Chair, Associate Professor Darren Craig
Engineering Program Director
Our department serves physics and engineering majors and the general Wheaton student population by providing robust student-centered learning experiences that draw on the unique ways of knowing common to our discipline from a genuinely Christian liberal arts perspective. The study of matter, energy, and their interactions provides fertile ground for enhanced worship of the Creator and for collaborative theoretical, experimental, and computational learning and research among faculty and students in a strong and supportive community. Students grow in their love and worship of God by engaging with His good creation and preparing for lives of service to the church and society.
The department offers several tracks of study leading to a Bachelor of Science or Bachelor of Arts in Physics. A Dual Degree Engineering Program is also available leading to two degrees: a Bachelor of Arts or Science in Liberal Arts Engineering from Wheaton combined with a full Bachelors degree from any other school that offers a fully ABET accredited program in the engineering discipline of interest. Detailed requirements and course offerings for both physics and engineering are summarized below.
The physics curriculum is organized to prepare a student for graduate work in physics or a related discipline as well as a range of other vocations that make use of the analytical and problem solving skills of a physicist. The Bachelor of Science in Physics track incorporates all of the necessary coursework to prepare a student for graduate work in physics. The Bachelor of Arts in Physics overlaps nearly completely with the Bachelor of Science track but allows the student more freedom to select from a set of upper level core courses. The BA degree is not appropriate for those going on to graduate work in physics but provides more flexibility for those who plan to go on to professional schools such as engineering, law, and medicine, or for those students who plan to go straight into the workplace after graduation. The Bachelor of Science with Secondary Education track prepares students for high school physics teaching. Bachelors of Science degrees in Chemical Physics and Geophysics offer students the opportunity to substitute advanced coursework in chemistry or geology for some of the advanced coursework in physics in order to develop proficiency in areas where physics overlaps substantially with those disciplines. The Chemical Physics curriculum offers a broad education in physical chemistry and physics. The Geophysics curriculum is a good option for a student interested in resource exploration, international development work, or preparing for a career in civil engineering.
All physics majors are strongly encouraged to takein their freshmen year.
Bachelor of Science in Physics requirements are 42 hours in physics, including PHYS 231 or 233, 232 or 234, , , 333, , 335, 341, 342, 344, 351, 353, and 494; and two additional hours chosen from , , 352, 354, 359, 361, 362, 366, and . Supporting course requirements are MATH 231, 232, and CHEM 236. (4 hours) and may be taken in place of , and (4 hours) may be taken in place of .
Bachelor of Arts in Physics requirements are 38 hours in physics, including or , or , , , , , , , , , and any two courses selected from , , , or . The two required elective hours may be chosen from , , , , , , , and . Supporting course requirements are , , and . (4 hours) and may be taken in place of , and (4 hours) may be taken in place of . Students wishing to pursue graduate studies in physics should not pursue this degree but should instead complete the requirements for the Bachelor of Science in Physics.
Bachelor of Science in Physics with Secondary Education requirements are and four additional hours to be taken from , , , or ; ; CHEM 236; ASTR 301 or 302; GEOL 211; BIOL 201 or , and SCI 321; Education courses as required by the Education Department. Students opting for this program should spend at least one year as a teaching assistant in the Physics Department. Completion of these requirements will lead to teacher licensure. A Master of Arts in Teaching (MAT) program is also available with a Physics major. A combined Bachelor’s/MAT program may be completed in five years and one summer. See the Education section in this catalog.
Bachelor of Science in Physics: Chemical Physics requirements are 20 hours of Physics, including PHYS 231 or 233, 232 or 234, 333, , 361, 494, and four additional hours; 16 hours of Chemistry, including CHEM 236, 237, 355, 371, and 372; and 10 hours of Mathematics, including MATH 231, 232, and 2 hours of MATH 333.
