The course deals with thermodynamic properties of pure substances, ideal and real gases and the study and application of the laws of thermodynamics in the analysis of processes and cycles; introduction to vapor and gas cycles.

This course supports SDG 7: Affordable and Clean Energy and SDG 13: Climate Action by providing foundational knowledge of thermodynamic principles essential to the analysis and development of efficient energy systems. Through the study of energy conversion processes, vapor and gas cycles, and the behavior of ideal and real gases, the course equips students with the tools to innovate and optimize energy technologies that reduce environmental impact and promote sustainable energy use.

This laboratory course provides hands-on and simulation-based verification of the principles and theorems covered in the Electrical Circuits 1 lecture. It encompasses the practical application of voltage and current laws, nodal and mesh analysis, and network theorems to construct, measure, and evaluate DC and AC electrical networks. Students will utilize standard electrical measuring instruments, breadboards, and computer-aided circuit analysis software to investigate the physical characteristics of energy-storing elements, analyze the transient and steady-state responses of RL, RC, and RLC circuits, and perform sinusoidal steady-state measurements in the frequency domain.

The course covers nodal and mesh analysis; application of network theorems in circuit analysis; analysis of circuits with controlled sources and ideal op-amps fundamentals of capacitors and inductors; analysis of dc-driven RL, RC, and RLC circuits; sinusoidal steady-state analysis of general RLC circuits.
The course deals with the nature and physical properties of fluids as well as the identification and measurement of fluid properties. It emphasizes the application of conservation laws on mass, energy and momentum to fluid systems either incompressible or compressible flow, inviscid or viscous flow as well as head loss calculation on pipes and fittings
This course provides engineering students with a strong foundation in differential equations as a prerequisite for advanced engineering and mathematics courses. It covers first-order differential equations, higher-order linear differential equations, systems of first-order linear differential equations, and the application of Laplace transforms in solving differential equations. Emphasis is placed on the application of differentiation and integration techniques, the identification and classification of differential equations, the determination of the existence and uniqueness of solutions, and the selection of appropriate analytical methods for obtaining and interpreting solutions. Students will develop the ability to model and analyze practical engineering and scientific problems using differential equations and utilize computational tools to solve, verify, and interpret mathematical solutions in real-world engineering applications. CMO 101, CMO 88 Series 2017
The course tackles key Occupational, Health and Safety (OSH) concepts, principles and practices that are foundational knowledge requirements acceptable in almost all industries; determination of existing and potential safety and health hazards; identification of control measures, provisions of Philippine laws that refer to occupational safety and health
Force moments, and motion concepts. Newton’s Laws of Motion. Analysis of particles and rigid bodies in static and dynamic equilibrium using vector mechanics and energy and momentum methods. Geometric properties of lines, areas, and volumes.

Accessibility

Background Colour Background Colour

Font Face Font Face

Font Kerning Font Kerning

Font Size Font Size

1

Image Visibility Image Visibility

Letter Spacing Letter Spacing

0

Line Height Line Height

1.2

Link Highlight Link Highlight

Paragraph Width Paragraph Width

0

Text Alignment Text Alignment

Text Colour Text Colour