1 / 254

Engineering Majors: Introduction, Functions, and Career Paths

This chapter provides an introduction to engineering majors, discussing characteristics of students who may be interested in engineering, the difference between engineers and scientists, and the various functions and career paths within the field of engineering.

slandry
Download Presentation

Engineering Majors: Introduction, Functions, and Career Paths

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. CHAPTER 2 Engineering Majors

  2. 2.1 Introduction • Several characteristics of students that might have an interest in engineering are: • Proficient skills in math and physical science • An urging from a high school counselor • Knows someone who is an engineer • Knows that engineering offers literally dozens, if not hundreds of job opportunities • Is aware that a degree in engineering is quite lucrative

  3. 2.1 Engineers and Scientists • Scientists seek technical answers to understand natural phenomenon • Engineers study technical problems with a practical application always in mind • For example • “Scientists study atomic structure to understand the nature of matter; engineers study atomic structure to make smaller and faster microchips”

  4. 2.1 The Engineer and the Engineering Technologist • Main difference between the two is: • Engineers design and manufacture machines and systems, while engineering technologists have the technical know-how to use and install the machines properly • An example: • “The technologist identifies the equipment necessary to assemble a new CD player; the engineer designs said CD player”

  5. 2.1 What Do Engineers Do? • Ways to get information about careers: • Visit job fairs • Attend seminars on campus by various employers • Contact faculty with knowledge of engineering fields • Get an intern or co-op position • Enroll in an engineering elective course

  6. 2.1 What Engineers Do

  7. 2.2 Engineering Functions: Research • Research engineers are knowledgeable in principles of chemistry, biology, physics, and mathematics • Computer know-how is also recommended • A Masters Degree is almost always required, and a Ph. D is often strongly recommended

  8. 2.2 Engineering Functions:Development • Development engineers bridge the gap between the laboratory and the production facility • They also identify problems in a potential product • An example is the development of concept cars for companies like Ford and GM

  9. 2.2 Engineering Functions:Testing • Testing engineers are responsible for testing the durability and reliability of a product, making sure that it performs how it is supposed to, every time. T.E.s simulate instances and environments in which a product would be used • Crash testing of a vehicle to observe effects of an air bag and crumple zone are examples of a testing engineer’s duties

  10. 2.2 Engineering Functions:Design • Design aspect is where largest number of engineers are employed • Design engineers often work on components of a product, providing all the necessary specifics needed to successfully manufacture the product • Design engineers regularly use computer design software as well as computer aided drafting software in their jobs

  11. 2.2 Engineering Functions:Design • Design engineers must also verify that the part meets reliability and safety standards required for the product • A concern always on the mind of design engineers is how to keep the development of a part cost effective, which is taken into account during a design process

  12. 2.2 Engineering Functions:Analysis • Analysis engineers use computational tools and mathematic models to enrich the work of design and research engineers • Analysis engineers typically have a mastery of: heat transfer, fluid flow, vibrations, dynamics, acoustics, and many other system characteristics

  13. 2.2 Engineering Functions:Systems • Responsible on a larger scale for bringing together components of parts from design engineers to make a complete product • Responsible for making sure all components of a product work together as was intended by design engineers

  14. 2.2 Engineering Functions:Manufacturing & Construction • Work individually or in teams • Responsible for “molding” raw materials into finished product • Maintain and keep records on equipment in plant • Help with design process to keep costs low

  15. 2.2 Engineering Functions:Operations & Maintenance • Responsible for maintaining production line • Must have technical know-how to deal w/ problems • Responsible for inspecting facility and equipment, must be certified in various inspection methods

  16. 2.2 Engineering Functions:Technical Support • Works between consumers and producers • Not necessarily have in depth knowledge of technical aspects of product • Must have good interpersonal skills

  17. 2.2 Engineering Functions:Customer Support • Often have more of a technical knowledge than Tech. Support, because they must be able to work with basic customers • Evaluate whether or not a current practice is cost effective via feedback from customers