Bachelor of Science in Physics: Geophysics requirements are 20 in Physics, including PHYS 231 or 233, 232 or 234, 333, , 494 and six additional hours; 16 hours in Geology, including GEOL 201 or 211 or 221, 321 or 437, 365, 443, and 2 hours of GEOL 495; and 10 hours of Mathematics, including MATH 231, 232, and 2 hours of MATH 333.
Requirements for a minor in Physics are 20 hours in physics, including PHYS 231, 232, 333, , and eight additional hours chosen from other courses applicable to the department major. PHYS 321 and 322 do not count toward the 20 hours for a minor.
The Departmental Honors Program is available to all physics majors who maintain a 3.70 GPA in the major, and an overall GPA of 3.50. Eight credit hours of designated honors coursework are required, four of which may consist of a modified major course, and four of which must be , resulting in the completion of a research thesis. Successful completion of the program will result in a Departmental Honors designation on the student’s transcript. Students must submit an application to the department at least one year prior to graduation to participate in the honors program. See the department for details.
See the Financial Information section of this catalog for course fees.
PHYS *205. Physics of Music. Basic concepts of sound and acoustics; vibrations, waves, fundamentals and overtones, musical scales, harmony, noise, physical and physiological production, and detection of sound waves; acoustical properties of materials and enclosures. (2)
PHYS *221. General Physics I. Newtonian mechanics, energy, waves and heat. Non-calculus based. Three hours lecture, three hours laboratory. Prerequisite: Pre-calculus (algebra and trigonometry) competence. Not open to students with prior credit for or .
PHYS *222. General Physics II. Electromagnetism, optics, and modern physics. Non-calculus based. Three hours lecture, three hours laboratory. Prerequisite: PHYS 221. Not open to students with prior credit for or .
PHYS 228. University Physics I. Newtonian mechanics, energy, waves and heat. Calculus based. Three hours lecture, three hours laboratory. Pre or Corequisite: or equivalent. Not open to students with prior credit for or . Summer only.
PHYS 229. University Physics II. Electromagnetism, optics, and modern physics. Calculus based. Three hours lecture, three hours labroratory. Prerequisite: and or equivalent. Not open to students with prior credit for or . Summer only.
PHYS 231. Introductory Physics I. Energy and momentum, conservation laws, Newtonian mechanics, Einstein’s special relativity. Three hours lecture, three hours laboratory. Pre or Corequisite: MATH 231.
PHYS 232. Introductory Physics II. Electricity, magnetism, quantum mechanics, atomic and nuclear physics. Three hours lecture, three hours laboratory. Prerequisite: 4 hours of or . Pre or Corequisite: MATH 232.
PHYS 233. Introduction to Special Relativity. Reference frames, nature of spacetime, conservation of four-momentum. Prerequisites: score of 4 or 5 on AP Physics C- Mechanics or equivalent. Pre or Corequisite: MATH 231. (1)
PHYS 234. Introduction to Quantum Mechanics. Quantum mechanics, atomic and nuclear physics. Three hours lecture, three hours laboratory. Prerequisites: PHYS 231 or PHYS 233 and score of 4 or 5 on AP Physics C- Electricity/Magnetism or equivalent. Pre or Corequisite: MATH 232 or equivalent. (2)
PHYS 294. Physics and Engineering Seminar. Exploration of professional issues related to the physics and engineering disciplines including career choices, current research and trends, the relationship of physics/engineering to church and society, and the relationship of physics/engineering to the liberal arts. Open to freshmen and sophomores only. (1)
PHYS *301. Origins of Modern Science. The historical development of science from its Babylonian and Egyptian origins, through Greek science to the scientific revolution, including basic concepts in astronomy and mechanics, and their cultural interactions. Prerequisite: 4 hour lab course in the Studies in Nature cluster. (2)
PHYS *302. Ideas of Modern Science. The historical development of the ideas of science from the Newtonian synthesis to the present, including concepts in optics, electromagnetism, relativity, and quantum theory and their cultural interactions. Prerequisite: 4 hour lab course in the Studies in Nature cluster. (2)
PHYS 311. Introduction to Medical Physics. A survey of radiation therapy, nuclear medicine, diagnostic imaging, and health physics with discussion on ethical and stewardship concerns of these technologies. Prerequisites: or . (2)
PHYS 321. Math Methods for Physics and Engineering I. Vector Calculus, Matrices and Determinants, Linear Vector Spaces, Probability and Statistics. Applications in classical and quantum mechanics, electricity and magnetism appropriate for science and engineering. Prerequisite: and .
