Generate Quiz 68AEA290A3B72

In accordance with Ohm’s law:

As long as the temperature and other physical parameters remain constant, the current flowing through a conductor is directly proportional to the potential difference applied across its terminal.

Kilowatt-hours (kWh) are the commercial unit of electrical energy. One kWh is the amount of energy produced by a kilowatt power source in one hour.

1kWh = 1kW × 1hour

1kWh = 1000W (Joules/seconds) 60 × 60 seconds

3.6 × 106 J = 1 kWh

If the magnetic field and velocity are parallel in the example above, then the angle between them in the force equation will be zero.

F = qVBsin

Since the answer will be zero, the charge will not be subject to any force.

Gamma rays (photons), beta particles (an electron), and alpha particles (two protons and two neutrons) are all released during radiation. The radiation components do not include delta.

Linear speed = Distance / Time

Distance = 5 × 2 × pi × r = 5 × 2 × 22/7 × 0.6 = 132 / 7 = 18.85 m

18.85 / 2 = 9.42 m/s is the speed.

Wbm-2: According to this option, Wbm-2 is used to measure magnetic field strength. It is accurate to say that “Wbm-2” stands for webers per meter square.

Due to their dual nature, photons, alpha particles, and electrons can all behave as both particles and waves. They exhibit both the photoelectric effect, which demonstrates their particulate nature, and electron diffraction, which is a wave property.

In a uniform magnetic field, the radius of an electron’s circular orbit is determined by:

(mv)/(Be) = r

Where,

m = electron mass

v = electron velocity

B is the strength of the magnetic field.

e = electron charge

The radius and velocity are directly proportional because the electron’s mass, charge, and magnetic field are all constant.

The radius will likewise double if the velocity doubles.

Therefore, if the orbit’s initial radius is 2 cm, it will double to 4 cm after the speed is doubled.

Thus, 4 cm is the response.

According to Oersted’s Law, a magnetic field is produced surrounding a metallic conductor when a constant electric current flows through it.

Because a wire’s resistance is inversely proportional to its cross-sectional area and directly proportional to its length, option C is the right one. The conductor’s material also affects resistance.

Light waves are electromagnetic waves that can pass through transparent materials like glass and the vacuum of space. Since the plane of the wave vibrations differs from the plane of wave propagation, electromagnetic waves are transverse waves. In their purest form, electromagnetic waves propagate perpendicular to the direction of their electric and magnetic fields. The electric and magnetic fields are likewise perpendicular to one another in the case of polarized waves. Electromagnetic waves that vibrate only in one plane are known as polarized light waves. Transmission, reflection, refraction, and scattering can all cause light to become polarized. Because of the unique material used in polaroid filters, it is possible to block various planes of vibration.

Electromotive force, or EMF, is defined by Faraday’s law.

Option A is accurate because we are aware of

Q/t = P

t = Q/P

t = mc / p

Consequently, t = 500 x 2230 / 300 = 3717s

t = 3717 / 60 = 62 mins

The force that propels the charges to move through the circuit is the potential difference, sometimes referred to as voltage. Since the circuit’s charge flow is constant under a steady current, the potential difference across the circuit must likewise be constant. The circuit’s current won’t be constant if the potential difference changes because it will fluctuate as well.

The system can exert work on the environment during an adiabatic process. It frequently happens because the system works on its surroundings when its internal energy drops. Without requiring heat exchange, this work may lead to a reduction in internal energy. Consequently, work is probably done by the system on its surroundings in an adiabatic process where the internal energy decreases.

One kind of elementary particle and a basic component of matter is a quark.

One kind of full-wave rectifier is a bridge rectifier. A circuit that transforms the complete input waveform into a DC output waveform is called a full-wave rectifier. One of the most widely used full-wave rectifier circuits is a bridge rectifier. It rectifies the AC input voltage using a bridge arrangement of four diodes. Compared to a half-wave rectifier, the circuit’s output voltage is higher and its ripple factor is lower because the four diodes enable it to use both halves of the AC input waveform. In other words, a bridge rectifier is a kind of full-wave rectifier that is less rippled and more efficient than a half-wave rectifier.

A charged particle does not experience any force—that is, it is not accelerated—when it enters parallel to the uniform magnetic field. As a result, both its kinetic energy and speed stay constant.

Option B is accurate because isotopes are elements that have different neutrons but the same proton and electron numbers.
Variations in protons result in different types of elements, while variations in electrons lead to the creation of ions.

A photon’s momentum, p, expressed in kilograms per second, is calculated by dividing Planck’s constant, h, by the light’s de Broglie wavelength, lambda, expressed in meters.

(p = h / λ).

One of the foundational laws of circuit analysis is Kirchhoff’s Current Law. According to his current law, the total current flowing into and out of a circuit’s junction for a parallel path is precisely equal. Because no charge is lost, it has nowhere else to go.