Course code/credits and contact hours | : | TKS1205/2.5+0.5 (Laboratory work) |
Semester | : | II |
Instructor’s or course coordinator’s name | : | Intan Supraba, S.T., M.Sc., Ph.D. |
Bibliography | : |
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Specific course information | ||
Brief description | : | This course contains,
Fundamentals of Statics I: Definition of force and moment; parallelogram, parallelogram/ force disintegration, concurrent and non-concurrent forces resultant; definition of moment from a force, couple moment and torsional moment; parallel forces resultant, forces equilibrium; principle of force equilibrium; Newton Law I and III; Definition of internal forces due to loading: normal force, shear force, bending and torsional moment; definition and types of loads/external force and load combinations, and load and structure idealization in the field; definition, types, and characteristics of supports, calculation of support reaction. Fundamentals of Stress, Strain, and Deformation Analysis: Rigid body stability, definition of stress, stress-strain relationship, E-G-n relationship, section properties: area, center of gravity, moment of inertia, axis transformation (axis displacement and rotation). Introduction of single and multiple degree system, resonance, and damping. Fundamentals of Fluid Mechanics: Hydrostatic pressure, Bernoulli law, balance principle and force momentum the fundamentals of liquid flow through pipe, shear stress, velocity distribution in vertical section, energy loss in fluid flow, specific energy, specific force, hydraulic jump. Fundamentals of Transportation Engineering: Fundamentals of dynamics mechanics, single vehicle movement, single vehicle movement statistics (velocity, acceleration), multiple vehicle movement (following theory). |
Prerequisite Courses | : | Basic Physics (Semester I) |
Required/elective | : | Required |
Studio work | : | This course contains,
Fundamentals of Statics I: Definition of force and moment; parallelogram, parallelogram/force disintegration, concurrent and non-concurrent forces resultant; definition of moment from a force, couple moment and torsional moment; parallel forces resultant, forces equilibrium; principle of force equilibrium; Newton Law I and III; Definition of internal forces due to loading: normal force, shear force, bending and torsional moment; definition and types of loads/external force and load combinations, and load and structure idealization in the field; definition, types, and characteristics of supports, calculation of support reaction. Fundamentals of Stress, Strain, and Deformation Analysis: Rigid body stability, definition of stress, stress-strain relationship, E-G-n relationship, section properties: area, center of gravity, moment of inertia, axis transformation (axis displacement and rotation). Introduction of single and multiple degree system, resonance, and damping. Fundamentals of Fluid Mechanics: Hydrostatic pressure, Bernoulli law, balance principle and force momentum the fundamentals of liquid flow through pipe, shear stress, velocity distribution in vertical section, energy loss in fluid flow, specific energy, specific force, hydraulic jump. Fundamentals of Transportation Engineering: Fundamentals of dynamics mechanics, single vehicle movement, single vehicle movement statistics (velocity, acceleration), multiple vehicle movement (following theory). |
Laboratory work | : | Practice of building structure (tensile force, compression force, moment, shear force) |
Specific goals of the course | ||
Specific outcomes | : | The students are expected to be able to apply science and technology, and physics in civil engineering. |
Student outcomes | : |
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Brief list of topics to be covered | : |
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