  18. 2.2 Engineering Functions:Sales • Sales engineers have technical background, but are also able to communicate effectively w/ customers • Job market for sales engineers is growing, due to the fact that products are becoming more and more technically complex

  19. 2.2 Engineering Functions:Consulting • Are either self-employed, or work for a firm that does not directly manufacture products • Consulting engineers might be involved in design, installation, and upkeep of a product • Sometimes required to be a registered professional engineer in the state where he/she works

  20. 2.3 Engineering Majors:Aerospace Engineering • Previously known as aeronautical and astronautical engineering • First space flight Oct. 4, 1957 (Sputnik I) • KEY WORDS: • Aerodynamics: The study of the flow of air over a streamlined surface or body. • Propulsion engineers: develop quieter, more efficient, and cleaner burning engines.

  21. 2.3 Engineering Majors:Aerospace Engineering • KEY WORDS: • Structural engineers: use of new alloys, composites, and other new materials to meet design requirements of new spacecraft • Control systems: systems used to operate crafts • Orbital mechanics: calculation of where to place satellites using GPS

  22. 2.3 Engineering Majors:Agricultural Engineering • Concerned with finding ways to produce food more efficiently • KEY WORDS • Harvesting Equip. - removes crops from field, and begins processing of food • Structures: used to hold crops, feed, and livestock; Agricultural engineers develop and design the structures that hold crops

  23. 2.3 Engineering Majors:Agricultural Engineering • Food process engineers: concerned with making healthier processed food products • Soil/Water Resources: working to develop efficient ways to use limited resources

  24. 2.3 Engineering Majors:Architectural Engineering • Structural: primarily concerned with the integrity of the building structure. Evaluates loads placed on buildings, and makes sure the building is structurally sound • Mechanical systems: control climate of building, as well as humidity and air quality(HVAC)

  25. 2.3 Engineering Majors:Biomedical • First recognized in 1940’s • Three basic categories: Bioengineering, Medical, and Clinical • Bioengineering is application of engineering principles to biological systems • Medical engineers develop instrumentation for medical uses • Clinical engineers develop systems that help serve the needs of hospitals and clinics

  26. 2.3 Engineering Majors:Chemical • Emphasizes the use of chemistry and chemical processes in engineering • Chemical engineers develop processes to extract and refine crude oil and gas resources • Chemical engineers also develop circuit boards, and work in the pharmaceutical industry, where processes are designed to create new, affordable drugs

  27. 2.3 Engineering MajorsCivil Engineering • First seen in pyramids of Egypt • Structural engineers most common type of civil engineer • Transportation engineers concerned w/ design and construction of highways, railroads, and mass transit systems • Surveyors start construction process by locating property lines and property areas

  28. 2.3 Engineering MajorsComputer Engineering • Focuses primarily on computer hardware, not software • Work w/ electrical engineers to develop faster ways to transfer information, and to run the computer • Responsible for the “architecture” of the computer system

  29. 2.3 Engineering MajorsElectrical Engineering • More engineers are electrical than any other discipline • With an ever growing technological society, electrical engineers will ALWAYS have a job • Work in communications, microelectronics, signal processing, bioengineering, etc

  30. 2.3 Engineering MajorsEnvironmental Engineering • Often coupled with Civil Engineering • 3 aspects of environmental engineering: • Disposal: disposing of industrial/residential waste products • Remediation: clean up of a contaminated site • Prevention: working with corporations to reduce and/or prevent emissions and work to find ways to “recycle” products to be used again to reduce waste

  31. 2.3 Engineering MajorsIndustrial Engineering • “Design, improvement, and installation of integrated systems of people, material, and energy” • Emphasis placed on: Production, Manufacturing, Human Factors Area, and Operations Research • Production focuses on plant layout, scheduling, and quality control • Human Factors focuses on the efficient placement of human resources within a plant/facility

