Why don't you notice your gravitational force on other objects?
A. too much interference
B. distance is too big
C. not enough mass
D. you don't exert a gravitational force

Answer:

\(f=5.76\times 10^{14}\ Hz\)

Explanation:

We need to find the frequency of green light having wavelength o\(5.2\times 10^{-7}\ m\). It can be calculated as follows :

\(c=f\lambda\\\\f=\dfrac{c}{\lambda}\\\\f=\dfrac{3\times 10^8}{5.2\times 10^{-7}}\\\\f=5.76\times 10^{14}\ Hz\)

So, the required frequency of green light is equal to \(5.76\times 10^{14}\ Hz\).

The laws of conservation of energy and conservation of angular momentum ensure that any rotating, collapsing cloud will end up as a spinning disk is the reason.

This is defined as a curved path in space which is characterized by an object going round and round a planet, moon, or star.

In this scenario, all the planets orbit the Sun in the same direction and in nearly the same plane to ensure any rotating, collapsing cloud will end up as a spinning disk.

Read more about Orbit here https://brainly.com/question/3668699

Answer:

10m/s

Explanation:

collisions results in objects sticking together or not sticking together after collision and so they do move with a common velocity or uncommon velocity respectively.

Parameters from the question:

Mass of green billiard balls, m1=2kg

Mass of white billiard balls, m2=2kg

Initial velocity for green billiard balls ,u1=4m/s

Initial velocity for white billiard balls ,u2 = 0m/s( since the body is at rest meaning it wasn't moving)

Final velocity of green billiard ball after collision is,v1= unknown

Final velocity of white green billiard ball after collision is, V2 = -6m/s.

Now from Newton's third law of motion that action and reaction must be equal and opposite;hence change in momentum before collision would be the same after collision since energy is conserved.

Hence,

m1U1 + m2U2 = m1V1 +m2V2

2×4 + 2×0 = 2×V1 + 2× (-6)

8 = 2V1 -12

8+12=2V1

20=2V1

10=V1

V1=10m/s

The total friction force acting on the car is 3.1 KN

Given, power developed by the engine,

P = 72.9 hp = ( 72.9 x 746 ) W (One horsepower equals 746)

Speed of the car, v = 39.2 mi / hr

(convert mi / hr to m / s)

v = 17.52 m/s

Total friction force acting on the car, f = P / v

f = \(\frac{72.9 * 746}{17.52}\) = 3104 N

= 3.1 KN

Learn more about friction force refer to :

https://brainly.com/question/23161460

#SPJ4

Based on the context provided, the correct meaning of the underlined word "mischievous" is d) in a sneaky way. Hence, option d) is the correct answer.

This is because the sentence describes the person's eyes having a "glint" when he pulls a pop quiz and makes all the multiple choice answers, which suggests that he may be doing it in a playful or mischievous manner. The word "mischievous" is often used to describe behavior that is playful or teasing, but can also be seen as sneaky or sly.

The correct meaning of the underlined word "mischievous" in the given sentence is: d. in a sneaky way.

To know more about mischievous, refer

https://brainly.com/question/714840

#SPJ11

(a) Image formed by the left lens is 133.33 mm to the right of the lens. (b) image formed by both lenses is 200 mm to the left of the right lens. (c) real (d) inverted (e) larger.

(a) To find the image formed by the left lens, we can use the three principal rays. The first principal ray passes through the center of the lens and goes straight through, unaffected by the lens. The second principal ray passes through the lens and goes through the focal point on the right side of the lens. The third principal ray passes through the top of the object and also goes through the focal point on the right side of the lens.

After passing through the lens, the two latter rays will converge at a point on the right side of the lens. This point is the image formed by the left lens. To find the location and size of the image, we can use the lens equation:

1/f = 1/do + 1/di,

here,

f is focal length,

do is object distance,

di is image distance.

In this case, f = 100 mm, do = 230 mm, and we are trying to find di.

Reserving values into equation:-

1/100 = 1/230 + 1/di

1/di = 1/100 - 1/230

di = 230 * 100 / (230 + 100)

= 133.33 mm

Hence, the image formed by the left lens is 133.33 mm to the right of the lens and is virtual, erect, and smaller than the object.

