally (with minimal steering) followed a plan of their ownthat turned out to be basically indistinguishable from that of Bloom’s
Web for curriculumintegration.Curricular ContentThe Fellows have developed curriculum on a variety of SMET topics and are working on others.Some of the topics show evidence of the kind of curriculum integration that is a goal of theoverall project. For example, the Fellows developed a class on pumpkins to conduct inconjunction with literature, writing and art activities that have been done in the classrooms formany years. These activities have included reading pumpkin stories every day during the unit,painting pictures and gluing cut-outs of pumpkins, etc. The class was used with first, second andthird graders in appropriate form. The children were first asked to brainstorm questions aboutpumpkins that were classified into various groupings
three stories. The winningstory will get another 10 extra credit points.Fall 2020:Number of stories received: Six. Four of the stories were individual submissions and two groupworks. Out of the four individuals, two received second and third place. Eleven students (31%)participated in this exercise. Students evaluating the stories: 19 students (53%) submittedevaluations. Based on their order, the first three stories were: First place: The Pumpkin Patch Second place: The House Over the Lagoon Third place: Camp Crystal LakeFall 2021:Number of stories received: Five. Two of the stories were individual submissions and threegroup works. Out of the two individuals, one received third place. Eleven students (38%)participated in
engineering.Over many months of observation of both her physics and engineering instruction, I realized thatLeslie’s physics inquiry instruction resembled and seemed to support her engineering designinstruction, especially when she was nervous or in doubt. To write a story that encapsulated thesignificance of this realization, I returned to a time when Leslie struggled in engineering designinstruction but persevered; her first day in the Pumpkin Chunkin’ challenge. This paper focuseson that effort.LimitationsMy qualitative approach has several limitations. The sample size for this paper is one limiting thegeneralizability of my conclusions. I use descriptions of the data instead of abstractions of thedata, which provides a detailed narrative, but limits
time of a wave in a known medium3 Playing a note on a wine glass rim as Wine Glass Resonance Mechanical vibration at seen in various TV and movie scenes resonance4 Pumpkin association with general Pumpkin-key An electrical circuit Halloween theme Synthesizer must be a complete a conductive loop5 Light and sound effects heard in the Jacob’s Ladder Charge buildup and movie Frankenstein (1931
materials,YES Elementary demonstrate their understandings and YES Middle SchoolEngineering Design Process Engineering Design Process communicate their ideas.Current units include: YES Elementary YES Middle School YES Out of School Engineering Sun Hats Engineering Medicine Coolers Engineering Sails Engineering Nightlights Engineering Eco-friendly Slippers Engineering Bandages Engineering Pumpkin Pollinators Engineering Landing Pads Engineering Sock Assistive Devices Engineering Magnetic Dog Doors Engineering Vision Extenders Engineering Rescue Shuttles
used throughout the course, such as incorporating three of the five senses in everylesson - students hear, see visually what is being said, and work/feel with what is being said; usinglarge print on PowerPoint, with few words per slide and many visuals; having opportunities forstudents to work with peers in groups; brainstorming; KWL charts; and hands-on activities.Multiple frontloading techniques were used so that if students were bored in one context, theywould be motivated in another. Detailed examples of some of the frontloading techniques used inthe course are discussed next.One of the most fundamental concepts taught in Fundamentals of Engineering is the engineeringdesign process. The instructors agreed that the pumpkin chunkin
-Pull experiment: Computer Instruction: Push the Pumpkin from Disengage the Push-Pull Start X to End X. DrawBuild Machine with a Machine and run the the direction of push onDC motor; Run the motor with the "Set Pin 2 the Table Circuit Chart Discuss why the resultsMachine with switch; to HIGH/LOW" with Arrow. Where did varied: DifferentMeasure how long to instruction. Show how to they have to place the strength of the rubberpress switch upload the program push machine? bands Pull the Pumpkin from Start X to End
Session for: Calculus I, Chemistry, or Freshman Engineering Course 5 Personal Safety On & Off Campus 6 Strategies for Interacting with Faculty & Academic Success 7 Mid-Semester Reflection on Personal Academic Plan & Behavior Modification 8 Peer Advising for Spring Courses & Online Tools for Academic Planning 9 Building Community: Pumpkin Carving 10 Study Session for: Calculus I, Chemistry, or Freshman Engineering Course 11 Building Community: Study Break 12 Study Session for: Calculus I, Chemistry, or Freshman Engineering Course 13 Engineering Scholarships, Financial Aid, Jobs On-Campus 14 End of Semester CelebrationTable 8. EOE First Year Interests Groups (FIGs) – Weekly Seminar Topics
was for kids to define what “engineering design” is,and have a small experience doing it. In each case, students made the materials needed for the event anddelivered them hundreds of times over the two-day expo.Susquehanna Valley Pumpkin PitchAnother exercise in collaborative making, the Bucknell College of Engineering has participated three-times in the regional pumpkin-throwing competition, taking first place twice. Students from all majors,lead by Dr. Nate Siegel, voluntarily help design and build the year’s creation, often their first experiencein large scale woodworking. Students have remarked that it is edifying to see a machine that they havemodeled behave as planned (or not, as the case may be).World MakerFaireStudent makers, drawn
