Chemistry students are prepared for many different careers after graduation. About 50 percent of chemistry majors enter directly into industry or government positions that require scientific expertise, such as chemical, oil, electronics, mining and manufacturing industries, water districts, crime laboratories, biotechnology, health and safety, atmospheric science and environmental quality.

Approximately 25 percent of chemistry graduates are attracted by specialized graduate education in chemistry. Graduate work is often in one of the traditional areas of analytical, inorganic, organic or physical chemistry and, increasingly, in interdisciplinary areas such as atmospheric, bio-organic or organo-metallic chemistry, molecular biology, biotechnology and chemical physics for their advanced work. Another 25 percent of a typical graduating class goes on to professional school, pursuing advanced degrees in medicine, dentistry, pharmacy, law, business, engineering and computer science.

Career Services offers a number of programs and services designed to help students plan their career, including workshops, internships, and placement services after graduation. For an appointment with a career counselor or for more information call 303-492-6541 or stop by Center for Community, S440.

Requirements

Program Requirements

The chemistry major requires 40 credits of chemistry coursework, including 30 credits of upper-division chemistry coursework, including courses in general, organic, physical and analytical/instrumental chemistry, as well as an introductory general chemistry sequence and ancillary work in calculus and physics.

Students must complete the general requirements of the College of Arts and Sciences and the required courses listed below. No more than 66 credits of CHEM and BCHM courses can be applied to the 120-credit minimum to graduate. All courses counted towards the major must be completed with a grade of C- or better and none of the courses may be taken for a pass/fail grade. The cumulative Grade Point Average (GPA) in courses that can count toward the major must be at least 2.000.

Transfer students who plan to take a chemistry major must complete at the Boulder campus a minimum of 12 credits of upper-division work covering at least two subdisciplines: organic, physical, analytical and inorganic for chemistry majors.

Required Courses and Credits

General Chemistry
Select one of the following general chemistry sequence options:10
Option 1
Foundations of Chemistry
and Foundations of Chemistry Lab
Foundations of Chemistry 2
and Laboratory in Foundations of Chemistry 2
Option 2
General Chemistry 1
and Laboratory in General Chemistry 1
General Chemistry 2
and Laboratory in General Chemistry 2
Organic Chemistry
Organic Chemistry 1 Lecture
Choose one of the following lectures:4
Organic Chemistry 1 for Chemistry and Biochemistry Majors
Organic Chemistry 1
Organic Chemisty 2 Lecture
Choose one of the following lectures:4
Organic Chemistry 2 for Chemistry Majors
Organic Chemistry 2 for Biochemistry Majors
Organic Chemistry 2
Organic Chemistry Labs 14
Laboratory in Organic Chemistry 1
and Laboratory in Organic Chemistry 2
In addition, choose one or more of the following to satisfy the organic chemistry lab requirement:
Laboratory in Advanced Organic Chemistry
Inorganic Laboratory
Independent Study in Chemistry
Required Advanced CHEM Coursework
CHEM 4011Modern Inorganic Chemistry3
CHEM 4171Instrumental Analysis - Lecture and Laboratory 13
CHEM 4181Instrumental Analysis - Lecture and Laboratory 23
CHEM 4511
CHEM 4581
Physical Chemistry 1
and Physical Chemistry Lab 1
4
CHEM 4531
CHEM 4591
Physical Chemistry 2
and Physical Chemistry Lab 2
5
Total Credit Hours40
Required Ancillary Coursework from Outside Chemistry
Required Physics Courses
PHYS 1110
PHYS 1120
General Physics 1
and General Physics 2
8
PHYS 1140Experimental Physics 11
Calculus12-15
Complete three semesters of calculus (through Calculus 3):
Calculus 1
Calculus 1 for Engineers
Calculus 2
Calculus 2 for Engineers
Calculus 3
Calculus 3 for Engineers
Total Credit Hours21-24

 Recommended Chemistry Electives

All students, and especially those intending to go on to graduate school in chemistry, will benefit from additional advanced courses. Recommended electives include the following:

Air Chemistry and Pollution
Sustainable Energy from a Chemistry Perspective
Inorganic Laboratory
Environmental Water and Soil Chemistry
Materials Chemistry and Properties
Organic Materials: Structures and Functions
Chemistry of Solar Energy
Principles of Biochemistry
Metabolic Pathways and Human Disease
Biochemistry of Gene Transmission, Expression and Regulation
Independent Study in Chemistry
Graduate courses in various fields of chemistry
Advanced courses in mathematics or physics

Graduating in Four Years

Consult the Four-Year Guarantee Requirements for information on eligibility. The concept of "adequate progress" as it is used here only refers to maintaining eligibility for the four-year guarantee; it is not a requirement for the major. To maintain progress in chemistry students should declare the chemistry major in the first semester.

