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Physics Teachers, Postsecondary

SOC Code: 25-1054.00

Education & Library

Physics Teachers at the postsecondary level teach courses pertaining to the laws of matter and energy, covering topics such as mechanics, thermodynamics, electromagnetism, optics, quantum physics, and relativity at colleges and universities. With a median salary of $97,360, these educators shape the next generation of scientists, engineers, and technically literate citizens while often pursuing their own research programs. The role uniquely blends teaching, research, and service within the academic community.

Salary Overview

Median

$97,360

25th Percentile

$66,730

75th Percentile

$130,150

90th Percentile

$169,740

Salary Distribution

$55k10th$67k25th$97kMedian$130k75th$170k90th$55k – $170k range
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Job Outlook (2024–2034)

Growth Rate

+2.5%

New Openings

1,300

Outlook

Slower than average

Key Skills

Reading Compre…WritingSpeakingCritical Think…Active ListeningScienceActive LearningLearning Strat…

Knowledge Areas

MathematicsPhysicsEducation and TrainingEnglish LanguageComputers and ElectronicsEngineering and TechnologyChemistryMechanicalDesignCustomer and Personal ServiceAdministrativeCommunications and Media

What They Do

  • Compile, administer, and grade examinations, or assign this work to others.
  • Supervise students' laboratory work.
  • Maintain and repair laboratory equipment.
  • Participate in student recruitment, registration, and placement activities.
  • Serve on academic or administrative committees that deal with institutional policies, departmental matters, and academic issues.
  • Prepare course materials, such as syllabi, homework assignments, and handouts.
  • Prepare and deliver lectures to undergraduate or graduate students on topics such as quantum mechanics, particle physics, and optics.
  • Maintain regularly scheduled office hours to advise and assist students.

Tools & Technology

Autodesk AutoCAD ★C ★C++ ★Google Docs ★Microsoft Excel ★Microsoft Office software ★Microsoft Outlook ★Microsoft PowerPoint ★Microsoft Windows ★Microsoft Word ★Perl ★The MathWorks MATLAB ★Blackboard LearnCalendar and scheduling softwareCollaborative editing softwareComputer aided design CAD softwareCourse management system softwareDesire2Learn LMS softwareDOC CopEdmodo

★ = Hot Technology (in-demand)

Education Requirements

Typical entry-level education: Related Work Experience

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A Day in the Life

A postsecondary physics teacher's day balances teaching, research, and administrative responsibilities in proportions that vary by institution type. At research universities, faculty may teach two or three courses per semester while dedicating substantial time to research, grant writing, and graduate student supervision. A morning might begin with preparing lecture materials or reviewing student assignments before heading to teach an introductory mechanics class to hundreds of undergraduates in a large lecture hall. Afternoon hours could involve meeting with graduate students to discuss their thesis research, analyzing experimental data, or working through theoretical calculations. Office hours provide time for students seeking help with coursework or career advice. Faculty at teaching-focused colleges and community colleges typically carry heavier teaching loads of four to five courses per semester, spending more time on course preparation, laboratory setup, and individualized student support. Committee meetings for curriculum development, hiring, and departmental governance regularly appear on the calendar. Evenings and weekends are often spent reviewing manuscripts for journals, preparing conference presentations, or catching up on grading. The semester rhythm creates periods of intense activity around exams and grading deadlines interspersed with more research-focused periods during breaks.

Work Environment

Postsecondary physics teachers work in universities, four-year colleges, and community colleges, with work environments varying significantly by institution type. Research university campuses provide access to well-equipped research laboratories, computational facilities, and large departmental infrastructure. Teaching-focused colleges offer smaller class sizes, closer student relationships, and collaborative campus cultures. Community colleges emphasize access and student success, with diverse student populations and strong institutional support for teaching development. The academic calendar structures the year around semesters or quarters, with teaching-intensive periods followed by breaks that allow concentrated research and course development time. Most faculty enjoy significant flexibility in scheduling their non-teaching hours, though the expectation of productivity in research, teaching, and service creates a demanding overall workload. Offices are typically shared in smaller departments or individual in larger ones, with access to nearby classrooms and laboratory spaces. The intellectual atmosphere of academic departments features regular seminars, colloquia, and informal discussions about physics and pedagogy. Travel for conferences, collaboration visits, and research at external facilities is a regular component of academic life at research-active institutions.

Career Path & Advancement

Becoming a postsecondary physics teacher at a four-year institution typically requires a PhD in physics, which involves five to seven years of graduate study including original dissertation research. During the PhD, teaching assistantships provide initial classroom experience as graduate students lead discussion sections, laboratory sessions, and sometimes lecture independently. Postdoctoral positions lasting two to four years follow the PhD for those targeting research university positions, focusing on building a publication record and developing an independent research program. The academic job market in physics is highly competitive, with candidates applying broadly and often accepting positions at institutions different from their graduate training. Community college physics teaching positions typically require a master's degree in physics or a related field. Career progression follows the tenure track from assistant professor through tenure review to associate professor and eventually full professor. Promotion decisions weigh research productivity, teaching effectiveness, and service contributions differently depending on the institution's mission. Department chair, dean, and other administrative leadership roles represent additional career advancement opportunities. Some physics professors transition into industry, government research, or science policy later in their careers.

