| MST101 |
The course will introduce fundamental concepts in materials science and engineering, as applied to engineering disciplines. Students will learn about the structure of metals, ceramics, polymers, and composite materials and how engineering properties are derived from structure. Students will also learn how processing can be used to change the structure and therefore properties and uses of materials. Prerequisites: high school diploma or GED; MATH 121 or higher; ENGL 101 or higher; CHEM 111L or higher. |
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The course will introduce fundamental concepts in materials science and engineering, as applied to engineering disciplines. Students will learn about the structure of metals, ceramics, polymers, and composite materials and how engineering properties are derived from structure. Students will also learn how processing can be used to change the structure and therefore properties and uses of materials. Prerequisites: high school diploma or GED; Math 121 or higher; Engl 101 or higher; Chem 111L or higher. |
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| MST101L |
The course will introduce fundamental concepts in materials science and engineering, as applied to engineering disciplines. Students will learn about the structure of metals, ceramics, polymers, and composite materials and how engineering properties are derived from structure. Students will also learn how processing can be used to change the structure and therefore properties and uses of materials. Prerequisites: high school diploma or GED; Math 121 or higher; Engl 101 or higher; Chem 111L or higher. |
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| MST102 |
The course will build upon the fundamental concepts in materials science and engineering, as applied to engineering disciplines, and as introduced in Introduction to Materials Science I. Students will learn about the structure of ceramics, polymers, and composite materials and how corrosion resistance and other properties are derived from structure. Students will also learn about materials selection and design considerations, and the economic, environmental, and societal issues in materials science and engineering. Prerequisite: MST 101L |
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The course will build upon the fundamental concepts in materials science and engineering, as applied to engineering disciplines, and as introduced in Introduction to Materials Science I. Students will learn about the structure of ceramics, polymers, and composite materials and how corrosion resistance and other properties are derived from structure. Students will also learn about materials selection and design
considerations, and the economic, environmental, and societal issues in materials science and engineering. Prerequisite: MST 101L. |
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| MST102L |
The course will build upon the fundamental concepts in materials science and engineering, as applied to engineering disciplines, and as introduced in Introduction to Materials Science I. Students will learn about the structure of ceramics, polymers, and composite materials and how corrosion resistance and other properties are derived from structure. Students will also learn about materials selection and design
considerations, and the economic, environmental, and societal issues in materials science and engineering. Prerequisite: MST 101L. |
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| MST104 |
Microstructural characterization is the study of the interrelationship between structural characteristics and the physical and mechanical properties of metals, alloys and nonmetallic materials such as ceramics, polymers and composites. This course provides an overview of various techniques and their underlying principles. These include: optical microscopy; electron microscopy and related analytical techniques; X-ray, electron and neutron diffraction; and surface analysis. The students will also gain an understanding of the nature and origins of microstructural features, preparation techniques and differentiation between the true microstructure and preparation artifacts. Prerequisites: MATH 123, MST 101TT, MST 102T, or equivalent. |
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| MST109 |
Processing of materials plays a large role in determining their properties and performance. The objective of this course is to review processing and manufacturing techniques for metals, ceramics, polymers and composite materials. Topics to be covered include metal casting, processing of polymers and polymer matrix composites, powder processing of metals and ceramics, metal forming, machining and grinding, heat treatment of metals, joining processes, processing of integrated circuits, and electronics assembly and packaging. Prerequisites: MST 102L |
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Processing of materials plays a large role in determining their properties and performance. The objective of this course is to review processing and manufacturing techniques for metals, ceramics, polymers and composite materials. Topics
to be covered include metal casting, processing of polymers and polymer matrix composites, powder processing of metals and ceramics, metal forming, machining and grinding, heat treatment of metals, joining processes, processing of integrated
circuits, and electronics assembly and packaging. Prerequisites: MST 102L. |
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| MST109L |
Processing of materials plays a large role in determining their properties and performance. The objective of this course is to review processing and manufacturing techniques for metals, ceramics, polymers and composite materials. Topics
to be covered include metal casting, processing of polymers and polymer matrix composites, powder processing of metals and ceramics, metal forming, machining and grinding, heat treatment of metals, joining processes, processing of integrated
circuits, and electronics assembly and packaging. Prerequisites: MST 102L. |
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| MST110 |
Origin of mechanical properties of metals and polymers and the concepts are used to explain how various methods are used to strengthen materials. Property measurement and data interpretation. This course is designed to introduce the student to the basic mechanical behavior of metals and polymers. The origin of mechanical properties in engineering materials is discussed from a fundamental viewpoint and the concepts are used to explain how various methods used to strengthen materials actually work. Properties such as tensile strength, ductility, elastic modulus, hardness, fatigue life, and toughness are covered in this seminar. Prerequisite: MATH 123 |
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| MST112 |
Phase transformations strongly infl uence microstructural development. The objective of this course is to introduce students to important concepts associated with phase transformations. The course will review topics of thermodynamics and kinetics of phase transformations as well as diffusion and nucleation and growth. The course will also introduce the topics of precipitation, martensitic transformations and ordering reactions.
Prerequisite: MST 102L. Corequisite: MST 104L. |
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Phase transformations strongly influence microstructural development. The objective of this course is to introduce students to important concepts associated with phase transformations. The course will review topics of thermodynamics and kinetics of phase transformations as well as diffusion and nucleation and growth. The course will also introduce the topics of precipitation, martensitic transformations and ordering reactions. Prerequisite: MST 102T. Corequisite: MST 104. |
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| MST112L |
Phase transformations strongly infl uence microstructural development. The objective of this course is to introduce students to important concepts associated with phase transformations. The course will review topics of thermodynamics and kinetics of phase transformations as well as diffusion and nucleation and growth. The course will also introduce the topics of precipitation, martensitic transformations and ordering reactions.
Prerequisite: MST 102L. Corequisite: MST 104L. |
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| MST193 |
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| MST296 |
CR/NC.
Restriction: permission of Applied Technologies Curriculum Coordinator. |
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