A 6.0 uC positive charge is located at the origin and a 4.0 uC positive charge is located at x = 0.0 m, y = 1.0 m. Find the point between them where the electric field strength is zero.

Answer:

i) Power = Force * Velocity = 1100 * 15 = 16500 W = 16.5 kW(ii)  Find the value of k first: F = 400 + k(15^2)                                              k = 28/9    F = 400 +(28/9)(30^2) = 320

Explanation:

Answer:

A force gauge (also called a force meter) is a measuring instrument used to measure forces. Applications exist in research and development, laboratory, quality, production and field environment. There are two kinds of force gauges today: mechanical and digital force gauges.

This means that the roller coaster is decelerating at a rate of 8m/s² until it comes to a complete stop.

Decelerating is the process of slowing down or decreasing the speed of a vehicle, person, or object. It is the opposite of accelerating, which is the process of increasing speed. Deceleration can be caused by the force of friction from the road or other surfaces, or by reducing the amount of engine power or braking. Deceleration is necessary to safely slow down and stop a vehicle and to negotiate turns or curves in the road.

The acceleration of the roller coaster can be calculated using the equation
a = (Vf - Vi)/t, where Vf is the final velocity, Vi is the initial velocity, and t is the time taken for the change in velocity to occur.
In this case, Vf = 0m/hr, Vi = 80m/hr, and t = 10s.
Therefore, the acceleration of the roller coaster is -8m/s².
This means that the roller coaster is decelerating at a rate of 8m/s² until it comes to a complete stop.

To learn more about decelerating
https://brainly.com/question/29688964
#SPJ1

Answer: Do you like science experiments ? 1)

Would You enjoy reading a fashion magazine? 2)

Explanation:

When the elevator is going up, though, you are accelerating, which adds more force to the scale and increases your apparent weight. When the elevator is going down, the same is true, but the acceleration is negative, subtracting force from the scale and decreasing your apparent weight.

The NGC 3603 region of space is shown below. It is a cloud of gas and dust. Stars are forming in this cloud. The NGC 3603 be classified as a nebula. The correct option is A.

A tiny, ball-shaped nebula is known as a planetary nebula. It generates an ionized gas that is luminous. Large and typically erratic clouds are produced by diffuse nebulae.

Due to their big stars, they typically form a cluster of stars. a cloud of gas in space that can be seen in the night sky as a vaguely discernible brilliant patch, as something black, or as a shadow against other luminous objects.

Dust and gases, primarily hydrogen and helium, make up nebulae. The mass of gas and dust eventually grows so large that it is forced to collapse by gravity. The material in the cloud's core heats up as a result of the collapse, and this hot core is the start of a star.

Therefore, the correct option is A. As a nebula.

To learn more about nebula, refer to the link:

https://brainly.com/question/21420531

#SPJ2

Answer:

Explanation:

         R     r

R       RR   Rr

r       Rr    rr

homozygous:  2 (out of 4)

heterozygous:  2 (out of 4)

         t     t

T      Tt    Tt

T        Tt    Tt

Tall:  4 (all)

short:  0  (none)

Walking on red-hot coals is a traditional practice that has been performed for centuries by certain cultures for ceremonial or religious purposes.

While it may seem like a dangerous or painful activity, it is possible to walk on hot coals without getting your feet burned by following some basic guidelines:

Prepare the fire: The fire should be built with small, dry pieces of wood, and the coals should be allowed to burn down until they are glowing red and no longer producing flames.

Test the coals: Before walking on the coals, test the temperature by walking around the edge of the bed of coals. This will give you an idea of the heat level and whether it is safe to walk on.

Keep your feet clean and dry: Dirt, oil, or sweat on your feet can make them more susceptible to burning. Before walking on the coals, make sure your feet are clean and dry.

Walk quickly: Walking quickly and confidently over the coals can reduce the amount of time your feet are in contact with the hot surface, which can help prevent burns.

Use a shuffling motion: Rather than taking long strides, use a shuffling motion to walk over the coals. This helps distribute your weight more evenly and reduces the pressure on any one part of your foot.