PHYS 322. Math Methods for Physics and Engineering II. Infinite Series, Fourier Analysis, Ordinary and Partial Differential Equations, Special Functions, Calculus of Variations. Applications in classical and quantum mechanics, electricity and magnetism appropriate for science and engineering. Prerequisite: and .
PHYS 333. Thermal Physics and Fluids. An introduction to the thermodynamic principles of microstates, entropy, and heat engines as well as basic fluid mechanical concepts of buoyancy and fluid flow. Prerequisite: . (2)
PHYS 334. Computer Modeling of Physical Systems. An introduction to computer methods for the analysis, modeling and simulation of physical systems and analysis of experimental data. Applications taken from mechanics, fluids, electricity and magnetism. Prerequisite: . (2)
PHYS 335. Modern Science Skills Laboratory. Development of skills in experimental technique, error analysis, writing lab reports, oral presentations, use of spreadsheets and Matlab, and the study of ethical issues in industry. Prerequisites: PHYS 321 (or consent of instructor) and . (2)
PHYS 341. Analytical Mechanics. Particle and rigid body dynamics, central forces and gravitation, rotating systems and bodies, Lagrange and Hamilton formulations, generalized coordinates, and normal modes. Prerequisites: , (or MATH 331 and ), and (or MATH 333). Alternate years.
PHYS 342. Electromagnetic Theory. Electrostatics, steady currents, electromagnetic induction, Maxwell's equations, electromagnetic waves, and radiation. Pre or Corequisite: or . Prerequisites: PHYS 334 and (or ). Alternate years.
PHYS 343. Experimental Physics. Basic experimental methods and laboratory experiments in electrical measurements and modern physics given as an independent research project. Six hours laboratory. Prerequisites: and Junior or higher standing. (2, lin)
PHYS 344. Quantum Mechanics. Elements of quantum physics, solutions of Schroedinger's equation applied to atomic and molecular structure, applications, interpretations. Prerequisites: PHYS 334, (or and ), and (or ). Alternate years.
PHYS 351. Analog Electronics. Basic principles of electronic circuits and devices. AC and DC circuit fundamentals, filters, diodes, transistors, amplifiers, and operational amplifiers. Three hours lecture, three hours laboratory. Prerequisite: PHYS 334. Alternate years. (2)
PHYS 352. Computer Data Acquisition. Digital electronics, analog to digital conversion, computer interfacing, and data acquisition with LabView software. Three hours lecture, three hours laboratory. Prerequisite: PHYS 351. Alternate years. (2)
PHYS 353. Introductory Optics. Electromagnetic and quantum mechanical theory of light, geometrical and physical optics, interference, diffraction, and optical instruments. Three hours lecture, three hours laboratory. Prerequisite: and (or consent of instructor). Alternate years. (2)
PHYS 354. Advanced Optics. Light propagation in matter, polarization, Fourier optics, aberrations, holography, lasers, and modern optical materials and components. Three hours lecture, three hours laboratory. Prerequisite: PHYS 353. Pre or Corequisite: . Alternate years. (2)
PHYS 361. Solid State Physics and Nanotechnology. Bonding and structure of crystals, electronic properties of insulators, semiconductors, metals, and superconductors, limits of smallness, molecular assembly, and nanoscale physics. Prerequisite: PHYS 344 or . Alternate years. (2)
PHYS 362. Plasma Physics. Introduction to plasma physics including definition of a plasma, single particle and guiding center motions, fluid descriptions, waves, instabilities, and applications of plasma physics in space and astrophysics, controlled thermonuclear fusion, and industry. Pre or Corequisite: . Alternate years. (2)
PHYS 366. Particle Physics and Cosmology. Elementary particles, fundamental interactions, conservation laws and symmetries, big bang cosmology, dark matter and dark energy. Prerequisite: PHYS 334. Alternate years. (2)
