A 65 kg person is running at 5 m/s. What is her momentum?
325 kg m/s
70 kg m/s
O 1625 kg m/s

The horizontal force that can be exerted on the sled before the penguin begins to slide off is equal to 312.7 N.

Friction can be described as the force resisting the motion of solid surfaces, fluid, and material elements sliding against each other.

The weight of the sled, W₁= m₁g = 20(9.8) = 197 N

The weight of the penguin, W₂= m₂g  = 25 (9.8) = 245 N

The total weight of the system, W = 197 + 245 = 442 N

The normal force on the penguin due to the sled is:

N₁= W₁= 197 N

The normal force of the whole system, N₂ = W = 442 N

The sliding acceleration, a = f₁/m₁

a = μ₂g

a = 0.68 ×9.8 = 6.67 m/s²

The total force in the x-direction can be written as:

[tex]F_x = F-f_2[/tex]

[tex]F = \mu_1W +\frac{W_2}{g}a[/tex]

F  = (0.27) (442) + (442/9.8) (6.67)

F = 312.7 N

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The magnitude of the maximum net force that is exerted on the object is equal to 1.60 N.

The magnitude of the maximum net force on the object is equal to the magnitude of the spring force at the maximum displacement of the object. The spring force is given by Hooke's law, which states that the force exerted by a spring is proportional to the displacement of the spring from its equilibrium position. The proportionality constant is called the spring constant, k.

The spring force can be expressed as F = -kx, where x is the displacement of the spring from its equilibrium position.

In this case, the maximum displacement of the object is A, so the magnitude of the maximum net force on the object is |F| = |-kx| = |-kA|.

Plugging in the given values, we get |F| = |-kA| = |-k(0.80 m)| = |-k(0.80 m)| = |1.60 N|.

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Answer:

2605 N

Explanation:

[tex]F_{Earth} = m g_{earth}[/tex]

[tex]F_{Jupiter} = mg_{jupiter}[/tex]

[tex]F_{Earth} = 982 N[/tex]

[tex]982 N = m (9.8 m/s^2)\\[/tex]

[tex]m = 982 N[/tex] ÷ [tex]9.8 m/s^2[/tex]

[tex]m = \frac{4910}{49}[/tex] kg

[tex]F_{Jupiter} = \frac{4910}{49} * 26 m/s^2[/tex]

[tex]F_{Jupiter} = 2605.30...[/tex] ≈ 2605 N

Answer:

The answer is Egg #1. Egg #1 experiences a greater force.

The wave length will be cut in half (1/2) in order to raise the frequency up one octave to 2f0.

In conclusion, waves transport energy. Their frequency and amplitude both affect how much energy they transport. The amount of energy increases with frequency and amplitude, respectively.

The given parameters;

initial frequency, = F₀

final frequency, = 2F₀

Let the initial wave length = λ₁

Let the final wave length = λ₂

The formula for the connection among frequency and wavelength is;

To attain a twofold frequency, the wave's length must be reduced as shown below;

The wave length will thus be cut in half (1/2) in order to raise the frequency up one octave to 2f0.

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Answer:

4.44 ohms

Explanation:

To find the resistance of a circuit, you can use Ohm's law, which states that the resistance of a circuit is equal to the voltage across the circuit divided by the current through the circuit. So in this case, the resistance would be 12 volts / 2.7 amps = 4.44 ohms.

The mass is 0.87 m and the energy exchange is 215.33J for the woman doing exercises.

The torque skilled via way of means of the frame with out the angular rotation however actions because of the rotational movement of some other item in touch with it's miles referred to as a static torque. While commencing a door, the door does not do beneathneath torque, however the connected to the door and a wall undergoes angular rotation.

Here we have

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Star S₁ is moving away from us at a speed of 0.8c. Star S₂ is moving away from us in the opposite direction at a speed of 0.5c.The speed of S₁ as measured by an observer on S₂ is 0.5c.

