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Guided learning journeys that build knowledge step by step.
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7807 Paths · page 286 / 781
This learning path introduces high school students to the fundamental manufacturing processes: casting, forming, machining, joining, and additive manufacturing. It builds from basic material properties and measurement skills to understanding how each process works, its applications, and how to select the right process for a given product.
This learning path introduces beginners to the four main classes of engineering materials—metals, polymers, ceramics, and composites—and their key properties relevant to manufacturing. It covers fundamental concepts such as atomic bonding, crystalline structures, and mechanical testing, and explains how processing affects material behavior. Designed for high school students, the path builds a foundation for understanding material selection in manufacturing.
This learning path equips pre-engineering students with the essential mathematical tools used in manufacturing engineering. It progresses from basic algebra through geometry, calculus, statistics, and optimization, emphasizing practical applications in manufacturing contexts.
This learning path introduces high school students to the scope, history, and core concepts of manufacturing engineering. It covers the evolution of manufacturing, materials, processes, systems, automation, and quality, providing a foundational understanding for further study.
This learning path guides graduate students and researchers through the systematic process of conducting research in environmental engineering, from formulating research questions to disseminating findings. It covers problem formulation, literature review, experimental and field study design, data analysis, scientific writing, and research ethics, with an emphasis on interdisciplinary knowledge and practical application.
This graduate-level path explores how atmospheric chemical processes influence climate and vice versa, focusing on ozone, aerosols, greenhouse gases, and climate models within the context of air pollution engineering. It builds from atmospheric fundamentals through chemical kinetics and photochemistry to advanced topics in aerosol-cloud interactions and climate modeling, culminating in an integrated understanding of chemistry-climate feedbacks.
This advanced graduate-level path explores the integration of smart technologies into water systems, covering sensors, IoT, data analytics, and SCADA. Learners will understand how these technologies enhance water treatment and distribution, with a focus on real-world applications and system integration.
This advanced graduate-level learning path equips learners with the knowledge and skills to apply biotechnological tools—including bioaugmentation, enzymatic remediation, biosensors, and genetic engineering—to address environmental challenges. It integrates core environmental microbiology concepts with cutting-edge molecular techniques, emphasizing sustainable solutions for pollution control and ecosystem restoration.
This learning path introduces the principles and practices of green building design, with a focus on LEED certification. It covers environmental basics, sustainable design strategies, energy efficiency, and the LEED credit framework, providing a solid foundation for students and professionals interested in sustainable building.
This graduate-level learning path equips learners with the knowledge and skills to apply circular economy principles to environmental engineering challenges. It covers foundational concepts, quantitative assessment tools, design strategies, resource efficiency, and real-world case studies, culminating in the ability to design for circularity.