What Classes Are Requiredin College Explained Comprehensively

General Education Requirements (GERs) Across Institutions: Structures, Evolution, and Comparative Analysis

Structural Variations in GERs: Liberal Arts Colleges and Selective Institutions

Evolution of GERs Over the Past 30 Years: Key Shifts and Their Impact

• Shift 1: Emphasis on Diversity, Equity, and Inclusion (DEI)
  GERs increasingly incorporate courses addressing race, gender, ethnicity, and global perspectives to foster inclusive education. Institutions now require "diversity seminars" or "social justice" courses, reflecting broader academic and societal demands for equity.
  • Example: The University of California system introduced "Ethnic Studies" as a GER category in 2020, mandating courses on Chicano/a Studies, African American Studies, and Asian American Studies.
  • Example: Harvard’s "Humanities 10" now includes modules on decolonizing knowledge, aligning with faculty-led initiatives to center marginalized voices in curricula.
  • Impact: Students graduate with heightened cultural competence, though debates persist over mandatory DEI courses potentially limiting intellectual diversity.
• Shift 2: Integration of Digital and Information Literacy
  The rise of digital media and misinformation has necessitated GERs in media studies, data analysis, and ethical technology use. Many institutions now require courses in "digital humanities," "computer science fundamentals," or "information evaluation."
  • Example: The University of Michigan’s "Information, Technology & Society" GER category includes courses on cybersecurity, algorithmic bias, and digital archiving.
  • Example: MIT’s "Communication Requirements" now include a "Media Arts and Sciences" track, emphasizing multimedia literacy alongside traditional writing.
  • Impact: Graduates enter the workforce with critical digital skills, though resource disparities limit access to high-tech GERs at underfunded institutions.
• Shift 3: Interdisciplinary and Applied Learning Emphases
  GERs increasingly blend theoretical and practical components, reflecting demands for adaptable, problem-solving graduates. Institutions now offer "capstone projects," "studio courses," or "community-engaged learning" as GER fulfillments.
  • Example: Stanford’s "Writing in the Major" requirement allows students to complete interdisciplinary projects, such as designing sustainable urban solutions.
  • Example: The University of North Carolina’s "Global Studies" GER includes service-learning courses where students address local environmental justice issues.
  • Impact: Employers value interdisciplinary training, but assessment challenges persist in measuring applied learning outcomes compared to traditional GER metrics.

Comparative Analysis: Public vs. Private University GER Structures

Public Universities (e.g., University of Texas, State University of New York):

• Mandatory foundational courses in mathematics (e.g., calculus or statistics) and natural sciences (e.g., biology, chemistry) to meet state workforce demands.
• Standardized writing sequences (e.g., 3-tiered composition courses) aligned with accreditation bodies like the WPA (Writing Program Administration).
• Limited foreign language flexibility; often restricted to 2 semesters of a single language to control curriculum costs.
• GERs designed for scalability, with online or hybrid options to accommodate large enrollments.

Private Universities (e.g., Swarthmore, Reed College):

• Flexible "distribution" models allowing students to explore niche fields (e.g., cognitive science, environmental humanities) without rigid categorization.
• Writing-intensive courses integrated into disciplinary studies (e.g., a physics lab report fulfilling a GER while teaching technical writing).
• Foreign language requirements often extend to 2+ years, with options for less commonly taught languages (e.g., Swahili, Arabic) to encourage global engagement.
• Interdisciplinary GERs (e.g., "Science, Technology & Society") blend STEM with human
  

  

  Major-Specific Prerequisites and Sequencing in Undergraduate Programs

  The logical progression of coursework in degree programs ensures students acquire foundational knowledge before advancing to specialized topics. In fields like pre-medicine, engineering, or architecture, prerequisites follow a structured sequence to build technical and analytical skills incrementally. This section examines the dependency-based course sequencing in high-restriction majors, identifies the top five most restrictive programs, and compares transfer pathways between community college systems. The analysis includes a textual flowchart for pre-med tracks and a comparative table of articulation agreements.
  