  32. 2.3 Engineering MajorsMarine and Ocean Engineering • Concerned with the design, development, and operation of ships and boats • Marine engineer designs and maintains the systems that operate ships, I.e. propulsion, communication, steering and navigation • Ocean engineer design and operates marine equipment other than ships, such as submersibles. O.E.s might also work on submarine pipelines and/or cables and drilling platforms

  33. 2.3 Engineering MajorsMaterials Engineering • Study the structure, as well as other important properties of materials, I.e. strength, hardness, and durability • Run tests to ensure the quality of the performance of the material • Material Engineers also study metallurgy, and the development of composites and alloys

  34. 2.3 Engineering MajorsMechanical Engineering • Concerned with machines and mechanical devices • Work in design, development, production, control, and operation of machines/devices • Requires a strong math and physics background. Often 4 or more math classes required for graduation

  35. 2.3 Engineering MajorsMining Engineering • Work to maintain constant levels of raw minerals used every day in industrial and commercial settings • Must discover, remove, process, and refine such minerals

  36. 2.3 Engineering MineralsNuclear Engineering • Most concerned with producing and harnessing energy from nuclear sources • Propulsion and electricity are the main uses of nuclear power • Engineers also responsible for disposal of the nuclear waste byproduct, and how to keep people safe from harmful nuclear products

  37. 2.3 Engineering MajorsPetroleum Engineering • Discover, remove, refine, and transport crude and refined oil around the world • PE’s design and operate the machinery used to refine crude oil into its many forms

  38. Chapter 3 Profiles of Engineers

  39. 3.1 Introduction • Diversity of the engineering work force • Wide range of engineering careers that are possible

  40. 3.1 Profile of a Biomedical Engineer • Sue H. Abreu, Ft. Bragg, North Carolina • Occupation: • Lieutenant Colonel, Medical Corps, United States Army • Medical Director, Quality Assurance, Womack Army Medical Center • Education: • IDE (BSE, Biomedical Engineering), 1978 • MD, Uniformed Services University of the Health Sciences, 1982

  41. 3.1 Profile of an Aerospace Engineer • Patrick Rivera Anthony • Occupation: • Project Manager, Boeing Space Beach • Education: • BS, Aerospace Engineering

  42. 3.1 Profile of a Civil Engineer • Sandra Begay-Campbell, Boulder, Colorado • Occupation: • AISES Executive Director • Education: • BSCE, 1987; MS, Structural Engineering, 1991

  43. 3.1 Profile of an Electrical Engineer • Ryan Maibach, Farmington, Michigan • Occupation: • Project Engineer at Barton Malow Company • Education: • BS-CEM (Construction Engineering and Management), 1996

  44. 3.1 Profile of an Agricultural Engineer • Mary E. Maley, Battle Creek, Michigan • Occupation: • Project Manager, Kellogg Company • Education: • BS, Agricultural Engineering (food engineering)

  45. Chapter 4 A Statistical Profile of the Engineering Profession

  46. 4.1 Statistical Overview • How many people study engineering? • What are the most common majors? • What kind of job market is there for engineers? • How much do engineers earn? • How many women and minorities study engineering?

  47. 4.2 College Enrollment Trends of Engineering Students • 1950s-1960s: 60,000-80,000 engineering students • 1970s marked the lowest number of students, at 43,000 • Engineering peaked in 1980s, with around 118,000 students

  48. 4.3 College Majors of Recent Engineering Students • Of approximately 350,000 full-time undergrad engineering students, just less than 1/3 (124,000) were majoring in computer and electrical engineering • Just over 32,000 were “undecided”

  49. 4.4 Degrees in Engineering • Steady decline in Engineering degrees awarded between 1986 and 1995. Since then, there have been many fluctuations, but as of data of 2000, there were 63,300 engineering degrees awarded • For a long time, electrical awarded the highest number of degrees, but that was eventually replaced by mechanical engineering

  50. 4.5 Job Placement Trends • 1999-2000 was the hottest year for engineering majors to find jobs • As the number of engineering students declines, employers must “fight” harder to get whatever students they can get their hands on to fill vacant positions. This has led to a very promising job placement ratio

More Related