2023-01-18T07:24:51+03:00[Europe/Moscow] en true <p><strong>Current</strong></p>, <p><strong>Kirchhoff’s junction rule</strong></p>, <p><strong>Kirchhoff’s loop rule</strong></p>, <p><strong>Definition of resistance</strong></p>, <p><strong>Ohm’s law</strong></p>, <p><strong>Voltage and cell emf</strong></p>, <p><strong>Definition of power</strong></p>, <p><strong>Electric power</strong></p>, <p><strong>Voltage drop across circuit elements (series)</strong></p>, <p><strong>Equivalent resistance (series)</strong></p>, <p><strong>Voltage drop across circuit elements (parallel)</strong></p>, <p><strong>Equivalent resistance (parallel)</strong></p>, <p><strong>Definition of capacitance</strong></p>, <p><strong>Capacitance based on parallel plate geometry</strong></p>, <p><strong>Electric field in a capacitor</strong></p>, <p><strong>Potential energy of a capacitor</strong></p>, <p><strong>Capacitance with a dielectric material</strong></p>, <p><strong>Equivalent capacitance (series)</strong></p>, <p><strong>Equivalent capacitance (parallel)</strong></p> flashcards
MCAT Physics and Math 6: Equations to Remember

MCAT Physics and Math 6: Equations to Remember

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  • Current

  • Kirchhoff’s junction rule

    Iinto junction = Ileaving junction

  • Kirchhoff’s loop rule

    Vsource = Vdrop

  • Definition of resistance

  • Ohm’s law

    V = IR

  • Voltage and cell emf

    V = Ecell – irint

  • Definition of power

  • Electric power

  • Voltage drop across circuit elements (series)

    Vs = V1 + V2 + V3 + ⋯ + Vn

  • Equivalent resistance (series)

    Rs = R1 + R2 + R3 + ⋯ + Rn

  • Voltage drop across circuit elements (parallel)

    Vp = V1 = V2 = V3 = ⋯ = Vn

  • Equivalent resistance (parallel)

  • Definition of capacitance

  • Capacitance based on parallel plate geometry

  • Electric field in a capacitor

  • Potential energy of a capacitor

  • Capacitance with a dielectric material

    C′ = κC

  • Equivalent capacitance (series)

  • Equivalent capacitance (parallel)

    Cp = C1 + C2 + C3 + ⋯ + Cn