Канал: Hero of the derivations - Смотреть видео c канала или скачать видео c канала в MP4, музыку MP3 на телефон или компьютер.

$Derivation of expression for fractional volume submerged in a liquid • HERO OF THE DERIVATIONS.$

How to convert decimal to binary and binary to decimal • HERO OF THE DERIVATIONS.

Hero of the derivations

Hero of the derivations

How to convert decimal to binary and binary to decimal • HERO OF THE DERIVATIONS.

Derivation of energy stored in a inductor connected across ac • HERO OF THE DERIVATIONS.

Derivation of average power in capacitor connected across ac current • HERO OF THE DERIVATIONS.

Derivation of average power in an inductor connected across an ac current • HERO OF THE DERIVATIONS.

Derivation of average power associated with a resistor in an ac circuit • HERO OF THE DERIVATIONS.

Derivation of power in an ac circuit • Expression for true power • HERO OF THE DERIVATIONS.

Derivation of quality factor in series lcr circuit • HERO OF THE DERIVATIONS.

Derivation of effective mass of an oscillating spring|Time period of oscillation when spring mass(M)

The diagram below shows a uniform rod of length l and mass m pivoted at the point labelled axle....

Ac through an LCR series circuit • Expression for current, impedance and resonant frequency.

Ac through a series circuit of resistor and capacitor | Expression for current and impedance.

Ac through series circuit of resistor and inductor | Expression for current and impedance.

Ac applied through a purely capacitive circuit • Expression for instantaneous current.

Tension in ropes of the connected bodies • HERO OF THE DERIVATIONS.

Force acting on connected bodies • Connected motion of bodies • HERO OF THE DERIVATIONS

Combination of errors derivation with examples • HERO OF THE DERIVATIONS.

Two objects one sliding down from rest on a smooth surface, the other being thrown...• Q&A • HOTD.

The distance covered by a particle undergoing SHM in one time period • Q&A • NEET • HOTD.

The phase difference between displacement and acceleration.. • Q&A • NEET | HERO OF THE DERIVATIONS.

Derivation of current when an AC is applied across a purely inductive circuit.

Derivation of Rms value of alternating current • HERO OF THE DERIVATIONS.

Derivation of average value of ac over a half cycle • HERO OF THE DERIVATIONS.

Derivation of equivalent inductance of two inductors connected in parallel • HERO OF THE DERIVATIONS

Derivation of equivalent inductance in series combination of inductors • HERO OF THE DERIVATIONS.

Derivation of mutual inductance of two coaxial long solenoids • HERO OF THE DERIVATIONS.

Derivation of self inductance of a solenoid • HERO OF THE DERIVATIONS.

Derivation of motional emf • Electromagnetic induction • HERO OF THE DERIVATIONS.

How to convert a galvanometer into a voltmeter • HERO OF THE DERIVATIONS.

How to convert a galavanometer to an ammeter • HERO OF THE DERIVATIONS.

Derivation of magnetic field due to a toroidal solenoid • HERO OF THE DERIVATIONS.

Derivation of magnetic field due to a solenoid from Ampere's circuital law • HERO OF THE DERIVATIONS

Derivation of Ampere's circuital law • HERO OF THE DERIVATIONS.

Derivation of magnetic field due to a solenoid • HERO OF THE DERIVATIONS.

Derivation of magnetic field on the axis of a current carrying circular coil.

Derivation of magnetic field due to a long straight current carrying conductor.

Derivation of effective emf of cells connected in series • HERO OF THE DERIVATIONS.

Easy way to find sum of any natural numbers

Derivation of (a+b)^2 ft fearless • HERO OF THE DERIVATIONS.

Derivation of effective emf of cells connected in parallel • HERO OF THE DERIVATIONS.

Derivation of condition for maximum power on a resistor connected across a cell.

Derivation of expression for internal resistance in terms of emf and external resistance.

Derivation of Relationship between emf and terminal potential • HERO OF THE DERIVATIONS.

Derivation of condition for a balanced Wheatstone's bridge • HERO OF THE DERIVATIONS.

Derivation of effective resistance in parallel combination of resistors • HERO OF THE DERIVATIONS.

Derivation of effective resistance in series combination of resistors • HERO OF THE DERIVATIONS.

Derivations of equations of motion using Calculus method • HERO OF THE DERIVATIONS.

Derivation of third equation of motion (Graphical method) • HERO OF THE DERIVATIONS.

Derivation of second equation of motion (Graphical method) • HERO OF THE DERIVATIONS.

Derivation of first equation of motion (Graphical method) • HERO OF THE DERIVATIONS.

Derivation of resistivity in terms of relaxation time • HERO OF THE DERIVATIONS.

Derivation of conductivity of a semiconductor in terms of mobility • HERO OF THE DERIVATIONS.

Derivation of Vector form of Ohm's law • HERO OF THE DERIVATIONS.

Derivation of relationship between electric current and drift velocity • HERO OF THE DERIVATIONS.

Derivation of expression for drift velocity gained by an electron in an electric field.

Derivation of effective dielectric constant of parallal combination of dielectrics.

Derivation of effective dielectric constant in series combination of dielectrics.

Derivation of capacitance of a parallel plate capacitor with a dielectric slab.

Derivation of relationship between dielectric constant and electric susceptibility.

Derivation of relationship between polarisation and surface charge density • HERO OF THE DERIVATIONS

Derivation of loss of energy in redistribution of charges • HERO OF THE DERIVATIONS.

Derivation of energy stored in a capacitor • HERO OF THE DERIVATIONS.

Derivation of effective capacitance of parallel combination of capacitors • HERO OF THE DERIVATIONS.

Derivation of effective capacitance of series combination of capacitors • HERO OF THE DERIVATIONS.

Derivation of capacitance of a cylindrical capacitor • HERO OF THE DERIVATIONS.

Derivation of capacitance of a concentric spherical shell capacitor • HERO OF THE DERIVATIONS.

Derivation of the capacitance of a parallel plate capacitor • HERO OF THE DERIVATIONS.

Derivation of electric potential and capacitance due to a charged spherical shell.

Derivation of potential energy due to a dipole in a uniform electric field • HERO OF THE DERIVATIONS

Derivation of potential energy of a system of three point charges • HERO OF THE DERIVATIONS.

Derivation of potential energy of a system of two point charges • HERO OF THE DERIVATIONS.

Derivation of relation between electric field and potential • HERO OF THE DERIVATIONS.

Derivation of electric potential due to a dipole (Axial and equatorial) • HERO OF THE DERIVATIONS

Derivation of Electric potential due to a point charge • HERO OF THE DERIVATIONS.

Derivation of electric field due to a charged thin spherical shell • HERO OF THE DERIVATIONS.

Derivation of electric field due to an infinite long plane sheet, due to two parallel charged sheets

Derivation of electric field due to infinitely long charged wire • HERO OF THE DERIVATIONS.

Derivation of Gauss's theorem in electrostatics • HERO OF THE DERIVATIONS.