We are given that,

Star S₂ is moving away in the opposite direction at a speed = v =+0.5c

Star S₁ is moving away from us at a speed = u =+0.8c

Speed of light = c = 3 × 10⁸ m/s

So that we can calculate the speed of S₁ as measured by an observer on S₂  by the formula , (which is multiple of c)

u/c = [(u/c)- (v/c)]/[(1 -uv)/c²]

Putting the values in above equation we get,

u/c = [(0.8 -0.5)]/[1 - (0.8)(0.5)]

u = 0.5c

Therefore, the speed of S₁ as measured by an observer on S₂ would be 0.5c in a direction away from earth .

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The expansion of different metals is not uniform. Different metals have different coefficients of thermal expansion, which is a measure of how much a material expands when it is heated. This means that when two different metals are heated by the same amount, they will expand by different amounts.

For example, if a metal with a high coefficient of thermal expansion is heated by 10 degrees Celsius, it will expand by a larger amount than a metal with a low coefficient of thermal expansion that is heated by the same amount. This means that the expansion of different metals is not uniform, and will depend on the specific properties of each metal.

Additionally, the expansion of metals can also be affected by factors such as the initial temperature of the metal and the rate at which it is heated. This means that the expansion of a given metal can also vary depending on the specific conditions under which it is heated. Overall, the expansion of different metals is not uniform, and will depend on the specific properties and conditions of each metal.

The speed of light in glass is SLOWER than that in air. Therefore, the correct answer is the second option: smaller than that in air.

The speed of light is a universal constant used and considered in many areas of physics. It is equal to  299,792,458 meters per second or 186,000 miles per second. That speed is measured in a vacuum.

Light travels faster in a medium that has a lower refractive index. Generally, the denser a medium is, the higher its refractive index is. Glass is obviously denser than air, which means it has a higher refractive index. Thus, light travels slower in glass than in air.

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A thermistor is a type of temperature sensor that uses metallic wire to modify its electrical resistance in response to variations in temperature. Temperature can be used to define a metal's resistance.

The resistance of thermistors is significantly more temperature-dependent than that of conventional resistors. The words thermal and resistor are combined to form the word thermistor. The conduction model used to classify thermistors.

A thermistor's basic task is to gauge a device's internal temperature. The thermocouple is a minor but crucial component of a bigger system in a temperature-controlled system. The thermistor's temperature is kept under observation by a controller.

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The width of the stand is [tex]d=30.306*10^{-6}m[/tex].

 Young's Double Slit Experiment:

The presence of overlapping waves is unmistakably demonstrated by interference effects. Thomas Young proposed that light is a wave that is subject to the superposition principle. His greatest experimental accomplishment was to show that light may interfere in both a positive and negative way (c. 1801). A laser evenly illuminates two parallel slits in an otherwise opaque surface in a contemporary adaptation of Young's experiment, which differs from the original experiment only in the source of light. On a faraway screen, the light traveling through the two openings may be seen. The geometrical optics laws are upheld and the light produces two shadows and two illuminated zones on the screen when the slit widths are much larger than the light's wavelength.

     Young's Double Slit formula,

                           [tex]Y = \frac{\lambda L}{d}\\[/tex]

where,

     d = width of stand = ?

     λ = wavelength = 632.8 nm = 6.328 × 10⁻⁷ m

     L = Screen to hair distance = 1.25 m

     Y = Width of central maxima = 5.22 cm = 0.0522 m

Therefore,

                          [tex]d = 2\frac{\lambda L}{Y}[/tex]

                          [tex]d=2\frac{(1.25)(632.8*10^{-9})}{0.0522}[/tex]

                          [tex]d=30.306*10^{-6}m[/tex]

Hence,

            The width of the stand is [tex]d=30.306*10^{-6}m[/tex].

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Based on galactic rotation curves and cluster dynamics, we think dark matter comprises over 90% of the entire mass of the universe.

Galactic Rotation Curves:

The rotation curve of a disc galaxy is a representation of the orbital speeds of the visible stars or gas in that galaxy against their radial distance from the galaxy's center (also known as a velocity curve).

Dark Matter:

Since dark matter is made up of particles that do not absorb, reflect, or emit light, it is impossible to identify it through electromagnetic radiation observation. The unseen matter is referred to as dark matter. Because of the impact, it has on items that we can directly view, we are aware that dark matter exists.

