Intervention for Chemistry

This bridging course strengthens and consolidates foundational chemistry concepts and quantitative problem-solving skills essential for students preparing to undertake Chemistry for Engineers. Designed to establish a strong conceptual and mathematical foundation, the course develops students’ understanding of chemical principles and their applications to engineering-related problems. It provides a comprehensive review of the composition, structure, properties, and behavior of matter, emphasizing the particulate nature of substances and the interactions governing their physical and chemical behavior. Core topics include atomic theory, atomic structure, periodic trends, chemical bonding, and compound formation. Quantitative competencies are developed through the mole concept, chemical nomenclature, chemical equations, stoichiometry, and calculations involving mass, moles, and reacting species. The course further examines the behavior of gases through fundamental gas laws and introduces the properties of solutions, concentration units, solubility, and factors affecting dissolution. Colligative properties of non-electrolyte solutions are explored alongside fundamental principles of acid-base chemistry, including acid-base equilibria, pH calculations, neutralization reactions, and introductory acid-base titration. Through structured discussions, guided exercises, contextualized applications, and progressively challenging quantitative problems, students develop chemical reasoning, mathematical proficiency, analytical thinking, and systematic problem-solving competencies. The course prepares students to apply foundational chemical principles with confidence and provides the necessary academic preparation for Chemistry for Engineers and subsequent engineering coursework.

Intervention for Calculus

This bridging course strengthens and consolidates foundational mathematical concepts, analytical techniques, and quantitative problem-solving skills essential for students preparing to undertake higher-level engineering courses. Designed to establish a strong conceptual and mathematical foundation, the course develops students’ proficiency in algebra, trigonometry, and geometry, emphasizing their applications to mathematical modeling and engineering-related problems. It begins with a comprehensive review of fundamental algebraic principles, including the real number system, operations involving integers and rational expressions, algebraic equations, inequalities, and functions. The course then introduces essential concepts in trigonometry, covering the Pythagorean theorem, trigonometric functions and identities, and the solution of right and oblique triangles, providing students with the mathematical tools necessary to analyze geometric relationships and solve practical engineering problems. The final component focuses on plane, solid, and analytic geometry, including the determination of perimeters and areas of plane figures, surface areas and volumes of solid figures, coordinate systems, equations of lines, conic sections, and algebraic curves. Through structured discussions, guided exercises, contextualized applications, and progressively challenging quantitative problems, students develop mathematical reasoning, spatial visualization, analytical thinking, and systematic problem-solving competencies. The course prepares students to apply fundamental mathematical principles with confidence and provides the necessary academic preparation for subsequent coursework in mathematics, science, and engineering.

Chemistry for Engineers

This course develops a comprehensive understanding of fundamental and advanced chemical principles and their applications to engineering practice, materials, energy systems, and environmental processes. It emphasizes the relationships among chemical structure, bonding, composition, properties, and behavior, providing students with the scientific foundation necessary to understand and analyze chemical phenomena encountered in engineering systems. The course examines the principles of thermochemistry, electrochemistry, nuclear chemistry, and fuel chemistry, highlighting their applications to energy production, conversion, storage, and related engineering technologies. It further explores the chemistry and properties of engineering materials, including metals, alloys, polymers, and advanced materials such as nanomaterials, with emphasis on structure-property relationships, material performance, and engineering applications. Environmental chemistry is addressed through the study of water-quality parameters, atmospheric composition and chemical processes, the sources and impacts of chemical pollutants, and the chemical composition and properties of soils. The course also introduces the fundamental principles of chemical safety, including the identification of chemical hazards, risk assessment, and the proper storage, handling, management, treatment, and disposal of toxic and hazardous substances. Through structured discussions, quantitative problem-solving, case studies, and contextualized engineering applications, students develop chemical reasoning, analytical thinking, and the ability to apply scientific principles to materials selection, energy-related processes, environmental protection, and chemical safety. The course prepares students to evaluate chemical processes and engineering materials while promoting responsible engineering practice, resource conservation, and sustainable technological development.