PHYS 367. Introduction to Stellar and Galactic Astrophysics. Introduction to stellar and galactic astrophysics with an emphasis on the underlying physical principles. Course has an integrated lab component (2 hours lecture, 1 hour lab per week) Topics: Structure and evolution of stars, stellar atmospheres and spectra, binary stars and stellar remnants. Galactic dynamics, morphology, and evolution; large-scale structure of the universe. Prerequisite: (or ) and . Alternate years. (4)
PHYS 494. Seminar. Study of the wider cultural significance of physics including its historical development; its relationship to other disciplines; its philosophical interpretations; its place in a Christian worldview; and one's stewardship toward society. Independent study and classroom presentation. Prerequisite: senior standing in the major. (2, lin)
PHYS 499. Honors Thesis. An independent project providing original laboratory research developed in a scholarly paper and culminating in an oral examination. Fulfills partial requirement for an honors degree in physics. Additional requirements are available in the Physics Office. (2-4 hours).
*Not applicable to physics major or minor.
ASTR 301. Planetary Astronomy. Observation of the sky and its cycles. Study of historical ideas about the planets, origin and development of the solar system, and modern discoveries in planetary astronomy. Prerequisite: 4 hour lab course in the Studies in Nature cluster. (2)
ASTR 302. Stellar Astronomy. Observation of the sky and it cycles. Study of Big Bang Cosmology and the life history of stars in the light of Christian theology. Prerequisite: 4 hour lab course in the Studies in Nature cluster. (2)
ASTR 303. History of Cosmology. Study of the historical development of cosmology in ancient Egypt, Mesopotamia, India, Greece, Asia, and the Americas through contemporary developments. Cultural and religious interactions with developments in cosmology are emphasized. Prerequisite: 4 hour lab course in the Studies in Nature cluster. Nature cluster non-lab general education course. Diversity designation (2)
A five-year program is offered leading to two degrees, a Bachelor of Arts or Bachelor of Science from Wheaton and an engineering degree from an ABET accredited engineering program at another institution. This arrangement allows students to complete degrees in a wide array of engineering disciplines. The student must meet the requirements of the school to which admission is sought. Transfer agreements are in place with Illinois Institute of Technology (IIT), University of Illinois - Chicago (UIC), and the University of Minnesota - Twin Cities but students may transfer to any ABET accredited engineering program at other institutions as well.
Several commonly required lower division engineering courses are offered by engineering faculty at Wheaton to prepare students for successful completion of engineering requirements at the engineering school in the final two years of the dual degree program. (See course information below.) Transfer of the Wheaton College engineering courses to meet requirements at engineering schools is likely but not guaranteed. Each student should verify that any courses taken at Wheaton will transfer successfully for the specific program and institution of interest.
A joint program arrangement with IIT allows students to take other engineering courses not offered at Wheaton during the first three years of the five year program. Students must register at both Wheaton College and IIT for the courses taught at IIT in the first three years. Courses will usually be taken at the IIT main campus in Chicago but some courses may be made available on internet upon request. Approved course tracks for the full five years with IIT as the transfer school are available from the Engineering Program Director. IIT programs are available in aerospace, architectural, biomedical, chemical, civil, computer, electrical, and mechanical engineering. Refer to IIT catalog for course descriptions.
Students completing their engineering coursework at a school in the vicinity of Wheaton College (e.g. IIT or UIC) during the last two years of the five year program, by virtue of their continuing in the Wheaton College dual degree program, may remain in Wheaton College housing and may continue to participate fully in extra-curricular activities at the College, including athletics.
