Q1 · theory
Coulomb's law F ∝:
Q2 · theory
Electric field E =:
Q3 · theory
SI unit of E:
Q4 · theory
Potential V related to E (uniform):
Q5 · theory
Capacitance C =:
Q6 · theory
Energy stored in capacitor:
Q7 · theory
Ohm's law:
Q8 · theory
Power in resistor:
Q9 · theory
Kirchhoff junction rule:
Q10 · theory
Kirchhoff loop rule:
Q11 · theory
Series resistors R_eq:
Q12 · theory
Parallel resistors 1/R_eq:
Q13 · theory
RC time constant τ:
Q14 · theory
Charging V_C approaches:
Q15 · theory
Magnetic force on charge:
Q16 · theory
Lorentz force full:
Q17 · theory
Path of charge ⊥ B (uniform) is:
Q18 · theory
Cyclotron radius r =:
Q19 · theory
Faraday's law:
Q20 · theory
Lenz's law gives:
Q21 · theory
Magnetic flux Φ =:
Q22 · theory
SI unit of magnetic field:
Q23 · theory
Ampere's law relates B to:
Q24 · theory
Self inductance L defines:
Q25 · theory
Transformer works on:
Q26 · theory
Ideal transformer Vs/Vp =:
Q27 · theory
RMS of V0 sinωt is:
Q28 · theory
Average power AC resistor:
Q29 · theory
Electric field lines start on:
Q30 · theory
Gauss's law:
Q31 · theory
Dielectric in capacitor:
Q32 · theory
Drift speed in metals is:
Q33 · theory
Current I =:
Q34 · theory
1 eV equals:
Q35 · theory
Magnetic field around long straight wire:
Q36 · theory
Force between parallel currents:
Q37 · theory
EM wave speed in vacuum:
Q38 · theory
Displacement current concept by:
Q39 · theory
Impedance of pure C:
Q40 · theory
Impedance of pure L:
Q41 · theory
Resonance series RLC when:
Q42 · theory
Q factor measures:
Q43 · theory
Eddy currents are:
Q44 · theory
SI unit capacitance:
Q45 · theory
SI unit resistance:
Q46 · theory
Kirchhoff laws apply to:
Q47 · theory
Potential energy of two charges:
Q48 · theory
Equipotential surface E is:
Q49 · theory
No work to move charge on equipotential:
Q50 · theory
Right-hand rule for B around wire:
Q51 · numerical
F between 2μC and 3μC separated 0.10 m (k=9e9):
Q52 · numerical
F between 2μC and 3μC separated 0.11 m (k=9e9):
Q53 · numerical
F between 2μC and 3μC separated 0.12 m (k=9e9):
Q54 · numerical
F between 2μC and 3μC separated 0.13 m (k=9e9):
Q55 · numerical
F between 2μC and 3μC separated 0.14 m (k=9e9):
Q56 · numerical
F between 2μC and 3μC separated 0.15 m (k=9e9):
Q57 · numerical
F between 2μC and 3μC separated 0.16 m (k=9e9):
Q58 · numerical
F between 2μC and 3μC separated 0.17 m (k=9e9):
Q59 · numerical
F between 2μC and 3μC separated 0.18 m (k=9e9):
Q60 · numerical
F between 2μC and 3μC separated 0.19 m (k=9e9):
Q61 · numerical
F between 2μC and 3μC separated 0.20 m (k=9e9):
Q62 · numerical
F between 2μC and 3μC separated 0.21 m (k=9e9):
Q63 · numerical
V=12 V across R=8 Ω. Current:
Q64 · numerical
V=12 V across R=9 Ω. Current:
Q65 · numerical
V=12 V across R=10 Ω. Current:
Q66 · numerical
V=12 V across R=11 Ω. Current:
Q67 · numerical
V=12 V across R=4 Ω. Current:
Q68 · numerical
V=12 V across R=5 Ω. Current:
Q69 · numerical
V=12 V across R=6 Ω. Current:
Q70 · numerical
V=12 V across R=7 Ω. Current:
Q71 · numerical
V=12 V across R=8 Ω. Current:
Q72 · numerical
V=12 V across R=9 Ω. Current:
Q73 · numerical
V=12 V across R=10 Ω. Current:
Q74 · numerical
V=12 V across R=11 Ω. Current:
Q75 · numerical
R=1000Ω, C=100μF. Time constant:
Q76 · numerical
R=1000Ω, C=100μF. Time constant:
Q77 · numerical
R=1000Ω, C=100μF. Time constant:
Q78 · numerical
R=1000Ω, C=100μF. Time constant:
Q79 · numerical
R=1000Ω, C=100μF. Time constant:
Q80 · numerical
R=1000Ω, C=100μF. Time constant:
Q81 · numerical
R=1000Ω, C=100μF. Time constant:
Q82 · numerical
R=1000Ω, C=100μF. Time constant:
Q83 · numerical
R=1000Ω, C=100μF. Time constant:
Q84 · numerical
R=1000Ω, C=100μF. Time constant:
Q85 · numerical
R=1000Ω, C=100μF. Time constant:
Q86 · numerical
R=1000Ω, C=100μF. Time constant:
Q87 · numerical
R1=11Ω, R2=21Ω in parallel. R_eq:
Q88 · numerical
R1=12Ω, R2=22Ω in parallel. R_eq:
Q89 · numerical
R1=13Ω, R2=23Ω in parallel. R_eq:
Q90 · numerical
R1=14Ω, R2=24Ω in parallel. R_eq:
Q91 · numerical
R1=10Ω, R2=25Ω in parallel. R_eq:
Q92 · numerical
R1=11Ω, R2=26Ω in parallel. R_eq:
Q93 · numerical
R1=12Ω, R2=20Ω in parallel. R_eq:
Q94 · numerical
R1=13Ω, R2=21Ω in parallel. R_eq:
Q95 · numerical
R1=14Ω, R2=22Ω in parallel. R_eq:
Q96 · numerical
R1=10Ω, R2=23Ω in parallel. R_eq:
Q97 · numerical
R1=11Ω, R2=24Ω in parallel. R_eq:
Q98 · numerical
R1=12Ω, R2=25Ω in parallel. R_eq:
Q99 · numerical
R1=13Ω, R2=26Ω in parallel. R_eq:
Q100 · numerical
R1=14Ω, R2=20Ω in parallel. R_eq: