Applied Physics

Bachelor of Science Degree

The applied physics B.S. program prepares graduates for a wide range of careers in emerging science, technology, and engineering fields as well as entry into graduate and professional programs in applied physics, instrumentation, material science, and engineering fields. The program is intended to be completed in four years, and the content of the program is fully compatible with the SUNY transfer path for physics, allowing for seamless transfer between SUNY institutions. First-time full-time students will need to complete 24 credits at FSC before enrolling in the program.  
 
An applied physics major differs from a standard physics major as it takes general concepts of physics, a broad foundational field, and provides opportunity for students to apply them in practical situations relevant to careers in emerging high-tech industries. The curriculum builds on a strong foundation in general physics and a rigorous mathematical preparation, and takes students through a progression of highly applied advanced courses such as Materials Thermodynamics, Photonics, and Quantum Optics. These courses are designed to provide students with marketable skills needed to launch a career in the technical R&D workforce where hands-on experience is key. Furthermore, students have the unique opportunity to apply the concepts gained from such courses through their enrollment in a three-semester research capstone experience culminating in the Applied Physics Thesis course, by which they work alongside faculty to perform cutting edge physics and applied physics undergraduate research. 

Applied Physics (BS) Program Outcomes: 
Upon completion of the program, applied physics graduates will be able to: 

  • Demonstrate the application of physics concepts across practical fields in multiple ways including mathematically, conceptually, verbally, pictorially, computationally by simulation, and experimentally. 
  • Exercise critical thinking in applying physics concepts to modern technology and to the solutions of complex technical or quantitative problems faced by industry and society. Emphasis will be placed on our relationship with our environment. 
  • Organize and communicate impactful ideas for a wide range of technical, engineering, and general audiences. Intrinsic to this goal, graduates will be able to work independently and collaboratively in diverse, interdisciplinary teams as a member or leader in pursuing a common goal. 
  • Engage in research and development activities, including organizing and applying course-based knowledge and guidance from research mentors to solve applied problems of broad practical interest in technically and industrially relevant fields.

Typical Employment Opportunities and Graduate/Professional School Options 
Examples of career paths and graduate/professional school opportunities for which this program can provide preparation are presented below: 
 
Materials Science and Engineering 
(characterization, testing, and development of advanced materials including semiconductors, thin films, nanomaterials, and functional materials for electronics, energy, and manufacturing applications): job titles include Materials Engineer, Failure Analysis Engineer, Quality Engineer, R&D Scientist. 
 
Photonics and Optical Engineering 
(design, development, and optimization of laser systems, fiber optic communications, imaging systems, and optical sensors for applications in telecommunications, medical devices, defense, and manufacturing): job titles include Optical Engineer, Laser Systems Engineer, Photonics Technician, Optical Design Engineer, Test Engineer. 
 
Quantum Technology and Computing 
(development of quantum computers, quantum sensors, quantum communication systems, and related hardware for emerging quantum information technology industries): job titles include Quantum Applications Engineer, Quantum Hardware Engineer, Quantum Research Scientist, Cryogenic Systems Engineer, Quantum Algorithm Developer. 
 
Instrumentation and Sensors 
(design, testing, and integration of measurement systems, sensors, detectors, and precision instrumentation for scientific research, medical diagnostics, environmental monitoring, and industrial quality control): job titles include Instrumentation Engineer, Test Engineer, Metrology Engineer, Sensor Systems Engineer, Applications Engineer, Field Service Engineer. 
 
Computational Physics and Modeling 
(development and application of computational methods, simulations, and numerical models for physics-based problems in engineering, finance, data science, and scientific research): job titles include Computational Scientist, Modeling and Simulation Engineer, Data Scientist, Scientific Software Developer, Quantitative Analyst, Research Software Engineer. 
 
Physics Graduate Programs and Research Careers 
For students seeking entry into graduate programs in physics, applied physics, engineering physics, astrophysics, space physics, or related fields leading to research careers in academia, national laboratories, or industrial R&D. 
  
Engineering Graduate Programs 
For students seeking entry into graduate programs in engineering disciplines (electrical, mechanical, optical, materials, aerospace, or computer engineering). 

Admission to Farmingdale State College - State University of New York is based on the qualifications of the applicant without regard to age, sex, marital or military status, race, color, creed, religion, national origin, disability or sexual orientation.

Physics Department | Lloyd Makarowitz, Ph.D | physics@farmingdale.edu | 934-420-2188

Fall 2026

Subject to revision

College Requirement (1 credit)
FYE 101 First Year Experience 1
Liberal Arts and Sciences (43 credits)
EGL 101 Composition 1: College Writing (GE) 3
EGL 102 Composition II: Writing About Literature 3
Communications - Oral (GE) 3
The Arts (GE) 3
Humanities (GE) 3
US History and Civic Engagement/World History and Global Awareness (GE) 3
World Language Level I (GE) 3
Social Sciences (GE) 3
CHM 152 General Chemistry 4
MTH 150 Calculus I (GE) 4
MTH 151 Calculus II 4
MTH 252 Calculus III 4
MTH 245 Linear Algebra 3
Required Courses (52 credits)
BCS 109 Introduction to Programming 3
PHY 105 Physics Seminar 1
PHY 143 General Physics I (GE) 4
PHY 144 General Physics II (GE) 4
PHY 255 Oscillatory Motion and Waves 3
PHY 310 Analytical and Numerical Dynamics 3
PHY 312 Materials Thermodynamics 3
PHY 323 Electromagnetic Theory 3
PHY 333 Modern Physics 3
PHY 334 Modern Physics Laboratory 1
PHY 350 Quantum Mechanics 3
PHY 356 Integrated Topics in Math and Physics 3
PHY 423 Photonics 3
PHY 450 Quantum Optics 3
PHY 480 Physics Research I 3
PHY 481 Physics Research II 3
PHY 482W Physics Thesis 3
PHY 499 Special Topics in Applied Physics 3
Free Electives* (25 credits)

Curriculum Summary

Degree Type: BS
Total Required Credits: 120-121

*A minimum of 9 free elective credits must be taken at the 300-level or above

Please refer to the General Education, Applied Learning, and Writing Intensive requirement sections of the College Catalog and consult with your advisor to ensure that graduation requirements are satisfied.

As a part of the SUNY General Education Framework, all first-time full time Freshman at Farmingdale State College (FSC) beginning Fall 2023, are required to develop knowledge and skills in Diversity: Equity, Inclusion, and Social Justice (DEISJ). Students will be able to fulfill this requirement at FSC by taking a specially designated DEISJ course that has been developed by faculty and approved by the DEISJ Review Board. DEISJ-approved courses will be developed in accordance with the guiding principles and criteria outlined below. DEISJ-approved courses may meet other General Education Knowledge and Skills areas and/or core competencies and thus be dually designated. DEISJ-approved courses may also earn other special designations such as those for Applied Learning or Writing Intensive.

FYE 101 First Year Experience

This course is designed to assist new students in acclimating, connecting, and adjusting to the college campus and experience. Through presentations, discussions and group work, students will become familiar with college resources and learn strategies for academic success. Students will also be introduced to the values and ethical principles of the College and encouraged to reflect on their role/responsibilities as college students. Topics include time management, study skills, stress management, goal setting, course and career planning, self-assessment and awareness, and the development of wellness strategies. Note: Students completing FYE 101 may not receive credit for FRX101, FYS 101, or RAM 101. Credits 1 (1.0)

EGL 101 Composition I: College Writing

This is the first part of a required sequence in college essay writing. Students learn to view writing as a process that involves generating ideas, formulating and developing a thesis, structuring paragraphs and essays, as well as revising and editing drafts. The focus is on the development of critical and analytical thinking. Students also learn the correct and ethical use of print and electronic sources. At least one research paper is required. A grade of C or higher is a graduation requirement. Note: Students passing a departmental diagnostic exam given on the first day of class will remain in EGL 101; all others will be placed in EGL 097. Prerequisite is any of the following: successful completion of EGL 097; an SAT essay score (taken prior to March 1, 2016) of 7 or higher; an SAT essay score (taken after March 1, 2016) of 5 or higher; on-campus placement testing. Note: Students cannot earn credit for EGL 101 if EGL 101E was taken.

EGL 102 Composition II: Writing About Literature

This is the second part of the required introductory English composition sequence. This course builds on writing skills developed in EGL 101, specifically the ability to write analytical and persuasive essays and to use research materials correctly and effectively. Students read selections from different literary genres (poetry, drama, and narrative fiction). Selections from the literature provide the basis for analytical and critical essays that explore the ways writers use works of the imagination to explore human experience. Grade of C or higher is a graduation requirement. Prerequisite(s): EGL 101

CHM 152 General Chemistry Principles I

The first part of a two semester sequence in General Chemistry Principles with laboratory. This course covers the qualitative and quantitative aspects of scientific measurement, the nature of matter, gases, liquids and solids, energy, atomic theory, properties of elements, chemical bonding, molecular structure and properties, stoichiometry, thermochemistry and solutions. Note: the laboratory course CHM 152L is a part of your grade for this course. Attendance in the laboratory course is required. Approved eye-protection and a laboratory coat are required materials. A student must pass the laboratory course to receive a passing grade in the entire course. Prerequisite(s): MP3 or MTH 116 AND Regents Chemistry or an equivalent High School Chemistry with Laboratory or CHM 124

MTH 150 Calculus I

This is the first course of the calculus sequence. Topics include limits, continuity, differentiation of functions of one variable, anti-differentiation, introduction to Riemann sums and integration, the fundamental theorem of calculus, and applications of differentiation and integration. Note: Students completing this course may not receive credit for MTH 130. Prerequisite(s): MP4 or MTH 117 or 129

MTH 151 Calculus II

A continuation of Calculus I (MTH 150). Topics include, integration of the transcendental functions, various techniques of integration with applications, improper integrals, sequences and series, power series, and Taylor series. Prerequisite(s): MTH 130 or MTH 150

MTH 252 Calculus III

This is the third course of the calculus sequence. It generalizes single variable calculus to multivariable calculus. Topics to be covered: polar coordinates and polar curves, vectors and analytical geometry in three dimensions, -functions of several variables, limits and continuity in space, partial and directional derivatives, gradients, multiple integrals in rectangular, polar, spherical, and cylindrical coordinates. Prerequisite(s): MTH 151

MTH 245 Linear Algebra

A study of the basic properties of vectors and vector spaces; linear transformations and matrices; matrix representations of transformations; characteristic values and characteristic vectors of linear transformations; similarity of matrices, selected applications. Prerequisite(s): MTH 151 or MTH 236

BCS 109 Introduction to Programming

Using Python, this course covers the basic concepts of computer programming. Python is an easy-to learn, high-level computer programming language that is widely used in many applications. This course introduces the fundamental elements of programming such as expressions, conditionals, loops, functions, files, and then use these elements to create simple interactive applications. This course covers also simple GUI and animation-based applications.

PHY 143 General Physics I (Calculus)

A fundamental, calculus based, physics course with laboratory offered primarily for students in Science curricula. Topics discussed include Mechanics, Wave Motion, Kinetic Theory, and Thermodynamics. One of MTH 130 or MTH 150 must be taken either as a prerequisite or corequisite.

PHY 144 General Physics II (Calculus)

A continuation of PHY 143. Topics discussed include Electricity, Magnetism and Optics. Prerequisite(s): PHY 143 Corequisite(s): PHY 144L

PHY 255 Oscillatory Motion and Waves

An introduction to physical concepts (wave packets, normal modes, interference and diffraction) and mathematical techniques (Fourier series, transforms, complex numbers, eigenvectors), including the wave equation. Prerequisite(s): PHY 136 or PHY 144 and MTH 151 or MTH 236 all with a minimum grade of C or higher.

PHY 310 Analytical Mechanics

A course in Analytical Mechanics covering Vectors, Newtonian Mechanics – Rectilinear Motion of a Particle, Oscillations, The General Motion of a Particle in Three Dimensions, Non-inertial Reference Systems, Gravitation and Central Forces, Dynamics of Systems of Particles, Mechanics of Rigid Bodies – Planar Motion, Lagrangian Mechanics. Prerequisite(s): PHY 144 and MTH 253

PHY 323 Electromagnetic Theory

This course is an introduction to electromagnetic theory. Topics covered are Vector Analysis; Coulomb's Law; Gauss's Law; the Del Operator; the Divergence and Gradient; the Potential; Potential Gradient; Conductors, Dielectrics and Capacitors; the Magnetic Field; the Biot-Savart Law; Ampere's Law; the Curl of E and H; Faraday's Law; Maxwell's Equations. Prerequisite(s): PHY 136 or PHY 144 and MTH 236 or MTH 252

PHY 333 Modern Physics

An introduction to topics in modern physics for upper-division students. Topics included are Einstein's Special Theory of Relativity, Atomic Physics, Applied Nuclear Physics, and Solid State Physics. Prerequisite(s): PHY 136 or 144

PHY 334 PHY 334L Modern Physics Laboratory

An introduction to topics in modern physics for upper-division students. Topics included are Einstein's Special Theory of Relativity, Atomic Physics, Applied Nuclear Physics, and Solid State Physics. Prerequisite(s): PHY 136 or 144 both with a grade of C or higher. Corequisite(s): PHY 333T

PHY 356 Integrated Topics in Math and Physics

This is a new integrated math-physics course with applications to topics in physics and the engineering technologies. It is meant to be interdisciplinary in nature and directed toward students in the Bachelor of Technology and Applied Math Programs. Topics to be covered include: Vector Algebra, Vector Calculus, Scalar and Vector Field Theory, Fourier Series, Fourier Integral, Fourier Transforms and Laplace Transforms. The focus will be on application and integration of math methods to physics and engineering technologies. Note: Students completing this course may not receive credit for MTH 356. Prerequisite(s): MTH 236 or 252 and PHY 136 or 144

PHY 480 Physics Research I *AL

Physics Research I represents substantial projects or work experiences for 135 hours earning 3 credits. Students will work alongside physics faculty in their professional research. Registration requires submission of resume three months in advance, physics faculty invitation or recommendation, and department Chair approval. Prerequisite(s): PHY 135 or PHY 143 with a minimum grade of C or higher; and permission of department chair

PHY 481 Physics Research II

Physics Research II represents substantial projects or work experiences for 135 hours earning 3 credits. Students will work alongside physics faculty in their professional research. Registration requires submission of resume three months in advance, physics faculty invitation or recommendation, and department Chair approval. Prerequisite(s): PHY 480 Physics Research I with a minimum grade of B or better; and permission of department chair

Last Modified 1/9/26