In the Chemistry diploma study program with a focus on Inorganic Chemistry, students are given specific emphasis on material development and the ability to analyze and solve problems related to the structure and reactivity of inorganic compounds, both non-metallic and metallic, with a theoretical approach. First, students understand the basic concepts in Inorganic Chemistry, such as the nature and behavior of inorganic compounds, chemical bonding, and molecular structure. They study various types of inorganic compounds, ranging from metals to non-metals, and how their chemical structures affect reactivity and practical applications. Next, students focus on the development of inorganic materials. They study the synthesis methods, characterization, and applications of materials such as catalysts, nanomaterials, magnetic materials, and others. In this context, they learn to optimize material properties for specific applications, such as water treatment, renewable energy, and information technology. Then, in the context of theoretical research, students understand and practice computational modeling and simulation to understand the structure and reactivity of inorganic compounds. They use specialized software to analyze and predict the behavior of compounds theoretically, making important contributions to the research and development of new compounds.

In the Chemistry diploma study program with a focus on Organic Chemistry, students study the structure, properties, changes, composition, reactions, and synthesis of compounds containing carbon atoms. Not only hydrocarbon compounds, but also compounds containing other elements such as hydrogen, nitrogen, oxygen, halogens, phosphorus, silicon, and sulfur. First, students understand the basic concepts of Organic Chemistry, including the structure of carbon molecules and their relationship with the reactivity of compounds. They study bond types, isomers, typical reactions, and properties of organic compounds. Next, they delve into the synthesis of organic compounds, understanding the various methods and techniques used in the process of making organic compounds. This includes the use of reagents, catalysts, as well as separation techniques and compound characterization. Then, in the context of applications, students study the use of organic compounds in various fields such as pharmaceuticals, industry, and chemicals. They understand the properties that make organic compounds important and useful in everyday life.

In the Chemistry diploma study program with a focus on Physical Chemistry, students study science that explores chemical phenomena from a physical point of view. They understand phenomena at macroscopic, microscopic, atomic, sub-atomic, and particle levels in chemical systems and processes. The main focus is the application of physical principles and concepts in chemistry, with specialized areas including chemical thermodynamics, quantum chemistry, and kinetics. First, students understand the physical concepts underlying chemistry, including the basic principles of quantum mechanics, thermodynamics, and chemical reaction kinetics. They learn how these concepts can be applied to understand the behavior of chemical systems. Next, students explore chemical thermodynamics, which includes the study of energy, entropy, and chemical reactions in the context of open and closed systems. They understand energy changes and the natural tendency of chemical reactions based on the laws of thermodynamics. Then, in quantum chemistry, students understand the principles of quantum mechanics and how these concepts apply at the atomic and molecular levels. They study electronic structure and spectroscopy which form the basis for understanding chemical interactions.

In the Chemistry diploma study program with a focus on Biological Organic Chemistry or Pharmaceutical Organic Chemistry, students study secondary metabolite compounds that have an important role in living organisms. The main focus is to understand the origin, biogenesis, classification, physical and chemical properties, structure, and activity of various groups of secondary metabolite compounds, such as aromatic compounds, phenolics, heterocycles, terpenoids, steroids, phenylpropanoids, polyketides, flavonoids, and alkaloids. First, students understand the origin and biogenesis of secondary metabolite compounds. They learn how these compounds are produced by living organisms, including the biochemical pathways involved in their production. Furthermore, students explore the classification of secondary metabolite compounds based on their structure and chemical properties. They understand the typical physical and chemical properties of each group of secondary metabolite compounds and identify the differences and similarities between the groups. Then, in the context of structure and reactivity, students study the molecular structures of secondary metabolite compounds, as well as the way chemical reactions can occur in these structures. This includes analyzing the chemical bonds, characteristic reactions, and biological roles of these compounds.

In the Chemistry diploma study program with a focus on Polymer Chemistry, students study multidisciplinary science centered on the chemical synthesis and chemical properties of polymers and macromolecules. The main focus is to understand the concepts of polymer chemistry, including aspects of thermodynamics, kinetics, and structure. First, students understand the basic concepts related to polymer chemical synthesis, including the reactions and synthesis methods used to create polymers and macromolecules. They learn the principles of thermodynamics that affect polymer synthesis reactions. Furthermore, in terms of thermodynamics, students understand the role of energy and entropy in shaping and influencing the chemical properties of polymers. They study the thermodynamic stability of polymers, polymer phases, and factors that affect the size distribution of polymer molecules. Then, in terms of kinetics, students understand the reaction rates and reaction mechanisms involved in polymer synthesis and degradation. They study the factors that affect reaction rates, as well as strategies to control polymer reaction kinetics.

In the Chemistry diploma study program with a focus on Food Chemistry, students learn the basics of food biochemistry, molecular biology, and cell biochemistry in the context of food technology. The main focus is to understand macromolecular compounds such as proteins, enzymes, nucleic acids, fats, and carbohydrates and the metabolic processes associated with the main bioorganic compounds. First, students understand the basics of food biochemistry, including the chemical composition of food, chemical reactions that occur during food processing, and their effects on food quality and safety. Next, in the aspect of molecular biology, students understand the structure, function, and interaction of macromolecular compounds such as proteins, enzymes, nucleic acids, fats, and carbohydrates in the context of food technology. They also understand analytical techniques for the characterization of these compounds. Then, students study the major metabolic processes in the human body, including anabolism and catabolism of bioorganic compounds such as carbohydrates, fats, proteins, enzymes, and nucleic acids. They understand the role of metabolism in generating energy and maintaining body functions.