  Course Sequencing in Pre-Medical Tracks: Dependency-Based Flowchart

  Pre-medical tracks require a rigorous, phased progression of courses to align with medical school prerequisites. The sequence typically follows this order:

  1. Introductory Biology (BIO 101-102) – Covers cell biology, genetics, and physiology.
  2. General Chemistry (CHEM 101-102) – Foundational principles of chemical reactions and stoichiometry.
  3. Organic Chemistry (CHEM 201-202) – Structural and mechanistic chemistry, often with lab components.
  4. Biochemistry (BIO/CHEM 301) – Molecular biology and metabolic pathways, requiring prior organic chemistry knowledge.
  5. Physics (PHYS 101-102) – Mechanics, electricity, and thermodynamics, often taken concurrently with organic chemistry.
  6. Mathematics (MATH 150-152) – Calculus and statistics, essential for quantitative reasoning in medical sciences.

  Textual Flowchart Representation:

  [BIO 101-102] → [CHEM 101-102] → [CHEM 201-202] → [BIO/CHEM 301]
  ↓
  [PHYS 101-102] ← [MATH 150-152] (Parallel Path)

  Key Dependencies:
  

• Organic chemistry (CHEM 201-202) must precede biochemistry (BIO/CHEM 301).
• Physics and calculus often run concurrently with organic chemistry to avoid overload.
• Medical schools may require additional coursework (e.g., psychology, ethics) beyond STEM prerequisites.

Identifying the Top 5 Most Restrictive Majors by Prerequisites

Restrictive majors impose high credit hour requirements, strict GPA thresholds, and sequential prerequisites, limiting student flexibility. The following programs are consistently ranked as the most demanding based on institutional data (e.g., UC, CSU, and private university catalogs):

Criteria for Restrictiveness:


• Minimum cumulative GPA (e.g., 3.0–3.5+ for admission).
• Total required credits (e.g., 120+ for BSN, 180+ for architecture).
• Prerequisite sequencing (e.g., 2+ years of math/science before upper-division courses).
• Competitive admission processes (e.g., portfolio reviews for architecture).

Top 5 Most Restrictive Majors:

• Nursing (BSN)
  • Total Credits: 120–130 (including 60+ in nursing-specific courses).
  • Prerequisites: Anatomy & Physiology (8 units), Microbiology, Chemistry, Statistics, and often Psychology/Sociology.
  • GPA Threshold: 3.0–3.5 (some programs require 3.5+ for clinical rotations).
  • Sequencing: Must complete all prerequisites before upper-division nursing courses (e.g., NURS 300+).
• Architecture (B.Arch)
  • Total Credits: 150–180 (including 60+ studio hours).
  • Prerequisites: Calculus (3 units), Physics, Computer-Aided Design (CAD), and portfolio review.
  • GPA Threshold: 3.0–3.3 (portfolio often weighs more than GPA).
  • Sequencing: Studio courses (ARCH 101+) require prior design and drafting skills.
• Engineering (BS in Mechanical/Chemical/Electrical)
  • Total Credits: 128–136 (including 40+ in math/science).
  • Prerequisites: Calculus I-III, Physics I-II, Chemistry, and often Programming (C++/Python).
  • GPA Threshold: 2.5–3.0 (top programs require 3.3+ for research tracks).
  • Sequencing: Thermodynamics (ME 201) requires Calculus II; Fluid Mechanics follows.
• Pharmacy (PharmD)
  • Total Credits: 200+ (4-year pre-pharmacy + 4-year PharmD).
  • Prerequisites: Organic Chemistry, Biochemistry, Microbiology, and often 2 years of general chemistry.
  • GPA Threshold: 3.5+ (PCAT score often required).
  • Sequencing: Pharmacy-specific courses (PHAR 500+) begin only after completing all pre-pharmacy requirements.
• Computer Science (BS, Theoretical Tracks)
  • Total Credits: 120–130 (including 40+ in CS/mathematics).
  • Prerequisites: Discrete Math, Calculus II, Data Structures, and often Proof Writing.
  • GPA Threshold: 3.0–3.3 (research-focused programs require 3.5+).
  • Sequencing: Algorithms (CS 301) requires Discrete Math; Advanced Topics follow.
Note: Restrictiveness varies by institution. For example, UC Berkeley’s Nursing program requires a 3.4+ GPA for admission, while Texas A&M’s Architecture program mandates a portfolio submission before junior year.


Community College Transfer Pathways: Articulation Agreements and Course Mapping

Community colleges facilitate seamless transfer to four-year universities through articulation agreements, which map lower-division courses to upper-division requirements. However, course equivalency and prerequisite sequencing differ significantly between state systems. Below is a comparison of California Community College (CCC) and Texas State systems, focusing on STEM and pre-professional tracks.