Students must consult with a major advisor to determine adequate progress toward completion of the major.

Recommended Four-Year Plan of Study

Through the required coursework for the major, students will fulfill all 12 credits of the Natural Sciences area of the Gen Ed Distribution Requirement, including the lab component, and the QRMS component of the Gen Ed Skills Requirement.

Plan of Study Grid
Year One
Fall SemesterCredit Hours
CHEM 1400 Foundations of Chemistry 4
CHEM 1401 Foundations of Chemistry Lab 1
MATH 1300
Calculus 1
or Calculus 1 for Engineers
4-5
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Gen. Ed. Skills course (example: Lower-division Written Communication) 3
 Credit Hours15-16
Spring Semester
CHEM 3451 Organic Chemistry 1 for Chemistry and Biochemistry Majors 4
CHEM 3321 Laboratory in Organic Chemistry 1 1
MATH 2300
Calculus 2
or Calculus 2 for Engineers
4-5
Gen. Ed. Distribution/Diversity course (example: Social Sciences/US Perspective) 3
Elective 3
 Credit Hours15-16
Year Two
Fall Semester
CHEM 3471 Organic Chemistry 2 for Chemistry Majors 4
CHEM 3341 Laboratory in Organic Chemistry 2 1
PHYS 1110 General Physics 1 ((Calculus-based)) 4
MATH 2400
Calculus 3
or Calculus 3 for Engineers
4-5
Gen. Ed. Distribution course (example: Arts & Humanities) 3
 Credit Hours16-17
Spring Semester
CHEM 2100 Foundations of Chemistry 2 4
CHEM 2101 Laboratory in Foundations of Chemistry 2 1
PHYS 1120 General Physics 2 4
PHYS 1140 Experimental Physics 1 1
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Elective 3
 Credit Hours16
Year Three
Fall Semester
CHEM 4511 Physical Chemistry 1 3
CHEM 4581 Physical Chemistry Lab 1 1
Gen. Ed. Distribution/Diversity course (example: Social Sciences/Global Perspective) 3
Elective 3
Elective 3
Elective 3-0
 Credit Hours16-13
Spring Semester
CHEM 4531 Physical Chemistry 2 3
CHEM 4591 Physical Chemistry Lab 2 2
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Gen. Ed. Skills course (example: Upper-division Written Communication) 3
Elective 3
 Credit Hours14
Year Four
Fall Semester
CHEM 4011 Modern Inorganic Chemistry 3
CHEM 4171 Instrumental Analysis - Lecture and Laboratory 1 3
Gen. Ed. Distribution course (example: Social Sciences) 3
Upper-division Elective 3
Elective 3
 Credit Hours15
Spring Semester
CHEM 4181 Instrumental Analysis - Lecture and Laboratory 2 3
Gen. Ed. Distribution course (example: Social Sciences) 3
Upper-division Elective 3
Upper-division Elective 3
Upper-division Elective 3
 Credit Hours15
 Total Credit Hours122

Learning Outcomes

By the completion of the program, students will be able to:

  • Use chemical models to describe the behavior of matter and analyze chemical problems.
  • Make quantitative predictions based on chemical models.
  • Know and demonstrate appropriate safety practices in the laboratory.
  • Develop a scientific hypothesis and conduct an appropriate investigation using a safe and technically sound approach.
  • Communicate chemical knowledge and research results clearly in both written and oral format.
  • Utilize a range of scientific apparatus and instruments to synthesize molecules, measure their properties and quantify the amount of a substance.
  • Demonstrate critical thinking skills and logical approaches to problem solving.