Unlike normal matter, dark matter does not interact with electromagnetic force. This means it does not absorb, reflect or emit light, making it extremely hard to spot.

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"We are not yet capable of detecting life on planets around other stars. But as our technology develops, our first real chance of detecting such life will probably come from examining spectral lines from the atmospheres of distant planets."

Astronomers can identify an element by its spectral lines, as well as its temperature and density within the star. The magnetic field of the star is also shown by the spectral lines. How quickly the material is travelling can be determined by the line's width. We can also learn about winds in the stars.

Infrared heterodyne spectroscopy allows astronomers to retrieve information about planetary atmospheres. In order to find moons and planets with atmospheres, it uses the infrared region of the spectrum.

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(a)  [tex]F = qv*B[/tex]

         [tex]= 1.602*10^{-19} *9*10^{6} *10^{-2}[/tex]

         [tex]= 1.4410*10^{-14}[/tex]

         [tex]= 14.41 femtonewton[/tex]

Hence, the strength of the magnetic force is 14.41 femtonewtons

(b)  [tex]a = \frac{F}{m}[/tex]

        [tex]= \frac{1.4418*10^{-14} }{9.10*10^{-31} }[/tex]

        [tex]= 1.584*10^{16} m/s[/tex]

The amount of resulting acceleration of the electron is  [tex]1.584*10^{16} m/s[/tex]

(c)  Since direction of acceleration is perpendicular to the direction of velocity. Both speed and direction will change.

A magnetic field is a vector field that represents the effect of magnetism on moving charges, currents, and magnetic bodies. A charge moving in a magnetic field experiences a force perpendicular to its velocity and magnetic field.

The magnetic field is generated by the movement of the intrinsic magnetic moment and charge of elementary particles associated with their fundamental quantum property of spin.

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Answer:b and d

Explanation:

cus they go opposite direction

Answer:

In each of the given situations, the direction of current flow in the loop of conductor will depend on the relative motion of the magnet and the loop, as well as the orientation of the magnet.

a) In the first situation, the magnet is brought down directly above the loop, with the north pole pointing down. As the magnet is moved down, the magnetic field produced by the magnet will pass through the loop of conductor and generate a current in the loop. The direction of this current will depend on the orientation of the loop relative to the magnet. If the loop is oriented such that the current flows in a clockwise direction when viewed from above, the current will be in the clockwise direction. If the loop is oriented such that the current flows in a counterclockwise direction when viewed from above, the current will be in the counterclockwise direction.

b) In the second situation, the magnet is brought near the loop, with the north pole pointing up. The table is then raised, causing the magnet to move relative to the loop. As the magnet moves, it will generate a changing magnetic field that will induce a current in the loop. The direction of this current will depend on the orientation of the loop relative to the magnet, as well as the direction of the magnet's movement. If the loop is oriented such that the current flows in a clockwise direction when viewed from above, and the magnet is moving upward, the current will be in the clockwise direction. If the loop is oriented such that the current flows in a counterclockwise direction when viewed from above, and the magnet is moving upward, the current will be in the counterclockwise direction.

c) In the third situation, the loop of wire is rotated clockwise about its center axis. This will not produce a current in the loop, as there is no relative motion between the loop and the magnet, and therefore no changing magnetic field to induce a current. Therefore, in this situation, no current will flow in the loop.

1. The largest wave on Earth is a tsunami wave. It has a wavelength of up to 1000 kilometers, a frequency of 0.04 to 0.2 hertz, and a period of up to an hour.

2. Tsunami waves are deep-water waves, meaning that they originate in the deep ocean and move towards the shoreline. The wave energy is transmitted across the entire water column, and it is refracted as it approaches the coast. This refraction causes the wave to slow down and build in height, resulting in the massive waves we often see in news coverage.

