Author: dexter

  • Problem 3.345 — Magnetic fields and forces

    Problem Statement Solve the magnetic field/force problem: Problem 3.345 — Magnetic fields and forces $c = 3\times10^8\,\text{m/s}$ Newton’s second law $\mathbf{F}_\text{net} = m\mathbf{a}$ is the fundamental relation between net force and acceleration. For systems of connected objects (Atwood machine, blocks on inclines), each body is treated separately wi Given Information Current $I$ or charge $q$…

  • Problem 3.249 — RL, LC, RLC circuits

    Problem Statement Analyze the circuit: Problem 3.249 — RL, LC, RLC circuits $\omega_0 = 1/$ This problem applies fundamental physics principles to the scenario described. The solution requires identifying the relevant conservation laws and equations of motion, then solving systematically with careful attention to units and sign conventio Given Information Resistance values $R_1, R_2, \ldots$…

  • Problem 4.222 — Waves: Vibration Isolation

    Problem Statement Solve the oscillation/wave problem: Problem 4.222 — Waves: Vibration Isolation $f_n = f/\Omega = 10/$ This problem applies fundamental physics principles to the scenario described. The solution requires identifying the relevant conservation laws and equations of motion, then solving systematically with careful attention to units and s Given Information Mass $m$ and spring…

  • Problem 6.181 — Nuclear Energy Levels: Isomers

    Problem Statement Solve the nuclear physics problem: Problem 6.181 — Nuclear Energy Levels: Isomers $\lambda = hc/E^* = 1240 \text{ eV·nm}$ $A = \lambda N = \frac{0.693}{6\times3600}\times6.08\times10^{15} = 3.21\times10^{10} \text{ Bq} = 32.1 \text{ GBq/}$ This problem applies fundamental physics principles to the scenario described. The solution req Given Information Nuclide symbol, atomic number $Z$,…

  • Problem 6.117 — Thomas-Fermi Model

    Problem Statement Problem 6.117 — Thomas-Fermi Model Given Information All quantities, constants, and constraints stated in the problem above Physical constants used as needed (see Concepts section) Physical Concepts & Formulas This problem draws on fundamental physical principles. The key is to identify which conservation law or field equation governs the system, then apply it…

  • Problem 3.344 — Magnetic fields and forces

    Problem Statement Solve the magnetic field/force problem: Problem 3.344 — Magnetic fields and forces $c = 3\times10^8\,\text{m/s}$ Newton’s second law $\mathbf{F}_\text{net} = m\mathbf{a}$ is the fundamental relation between net force and acceleration. For systems of connected objects (Atwood machine, blocks on inclines), each body is treated separately wi Given Information Current $I$ or charge $q$…

  • Problem 3.248 — RL, LC, RLC circuits

    Problem Statement Analyze the circuit: Problem 3.248 — RL, LC, RLC circuits $\omega_0 = 1/$ This problem applies fundamental physics principles to the scenario described. The solution requires identifying the relevant conservation laws and equations of motion, then solving systematically with careful attention to units and sign conventio Given Information Resistance values $R_1, R_2, \ldots$…

  • HC Verma Chapter 31 Problem 66 – Potential Difference in Capacitor Circuit

    Problem Statement Solve the capacitor/capacitance problem: $C_1 = 1\mu$F and $C_2 = 2\mu$F are in series connected to 9 V. Find voltage across each and charge stored. Then if $C_3 = 3\mu$F is in parallel with $C_2$, find new charges. See problem statement for all given quantities. Capacitors store electric charge on conducting plates separated…

  • Irodov Problem 3.14 — Electric Flux Through a Hemisphere

    Problem Statement A point charge $q$ is at the center of a sphere of radius $R$. Find the flux through one hemisphere. Given Information All quantities, constants, and constraints stated in the problem above Physical constants used as needed (see Concepts section) Physical Concepts & Formulas This problem draws on fundamental physical principles. The key…

  • HCV Ch26 P7 – Carnot Engine: Finding Temperature of Hot Reservoir

    Problem Statement Solve the thermodynamics problem: A Carnot engine has an efficiency of 25%. If the temperature of the cold reservoir is 27°C, find the temperature of the hot reservoir. See problem statement for all given quantities. The Carnot engine is the idealized heat engine operating between two reservoirs at temperatures $T_H$ (hot) and $T_C$…