Students practice the ability to produce clear, complete, accurate and detailed design drawings through an engineering design challenge. Using only the specified materials, teams are challenged to draw a design for a wind-powered car. Then, they trade engineering drawings with another group and attempt to construct the model cars in order to determine how successfully the original design intentions were communicated through sketches, dimensions and instructions.

Over the last 40 years, new managerial technologies in Western democratic societies have emerged to dominate our perceived and lived reality. Demands for autonomy and a creative life, which have been the touchstones for artistic endeavors, have been readily absorbed into management philosophies, becoming normative values for self-management and entrepreneurial innovation. Is this art’s triumph or demise? Can we imagine other worlds beyond our managed reality and propose forms of living not yet captured by the rationality of network capitalism? We will explore the “creative” figure and how it can shape renewed critical expressions in fields such as technology, design, science, philosophy, etc.

The airplanes unit begins with a lesson on how airplanes create lift, which involves a discussion of air pressure and how wings use Bernoulli's principle to change air pressure. Next, students explore the other three forces acting on airplanes thrust, weight and drag. Following these lessons, students learn how airplanes are controlled and use paper airplanes to demonstrate these principles. The final lessons addresses societal and technological impacts that airplanes have had on our world. Students learn about different kinds of airplanes and then design and build their own balsa wood airplanes based on what they have learned.

Students will collect their own data on urban heat in order to understand how different city design choices change temperatures.

In 1853, the City of New York set aside hundreds of acres of swampland in the middle of Manhattan, with the idea that this uninhabitable space could serve a practical, public purpose. Today, we know that area as Central Park, one of the most widely visited and celebrated public spaces in the country. The then-unknown park designer who won the bid to design Central Park, Frederick Law Olmsted, would go on to inspire and revolutionize urban park design in the United States. The work of Olmsted and other early parks pioneers, building on older concepts like town squares, would spur the growth of urban parks large and small nationwide. Benefiting from new innovations in design, these parks serve as community centers and defining features of cities and towns across the country. Urban parks have continually adapted to meet the needs of the publics they serve, evolving, for example, from places to simply enjoy nature into recreation sites that offer activities and equipment. More than just sites for leisure, they also play a broader role in supporting community engagement by providing places for civic participation, enhancing quality of life and property values, and offering safe, healthy, and convenient recreation options. This exhibition was created as part of the DPLA’s Public Library Partnerships Project by collaborators from the Minnesota Digital Library. Exhibition Coordinator: Carla Urban.

The course explores the interactions between state and market as instigators of China’s urbanization, and its consequences of land, housing, transportation, energy, environment, migration, finance, urban inequality. Themes include the de-synchronization of China’s urbanization, potential differences between China’s past and future development, and differentiators between China’s urbanization and those of other countries. This discussion-based course asks students to participate in the conversation with the course instructor and guest lecturers by drawing upon their experiences and academic or professional backgrounds.

In this lesson, students will first discuss where energy comes from, including sources such as fossil fuels, nuclear, and such renewable technologies as solar. After this initial exploration, students will investigate the three main types of heat transfer: convection, conduction, and radiation. Students will learn how properties describe the ways different materials behave, for instance whether they are insulators or conductors. Students will complete a crossword puzzle to reinforce their vocabulary in this content area. The class will then focus on the acquisition and storage of energy through the design, construction, and testing of a fully functional solar oven.

Coach Trelisa giving a scenario walkthrough using the ADDIE framework.Graphics created in Canva.

Queen Victoria of England reigned over a vast British empire from 1837 until her death in 1901. During her rule, England rapidly transformed into a modern, technologically-based economy exercising global military and cultural power, roiling with class and racial conflict. Victorianism extended far beyond the boundaries of Britain and informed international movements of the same period, including in the United States.

In this design challenge, students learn about the Vikings from an engineering point-of-view. While investigating the history and anatomy of Viking ships, they learn how engineering solutions are shaped by the surrounding environment and availability of resources. Students apply this knowledge to design, build and test their own model Viking ships.

This course is designed to give persons interested in art and design, a foundation in basic principles, knowledge of materials and technical skills.

In this service-learning engineering project, students follow the steps of the engineering design process to design a hearing testing device. More specifically, they design a prototype machine that can be used to test the peripheral vision of partially-blind, pre-verbal children. Students learn about the basics of vision and vision loss. They also learn how a peripheral vision tester for adults works (by testing the static peripheral vision in the four quadrants of the visual field with four controllable lights in specific locations). Then they modify the idea of the adult peripheral vision tester to make it usable for testing young children. The class designs and builds one complete prototype, working in sub-groups of four or five students each to build sub-components of the project design.

In this Public Service Design Seminar (PSDS), we will design and build products with developmentally disabled students at the Protestant Guild Learning Center in Waltham, MA. The class will work closely with community clients to make sure that what is developed is helpful and functional. These products will be built using the Hobby Shop equipment, the water jet machine in particular. Over the course of the seminar, this class will teach students how to use the OMAX® Jet Machining Center commonly called the water jet and associated OMAX® software. The product development process will also be detailed in depth: determining customer needs, concept development, prototyping, design, and manufacturing.

Students learn the history of the waterwheel and common uses for water turbines today. They explore kinetic energy by creating their own experimental waterwheel from a two-liter plastic bottle. They investigate the transformations of energy involved in turning the blades of a hydro-turbine into work, and experiment with how weight affects the rotational rate of the waterwheel. Students also discuss and explore the characteristics of hydroelectric plants.

Students apply everything they have learned over the course of the associated lessons about waves, light properties, the electromagnetic spectrum, and the structure of the eye, by designing devices that can aid color blind people in distinguishing colors. Students learn about the engineering design process and develop three possible solutions to the engineering design challenge outlined in lesson 1 of this unit. They create posters to display their three design ideas and the comparisons used to select the best design. Then, students create brochures for their final design ideas, and "sell" the ideas to their "client." Through this activity, students complete the legacy cycle by "going public" with the creation of their informative posters and brochures that explain their designs, as well as color blindness and how people see color, in "client" presentations.

Building on an introduction to statics, dynamics free-body diagrams, combustion and thermodynamics provided by the associated lesson, students design, construct and test their own rocket engines using sugar and potassium nitrate an opportunity to apply their knowledge of stoichiometry. This activity helps students understand that the energy required to launch a rocket comes from the chemical energy stored in the rocket fuel. The performance of each engine is tested during a rocket launch, after which students determine the reasons for the success or failure of their rockets.

In this scenario-based activity, students design ways to either clean a water source or find a new water source, depending on given hypothetical family scenarios. They act as engineers to draw and write about what they could do to provide water to a community facing a water crisis. They also learn the basic steps of the engineering design process.

Students are presented with an overview of engineering and design. Various engineering disciplines are discussed in some detail using slides and an online video and website. The concept of design is introduced by presenting the basic steps of the engineering design process. Students learn that design is not necessarily restricted to engineering, but a general concept applicable to all walks of life. To strengthen their understanding, students are challenged to design a picnic for their friends by considering its various components as they go through the design process steps. This prepares them for subsequent design challenges such as those in the associated activities of this unit. A PowerPoint® presentation, pre/post quizzes and worksheet are provided.

This video segment, adapted fromThinking Big, Building Small, demonstrates each part of the engineering design process, which is fundamental to any successful project. Though it does this in the context of building skyscrapers, the process is applicable to any sort of project, including constructing schools, building bridges, and even manufacturing sneakers. Students will recognize the value of going through its steps sequentially when constructing scale models. Recommended for: Grades 3-12