The undergraduate degree in molecular, cellular and developmental biology emphasizes knowledge and awareness of:

  • the biological sciences in general and a detailed understanding of currently important aspects of cellular biology, molecular biology, biochemistry, genetics and developmental biology; and
  • the relationship of the specialty area to broader areas of science and to society in general, including ethical issues raised by current biological research and by the rapid growth of biotechnology as an important shaping force for the future.

In addition, students completing the ­degree in molecular, cellular and developmental biology are expected to acquire the ability and skills to:

  • learn detailed laboratory ­procedures rapidly when the need arises;
  • demonstrate a scientific vocabulary and an understanding of research methods that permits the comprehension of  current journal articles, extraction of pertinent information and judgment of the quality of the work described;
  • evaluate a biological problem, determine which aspects are understood and apply basic research methods and techniques to the unknown aspects; and
  • communicate scientific concepts and analytical arguments clearly and concisely, both orally and in writing.

Requirements

Prerequisites

It is MCDB policy to enforce the course prerequisites listed in the course catalog. If you have not either taken and passed (C- or better) the prerequisites for a course, or obtained permission from the instructor or a departmental advisor to take the course based on equivalent preparatory coursework or experience here or elsewhere, you may be administratively dropped from the course.

Course Requirements

Students must complete the general requirements of the College of Arts and Sciences and the required courses listed below. All required major courses and all required ancillary courses must be passed with a C- or better and cannot be taken pass/fail. Students must have a grade point average of at least 2.000 in the major in order to graduate.

It is strongly recommended that MCDB majors consult with a departmental advisor before applying AP, IB or CLEP credit. Students majoring in MCDB who transfer biology credit from other institutions also must consult a departmental advisor.

Students who plan to double major with biochemistry or chemistry are encouraged to meet with an academic advisor to understand how their chemistry courses will apply to the MCDB major.

Students who plan to also pursue a degree in engineering are encouraged to meet with an academic advisor to understand how their chemistry and calculus courses will apply to the MCDB major.

Required Courses and Credits

Required Major Courses
Introductory Coursework
Select one:3
Introduction to Cellular and Molecular Biology (MCDB 1152 is a recommended coseminar for MCDB 1150) 1
Core Concepts in Biology I: Evolutionary, Molecular and Cell Biology (MCDB 1152 is not a recommended coseminar for MCDB 1111)
Genetics
Select one:3
Principles of Genetics (MCDB 2152 is a recommended coseminar for MCDB 2150) 2
Core Concepts in Biology II: Genes, Genetics and Phenotypes (MCDB 2152 is not a recommended coseminar for MCDB 2222)
Research-Based Introductory Labs
Select one:2
From Dirt to DNA: Phage Genomics Laboratory I
Antibiotics Discovery Through Hands-on Screens I
Biological Probiotic/Drug Discovery Through Hands-on Screens
Chemotherapeutic Discovery Through Hands-On Screens 2
Cell Biology8
Molecular Biology
Cell Biology Laboratory
Cell Biology
Development Biology3
Developmental Biology
Upper-division capstone and scientific reasoning requirements
Capstone3
Select one:
Immunology
Molecular Neurobiology
Biology of Aging and Longevity
Scientific Reasoning
Select one (see department for full list of approved courses)3
Microbial Diversity and the Biosphere
Evolution and Development
Human Molecular Genetics
Genetics of Brain and Behavior
Molecular Biology of Free Radicals: Role(s) in Oxidative Stress, Signaling, Disease, Aging
Topics in Membrane Biology: Cell Biology, Physiology and Disease
Cell Signaling and Developmental Regulation
Biology of the Visual System
Cellular Basis of Disease
Mechanisms of Gene Regulation in Eukaryotes
Cells, Molecules and Tissues: A Biophysical Approach
Biology of Stem Cells
Mechanisms of Aging
Animal Virology
Insane in the Membrane: The Biology and Biophysics of the Membrane
Teaching and Learning Biology
Electives
An additional 6 credit hours of upper-division electives (any MCDB 3000 or MCDB 4000 level) 36
Total Credit Hours31
Required Ancillary Courses:
Complete the following chemistry and biochemistry courses:18
General Chemistry 1
and Laboratory in General Chemistry 1
General Chemistry 2
and Laboratory in General Chemistry 2
Organic Chemistry 1
and Laboratory in Organic Chemistry 1
Principles of Biochemistry
Select one of the following calculus or statistics courses: 43-5
Calculus:
Calculus 1
Calculus for Life Sciences
Calculus 1 for Engineers
Statistics:
Introduction to Statistics
Introduction to Statistics and Quantitative Thinking for Biologists
Biological Statistics
Intro to Data Science and Biostatistics
Psychological Science I: Statistics
Total Credit Hours21-23

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 adequate progress in molecular, cellular and developmental biology, students should meet the following requirements:

  • In the first semester, declare the MCDB major. (If the major is not started in the first year, the student must meet with an MCDB academic advisor to ensure that it is still possible to complete the major in four years.)
  • During the first and second semesters, complete either general chemistry or the introductory MCDB sequence.
  • By the end of the fourth semester, complete general chemistry and the introductory MCDB sequence with a C- or better.
  • By the end of the eighth semester, complete 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 requirement, and, potentially, the QRMS component of the Gen Ed Skills Requirement.