Variation of the relative intensity [tex]I(\lambda)[/tex] with the wavelength [tex]\lambda[/tex] in a line is given by [tex]$$I(\lambda) \propto e^{-\left(\frac{m c^2\left(\lambda-\lambda_0\right)^2}{2 k T \lambda_0^2}\right)}=\exp \left(-\left(\frac{m c^2\left(\lambda-\lambda_0\right)^2}{2 k T \lambda_0^2}\right)\right)$$[/tex]

As, for non-relativistic thermal velocities, the Doppler shift in frequency will be: [tex]$$f=f_0\left(1+\frac{v}{c}\right)$$[/tex]

where f is the observed frequency,

f_0 is the rest frequency,

v is the velocity of the emitter towards the observer

c is the speed of light.

As any volume part of the radiating body will have a distribution of speeds both toward and away from the observer, which will have the overall effect of widening the seen line.

If [tex]I(v)dv=P_v(v)dv[/tex] is the fraction of particles with velocity component v to (v+dv) along a line of sight

Then the value of the distribution of frequencies will be

[tex]$$I(f) \mathrm{d} f=P_f(f) \mathrm{d} f=P_v\left(v_f\right) \frac{\mathrm{d} v}{\mathrm{~d} f} \mathrm{~d} f$$[/tex]

where [tex]$v_f=c\left(\frac{f}{f_0}-1\right)$[/tex] is the velocity towards the observer corresponding to the shift of the rest frequency f0 to f.

So, we can write it as:

[tex]$$P_f(f) \mathrm{d} f=\frac{c}{f_0} P_v\left(c\left(\frac{f}{f_0}-1\right)\right) \mathrm{d} f$$[/tex]

As in the case of the thermal Doppler broadening, the velocity distribution is given by the Maxwell distribution:

[tex]$$P_v(v)=\sqrt{\frac{m}{2 \pi k T}} e^{-\frac{m v^2}{2 k T}} \mathrm{~d} v$$[/tex]

So,

[tex]$$P_f(f) \mathrm{d} f=\frac{c}{f_0} \sqrt{\frac{m}{2 \pi k T}} e^{-\left(\frac{m\left[c\left(\frac{f}{f_0}-1\right)\right]^2}{2 k T}\right)} \mathrm{d} f$$[/tex]

This can be simplified as

[tex]$$P_f(f) \mathrm{d} f=\sqrt{\frac{m c^2}{2 \pi k T f_0^2}} e^{-\left(\frac{m c^2\left(f-f_0\right)^2}{2 k T f_0^2}\right)} \mathrm{d} f$$[/tex]

While in the non-relativistic limit,

[tex]-\frac{f-f_0}{f_0} \approx \frac{\lambda-\lambda_0}{\lambda_0^2}.[/tex]

So, from above,

we will get:

[tex]$$I(\lambda) \propto e^{-\left(\frac{m c^2\left(\lambda-\lambda_0\right)^2}{2 k T \lambda_0^2}\right)}=\exp \left(-\left(\frac{m c^2\left(\lambda-\lambda_0\right)^2}{2 k T \lambda_0^2}\right)\right)$$[/tex]

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The correct questions may be like

Through a small window in a furnace, which contains a gas at a high temperature T, the spectral lines emitted by the gas molecules are observed. Because of molecular motions, each spectral line exhibits Doppler broadening. Show that the variation of the relative intensity  [tex]I(\lambda)[/tex] with wavelength [tex]\lambda[/tex] in a line is given by [tex]$$I(\lambda) \propto \exp \left\{-\frac{m c^2\left(\lambda-\lambda_0\right)^2}{2 \lambda_0^2 k T}\right\}$$[/tex]

The principal quantum numbers for the ground state are n(x) = n(y) = n(z) =1. The second level will be 3 fold degenerate and any of the last 3 options can be correct.

Four quantum numbers are present in atoms: the main quantum number (n), the orbital angular momentum quantum number (l), the magnetic quantum number (ml), and the electron spin quantum number (ms). In terms of an electron's energy and most likely separation from the nucleus, the primary quantum number, n, is used. It refers, in other words, to the size of the orbital and the energy level at which an electron is positioned. The orbital's shape can be expressed by the l subshells, or number of subshells. Counting the number of angle nodes is another usage for it. The energy levels in a subshell are described by the magnetic quantum number, ml, and the electron's spin, denoted

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Its thermal efficiency is 25%.