Requirements for the Wheaton degree include: CHEM 236; MATH 231 and 232; PHYS 231, 232, (or MATH 331), (or ), 333, , and 335. Students planning a degree in chemical engineering are exempt from MATH 331, and provided that they take CHEM 341 and 342. Students planning a degree in biomedical engineering are exempt from and provided that they take CHEM 341 and 342. Students in the engineering program do not need to take a biology or geology course to meet the Nature cluster general education requirement. The Bible general education requirement for students in the LA/Engineering program is BITH 111, 211 or 212, 213 or 214, and 315 or 316 for a total of ten hours which can be reduced by competency testing. Some engineering schools will require additional coursework beyond the Wheaton requirements prior to transfer. Up to eight hours of non-engineering coursework at the engineering school may be transferred back to Wheaton to meet Wheaton requirements.
In all cases a transcript from the engineering school indicating that all engineering requirements have been met must be received by the Wheaton registrar before the Wheaton Liberal Arts Engineering degree will be conferred. Students who complete all Wheaton College course requirements by the end of their fourth year may participate in the commencement ceremonies of that year.
ENGR 101. Introduction to the Engineering Profession. Introduces students to the engineering profession. The engineering disciplines, problem solving approaches, design processes, professional practices, licensure, engineering ethics, and teamwork will be explored through discussion, reading, research, and guest visits by practicing engineers. The importance of the liberal arts and the impact of faith on the practice of engineering will be explored. Freshmen and sophomores only. (1)
ENGR 105. Fundamentals of Engineering Graphics. Introduces students to engineering graphics, the means by which engineers communicate design and fabrication information. Topics cover: utilization of engineering graphics; information on graphics; use of the basic graphic tools; orthographic views in both third and first angle projections; auxiliary, section, isometric, and perspective views. This course acquaints students with the processes that are automated within Computer Aided Drafting and Design (CADD) software and expectations for CADD work product. Freshmen and sophomores only. (2, linear)
ENGR 125. Introduction to AutoCAD. Introduction to AutoCAD with emphasis on the fundamentals of Computer-Aided Drafting and Design (CADD). Introduces concepts, techniques and procedures necessary to facilitiate a basic functional understanding of AutoCAD and the process of using AutoCAD tools to create, dimension, and annotate basic engineering drawings. Freshmen and sophomores only. (2, linear)
ENGR 201. Engineering Mechanics 1 - Statics. Systems of units; gravitation; Newton’s laws of motion; equilibrium and free-body diagrams; particles, forces and moments; structures in equilibrium; centroids and center of mass; moments of inertia; friction; beam loadings; cables; fluids; virtual work and potential energy; particle kinematics; and, rotating bodies. Prerequisites: and or .
ENGR 202. Engineering Mechanics 11. – Dynamics. Topics include: kinematics and kinetics of particles; Newton’s laws of motion; energy, momentum, systems of particles; rigid bodies; free-body diagrams; mass, acceleration, and force; plane motion of rigid bodies; and, conservation of energy and momentum. Prerequisite: . Pre or Corequisite: or .
ENGR 204. Innovative Design in Engineering. Provides the student engineer with first hand experience in moving from a stated need to a developed and proof-tested product. Topics include project logbooks and plans, evaluating concepts and selecting a design, preparing design documents, fabrication, development and testing of prototypes, stewardship of the environment, preparation of engineering reports, and principles of contract, engineering, and patent law. Prerequisites: and .
ENGR 223. Strength of Materials. Provides a broad range of knowledge of the behavior of materials under load. Topics include: mechanical properties; plane stress and strain; stress and strain relations; axially loaded members; Mohr's circle; stress transformation; torsion of shafts; bending and normal and shear stresses in beams; beam deflection; and combined loading. Prerequisite: .
ENGR 225. Materials Science. Presents the scientific principles underlying the structural analysis of ceramic, composite, metallic (including semiconductors), and polymeric materials. Topics include atomic bonding and structure, electronic structure, micro- and macrostructure. Principles of structural effects on the chemical, mechanical, and physical properties of material are also addressed. Prerequisite: .
Revision date: June 1, 2015
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