Plan of Study Grid
Year One
Fall SemesterCredit Hours
MCDB 1150
Introduction to Cellular and Molecular Biology
or Core Concepts in Biology I: Evolutionary, Molecular and Cell Biology
3
MCDB 2 Credit Hour Lab 2
MCDB 1152 Problem Solving Co-Seminar for Introduction to Molecular and Cellular Biology (strongly recommended in conjunction with MCDB 1150, not required) 1
CHEM 1113
CHEM 1114
General Chemistry 1
and Laboratory in General Chemistry 1
5
Gen. Ed. Skills course (example: Lower-division Written Communication) 3
 Credit Hours14
Spring Semester
MCDB 2150
Principles of Genetics
or Core Concepts in Biology II: Genes, Genetics and Phenotypes
3
MCDB 2152 Problem Solving Co-Seminars for Genetics (strongly recommended in conjunction with MCDB 2150, not required) 1
CHEM 1133
CHEM 1134
General Chemistry 2
and Laboratory in General Chemistry 2
5
Gen. Ed. Distribution course (example: Social Sciences) 3
Gen. Ed. Skills course (example: QRMS) or Elective if QRMS is fulfilled by major requirement. 3
 Credit Hours15
Year Two
Fall Semester
MCDB 3135
Molecular Biology
or Cell Biology
3
Cell Biology Laboratory (MCDB 3140 may be taken at the same time as MCDB 3135 or MCDB3145)
or Cell Biology
 
CHEM 3311
CHEM 3321
Organic Chemistry 1
and Laboratory in Organic Chemistry 1
5
Gen. Ed. Distribution/Diversity course (example: Social Sciences/Global Perspective) 3
Elective 3
 Credit Hours14
Spring Semester
MCDB 3145 Cell Biology 3
MATH 1300 OR Statistics: Calculus 1 or Statistics OR (some students may decide to take Organic Chemistry 2 as an approved out of department, upper division MCDB elective, in that case, taking stats or calc is advised for later semesters) 3-5
Gen. Ed. Distribution course (example: Social Sciences) 3
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Elective (only if taking Statistics) 3
 Credit Hours15-17
Year Three
Fall Semester
MCDB 4650 Developmental Biology 3
BCHM 4611 Principles of Biochemistry 3
Gen. Ed. Skills course (example: Upper-division Written Communication) 3
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Free Elective 3
 Credit Hours15
Spring Semester
Free elective 3
MCDB Science Reasoning 3
Gen. Ed. Distribution course (example: Social Sciences) 3
Upper-Division Elective 3
Upper-Division Elective 3
 Credit Hours15
Year Four
Fall Semester
MCDB Capstone 3
MCDB upper division elective 3
Gen. Ed. Distribution/Diversity course (example: Arts & Humanities/US Perspective) 3
Free Elective 3
Free Elective 3
 Credit Hours15
Spring Semester
MCDB Upper-division Elective 3
Gen. Ed. Distribution course (example: Arts & Humanities) 3
Upper-Division Elective 3
Free elective 3
Free elective 3
 Credit Hours15
 Total Credit Hours118-120

Learning Outcomes 

Upon completing the program, students will be able to:

  • Connect the principles of evolution to the cellular, molecular and genetic properties of organisms, including how genomes and allele frequencies change over time.
  • Describe the assembly and properties of macromolecular complexes and membranes, the movement of molecules and macromolecules, and the chemical properties that underlie these functions.
  • Describe how the genetic information in a cell is stored, replicated, transcribed and translated, and compare the different mechanisms and consequences of gene expression regulation.
  • Describe the basic features of inter- and intra-cellular signaling systems and interpret the ways that they can influence, directly and indirectly, gene expression, cellular behaviors, and organismic phenotypes.
  • Describe the mechanisms of inheritance, including deducing information about genes, alleles, mutations and gene functions from analyses of genetic crosses and patterns of inheritance.
  • Distinguish between different experimental techniques, justify their use to test specific hypotheses and interpret conclusions from experimental data.
  • Carry out basic research using standard cell and molecular biology techniques and communicate that research through both written and oral presentations.