Key Differences:


• California uses Associate Degree for Transfer (ADT) pathways with guaranteed admission to CSU/UC.
• Texas relies on Core Curriculum (Core 42) and field-of-study (FOS) maps for transfer.
• Prerequisite Rigor: Texas often requires higher-level math/science (e.g., Calculus I vs. Pre-Calculus) for engineering/pre-med tracks.

Course Requirement	California Community College (CCC) System	Texas State System (e.g., Texas State University)
Mathematics Pathway	Math 105 → Calculus I (MATH 150) via ADT. Math 110 → Calculus II (MATH 151) for STEM majors. Pre-Calculus (Math 112) accepted for business but not engineering.	MATH 1426 → Calculus I (MATH 1317) for all STEM majors. MATH 1316 (Pre-Calculus) not accepted for engineering/pre-med. Core 42 requires MATH 1426 for Hidden or Overlooked Required Classes in Undergraduate Education Undergraduate degree programs often emphasize core academic disciplines, yet many institutions embed lesser-known or unintuitive courses within their curricula. These classes—ranging from foundational seminars to accreditation-mandated workshops—serve critical functions in student development, institutional compliance, or interdisciplinary integration. While overtly academic requirements dominate discussions, these "hidden" courses shape holistic learning outcomes, professional readiness, and institutional accountability. Their inclusion reflects evolving educational priorities, from ethical training in STEM to cultural competency in business programs. The following sections explore three unexpected yet mandatory courses, global variations in physical education (PE) requirements, and the influence of professional accreditation bodies on curricular mandates. Each category reveals how institutional policies and external standards implicitly structure the undergraduate experience beyond traditional academic expectations. Three Unexpected Required Courses and Their Institutional Roles Many colleges integrate courses that appear peripheral to disciplinary training but address broader institutional goals, such as student retention, ethical compliance, or skill-based learning. Below are three examples, contextualized with institutional practices and their stated purposes. 1. First-Year Experience (FYE) Seminars FYE seminars are small-group courses designed to ease students’ transition to higher education by fostering academic skills, campus engagement, and peer networks. While not discipline-specific, they are often graded and count toward graduation requirements. Institutions like the University of Michigan mandate a 1-credit First-Year Seminar that includes topics such as time management, library research, and faculty-student mentorship. The program’s efficacy is measured through retention rates, with studies showing a 10–15% improvement in first-year persistence for participants compared to non-participants (National Resource Center for The First-Year Experience & Students in Transition, 2020). > "The FYE seminar is not just about adjusting to college—it’s about building the habits of mind that sustain academic success. Students who engage with these seminars demonstrate higher GPAs and lower dropout rates by their sophomore year." — University of Michigan’s FYE Program Handbook 2. Academic Integrity Workshops Accreditation bodies (e.g., the Higher Learning Commission) increasingly require institutions to demonstrate proactive measures against academic dishonesty. Courses like Ethics in Scholarship or Honor Code Seminars are now embedded in curricula, particularly in STEM and business programs where plagiarism and data fabrication risks are higher. Massachusetts Institute of Technology (MIT) offers a non-credit Academic Integrity Module for all undergraduates, featuring case studies on AI-generated assignments and peer-reviewed research misconduct. The workshop culminates in a signed pledge, with violations subject to disciplinary action under MIT’s Code of Conduct. > "We’ve seen a 30% reduction in plagiarism incidents since implementing mandatory workshops, but the real goal is shifting the culture—from fear of consequences to a commitment to intellectual honesty." — MIT Office of Student Conduct 3. Interdisciplinary Capstone Design Challenges Some programs require students to collaborate across disciplines to solve real-world problems, often in a single, high-stakes course. For example, Georgia Institute of Technology’s Design, Build, Fly competition merges engineering, business, and humanities students into teams tasked with designing and testing unmanned aerial vehicles. The course is graded on technical feasibility, project management, and oral presentations to industry judges. Similar programs exist in Stanford’s Design Thinking for Social Impact and Carnegie Mellon’s Innovation Studio, where students apply coursework to community-driven projects. > "The capstone isn’t just about solving a problem—it’s about proving that graduates can operate at the intersection of their field and the world’s needs. Employers increasingly prioritize this skill over traditional academic credentials." — Georgia Tech College of Engineering Global Variations in Physical Education Requirements Physical education (PE) requirements reflect cultural priorities, public health policies, and historical traditions. While the U.S. emphasizes fitness and sports, Scandinavian models prioritize lifelong wellness and outdoor education. The following table compares PE structures across three regions, highlighting credit hours, course types, and institutional rationales. Country Course Type Credit Hours United States Activity-based (e.g., team sports, aerobics, weight training) Health education (e.g., nutrition, stress management) Lifetime wellness (e.g., yoga, hiking, swimming) Note: Requirements vary by state; some institutions (e.g., University of California system) mandate 2 units (1 year) of PE for graduation. 