연세대학교 이과대학 화학과

Learn the nature, structure, synthesis, and reaction mechanisms of organic compounds, including alkanes, alkenes, alkynes, halogenated alkyl compounds, and alcohols.

Understand the fundamental principles of quantum mechanics to determine the structure and properties of the microscopic world of matter.

Learn bonding theory, symmetry, and periodicity of acids, bases, and compounds, centered on atomic structure and molecular orbital function theory, systematically examine the properties and reactivity of inorganic compounds.

Establish the concepts of moles and concentrations that are fundamental to analytical chemistry and the activities required for wet analysis,  principles of chemical equilibrium and volumetric analysis, acid-base equilibrium, acid-base titration, and precipitation.

Learn the nature, structure, synthesis, and reaction mechanisms of aromatic compounds, aldehydes and ketones, carboxylic acids and derivatives, and amines, and understand the principles of spectroscopic methods necessary for the analysis of organic compounds.

Build on the microscopic perspective learned in Physical Chemistry 1 to understand thermodynamics, statistical mechanics, and reaction kinetics to explain the macroscopic properties of molecular populations and acquire principles at the core of chemical change.

Learn the theory of qualitative and quantitative analysis and develop the ability to solve actual analysis problems on their own through wet analysis and instrumental analysis experiments.

Acquire basic experimental methods necessary for organic chemistry research and perform purification and separation of organic compounds, various functional group transformations and coupling reactions, and polymer synthesis.

Learn the basic synthetic techniques required for inorganic chemistry research and understand the range of modern spectroscopic applications by synthesizing inorganic compounds and analyzing them using spectroscopic methods.

Develop an understanding of the fundamental principles and concepts of physical chemistry by performing experiments on key principles of physical chemistry. Perform experiments on computational principles of quantum chemistry, various types of spectroscopy, reaction kinetics, nanoparticle properties, and advanced physical chemistry topics.

Gain experience and understanding of advanced chemical research by being assigned to a laboratory within the Department of Chemistry to conduct graduate-level chemical research.

Learn the theory and application of analytical chemistry using instruments such as electrochemistry, spectroscopy, and separation analysis.

Learn the basic theories and reaction mechanisms of coordination and organometallic chemistry necessary to understand modern inorganic chemistry.

Learn about the organic reactions of biomolecules - carbohydrates, amino acids/peptides, and nucleic acids - and their basic biological significance. You will also learn about the mechanisms of enzymes.

Learn about the basic chemistry of organic compounds applied in the field of materials, organic semiconductors, displays, renewable energy materials, and medical materials.

Learn the principles and applications of spectroscopy, mass spectrometry, electrochemical analysis, surface analysis, and separation using state-of-the-art analytical instruments.

This course is designed to help second- and third-year chemistry majors develop their careers, providing them with a variety of opinions and advice on what to do after graduation from professors, alumni, and others working in various careers.

Learn the basic concepts of organic synthesis and various covalent synthesis methods, and acquire strategies for the synthesis of complex organic molecules.

Acquire basic knowledge of spectroscopy to determine the properties of molecules and understand the photophysical/photochemical kinetic mechanisms of molecules induced by light-matter interactions.

Learn about structure-reactivity correlations in organic compounds, and the types and mechanisms of organic reactions.

Learn about the bonding properties and reactivity of organometallic compounds, cluster compounds, homogeneous catalysis, and biofuel chemistry to understand catalysis.

Covers the theory, synthesis, analysis, and applications of advanced inorganic materials, including inorganic crystal structure, synthesis, bonding, surface, bulk, and atomic-scale analysis, optical, magnetic, and electrical properties and applications, and nanoscience.

Understand quantum chemistry from the perspective of quantum mechanics with in-depth examples and exercises from Physical Chemistry 1, and synthesize the theoretical and computational methods that provide the basic framework for quantum chemical research.

After mastering the math required to study the principles of chemistry and artificial intelligence, this course covers the basic principles and applications of artificial intelligence. You will learn examples of AI applications in chemistry and chemistry-related industries.