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Distance Learning and Part-Time Enrollment
The
Inamori School of Engineering offers Distance Learning
(DL) courses that are supplementary to the traditional
on-campus programs. Lectures for all DL courses are
video taped and then uploaded to the server. This
allows students to view their class lecture on the
same day as the other students, some exceptions may
apply. Many of the courses have an on-line component
that includes access to course documents, reference
materials, discussion forums, homework assignments,
quizzes, and an individual grade book. Exams can
be taken on-campus or off-site with the assistance
of a proctor, such as the student's work supervisor
or HR representative. Some laboratory courses are
offered to DL learners who live near Alfred University.
In addition to video taped lectures, students enrolled
in these courses attend weekly lab sessions in the
evening or on weekends.
All DL courses are offered for credit and can be applied towards degree requirements. For more information about admission to our Engineering degree programs, go to the AU Admissions webpage. DL students may register for classes using the form available here or on campus at the Student Service Center in Seidlin Hall.
Requirements: Computer and High Speed Internet.
Courses offered for Spring 2011
CEMS 215 - Microscopy and Microstructural Characterization
Students learn how to use optical and scanning electron microscopes for a range of applications. Underlying principles of the interactions of light and electron beams with materials are presented, and these interactions are related to crystal structure and microstructure of materials. Topics covered include mineral, phase, and element identification, characterization of microstructure, measurements of geometrical quantities, determinations of index of refraction, identification of defects, analysis of fracture surfaces, uses of microscopy in quality control, specimen preparation, photography using microscopes. There are two lectures and one lab each week. Prerequisite: CEMS 214 or 216, previously or concurrently. 3.000 Credit hours 3.000
CEMS 216 - Bonding and Structure of Materials
An introduction to the basic principles of solid materials structure. Electronic, atomic, and crystal structure are the primary focus for discussion. Structure is the foundation for understanding the physical and chemical properties of materials and for discussing defects in crystals. Key concepts are bonding within solids, rules that govern packing of atoms to form crystals, crystal structure, techniques for describing material's crystallography and selected properties of crystalline materials. Discussions culminate in an overview of common crystal structures in metals and ceramics. Prerequisites: CHEM 106 and CEMS 214. 3.000 Credit hours
235 - Thermodynamics of Materials
This course introduces the fundamental concepts of thermodynamics, equilibrium, and thermochemistry relevant to materials systems. Prerequisites: CHEM 106, MATH 253, CEMS 214. 4.000 Credit hours
CEMS 325 - Glass Laboratory
This laboratory prepares students to fabricate and measure the properties of glass correlating composition and property relations, and observing trends. Optical property analysis is emphasized as are novel fabrication techniques such as sol-gel glass design for high-tech applications such as biomedical and photonics. Pre- or co-requisite CEMS 322. 2.000 Credit hours 2.000
CEMS 334 - Introduction to Polymers
An introduction to the polymeric materials for engineering and industrial use that studies the fundamental classes, processing, properties, and uses of polymeric materials. In addition to the major polymers, specialty polymers for biological, electrical, and high-performance uses are discussed. Necessary organic nomenclature is covered. Prerequisite: CEMS 235 or CHEM 343. 3.000 Credit hours
CEMS 344 - Properties II: Electrical, Magnetic, and Optical
Underlying the macroscopic electrical (electronic) properties of materials is the behavior of the atomic state. In this course, a summary of basic concepts covering the electrical, magnetic, and optical behavior of solids is presented. Emphasis is placed on the fundamental properties of electrons and ions in solids. The relationship of these fundamental properties to ceramics is discussed using microstructure, property relations. The use of materials (ceramics) in electrical, magnetic, and optical devices is discussed through solutions to numerical problems. Prerequisites: PHYS 126, MATH 271, CEMS 237. 4.000 Credit hours
CEMS 500 - Special Topics
The course covers advanced topics which are not ordinarily covered in detail in the general curriculum, but are either current areas of faculty research or areas of current or future industrial interest. 2.000 TO 4.000 Credit hours
CEMS 545 - Characterization in Materials Science and Engineering
The course will provide the student with detailed knowledge of the interactions of electromagnetic radiation with matter. Particle probes used in materials characterization will also be considered. A theoretical approach to understanding the mechanisms of interaction will provide the foundation for understanding any of the plethora of materials characterization techniques, including capabilities and limitations. 3.000 Credit hours 3.000
ELEC 220 - Circuit Theory I
Voltage and current laws, voltage and current sources, resistor, capacitor, and inductor. Series and parallel circuits, equivalent circuits, mesh and node equations, sinusoidal response, electric power and energy. Prerequisite: PHYS 126; pre- or co-requisite: MATH 271. 4.000 Credit hours 4.000
ELEC 356 - Electronic Circuits
Analysis and design of small signal and large signal electronic amplifiers. Frequency response, feedback, operational amplifiers. Prerequisite: ELEC 354. 4.000 Credit hours 4.000
ELEC 444 - Optical Fiber Communication Systems
Basic optical fiber communication components including optical fibers, optical transmitters, and optical receivers; basic concept of analog and digital signals, channel multiplexing, and modulation; geometrical-optics description, wave propagation, dispersion, and fiber loss; system design and performance. 3.000 Credit hours 3.000
ELEC 544 - Optical Fiber Communication Systems
Basic optical fiber communication components including optical fibers, optical transmitters, and optical receivers; basic concept of analog and digital signals, channel multiplexing, and modulation; geometrical-optics description, wave propagation, dispersion, and fiber loss; system design and performance. 3.000 Credit hours 3.000
MECH 241 - Mechanics of Materials I
The mechanics of solid deformable bodies, members subjected to tension, compression, flexure and torsion. Beam topics, stability of columns, combined stresses and strains. Prerequisite: MECH 211. 3.000
MECH 321 - Thermodynamics II
Applications of thermodynamic principles to the analysis of energy systems including power and refrigeration cycles. Mixtures and solutions, chemical reactions and equilibrium. Prerequisite: MECH 320. 3.000 Credit hours 3.000
MECH 326 - Heat Transfer
Principles of steady-state and transient conduction, radiation and convection. Applications to heat exchangers and environmental problems. Prerequisites: MECH 320, 324. 3.000 Credit hours 3.000
MECH 366 - Manufacturing
Analysis of manufacturing processes. Topics include casting, forging, extrusion, drawing, sheet-metal working, machining, powder metallurgy, fabrication of non-metals, joining, and many others. Plant tours are a required part of the course. Prerequisite: MECH 244 or CEMS 214. Pre- or Co-requistes: MECH 364 and ENGR 305. 3.000 Credit hours
MECH 434 - Heating, Ventilation, and Air Conditioning
Applied engineering thermodynamics; psychometrics; humidification and dehumidification processes; air cooling processes, heating processes; heat vapor transmission, fluid flow and pressure losses; air conveying and distribution. Prerequisite: MECH 321, (MECH 326 or CEMS 332). 3.000 Credit hours 3.000
Download Distance Learning Courses offered for Spring 2011. For more information on Alfred University courses, visit our on-line catalog.
For more information, contact Ms. Emilie Carney, Assistant Dean