30 courses with the subject EGM, each shown exactly as we captured it from the college's catalog, with every element we hold. Where the wording looks broken, that is our reading of the catalog, not the college's text.
This course will present students with practical experience in the design of products. Students will learn the principals of design including the design, build, analyze paradigm. Students will leverage the power of 3D printing to take a novel product from concept to manufacture.
Selected topics courses are regularly scheduled courses that focus on a particular topic of interest. Descriptions are printed in the Schedule of Classes each semester. Selected topics courses may be used as elective credit and may be repeated for credit, provided that the topic of the course changes.
Building upon the practical experiences in Design with Additive Manufacturing (EGM101), students will use the principals of design by reverse engineering an existing product. Emphasis will be placed on improved design and functionality by reverse engineering as existing product from initial inspection to manufacture during this laboratory.
Statics is the branch of engineering mechanics that is concerned with the analysis of forces on physical systems in static equilibrium. This class will help you interpret the forces supporting objects we encounter in our daily lives. Topics include: force systems, equilibrium, structural analysis, distributed forces, internal forces, friction, and virtual work. Finally, an introduction to mechanics of materials will be covered.
Analysis of motions of particles and rigid bodies encountered in engineering. Topics include: velocity, acceleration, relative motion, work, energy, impulse, and momentum. Further development of mathematical modeling and problem solving. Vector mathematics where appropriate.
An introduction to experimental methods in Mechanical Engineering relating to rigid body kinematics, and dynamics of vibrating systems. Experimentation, data acquisition and analysis / interpretation of experimental data, comparison of measurements to numerical/analytical predictions, and formal engineering report writing.
Application of physical and chemical properties to fundamental understanding, selection, and fabrication of engineering materials; relationship between microscopic structures and macroscopic properties of materials with emphasis on mechanical and electrical properties. Case studies include steels and semiconductors.
Selected topics courses are regularly scheduled courses that focus on a particular topic of interest. Descriptions are printed in the Schedule of Classes each semester. Selected topics courses may be used as elective credit and may be repeated for credit, provided that the topic of the course changes.
Restrictions: Must have the following level: Undergraduate
Building upon the practical experiences in EGM101 & EGM201, students will use the principles of design, to design an experiment to measure a physical quantity. In addition to designing the experiment, students will be required to design and manufacture the instrumentation for the experiment. Students will be expected to plan the design process of both the experiment and the instrumentation, as well as, prepare a proposal detailing the design including time and cost schedules.
An introduction to the theory and practice of finite element analysis. Basic computation of one and two-dimensional structural elements (such as truss, beams, and plane elements) are introduced. Complex applications of commercial finite element packages in the areas of statics, strength of materials, and heat transfer are covered through in-class (hands-on) experiences, and projects.
Building from a foundation of existing fundamental Computer Aided Design skills, students will develop requisite skills and management techniques to gain an understanding and appreciation to effectively use CAD from project inception to completion.
Using concepts of failure prevention, this course introduces machine component design. A wide range of engineered mechanical elements (such as fasteners, shafts, and springs) are analyzed considering manufacturing, design, and implementation. The principles of material selection and processing (including welding, machining, casting, forming, and molding) and their design are introduced. Finally, geometric interaction of elements is considered through fits and tolerances with emphasis on function, performance, and reliability.
This course will focus on the application of kinematics to the analysis, synthesis, and design of mechanisms. Specific topics covered will include linkage synthesis (graphically and analytically), position analysis, velocity analysis, acceleration analysis, cam design, and gear trains.
This course will focus on the modeling of dynamic systems in the mechanical. Electrical, thermal, and fluid domains. Steady-state and transient response will be addressed within the time domain and frequency domain techniques.
An introduction to solid mechanics, with topics including stress and strain in structural elements, mechanical properties of materials, extension / torsion / bending of members, combined loadings, static indeterminacy, stress / strain transformations, Mohr's circle, failure theories, buckling and strain energy.
Study of the properties, behavior, and performance of engineering materials including: stress-strain relations, strength, deformation, and fracture. Introduction to experimental techniques common to mechanical engineering: interpretation of experimental data, comparison of measurements to numerical/analytical predictions, and formal engineering report writing. COURSE FEE.
Properties of working fluids and fundamental relations for processes involving the transfer of energy. Topics include: First and second laws of thermodynamics, entropy, reversible and irreversible processes, properties of pure substance. Application to engineering problems.
Analysis of steady ideal and viscous fluid flow systems using the continuity, Bernoulli and momentum equations. Boundary layer theory is treated in terms of viscous and pressure drag, lift, and its importance in heat and mass transfer. Dimensional analysis and dynamic similitude are studied to provide an understanding of flow systems analysis and modeling. Introduction to pipe flow and open channel flow.
An introduction to experimental methods in Mechanical Engineering: review and use of pressure, temperature, and flow measuring devices. Experimentation, data acquisition and analysis selected from within the thermo-fluids area.
The course discusses quantitatively the three main modes of heat transfer; which are conduction, convection, and radiation. A combined approach will be followed that will stress both the fundamentals of the rigorous differential description of the involved phenomena and the empirical correlations used for engineering design.
Thermodynamics of power cycles, refrigeration, air conditioning, and combustion processes; analysis, design, and testing of systems involving both conventional and renewable energy sources for power generation, heating, and cooling applications.
Fundamentals of single and multistage vapor-compression refrigeration cycles and their component devices will be studied in depth. Psychrometric fundamentals and air treatment techniques common in air conditioning systems will be covered. Load estimation calculations will be performed.
This course will explore the background, theory, and practice of engineering measurements. Topics will include design of measurement systems, test plans, statistics, analog/digital sampling methods, and measurement instrumentation.
Selected topics courses are regularly scheduled courses that focus on a particular topic of interest. Descriptions are printed in the Schedule of Classes each semester. Selected topics courses may be used as elective credit and may be repeated for credit, provided that the topic of the course changes.
Fundamentals for understanding and manipulating the mechanical behavior of engineering materials. Building upon the principles of materials science and solid mechanics, this course covers the mechanisms, as well as the material structure-property relationship, behind material failure that includes fracture, fatigue and creep. Further, the theories and models for predicting and preventing material failure will be introduced through case studies on machinery and IC circuitry.
The objective of this course is for students to learn analytical, experimental, and numerical treatment of vibration phenomena. Topics include linear oscillator analysis (Laplace transforms, complex harmonic balance, Fourier transforms, eigenvalue problems, modal analysis, and simulation), experimental methods, and an introduction to nonlinear dynamic systems. Free and forced vibrations of mechanical systems with lumped inertia, springs, and dampers are the primary emphasis.
Selected topics courses are regularly scheduled courses that focus on a particular topic of interest. Descriptions are printed in the Schedule of Classes each semester. Selected topics courses may be used as elective credit and may be repeated for credit, provided that the topic of the course changes.
Restrictions: Must have the following level: Undergraduate Must not be enrolled in the following class: Freshman
Restrictions: Must have the following level: Undergraduate Must not be enrolled in the following class: Freshman
Source: State University of New York at New Paltz's catalog, linked per course · table learning_unit · CourseShelf publish 61