1–2 credits per semester (total: 1–4 credits) Sweden (Scandinavian Model) Outdoor education (Utomhuspedagogik): Survival skills, orienteering, and nature conservation Adaptive physical activity: Focus on inclusivity for students with disabilities Theory-practice integration: Courses link PE to environmental science or public health Note: Swedish universities (e.g., Lund University) often integrate PE into broader "health and sustainability" programs. 0–2 credits (non-graded or optional in some programs; graded in teacher education degrees) Japan Martial arts (Budo): Kendo, judo, or kyudo as core components Traditional games: Sumo, kyūdō (archery), or kemari (soccer-like ball game) Corporate fitness: Some universities partner with local gyms for "workplace readiness" modules Note: Elite universities like Waseda require 1–2 years of PE, often tied to extracurricular club participation. 2–4 credits (varies by institution; often waived for athletes) Key Observations: Credit Weighting: The U.S. and Japan assign PE credits toward graduation, while Scandinavian models often treat it as complementary to academic studies. Cultural Integration: Japan’s PE curriculum reflects national traditions, whereas Sweden’s emphasizes environmental and social equity. Flexibility: Scandinavian institutions frequently allow students to substitute PE with community service or wellness workshops, aligning with their emphasis on holistic development. Professional Accreditation Mandates and Curricular Influence Accreditation bodies impose curricular requirements to ensure programs meet professional standards, often mandating specific courses or learning outcomes. Below is a categorized list of major accreditors, their disciplinary scope, and examples of required classes or competencies they enforce. Accreditation bodies operate as gatekeepers for degree programs, dictating not only course content but also pedagogical approaches. For instance, the American Bar Association (ABA) requires law schools to offer 6 credits in professional responsibility (e.g., ethics, legal writing) and 3 credits in experiential learning (e.g., clinics, moot courts). Similarly, the National Association of Schools of Music (NASM) mandates 4 semesters of private instruction in a primary instrument for music majors, alongside courses in music history and theory. Accreditation Body Disciplinary Scope Mandated Course Examples American Bar Association (ABA) Law Schools (JD programs) Legal Ethics & Professional Responsibility (6 credits) Civil Procedure (4 credits) Experiential Learning: Clinics, moot court, or externships (3 credits) Upper-Level Writing Requirement (e.g., seminar papers or journals) Commission on Accreditation of Allied Health Education Programs (CAAHEP) Health Sciences (e.g., Physical Therapy, Radiography) Patient Care Skills Labs (e.g., Therapeutic Exercise in PT programs) Clinical Practica (minimum 1,000+ hours for PT) Healthcare Ethics & Law (e.g., *HIPAA Com Flexibility and Waivers in Required College Classes College curricula often incorporate structured requirements to ensure foundational knowledge, yet institutions increasingly recognize the need for flexibility to accommodate prior learning, scheduling constraints, or alternative pathways to competency. Waivers and credit challenges—such as Advanced Placement (AP) exams, International Baccalaureate (IB) assessments, or portfolio reviews—allow students to bypass redundant coursework while maintaining academic rigor. Online and hybrid programs further redefine flexibility by restructuring delivery methods, such as asynchronous labs or competency-based assessments, to align with modern learning needs. Meanwhile, study abroad initiatives integrate required classes into immersive experiences, substituting host-country courses for traditional academic credits. This section examines the processes for challenging requirements, the adaptations in digital learning environments, and the integration of global education into core curricula. Process for Challenging Required Classes Students may seek waivers or credit exemptions for required classes through formal evaluation of prior learning, standardized test scores, or demonstrated proficiency. The process varies by institution but typically involves submission of documentation, approval by academic advisors or department chairs, and adherence to strict deadlines. Below is a step-by-step guide outlining the key stages, required materials, and timelines for common challenge methods. Standardized Test Credits (AP, IB, CLEP, DSST) Many colleges grant credit for scores on nationally recognized exams, provided they meet minimum thresholds. For example, a score of 4 or 5 on an AP exam may waive the corresponding introductory college course. Students must: Verify eligibility: Confirm the institution’s credit policy for each exam (e.g., College Board’s AP Credit Policy or IB Diploma Program Recognition). Submit official scores: Request score reports directly from the testing agency to be sent to the college’s admissions or registrar’s office. Deadlines for score submission are often tied to application deadlines (e.g., fall semester scores due