This course presents fundamental principles and methods of materials and structures for aerospace engineering, and engineering analysis and design concepts applied to aerospace systems. The topics include statics; analysis of trusses; analysis of statically determinate and indeterminate systems; stress-strain behavior of materials; analysis of beam bending, buckling, and torsion; and material and structural failure, including plasticity, fracture, fatigue, and their physical causes. Experiential lab and aerospace system projects provide additional aerospace context.

Students begin by reading Dr. Seuss' "The Lorax" as an example of how overdevelopment can cause long-lasting environmental destruction. Students discuss how to balance the needs of the environment with the needs of human industry. Student teams are asked to serve as natural resource engineers, city planning engineers and civil engineers with the task to replant the nearly destroyed forest and develop a sustainable community design that can co-exist with the re-established natural area.

This module is intended to give you a broad understanding of issues related to environmental sustainability in the context of engineering. The environmental problems facing our world are becoming more apparent day by day, and the term “sustainability” is used more frequently in the media. This module will explore the concept of sustainability and discuss some of the issues surrounding the subject.

Each chapter will begin with an overview of the content, and will then introduce key factors and the current world systems in place for the subject matter such as energy, materials, food, water and shelter. The social and economic factors of sustainability in an engineering context will also be covered. The problems associated with these systems will then be highlighted, specifically their environmental or social impacts and what part of the systems that could be considered unsustainable. Alternatives will then be introduced and outlined including what options there are and what are the challenges involved in implementing them.

School of Engineering, University of Nottingham

This course packet seeks to develop the upper level engineering student’s sense of audience and purpose in a research-based context with workplace constraints. It requires the student to choose a technical topic of interest and research it to solve for a specific problem or to meet a typical industry need by way of several assignments: Unsolicited Research Proposal, Progress Report, Visual Aids, and Oral Presentation, all of which lead to the Formal Report. This approach readies students to write informatively and persuasively in the engineering workplace, providing excellent examples of each assignment contributed by former students whose Formal Reports have won first place in the annual Technical Writing Competition. Because users can rely on demonstrably excellent student examples to understand the concepts behind assignments that build on one another rather than on disparate textbook examples, they tend to write better and to be more confident producing documents and giving presentations. In short, they recognize they are among their own in a class that challenges many engineering students. Moreover, since all the Formal Reports have won awards, convincing students they are using good models with which to create their own documents is relatively easy. Finally, mining excellent student documents makes certain skill-sets clearer, according to former students. For instance, students can follow along as the writer does the following: identifies and proves a problem or need exists; creates the research objectives that lead to the method with which they will address the issue; and develops persuasive strategies for convincing both executive and engineering readers. Similarly, these student papers demonstrate how to discern among results, conclusions, and recommendations and show correct use of sources and visuals.

Software engineering operates ever more frequently in globally distributed settings, in a practice that is known as Globally Distributed Software Engineering (GDSE). In this course, you will obtain a practical overview of the organization and operation of software engineering of this practice. As such, it is aimed at professionals in distributed software development teams, and executives setting up and leading such teams who would like to develop the required technical and organizational skills.

The course covers the subject in an accessible and practical manner. Through video lectures, group assignments and exercises, you will be familiarized with the advantages and disadvantages of GDSE, the practical consequences of GDSE and its technological feasibilities and infeasibilities. You will learn about real-world experiences of users and examples of GDSE applications such as outsourcing, offshore software development, near-shoring and multi-partner systems development.

You will apply the knowledge gained through hands-on experience with GDSE by working together with team members from different countries as a distributed team; and through analysis of best-practice examples. Together with other course participants you will prepare a number of artefacts that build on the body of knowledge of GDSE and so have the chance to contribute to this growing field of knowledge.

Guest lectures from industry experts and researchers will be an integral part of the course. These lectures will demonstrate how GDSE is handled in industry, how decision-makers lead their teams in this context, and what is the state-of-the-art in GDSE research

This class provides an introduction to quantitative models and qualitative frameworks for studying complex engineering systems. Also taught is the art of abstracting a complex system into a model for purposes of analysis and design while dealing with complexity, emergent behavior, stochasticity, non-linearities and the requirements of many stakeholders with divergent objectives. The successful completion of the class requires a semester-long class project that deals with critical contemporary issues which require an integrative, interdisciplinary approach using the above models and frameworks.

In this lesson, students are introduced to audio engineers. They discover in what type of an environment audio engineers work and exactly what they do on a day-to-day basis. Students come to realize that audio engineers help produce their favorite music and movies.

Successfully, transport the egg though the obstacle course in the shortest amount of time using only the materials given without touching or dropping the egg. Groups will modify the materials to create tools to aid in this process.