, leadingup to finally meeting in person during the end of semester competition.Introduction to Mechanical EngineeringThe Introduction to Mechanical Engineering course (ME 1001) has many goals, includingincorporating methodologies to increase the retention rate of the program by giving studentssomething to look forward to in the field of Mechanical Engineering [11]. A specific learningstrategy that embodies this involves having first year students in the course demonstrate theirability to design and create in a major semester-long project called ‘The Pumpkin LaunchExtravaganza’. This project involves student teams consisting of 8-10 students who conductresearch on how to design launch devices, construct full size machines to launch actualpumpkins at
4. Figure 4. Pictures drawn by middle school students with flow predictions, crown (top) and star (bottom).The ME student teams took the middle and high school student designs back to the lab anddesigned 3D molds with the SolidWorks program, as shown in Figure 5 for the “crown” shape. Aphysical mold of the model was made with the 3D printer followed by actual flow inserts for theePIV from the silicon elastomer, Sylgard 184 (both the mold and the flow insert are shown inFigure 6 for the star, pumpkin and crown shapes). The 3D models developed in SolidWorks wereanalyzed with the FloXpress CFD tool. Representative results are shown in Figure 7 for the“star” shape. Pictures and videos of the CFD and
ofseveral design competencies including problem definition, idea generation, evaluationand decision-making, communication and teamwork.A fourth group design activity that was very well received was the construction of a fullsize pumpkin launcher. This activity gave student groups the design freedom to use anylaunch method they could build for a minimal cost. This allowed for great variation indesign with some launchers using leaf springs from automobiles and being quite large.Other designs used coil springs, weights and were compact. Some designs were muchmore successful than other with the winner throwing a pumpkin over one hundred feet.This activity employed many design skills such as problem definition, idea generation,evaluation and decision
Toss community event. In this event, teams construct a medieval device (trebuchet) tolaunch pumpkins in a tournament of distance, accuracy, and mechanical design. Figure 3 (seenext page) shows the trebuchet that the S-STEM team built.After the event, we asked students to describe what they had learned in the aspects of technicalskills (such as mechanical design and manufacturing) and professional skills (such ascommunication, team-working, and leadership). The following paragraphs provide tworepresentative examples of student comments:“During the process of designing and building the trebuchet, I learned a variety of technicalskills. It was very interesting and encouraging to apply the things that I had learned in theclassroom to a real
2 Fuel car 1 1 Paper tower 2 Pumpkin Catapult 1 1Some further details about experiences that students mentioned include the following: • One or two students had multiple experiences. Most only had a single experience that might be called engineering-related. • One student mentioned a technology program in middle school, • Two mentioned computer programming in high school • One mentioned a technology program in high school. • One student participated in the national FIRST Robotics program. • One student participated in the national Project Lead The Way program. • About 35% of the
Modeling To Meta-Modeling: Going From A Student Of Data Science To A Professional (Dr. Wright [pseudonym]) ● The Role of Adventure, Exploration, and Discovery in the Environmental Studies: Why We Do It and Why It's Good for You Too! (Dr. Thomas [pseudonym]) ● Biotechnology: How Viruses Can be Used for Good (Dr. Andrews [pseudonym]) ● Smashing Pumpkins (Dr. Cox [pseudonym]) During the COVID-19 pandemic, when the institution held classes 100% online, theSTEM Seminar continued to meet virtually using Zoom. This continuation of the communityaspect of the HAIS program through these weekly seminars during COVID-19 supported HAISscholars’ Sense of Community (SOC) [17], [19]. Students shared comments during this timesuch as: ● “It
individualpaper which was related to engineering careers. On the last day of the two week SB students givea presentation surrounding their design project giving details, sketches, and concepts to the otherstudents in the class. In addition, the SB program engineering students also participate in aPumpkin Drop project during the fall semester just as the traditional engineering LCs studentsdo. Students complete the Pumpkin Drop project in a team as well. The summer bridge program is followed into the first semester with five class meetingsthroughout the fall semester. Continued contact with the students allows the instructional team tocontinue to serve students as they face the challenges of adjusting to college life. It also allowscontinued
