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General Chemistry I: Atoms, Molecules, and Bonding

Learn about the world at the molecular level by exploring chemical structure and bonding from a quantum mechanical perspective. Topics include wave-particle duality, electronic structure of atoms, chemical bonding models, and intermolecular interactions.

Course Information

Format: Self-Paced
Estimated: 15 weeks, 8-10 hours per week
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About this Course

Chemistry is the study of the properties, structure, behavior, and reactivity of matter. As the central science, chemistry has connections across a wide range of disciplines from physics and biology to environmental science and nano-science. A fundamental understanding of chemistry is the basis on which cutting-edge research in many fields rests.

This online course from the MIT Department of Chemistry is designed to build core chemistry skills, including how to draw chemical structures and predict molecular properties and reactivities, and the necessary fundamental knowledge for advanced topics in organic chemistry, physical chemistry, biochemistry, and materials science.

The first in a series of two courses that together teach first-year, university-level chemistry, this course focuses on the principles of chemical bonding in the way it historically occurred, starting from the first experiments that revealed the fundamental dual wave-particle nature of energy and matter. Using the machinery of quantum chemistry, you will learn to:

  • build models to describe the electronic structure of atoms,
  • examine how atoms can be combined into molecules through different chemical bonding models,
  • predict the structure and geometry of molecules,
  • analyze how molecular geometry determines molecular properties,
  • explore how molecules interact with each other and analyze how these interactions impact properties in a variety of phases

This online course is based on material from MIT’s Principles of Chemical Science on-campus class, which fulfills the General Institute Requirement in Chemistry for all MIT undergraduates.

Students preparing for undergraduate-level chemistry courses, and undergraduate students who are reviewing General Chemistry for upper division courses or looking to supplement their coursework with additional practice would most benefit from this course. It would also benefit working adults pursuing post-baccalaureate pre-health programs, nursing school, or engineering and technology degrees to advance their careers.

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What you'll learn

  • Wave-Particle Duality of Energy and Matter
  • Introductory Quantum Mechanics
  • Electronic Structure of Atoms
  • Molecular Bonding and Structure
  • Intermolecular and Interatomic Interactions

Prerequisites

High School Chemistry (Module 0 provides background information); Pre-Calculus-Level Mathematics; 5.01x is a perquisite for 5.02x

Meet your instructors

Sylvia Ceyer

Professor

Sylvia T. Ceyer is the J. C. Sheehan Professor of Chemistry and former Head of the MIT Department of Chemistry. She received her B.A. degree in chemistry from Hope College, Holland, MI and her Ph.D. in chemistry from the University of California, Berkeley. She joined the MIT faculty in 1981 and has taught classes in first year chemistry, quantum mechanics, statistical mechanics, kinetics, solid state chemistry and reaction dynamics. At MIT, she has been awarded the A. Smith Award for Meaningful Contributions and Devotion to Undergraduate Student Life and Learning, the MacVicar Faculty Fellowship, the School of Science Teaching Prize, and the Baker Memorial Award for Excellence in Undergraduate Teaching. Her research interests are centered on reaction dynamics at material surfaces that serve either as catalysts, as templates for nanosystems, or as devices. She is a fellow of the National Academy of Science, the American Academy of Arts and Sciences, the American Association for the Advancement of Science, and the American Physical Society. Her numerous awards and honors include the J. Willard Gibbs Medal of the American Chemical Society, the Nobel Laureate Signature Award for Graduate Education (with A. D. Johnson) from the American Chemical Society, and the Hope College Distinguished Alumni Award