Students are introduced to the fundamentals of environmental engineering as well as the global air, land and water quality concerns facing today's environmental engineers. After a lesson and activity to introduce environmental engineering, students learn more about water chemistry aspects of environmental engineering. Specifically, they focus on groundwater contamination and remediation, including sources of contamination, adverse health effects of contaminated drinking water, and current and new remediation techniques. Several lab activities provide hands-on experiences with topics relevant to environmental engineering concerns and technologies, including removal efficiencies of activated carbon in water filtration, measuring pH, chromatography as a physical separation method, density and miscibility.

The History Engine is an educational tool that gives students the opportunity to learn history by doing the work—researching, writing, and publishing—of an historian. The result is an ever-growing collection of historical articles or "episodes" that paint a wide-ranging portrait of life in the United States throughout its history, available in our online database to scholars, teachers, and the general public.The History Engine project aims to enhance historical education and research for teachers, students, and scholars alike. It allows undergraduate professors to introduce a more collaborative and creative approach to history into their classrooms, while maintaining rigorous academic standards. The History Engine gives students a more intimate experience with the process of history. Participants who work with the History Engine project learn the craft of an historian: they examine primary documents, place these documents in a larger historical context using secondary sources, and prepare cogent analysis of their sources for the public eye. Finally, the History Engine provides a way for professors to take advantage of digital technology in their classrooms while maintaining rigorous academic standards. The cumulative database provides all the easy-access and searchability of other websites, but also subjects its contents to a careful academic screening process on the part of library staff, archivists, professors, and teaching assistants.

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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 subject provides an introduction to the mechanics of materials and structures. You will be introduced to and become familiar with all relevant physical properties and fundamental laws governing the behavior of materials and structures and you will learn how to solve a variety of problems of interest to civil and environmental engineers. While there will be a chance for you to put your mathematical skills obtained in 18.01, 18.02, and eventually 18.03 to use in this subject, the emphasis is on the physical understanding of why a material or structure behaves the way it does in the engineering design of materials and structures.

Student teams are challenged to navigate a table tennis ball through a timed obstacle course using only the provided unconventional “tools.” Teams act as engineers by working through the steps of the engineering design process to complete the overall task with each group member responsible to accomplish one of the obstacle course challenges. Inspired by the engineers who helped the Apollo 13 astronauts through critical problems in space, students must be innovative with the provided supplies to use them as tools to move the ball through the obstacles as swiftly as possible. Groups are encouraged to communicate with each other to share vital information. The course and tool choices are easily customizable for varied age groups and/or difficulty levels. Pre/post assessment handouts, competition rules and judging rubric are provided.

Students follow the steps of the engineering design process (EDP) while learning about assistive devices and biomedical engineering. They first go through a design-build-test activity to learn the steps of the cyclical engineering design process. Then, during the three main activities (7 x 55 minutes each) student teams are given a fictional client statement and follow the EDP steps to design products an off-road wheelchair, a portable wheelchair ramp, and an automatic floor sweeper computer program. Students brainstorm ideas, identify suitable materials and demonstrate different methods of representing solutions to their design problems scale drawings or programming descriptions, and simple models or classroom prototypes.

General introduction to systems engineering using both the classical V-model and the new Meta approach. Topics include stakeholder analysis, requirements definition, system architecture and concept generation, trade-space exploration and concept selection, design definition and optimization, system integration and interface management, system safety, verification and validation, and commissioning and operations. Discusses the trade-offs between performance, lifecycle cost and system operability. Readings based on systems engineering standards and papers. Students apply the concepts of systems engineering to a cyber-electro-mechanical system, which is subsequently entered into a design competition.
Students will prepare a PDR (Preliminary Design Review)-level design intended for the Cansat Competition.This year's class will be taught in the form of a Small-Private-Online-Course (SPOC) and offered simultaneously to students at MIT under number 16.842 and Ecole Polytechnique Fédérale de Lausanne (EPFL) as ENG-421.

In this video segment from NASA, robotics researcher Ayanna Howard uses engineering to improve the intelligence of robots in space exploration.

Public policy issues are important to every field of engineering. Yet, most engineering students know little about the topic. For most students, however, an entire course focused on the topic is not necessary. For example, a class on engineering design could incorporate a case study on 3D printing policy.

This course will introduce students to the interrelationship of engineering and public policy, how to conduct neutral policy analysis, and then apply that knowledge in case studies to practice the skills they have learned. The modules takes a flipped classroom/active learning approach by using short videos to educate students, activities to practice the skills taught, and incorporates real-world examples such as hydraulic fracturing, drones, and 3D printing.

This course introduces concepts and techniques relevant to the production of large software systems. Students are taught a programming method based on the recognition and description of useful abstractions. Topics include modularity, specification, data abstraction, object modeling, design patterns, and testing. Students complete several programming projects of varying size, working individually and in groups.
Students are now introduced to software engineering in 6.005 Elements of Software Construction, which is available on OCW in two versions, as taught in Fall 2008 and Fall 2011.