Thermal efficiency is the ratio of an engine's or machine's useful output energy to its total energy input. It is a measure of how well energy is converted from one form to another, and is expressed as a percentage. Thermal efficiency is an important factor in determining the cost-effectiveness of many energy systems such as engines, power stations and industrial processes. Increasing the thermal efficiency of a system can lead to significant cost savings and environmental benefits.

Thermal Efficiency = (Work Output / Heat Input) x 100

= (700 J / 2800 J) x 100

= 25%

Therefore, the thermal efficiency of the heat engine working between heat reservoirs at 980 k and 630 k is 25%.

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Complete questions as follows-

200 word and should plag free

a real heat engine working between heat reservoirs at 980 k and 630 k produces 700 j of work per cycle for a heat input of 2800 j . Its thermal efficiency is

Answer:

Force, Time, Acceleration

Explanation:

Displacement, velocity, and force do not necessarily require direction, but acceleration, which is the rate of change of velocity, does require direction. Speed, velocity, and distance do not require direction. Mass is a scalar quantity and does not have a direction. Time is also a scalar quantity and does not have a direction.

While one charge service is dominant the conductivity of a semiconductor is at once proportional to the mobility of the dominant service. Mobility describes the relationship between the drift speed of electrons or holes and an carried out electric-powered subject in a strong.

In semiconductors excited electron movements from the valence band to the conduction band. This creates a free electron in the conduction band and a hole in the valence band. The electrons consequently have better mobility as they've won excitation strength and are similarly away from the place of impact of the nucleus.

At absolute zero (0 OKs), the electric conductivity of a semiconductor has a price of zero (i.e. the conductivity is at its minimal) while a metallic reveals its most electric conductivity at absolute zero; moreover, conductivity increases with the growth temperature in a semiconductor.

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When all individual forces acting upon an object are balanced, it is the natural tendency of the object to remain at rest or to continue moving at a constant velocity in a straight line.

This is known as Newton's first law of motion, which states that an object will remain at rest or in motion at a constant velocity unless acted upon by an external force.

If an object is at rest and all forces acting upon it are balanced, it will remain at rest. If an object is moving at a constant velocity in a straight line and all forces acting upon it are balanced, it will continue moving at that same constant velocity in a straight line.

On the other hand, if there is an imbalance of forces acting upon an object, the object will accelerate in the direction of the net force. For example, if there is more force acting to the right than to the left, the object will accelerate to the right.

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Answer:

It is difficult to predict exactly what would happen if two neutron stars were to collide near a black hole, as the behavior of objects in the vicinity of a black hole is determined by a number of factors, including the mass, spin, and charge of the black hole, as well as the motion and composition of the neutron stars.

Explanation:

It is difficult to predict exactly what would happen if two neutron stars were to collide near a black hole, but some possible scenarios include:

Ultimately, the exact outcome of such a collision would depend on a number of complex factors and would require detailed modeling to predict with any accuracy.

The gravitational torque of the rod is 8.33N.m

According to the question,  

the mass of the rod (m) is 3.4kg.

Force times distance equals torque.

Since the bar is uniform, you can imagine that the mass is evenly distributed 50 cm from either end at the centre.

Therefore, the torque at the 25-cm-diameter point would be defined as follows:

Where m is the object's mass, 3.4 kg, and g is the gravitational force, the equation for force equals mass times acceleration divided by mass.

g = 9.8m/s

The distance is expressed in meters.

Torque is determined by the product of force and distance.

Torque equals m (9. 8) x (0.25)

where

m is the mass

g is the gravitational force

h is the height

Torque = 3. 4 x (9. 8) x (0.25)

=> 33.2 x 0.25

=> 8.33N.m

The gravitational torque of the rod is 8.33N.m since torque = 8.33N.m.

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Note the correct question is in the diagram,

Evaluate using:

Gsatellite = Gmoon * M / (R^2 + R^2/4)^(3/2).

