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PHYC 2A lectures (55:34:08)
Chapter 1: Introduction and Mathematical Concepts (3:20:09)
Units and dimensional analysis (1:18:24)
Vectors (2:01:45)
Vectors vs. scalars (definitions and examples) (14:42)
m4v / mp4 / page-1 / page-2 / page-3Definition and interpretation of vector addition (21:16)
m4v / mp4 / page-1 / page-2 / page-3Definition and interpretation of vector subtraction (10:56)
m4v / mp4 / page-1 / page-2Vector components (2D and 3D) (15:11)
m4v / mp4 / page-1 / page-2Conversion between magnitude+direction and components in 2D (24:35)
m4v / mp4 / page-1 / page-2Adding and subtracting vectors using the component method (30:09)
m4v / mp4 / page-1 / page-2 / page-3Multiplying (and dividing) a vector by a scalar (4:55)
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Chapter 2: Kinematics in One Dimension (4:40:51)
Basic definitions (1:32:16)
Constant acceleration (1:31:16)
Vertical free fall (44:29)
Graphing motion (52:50)
Chapter 3: Kinematics in Two Dimensions (3:38:10)
Basic definitions (1:08:21)
Projectile motion (1:15:08)
Relative motion (1:14:41)
Chapter 4: Forces and Newton's Laws of Motion (7:17:22)
Newton's Laws (1:35:17)
Types of forces (2:03:51)
Applications of Newton's second law (3:38:14)
Block hanging from ceiling (30:47)
m4v / mp4 / page-1 / page-2Block pushed along floor: no friction (16:22)
m4v / mp4 / page-1Block pushed along floor: include friction (39:57)
m4v / mp4 / page-1 / page-2Incline plane (no friction) (27:53)
m4v / mp4 / page-1 / page-2Block attached to hanging weight (pt 1) (18:40)
m4v / mp4 / page-1Block attached to hanging weight (pt 2) (29:22)
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Chapter 5: Dynamics of Uniform Circular Motion (1:18:11)
Centripetal Acceleration (29:56)
Applications of Newton's second law to uniform circular motion (48:15)
Inertial and non-inertial reference frames (1:34:55)
Newton's second law for non-inertial reference frames; the inertial force (15:55)
m4v / mp4 / page-1 / page-2Real world examples of the inertial force (23:15)
m4v / mp4 / page-1 / page-2Problem 1: range of a cannon inside an accelerating elevator (17:04)
m4v / mp4 / page-1 / page-2 / page-3Problem 2: block hanging from the roof of a car travelling in uniform circular motion (13:25)
m4v / mp4 / page-1 / page-2Problem 3: car travelling around a banked curve with friction (25:17)
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Chapter 6: Work and Energy (4:30:16)
Kinetic Energy (2:36:36)
Potential and Mechanical Energy (1:53:40)
Chapter 7: Impulse and Momentum (2:27:23)
Impulse-Momentum theorem (1:03:32)
Conservation of momentum (1:23:51)
Chapter 8: Rotational Kinematics (2:15:14)
Basic definitions (58:57)
Motion of particles in a rotating object (54:54)
Rolling motion (21:23)
Chapter 9: Rotational Dynamics (4:53:04)
Torque and rotational inertia (1:35:06)
Applications of Newton's second law for rotation (1:56:04)
Rotational energy (1:21:54)
Chapter 10: Simple Harmonic Motion and Elasticity (2:46:16)
Spring force (41:44)
Spring-mass oscillations (55:39)
Spring potential energy (1:03:50)
Chapter 11: Fluids (3:49:02)
Chapter 16: Waves and Sound (1:16:07)
Chapter 17: The Principle of Linear Superposition and Interference Phenomena (1:27:20)
Chapter 17m: Sound and Music (58:28)
Music primer: notes, scales, intervals, and associated frequencies (11:53)
m4v / mp4 / page-1Music primer: notes, scales, and intervals (piano demonstration) (9:01)
m4v / mp4Overtone demonstration (piano demonstration) (11:46)
m4v / mp4Tone color demonstration: Saint Saens, Piano Concerto No. 5, Op. 103, 2nd mvt. (piano demonstration) (9:55)
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Chapter 12: Temperature and Heat (1:39:20)
Temperature units and measurement (15:12)
m4v / mp4 / page-1 / page-2Thermal expansion (15:51)
m4v / mp4 / page-1 / page-2 / page-3Heat, heat capacity, and specific heat (per mass) (8:58)
m4v / mp4 / page-1Measuring specific heat (18:04)
m4v / mp4 / page-1 / page-2 / page-3Phase changes and latent heat (15:41)
m4v / mp4 / page-1 / page-2Vapor pressure and phase coexistance (25:34)
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Chapter 13: The Transfer of Heat (1:27:23)
Chapter 14: The Ideal Gas Law and Kinetic Theory (2:00:11)
Avogadro's number and molar masses (14:04)
m4v / mp4 / page-1 / page-2Equipartition theorem, Maxwell speed distribution, and the specific heat (per molecule) for a monatomic ideal gas (23:15)
m4v / mp4 / page-1 / page-2 / page-3Derivation of the ideal gas law from the equipartition theorem. (13:18)
m4v / mp4 / page-1 / page-2Specific heats for diatomic ideal gasses and beyond (30:58)
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Chapter 15: Thermodynamics (4:14:25)
First (and zeroth) law of thermodynamics (2:01:44)
Introduction and the zeroth law (10:53)
m4v / mp4 / page-1 / page-2Heat, work, and internal energy: the first law (20:19)
m4v / mp4 / page-1 / page-2 / page-3Thermal processes (general) (17:37)
m4v / mp4 / page-1 / page-2Thermal processes for ideal gasses: c_p and c_v (30:31)
m4v / mp4 / page-1 / page-2 / page-3Discussion of relationship between c_p and c_v for ideal gasses and for general materials (17:40)
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Second (and third) law of thermodynamics (2:12:41)
The second law: reversible and irreversible processes (19:32)
m4v / mp4 / page-1 / page-2 / page-3Efficiency and coefficients of performance of reversible and irreversible heat engines and heat pumps (27:20)
m4v / mp4 / page-1 / page-2 / page-3Efficiency of the Carnot engine (derivation) (21:16)
m4v / mp4 / page-1 / page-2 / page-3Entropy and the second law (30:25)
m4v / mp4 / page-1 / page-2 / page-3Entropy in terms of microstates; the third law (14:11)
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