by June 1 for priority consideration). Consult academic advisors: Some departments require additional verification, such as course syllabi alignment or departmental approval, particularly for upper-level or major-specific requirements. Register for alternative courses: Waived classes may free up space in restricted sections (e.g., labs, writing-intensive courses), but students must proactively enroll in remaining requirements to avoid delays in graduation planning. Appeal denials: If a score meets national standards but the institution denies credit, students may appeal to the department chair or registrar, citing institutional policies or comparable programs at peer institutions. Portfolio and Proficiency Reviews For non-traditional pathways, such as military training, professional certifications, or self-directed learning, students may submit portfolios demonstrating equivalent knowledge. This process is common in fields like graphic design, engineering technology, or nursing. Key steps include: Identify approved pathways: Review the institution’s prior learning assessment (PLA) policies, which often list acceptable credentials (e.g., American Council on Education’s National Guide to College Credit for Workforce Training). Gather documentation: Compile portfolios, transcripts, or certification records. For example, a student with a Certified Nursing Assistant (CNA) license may petition to waive an introductory health sciences course. Schedule a review: Submit materials to the PLA office or departmental committee, typically 6–12 months before graduation to allow processing time. Some institutions require a formal interview or written justification. Receive evaluation and next steps: The review committee compares submitted work to course learning outcomes. If approved, credit is awarded; if partial approval is granted, students may need to complete a reduced course load or supplementary assignments. Appeal or resubmit: Denials often include feedback on gaps; students may revise portfolios or seek alternative assessments (e.g., departmental exams). Transfer Credits and Articulation Agreements Students transferring between institutions rely on articulation agreements to ensure seamless credit transfer. These agreements specify which courses at a sending college satisfy requirements at a receiving institution. The process includes: Check articulation databases: Use tools like Transferology or the National Student Clearinghouse’s Transfer Guide to compare course equivalencies. Submit official transcripts: Ensure all prior coursework is evaluated by the registrar’s office, which may take 4–8 weeks. Some institutions require a "transfer credit evaluation" form to be completed by the student. Resolve discrepancies: If a course is not listed in articulation agreements, students may petition for equivalency by providing syllabi, course descriptions, and faculty recommendations. Plan ahead for gaps: Some programs (e.g., engineering, pre-med) have rigid prerequisites; students should consult advisors to avoid taking unnecessary courses or facing delays in major declaration. Deadlines and Documentation Checklist Timing and completeness of documentation are critical to avoid missed opportunities. Below is a consolidated checklist by challenge type: Challenge Type Key Deadlines Required Documentation Processing Time AP/IB/CLEP Scores Fall: June 1; Spring: December 1 Official score reports sent directly to the institution 2–4 weeks Portfolio Reviews 6–12 months before graduation Portfolio samples, transcripts, certification records, and a written justification 4–12 weeks Transfer Credits Before enrollment or within first semester Official transcripts, articulation agreement verification, syllabi for non-listed courses 4–8 weeks Military/Professional Credits Varies by institution (often semester-specific) DD-214 (military), professional licenses, or employer-verified training records 3–6 weeks Modifications in Online and Hybrid Programs Online and hybrid programs redefine required class structures by leveraging digital tools to replace or supplement traditional in-person components. Asynchronous labs, competency-based assessments, and flexible pacing accommodate diverse learning styles and schedules. However, these adaptations often introduce trade-offs in terms of student accountability, resource access, and institutional oversight. Key Adaptations in Digital Learning Environments Online and hybrid programs frequently modify required classes through the following approaches: - Asynchronous Labs and Simulations: STEM fields (e.g., biology, chemistry) replace wet labs with virtual simulations (e.g., LabArchives, PhET Interactive Simulations) or remote equipment access (e.g., Vernier sensors). For example, a general chemistry lab may require students to submit video recordings of at-home experiments using household materials, with faculty providing feedback via discussion boards. Competency-Based Assessments: Instead of fixed deadlines, students progress through material at their own pace and demonstrate mastery via projects, exams, or portfolios. Programs like Western Governors University (WGU) use this model for courses such as calculus or statistics, where students retake assessments until proficiency is achieved. Hybrid Prerequisites: Some programs sequence required classes to minimize in-person attendance. For instance, a nursing program may offer a hybrid "Fundamentals of Patient Care" course with online lectures and weekly clinical rotations, reducing classroom