Stay focused: Keep your mind focused on your goal of walking across the coals. Avoid distractions and maintain a positive attitude.

It's important to note that walking on hot coals can still be dangerous and should only be attempted with proper guidance and training from experienced practitioners. It's not recommended for everyone and should be approached with caution.

Learn more about red-hot coals here:

https://brainly.com/question/31926998

#SPJ11

She remains the only person to be honored for accomplishments in two separate sciences. Curie received the Nobel Prize in Physics in 1903, along with her husband and Henri Becquerel, for their work on radioactivity.

Relentless regardless of a vocation of truly requesting and at last lethal work, she found polonium and radium, supported the utilization of radiation in medication and essentially changed how we might interpret radioactivity. Curie was conceived Marya Skłodowska in 1867 in Warsaw.

To learn more about Marie Curie from the given link

https://brainly.com/question/1160057

#SPJ4

Answer: Friction is the resistance to motion of one object moving relative to another. For example, when you try to push a book along the floor, friction makes this difficult. Force: Force is essentially a push, or a pull action, that can lead to certain outcomes.

Answer:

Tropic of Cancer in the north and the Tropic of Capricorn in the south.

Explanation:

To know more about group1A

https://brainly.com/question/19619163

#SPJ1

Answer:

x = 0.78 m = 78 cm

Explanation:

Applying the law of conservation of energy to the spring-mass system, we can write the following equation:

\(Kinetic\ Energy\ at\ Mean\ Position= Potential\ Energy\ at\ extreme\ position\\\frac{1}{2}mv^2 = \frac{1}{2}kx^2\\\\x^2 = \frac{mv^2}{k}\\\\x = \sqrt{\frac{mv^2}{k} }\)

where,

x = maximum displacement = ?

m = mass = 3.6 kg

v = speed at mean position = 5.2 m/s

k = spring constant = 160 N/m

Therefore,

\(x = \sqrt{\frac{(3.6\ kg)(5.2\ m/s)^2}{160\ N/m} }\\\\\)

x = 0.78 m = 78 cm

Answer:

1.i)heat

ii.)heat

2.a.)b,c,d,a

b.)a.chlorination

Answer:

B

Explanation:

B

The action that best describes the camera motion in the scenes directly prior to the Old Man's Defiant hand gesture is: "Zooming in and out" (Option C)

Some interesting camera motions are:

Note that the different camera motions described above are important because they allow filmmakers to convey mood and emotion, create visual interest, and guide the audience's attention within a scene.

For example, a static shot can create a sense of calm or stability, while a handheld shot can create a sense of intimacy or instability. A panning shot can follow the action and keep the audience engaged, while a zoom shot can draw attention to a specific part of the scene.

Learn more about Camera motions:
https://brainly.com/question/28239261
#SPJ1

Full Question:

What best describes the camera motion in the scenes directly prior to the old man's defiant hand gesture?

O Static and secured on a tripod

O Moving chaotically

O Zooming in and out

O Filming at 96 frames a second

The electromagnetic wave intensity at the surface of the planet in the distant star system is approximately X W/m². The planet is located at a distance of Y astronomical units (AU) from its star.

To find the electromagnetic wave intensity at the surface of the planet, we need to consider the star's total power output and its radius compared to that of the Sun. The surface flux, or electromagnetic wave intensity, can be calculated using the following formula:

Surface flux = (Star's power output) / (4π × (Star's radius)²)

Given that the star's power output is 5.8 x 10^29 W and the star's radius is 6.0 times the radius of the Sun (6.0 × 6.96 x 10^9 m), we can substitute these values into the formula:

Surface flux = (5.8 x 10^29 W) / (4π × (6.0 × 6.96 x 10^9 m)²)

Simplifying the expression, we can calculate the surface flux in W/m². This gives us the electromagnetic wave intensity at the surface of the planet.

To find the planet's distance from its star, we can use the fact that the planet receives 9.4 x 10^22 J of energy every planet-day (one rotation). This energy is equal to the total energy emitted by the star over a period of one planet-day. The energy received from the star decreases with distance, following an inverse square law.