started to pay attention to different things, and the purpose behind myactivities changed. At the beginning, my goal for the mini-reflections was to have students reflecton what they were learning in studio and how that connected to their passions. However, as anew educator I became aware of some of my students disengagement which impacted myreflections to be more focused on their experience in studio or how they were feeling. In the end, students always participated and engaged in the activities. Studentsspecifically seemed to have enjoyed the activities that were focused on their feelings. An examplewould be the activity from week 6 which asked the students to draw a pumpkin with the facialexpression that mirrored their current mood. I
rate on interest. How much money do you get at the end of the year if you withdraw and deposit an amount of money, including its interest, more and more often during a year? Knowing this leads to a definition of the number e. 3. Local and global maximum: Marie waters her pumpkin with x liters a day. The pumpkin’s growth is dependent on x (no water or infinite water will kill the pumpkin). There should be an optimal value. How can we formulate this optimal value? 4. Limits: A car starts from zero speed at time zero and accelerates at time 20 seconds to 50 kilometers/hour and drives thereafter at a constant speed. What happens to the average speed as time goes on? Does it have a limit? Will the average ever be
popular Lawrence Tech student competition projects is the National PumpkinChuckin’ Competition (http://www.punkinchunkin.com/), where large trebuchets are designedand built to launch pumpkins. Trebuchets are like catapults but operate more like a giantslingshot. They are typically more than 20 feet tall. Some of the trebuchets launch pumpkins Page 10.546.14 Proceedings of the 2005 American Society for Engineering Education Annual Conference and Exposition Copyright © 2005, American Society for Engineering Educationnearly a half mile. The Lawrence Tech trebuchet is on display for the visiting students and one-gallon
. Each lesson has at least one hands-on activity to encourage engagement with thematerial. Individual lessons conclude with a bonus activity or research challenge for highlymotivated students. For example, one bonus activity ties to history and literature through the bookThe Deltoid Pumpkin Seed (John McPhee) that documents the Aereon 26 flying wing aircraft.Another activity reinforces biologically inspired engineering by asking students to devise a fish-tail connection structure using what they learned about gusset plates. And another bonus activitydelves into the hydrodynamics of using balloons for interplanetary exploration. Where applicable,lessons are tied to each other and/or to the completed kit. For example, a hydrodynamics lessonasks
use material found inthe kitchen to test the properties of the soil.List of material for this module include: • About half cup white Vinegar (If vinegar is not available lemon juice can work) • About half cup baking soda • About one cup water • A few bowls/cups/plates to mix the soil • Mason jar (If mason jar is not available, any bottle/cup would do. It just needs to be transparent) • One spoon • Ruler (or tape measure)This activity can get a little messy so you should keep some paper towels or tissues close athand.In addition, if students have any seeds (like lettuce, peppers, pumpkin, tomato or any type offlowers), bring some to the session. We will check if the soil samples are appropriate, and youcan plant the
are created inOnshape throughout the semester – see Figure 6. They practice parts with materials assigned,standard holes, extrudes and revolves, purchased parts, assemblies, sheet metal techniques, anddrawing packages. This comprehensive project, along with the physical model to match, is theculminating project in the CAD portion of the course. It’s worth 3 homework grades. This endsup being another show piece we recommend students utilize when talking with employers.Figure 5 - Machine Shop Build Figure 6 - Machine Shop CAD modelOther examples of design and build are 3D printed pumpkins and laser cut components for thechime assembly. All of these techniques are encouraged in this course and beyond. Students areencouraged to
fewweeks before most freshmen started scheduling. During this event, upperclassmen spoke to thefreshmen in attendance about elective options, course rigor, and scheduling layout. In addition,some mentors and mentees attended a pumpkin carving event open to all students at theuniversity. BMES general meetings were also a twice monthly occurrence, when mentors andmentees were able to connect. Study jams were also held by BMES during final exam week,which provided another meeting space for mentors, mentees and all BME students. Overall,these events were successful for the mentor and mentee groups who attended.Results based on students’ experiencesNear the end of the semester, the mentor group was asked to describe their interaction with eachmentee in
: Making Engineering Connections for Success 2 Building Community: Communication & Teamwork Challenge Course 3 Accepting Self Responsibility: Who’s the CEO of You, Inc.? 4 Strategies for Interacting with Faculty 5 Discover Self Motivation: Goals & Aspirations 6 Building Community: Study Break Activity 7 Employ Interdependence: Study Session - Calculus I, Chemistry, or Engineering Course 8 Master Self Management: Student Success Strategies & Time Management 9 Peer Advising for Spring Courses & Online Tools for Academic Planning 10 Building Community: Pumpkin Carving 11 Employ Interdependence: Study Session - Calculus I, Chemistry, or Engineering Course
items directly with the various soil fractions (and identifiers).Included in the table are nominal (or effective) diameters for each of the selected food items. Table 1 - Effective Particle Diameters for Different Foods Effective Size Range Shopping List Diameter Soil Fraction (mm) (mm) Jack O'Lantern Pumpkin 334 >300 Boulders Watermelon 290 Honeydew Melon 191