Explanation:

The gravitational field strength at the satellite is given by the formula Gsatellite = Gmoon * M / (R^2 + R^2/4)^(3/2)

To find the value of Gsatellite, we need to know the values of Gmoon, M, and R. We are given the mass of the moon (m) and the mass of the planet (M), but we are not given the value of Gmoon or R. However, we can use the information provided in the problem to find the value of Gmoon.

The gravitational field strength at the center of the moon (Gmoon) is equal to the product of the mass of the planet (M) and the tangential velocity of the moon (v) squared, divided by the distance between the center of the moon and the center of the planet (R).

Since the moon is in uniform circular motion with a constant tangential velocity, we can use the formula for centripetal acceleration (a = v^2/R) to find the value of Gmoon. We know that the mass of the moon (m) is accelerating toward the center of the planet, so the centripetal acceleration of the moon (a) is equal to the gravitational field strength at the center of the moon (Gmoon).

We can use the formula a = v^2/R to find the value of Gmoon by substituting the values for a, v, and R into the formula. We are given the value of v (the tangential velocity of the moon), and we can use the formula for centripetal acceleration (a = v^2/R) to find the value of a.

We can substitute the value of a into the formula Gmoon = M * a to find the value of Gmoon. Once we have the value of Gmoon, we can substitute it into the formula Gsatellite = Gmoon * M / (R^2 + R^2/4)^(3/2) to find the value of Gsatellite.

Therefore, to find the gravitational field strength at the satellite, we need to find the value of Gmoon by using the formula Gmoon = M * a and the values of M, a, and R provided in the problem. We can then use the value of Gmoon to find the value of Gsatellite using the formula Gsatellite = Gmoon * M / (R^2 + R^2/4)^(3/2).

Tension in the back muscle for this scenario is 3095.4 N and the compressive reaction force is 3048 N, and the ratio is 5.53.

Strings exert forces on object they are connected to Cables and ropes act the same way.The strings exert forces due to their tension, The ends of the string both exert a force of magnitude T on the supports where they are connected. T is the tension in the string.

Two forces are acting on the compartment, Gravity acting downward, Tension T in cable acting upward.

A) In equilibrium net torque about the hip = 0

T*sintheta*x - Fgup*L/2 - Fgob*L = 0

T*sin10*0.33 - 40*9.8*0.5/2 - 16.2*9.8*0.5 = 0

Tension(T) = 3095.4 N

B) Fv = FRx = T*costheta

Fv = 3095.4*cos10

     = 3048 N

C) Fv/(wub + wobj) = 3048/((40+16.2)*9.8) = 5.53

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The temperature of the stellar photosphere, which is the outer layer that extends into the stellar surface, is a key factor in determining spectral types. A star's mass affects the star's actual temperature.

The hotter the star, which is likewise related to the colour of the star, the higher the mass. The Morgan-Keenan (MK) classification is the current system of classification. According to the following explanation, each star is given a spectral class using Roman numerals (from the earlier Harvard spectral classification, which excluded luminosity), as well as a luminosity class. A star's photosphere is its outer layer, where light is emitted. The word "light sphere" is formed from the words "light" and "sphere," referring to a sphere-shaped surface that appears to produce light.

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A complete circuit is created by connecting a completely charged capacitor to a 0.22-H inductor. 1.4 x 10⁻⁸ F is the capacitance of the capacitor if the circuit oscillates at a frequency of 2.9*10³ Hz.

C = capacitance

L = inductance = 0.22 H

f  = frequency = 2900 Hz

using the formula

f = 1/(2[tex]\pi[/tex]√(LC))

2[tex]\pi[/tex] f = 1/√(LC)

inserting the values

2 x 3.14 x 2900 = 1/√(0.22 C)

C = 1.4 x 10⁻⁸ F

A capacitor is an electrical component with two terminals that has the ability to store energy in the form of an electric charge. Two electrical cables are used, and they are spaced apart. A vacuum or an insulating substance known as a dielectric can fill the gap between the conductors. The capacitor's capacitance is its capacity to hold charges.

By holding apart oppositely charged couples, capacitors store energy. A parallel plate capacitor has two metal plates with a space in between them and is the most basic type of capacitor design. But various capacitor types are made in a wide variety of shapes, sizes, lengths, girths, and materials.

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