time by 50%. Embedded Support Structures: Online programs often integrate mandatory check-ins with academic coaches, peer review assignments, or mandatory synchronous sessions (e.g., weekly office hours) to replicate the accountability of traditional formats. Technology Requirements: Students may need to purchase or access software (e.g., MATLAB for engineering, SPSS for psychology) or hardware (e.g., 3D printers for design courses), adding logistical and financial considerations. Contrast with Traditional Formats While online and hybrid programs offer flexibility, they differ from traditional formats in critical ways, as outlined below: Traditional formats emphasize synchronous, instructor-led delivery with fixed schedules, in-person interactions, and standardized assessments (e.g., midterms, final exams). These structures foster immediate feedback, collaborative learning, and access to specialized equipment or faculty expertise. In contrast, online/hybrid programs prioritize self-paced mastery, digital collaboration tools (e.g., Zoom, Canvas discussions), and competency-based progression. However, they may lack the serendipitous networking opportunities of face-to-face environments and require greater student discipline in time management and technical troubleshooting. Institutions must balance flexibility with academic rigor, often through mandatory proctoring for high-stakes exams or in-person capstone projects to ensure hands-on experience. Challenges and Considerations Students and institutions face unique hurdles in online/hybrid required classes: Equity in Access: Not all students have reliable internet, quiet study spaces, or compatible devices, exacerbating disparities in learning outcomes. Some programs mitigate this by offering loaner equipment or partnering with local libraries. Faculty Workload: Designing and managing asynchronous content requires significant time investment from instructors, who must create alternative assessments and provide individualized feedback. College course requirements are more than a checklist—they are the scaffolding upon which academic and professional growth is built. From the logical sequencing of pre-med tracks to the evolving emphasis on digital literacy in general education, these mandates reflect broader societal needs and institutional priorities. As students and educators navigate an increasingly dynamic educational landscape, the ability to adapt to—or even challenge—traditional structures becomes essential. This overview underscores the importance of informed planning, institutional transparency, and the strategic alignment of coursework with long-term goals, ensuring that every required class contributes meaningfully to a student’s intellectual and career trajectory. FAQ What required classes do most colleges mandate for first-year students? Freshman-year requirements typically include English composition, mathematics (often algebra or pre-calculus), introductory science (e.g., biology or chemistry), and general education courses like history, social sciences, or foreign language. Some schools also require first-year seminars or physical education. Exact courses vary by institution and major. Which classes are mandatory for a business degree in college? Core business classes usually include accounting, economics (micro/macro), finance, marketing, management, statistics, and business ethics. Many programs also require math (calculus or statistics), English composition, and general education courses. Internships or capstone projects may be required for graduation. What psychology classes are required for a psychology major in college? Core psychology requirements typically include introductory psychology, research methods, statistics, developmental psychology, abnormal psychology, and social psychology. Many programs also require cognitive psychology, personality theory, and a senior capstone or thesis. Electives allow specialization in areas like clinical, industrial-organizational, or counseling psychology. What classes must I complete to graduate from a 4-year college? Graduation requirements usually include a mix of general education courses (e.g., math, science, humanities, social sciences), major-specific classes, electives, and sometimes a senior project or thesis. Many schools also require a minimum number of credits (e.g., 120–130) and a cumulative GPA. Check your school’s catalog for exact details. What classes are required for an associate’s degree in college? Associate’s degree programs typically require 60–70 credits, including general education courses (e.g., English, math, science, social sciences), major-specific classes, and electives. Some programs mandate a capstone or portfolio. Community colleges often have flexible pathways, but specific requirements depend on the field (e.g., nursing, business, or liberal arts). What classes are required for a nursing degree in college? Nursing programs require science prerequisites like anatomy, physiology, microbiology, and chemistry, plus nursing-specific courses (e.g., fundamentals of nursing, pharmacology, medical-surgical nursing, and clinical rotations). Many programs also include general education classes and a capstone or NCLEX prep. Licensure requires passing the NCLEX-RN exam. academic requirements college-curriculum general-education higher-education-structure major-prerequisites Leave a Comment Name Comment Post Comment Comments are moderated before appearing. The data you submit is processed according to the Privacy Policy of Voltefac.