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Overview
Striebig's DISCOVERING ENGINEERING DESIGN IN THE 21ST CENTURY: AN ACTIVITIES-BASED APPROACH, with WebAssign digital resources, offers beginning engineering students experiential engineering practice that helps contextualize engineering analysis and design. Active learning exercises describe and model fundamental engineering theories throughout to reveal how these theories impact engineering design processes. Applicable engineering fields of study are also identified and explored through hands-on learning examples that offer students practical experience.
- ACTIVE LEARNING EXERCISES ENGAGE STUDENTS. This book provides active learning exercises and a detailed list of resources to provide hands-on learning activities that engage students in identifying, formulating and solving open-ended engineering problems.
- PROBLEMS OFFER REAL-WORLD CONTEXT. Problems are contextualized and related to professional engineering fields of practice and multiple engineering majors to help students produce solutions that consider public health, safety and welfare.
- EXERCISES BUILD KEY ENGINEERING SKILLS. The open-ended exercises encourage students to analyze and interpret data, formulate and conduct experiments, and develop engineering judgment to draw their conclusions.
- RUBRICS OFFER ADDITIONAL INSIGHT. Rubrics are provided to help students understand approaches to engineering analysis and design and to evaluate other students' work with respect to global, cultural, social, environmental and economic factors.
- LMS INTEGRATION. WebAssign integrates with popular LMS systems for ease of use. WebAssign can eliminate manual entry of routine data by linking your institution’s information systems to our software.
- TEACH YOUR WAY. Facilitate learning through fully customizable settings including automatic point adjustments and browser lockdown, empowering you to build the course to your needs and keep students motivated.
1. ENGINEERING CONCEPTS AND SIMPLE TOOLS: MATERIALS, MASS, GRAVITY, AND MOMENT ARMS.
Introduction. Engineering Science and Practice. Fundamental Unit Analysis. Analysis of Forces. Newton’s Law. Visualization – Engineering Drawing.
2. MEASUREMENTS AND EXPERIMENTS – DATA AND DECISIONS WITH SENSORS, RADIOS, AND ARDUINOS.
Introduction. Layers of Engineering and Science. Selecting Sensors to Capture Physical Phenomenon. Acquiring Data from Sensors. Automating Analysis with Programming Languages. Communicating Data and Results via RF Links.
3. STRUCTURES AND SOCIETY – STRUCTURAL ENGINEERING PROBLEM SOLVING TECHNIQUES TO DESIGN LONG-LASTING SOLUTIONS.
Introduction. A Brief History on Structural Engineering. The Structural Engineering Design Process. Problem Solving Techniques in Structural Engineering.
4. SUSTAINABLE DEVELOPMENT GOALS – ENGINEERING FOR ENVIRONMENTAL SUSTAINABILITY.
Introduction. Sustainable Development Goals. Civil and Environmental Engineering. Centralized Water Treatment Systems. Decentralized Water Treatment.
5. FOOD, WATER, AND NUTRIENTS IN THE CHESAPEAKE BAY: AN EARTH SYSTEMS ENGINEERING APPROACH.
Introduction. Earth Systems Engineering. The Blueprint for the Chesapeake Bay. Modeling Processes. Creating a Complex System Model using Multiple Processes.
6. APPROACHES TO ENGINEERING DESIGN.
Introduction. Engineering Design Process Overview. Problem Definition Phase. Conceptual Design Phase. Embodiment Design Phase. Detailed Design Phase.
7. DESIGNING FOR ENERGY EFFICIENCY.
Introduction. Energy, Engineering, and Mechanical Engineering. Energy Consumption. Energy Units. Direct and Embodied Energy. The Carbon Footprint. Decarbonization of Energy Supply.
8. LIFE CYCLE THINKING – UNDERSTANDING THE COMPLEXITY OF SUSTAINABILITY.
Introduction. How a Fly-fishing Rod Works. Design Choices for a Fly Rod. Materials Flow Analysis. Energy Flow Analysis. Life Cycle Thinking.
Introduction. Engineering Science and Practice. Fundamental Unit Analysis. Analysis of Forces. Newton’s Law. Visualization – Engineering Drawing.
2. MEASUREMENTS AND EXPERIMENTS – DATA AND DECISIONS WITH SENSORS, RADIOS, AND ARDUINOS.
Introduction. Layers of Engineering and Science. Selecting Sensors to Capture Physical Phenomenon. Acquiring Data from Sensors. Automating Analysis with Programming Languages. Communicating Data and Results via RF Links.
3. STRUCTURES AND SOCIETY – STRUCTURAL ENGINEERING PROBLEM SOLVING TECHNIQUES TO DESIGN LONG-LASTING SOLUTIONS.
Introduction. A Brief History on Structural Engineering. The Structural Engineering Design Process. Problem Solving Techniques in Structural Engineering.
4. SUSTAINABLE DEVELOPMENT GOALS – ENGINEERING FOR ENVIRONMENTAL SUSTAINABILITY.
Introduction. Sustainable Development Goals. Civil and Environmental Engineering. Centralized Water Treatment Systems. Decentralized Water Treatment.
5. FOOD, WATER, AND NUTRIENTS IN THE CHESAPEAKE BAY: AN EARTH SYSTEMS ENGINEERING APPROACH.
Introduction. Earth Systems Engineering. The Blueprint for the Chesapeake Bay. Modeling Processes. Creating a Complex System Model using Multiple Processes.
6. APPROACHES TO ENGINEERING DESIGN.
Introduction. Engineering Design Process Overview. Problem Definition Phase. Conceptual Design Phase. Embodiment Design Phase. Detailed Design Phase.
7. DESIGNING FOR ENERGY EFFICIENCY.
Introduction. Energy, Engineering, and Mechanical Engineering. Energy Consumption. Energy Units. Direct and Embodied Energy. The Carbon Footprint. Decarbonization of Energy Supply.
8. LIFE CYCLE THINKING – UNDERSTANDING THE COMPLEXITY OF SUSTAINABILITY.
Introduction. How a Fly-fishing Rod Works. Design Choices for a Fly Rod. Materials Flow Analysis. Energy Flow Analysis. Life Cycle Thinking.