By equating the energy received from the star to the energy emitted by the star and solving for the distance, we can determine the planet's distance from its star in astronomical units (AU). The formula to calculate the distance is:

Distance = sqrt((Star's power output × Planet-day duration) / (4π × Surface flux))

Substituting the given values, we can calculate the distance in AU.

Learn more about electromagnetic here:

https://brainly.com/question/23727978

#SPJ11

Answer:

we add salt to conduct electricity

Answer:20 miles

Explanation:

The force the person must apply to exert a torque of -17 N·m is approximately 110.84 N. Torque (τ) is calculated as the product of the force applied (F) and the lever arm (r).

The force the person must apply to exert a torque of -17 N·m can be calculated using the given parameters: the angle θ = 30° and the length of the wrench r = 31 cm.

Torque (τ) is calculated as the product of the force applied (F) and the lever arm (r), where the lever arm is the perpendicular distance from the axis of rotation to the line of action of the force. In this case, the torque is given as -17 N·m, which indicates that the direction of the torque is opposite to the direction of the force.

Using the equation τ = r * F * sin(θ), we can rearrange it to solve for the force F:

F = τ / (r * sin(θ))

Substituting the values, we have:

F = -17 N·m / (0.31 m * sin(30°))

Evaluating this expression, the force the person must apply to exert a torque of -17 N·m is approximately 110.84 N.

To learn more about torque click here

https://brainly.com/question/31592986

#SPJ11

Steady flow devices that result in a drop in the working fluid pressure from inlet to exit are known as pressure drop devices. These devices are commonly used in various applications to regulate and control fluid flow.

Pressure drop devices are designed to create a pressure difference between the inlet and exit of the fluid flow. This pressure drop can be achieved through various mechanisms, such as constricting the flow area, introducing resistance, or utilizing fluid dynamics principles.

Examples of pressure drop devices include valves, nozzles, orifices, venturis, and diffusers. These devices are used in various industries and applications, such as plumbing systems, hydraulic systems, HVAC systems, and fluid flow control systems.

The pressure drop across these devices is essential for controlling flow rates, regulating fluid pressures, and achieving specific fluid behavior or performance. By creating a pressure drop, these devices can control the speed, volume, or direction of fluid flow, ensuring optimal operation and functionality in different applications.

In summary, steady flow devices that result in a drop in the working fluid pressure from inlet to exit are referred to as pressure drop devices, which play a crucial role in regulating and controlling fluid flow in a wide range of applications.

Learn more about resistance here:

https://brainly.com/question/29427458

#SPJ11

Because of the buoyancy of the salt particles

The question discusses the detection of neutrinos from the supernova SN 1987A and uses the spread of neutrino event detection times to derive an upper limit on the mass of the electron neutrino. It demonstrates that if neutrinos move at speeds close to the speed of light, their rest mass energy must be much less than their total energy. It further shows that the time for a neutrino to reach Earth from SN 1987A is proportional to the square of the neutrino energy. Using the given distance to SN 1987A and the observed spread in arrival times of the neutrinos, we can determine an upper bound on the neutrino mass.

The velocity (u) of a neutrino with mass (m) and total energy (E) in a reference frame is given by the expression u = c * (1 - (m^2c^4 / E^2))^(1/2), where c is the speed of light. This equation demonstrates that if the neutrinos move at speeds close to the speed of light (u ≈ c), their rest mass energy (mc^2) must be much less than their total energy (E).

For neutrinos with me << E, the time (t) for a neutrino to reach Earth from SN 1987A is given by t = L / u, where L is the distance to SN 1987A. Substituting the expression for u, we have t = L / (c * (1 - (m^2c^4 / E^2))^(1/2)).

Given that the observed spread in arrival times of the neutrinos is 12 seconds and the distance L is 168000 light-years, we can use these values to determine an upper bound on the neutrino mass. Rearranging the equation for t, we have (1 - (m^2c^4 / E^2))^(1/2) = L / (ct), and squaring both sides, we get 1 - (m^2c^4 / E^2) = (L^2 / c^2t^2).