Specializations

Postsecondary physics teaching encompasses a wide range of course areas and research specializations. Introductory physics instructors teach the foundational mechanics, electricity, and magnetism courses required by science and engineering students, often developing innovative pedagogical approaches. Astronomy and astrophysics professors teach courses on stellar physics, cosmology, and observational techniques while conducting research on celestial objects and phenomena. Condensed matter faculty teach solid-state physics and materials science courses while researching novel materials and quantum phenomena. Particle and nuclear physics professors teach subatomic physics courses and often collaborate on large international experiments. Physics education researchers study how students learn physics concepts and develop evidence-based teaching methods. Biophysics faculty bridge physics and biology departments, teaching interdisciplinary courses. Computational physics specialists incorporate programming and simulation into coursework while developing computational methods for research. Some professors specialize in developing advanced laboratory courses that expose students to modern experimental techniques. Community college instructors often teach across the full range of introductory physics courses, developing broad pedagogical expertise.

Pros & Cons

Advantages

  • Intellectually stimulating career combining teaching and research
  • Competitive median salary of $97,360 with potential for higher earnings at research universities
  • Academic freedom to pursue research interests and design courses
  • Flexible scheduling with autonomy over non-teaching hours
  • Summer and sabbatical periods for focused research and renewal
  • Meaningful impact shaping the next generation of scientists and engineers
  • Job security and benefits through tenure at many institutions

Challenges

  • PhD typically required with 5-7 years of graduate study investment
  • Extremely competitive academic job market for tenure-track positions
  • Publish-or-perish pressure at research universities can be stressful
  • Heavy workload balancing teaching, research, service, and grant writing
  • Geographic constraints may require relocating for available positions
  • Relatively lower compensation compared to industry physics careers
  • Slow career advancement through the tenure review process

Industry Insight

Higher education in physics faces several evolving challenges and opportunities. Enrollment trends in physics show steady undergraduate growth, maintaining demand for qualified instructors, though this varies regionally. The push for evidence-based teaching practices including active learning, peer instruction, and studio physics formats is transforming how introductory physics is taught. Online and hybrid course delivery, accelerated by the pandemic, has become a permanent feature of physics education, requiring faculty to develop digital pedagogy skills. The academic job market remains challenging at research universities, with tenure-track openings far outnumbered by qualified applicants. Diversity, equity, and inclusion initiatives are reshaping hiring practices and departmental cultures, with growing emphasis on supporting underrepresented students in physics. Interdisciplinary programs combining physics with data science, quantitative biology, or sustainability are creating new teaching opportunities. Community colleges are expanding STEM pathways and articulation agreements with four-year institutions, increasing demand for qualified physics instructors. Funding for physics research continues through agencies like the NSF and DOE, though competition for grants is intense. The role of artificial intelligence in both physics research and educational delivery is an emerging consideration for the profession.

How to Break Into This Career

Entering postsecondary physics teaching requires strategic preparation during graduate school and the postdoctoral phase. PhD students should seek opportunities to serve as primary instructors for courses, not just teaching assistants, to build a track record of independent teaching effectiveness. Collecting student evaluations and developing a teaching portfolio with sample syllabi, assignments, and statements of teaching philosophy strengthens academic job applications. Research productivity measured through publications, conference presentations, and grant proposals is essential for research university positions. Attending teaching workshops offered by organizations like the American Association of Physics Teachers develops pedagogical skills and signals commitment to effective teaching. Networking at professional conferences, participating in departmental seminar series, and building relationships with faculty at target institutions creates visibility. For community college positions, a master's degree in physics combined with demonstrated teaching experience and a genuine commitment to student success are prioritized over research credentials. Adjunct instructorship positions, while often poorly compensated, can provide teaching experience and institutional connections that lead to full-time positions. Faculty positions are typically posted on academic job boards, Physics Today, and HigherEdJobs, with application deadlines concentrated in the fall for positions beginning the following academic year.

Career Pivot Tips

Career changers considering postsecondary physics teaching can approach the transition through several pathways. Industry physicists and engineers with PhDs who want to transition to academia should build a teaching portfolio through adjunct positions or guest lecturing while maintaining their research credentials. Professionals with master's degrees in physics or engineering can find fulfilling careers at community colleges, where demonstrated teaching ability and industry experience are highly valued. Secondary school physics teachers with doctoral ambitions can pursue PhD programs specifically designed for working professionals or career changers, leveraging their extensive pedagogical experience. Military professionals with backgrounds in nuclear engineering, weapons physics, or technical instruction bring practical experience and security clearances valued at institutions with defense-related research. Data scientists and software engineers with physics backgrounds can re-enter the field through computational physics teaching and research positions. Retired industry professionals with physics expertise contribute as adjunct instructors, bringing real-world application knowledge that enriches student learning. Science communicators and journalists with physics backgrounds may find positions in physics education research or science literacy programs within physics departments. The key differentiator for career changers seeking academic positions is demonstrating both content mastery and genuine passion for student learning and development.

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