Establish basic concepts related to natural phenomena. Through lectures on mechanics, waves, and thermodynamics, one-dimensional motion, vector and relative velocity, Newton's laws of motion, circular motion and rotational motion of rigid bodies, motion of objects, waves, vibrations, and thermodynamics are understood. By understanding the principles and concepts of electricity and magnetism, student acquire the basic physical concepts and principles related to electromagnetism.

Understand the structure, properties, and interactions of matter at the macroscopic and microscopic levels. The knowledge and scientific research methods acquired in the process of material inquiry can be applied to professional judgment in the field of major and daily life. Based on the basic concepts and laws of chemistry, the structure of atoms, and quantum mechanical understanding of chemical bonds, the content identifies the forces between liquids, solids, and molecules and understands the principles of chemical reactions.

Learn the physical properties of fluids and the changes in the amount of fluids in units and stationary fluids and the continuous and kinetic equations of fluids to understand the properties of fluids, the basic equations of fluids, and the dimensional analysis of flows.
It induces the basic equations governing the motion of fluids and cultivates the ability to apply them to major phenomena.

The basic theory of thermodynamics is learned to understand the mechanical relationship between heat and work, the process of converting thermal energy into mechanical energy, the physical properties and movement process of heat and fluid, and the amount of mechanical state numerically.
This course introduces the concepts and terms of thermodynamics, the properties of materials, energy, work and heat transfer, thermodynamic state quantity of pure materials, The First and Second laws of thermodynamics, gas compression, steam source cycle, refrigeration cycle, gas and steam flow, combustion and electrothermal analysis, and micro-thermodynamics.

It is a basic compulsory course for studying engineering, and studies how to mathematically model engineering problems and find solutions to them. Through this subject, we learn about the first-order ODEs and second-order linear ODEs necessary to interpret the dynamic system and obtain responses, and also learn about the higher-order ODEs. We also learn about Series solutions and the implications and applications of Laplace transforms.

Student learn about statistical and statistical concepts, summarizing and organizing data, probability and probability distribution, probability variables, expectations, variance, discrete distribution, continuous distribution, statistical reasoning for sampling and sample analysis, hypothesis tests for large and small samples, and analysis of variance. The demand for processing large amounts of data is increasing in modern society, so it is possible to learn statistical techniques for effectively processing various data, and to acquire statistical methods used in scientific research.