Since we are looking for an upper bound, we can assume that m^2c^4 is negligible compared to E^2. Therefore, the equation simplifies to 1 ≈ (L^2 / c^2t^2), and rearranging further, m^2c^4 ≤ E^2 - (E^2 * L^2 / c^2t^2).

Substituting the given values of L, t, and the observed energy range of the neutrinos (8-41 MeV) into the equation, we can calculate the upper bound on the neutrino mass placed by SN 1987A.

To know more about neutrino mass click here:

https://brainly.com/question/31988657

#SPJ11

The merry-go-round takes approximately 29.41 seconds to complete 2.00 rotations.

Given data:

Acceleration (α) = 0.135 rad/\(s^2\)

Number of rotations (θ) = 2.00

To find the time taken (t) for 2.00 rotations, we need to use the formula:

θ = 0.5 * α * \(t^2\)

Rearranging the formula, we get:

\(t^2\) = (2 * θ) / α

Plugging in the given values, we have:

\(t^2\) = (2 * 2.00) / 0.135

\(t^2\) = 29.63

Taking the square root of both sides, we find:

t ≈ √29.63

t ≈ 5.439

Therefore, the time taken for the merry-go-round to complete 2.00 rotations is approximately 5.439 seconds.

Note: It's important to round the final answer to an appropriate number of significant figures, considering the given data. In this case, we have used four significant figures in the final answer.

However, if we want to adhere to the given significant figures in the acceleration (0.135 rad/\(s^2\)), the answer should be rounded to three significant figures. In that case, the final answer would be approximately 5.44 seconds.

For more such questions on seconds, click on:

https://brainly.com/question/29813582

#SPJ8

Answer:

Energy Lost for group A's car = 0.687 J

Energy Lost for group B's car = 0.55 J

Explanation:

The exact question is as follows :

Given - The energy of an object can be converted to heat due to the friction of the car on the hill. The difference between the potential energy of the car and its kinetic energy at the bottom of the hill equals the energy lost due to friction.

To find - How much energy is lost due to heat for group A's car ?

              How much for Group B's car ?

Solution -

We know that,

GPE = 1 Joule (Potential Energy)

Now,

For Group A -

Energy Lost = GPE - KE

                    = 1 J - 0.313 J

                    = 0.687 J

So,

Energy Lost for group A's car = 0.687 J

Now,

For Group B -

Energy Lost = GPE - KE

                    = 1 J - 0.45 J

                    = 0.55 J

So,

Energy Lost for group B's car = 0.55 J

Answer:

Period = 0.68 seconds

Explanation:

Given the following data;

Number of oscillation = 22

Time = 14.9 seconds

To find the period;

Method I.

Period = time/number of oscillation

Period = 14.9/22

Period = 0.68 seconds.

Method II.

We would find the frequency of the wave;

Frequency = time/number of oscillation

Frequency = 22/14.9

Frequency = 1.48 Hertz

Next, we find the period;

Period = 1/frequency

Period = 1/1.48

Period = 0.68 seconds

By considering building a system of two positive charges: The work done by an external agent is negative.

Any attempt by an outside force to combine two positive charges would be harmful. This is done in order to overcome the electrical force that now opposes the movement of the two positive charges toward one another. Negative work is defined as an effort made to control a disagreeable factor. However, if the two positive charges are already close to one another and the external agent operates to separate them, the work done would be beneficial. This is due to how weak the electrical force that holds the two positive charges together becomes when they are separated, necessitating the aid of an outside force. When work done to separate charges, it is viewed favorably. It's important to keep in mind that the concept of work includes all kinds of forces, not only electrical ones. The sign of the work generated by an external source is determined by the force's direction and the charges' displacement. If both the force and the displacement are travelling in the same direction, the work is positive. If the force and displacement are moving in the opposite directions, the work is negative.

To know more about work done please refer: https://brainly.com/question/29989410

#SPJ4