(b) To find the image formed by the right lens, we can use the three principal rays that are formed after passing through the image formed by the left lens. The first principal ray passes straight through the center of the right lens, unaffected by the lens. The second principal ray passes through the top of the image and goes through the focal point on the left side of the right lens. The third principal ray passes through the bottom of the image and also goes through the focal point on the left side of the right lens. After passing through the right lens, the two latter rays will converge at a point on the left side of the right lens. This point is the final image formed by both lenses. To find the location and size of the final image, we can use the lens equation again:

1/f = 1/do + 1/di,

here,

f is focal length,

do is object distance,

di is image distance.

In this case, f = 100 mm, do = 133.33 mm (the distance to the image formed by the left lens), and we are trying to find di.

Reserving values into equ.:-

1/100 = 1/133.33 + 1/di

1/di = 1/100 - 1/133.33

di = 133.33 * 100 / (133.33 + 100) = 200 mm

So, the final image formed by both lenses is 200 mm to the left of the right lens and is real, inverted, and larger than the object.

(c) Image will be real.

(d) Image will be inverted.

(e) Image will be larger than the object.

To know more about lens please refer: https://brainly.com/question/28593056

#SPJ4

Answer:

i knew it but now i dont

Explanation:

Earth's gravity is strong enough to hold onto its atmosphere and keep it from drifting into space.

Thanks to Earth's gravity, the atmosphere doesn't escape into space. Gravity pushes down on Earth's atmosphere, keeping its air from drifting away, according to the National Oceanic and Atmospheric Administration's SciJinks online earth science education website.

The number of parking spaces that the parking lot has, given the length of the parking lot, is 32 parking spaces.

To find out how many parking spaces the parking lot has, first we need to determine the total length of the row where parking spaces will be created.

Length of the row for parking spaces = Total length of the parking lot - Length not painted for cars to turn

= 316 feet - 28 feet = 288 feet

Now that we know the length of the row for parking spaces, we can calculate how many 9-foot-wide spaces will fit in this row.

Number of parking spaces = Length of the row for parking spaces / Width of each parking space

= 288 feet / 9 feet = 32 parking spaces

Find out more on parking lots at https://brainly.com/question/3387253

#SPJ1

A dielectric material is a type of insulating material that does not conduct electricity easily.

When an electric field is applied to a dielectric material, the electrons within the material do not move freely like they would in a conductor.

Instead, the electrons remain bound to their respective atoms or molecules, resulting in a polarization of the material.

This polarization creates an opposing electric field that reduces the strength of the applied electric field.

Dielectric materials are commonly used in electrical and electronic applications where insulation is necessary, such as in capacitors, transformers, and printed circuit boards.

Some examples of dielectric materials include air, paper, glass, ceramic, and plastic.

The dielectric constant of a material refers to its ability to store electrical energy in an electric field and is an important parameter in the design of electrical devices.

To know more about dielectric material refer here

brainly.com/question/30523009#

#SPJ11

Answer:

Charge quantization is the principle that the charge of any object is an integer multiple of the elementary charge.

Explanation:

Answer:

Part A

The power to turn on the lamp, ∑P = 3.36 W

Part B

The Resistor required is approximately 8.04 Ohms

Part C

The time for all the lights to go out is approximately 21.43 hours

Explanation:

The input voltage of the motor battery , V = 12 V

The capacity of the battery, Q = 6 Ah

The number of lamps in parallel = 8 lamps

The maximum voltage of each lamp,  = 3 V

The electric current in each lamp = 140 mA

The energy available in a battery, E = Q × V

For the battery, we have;

E = 6 Ah × 12 V = 72 Wh

The energy available in a battery, E = 72 Wh

Part A

The power used by the lamps, \(P_i\) = \(I_i\) × \(V_i\)

∴ The total power used by the lamp, ∑P = 8 × 0.14 A × 3 V = 3.36 W

The power to turn on the lamp, ∑P = 3.36 W

Part B

The resistance required, is given as follows;

Resistor required = (Battery voltage - Lamp voltage)/(The sum of bulb current)

∴ Resistor required = (12 V - 3 V)/(8 × 0.14 A)

The Resistor required = 8.03571429 Ohms

The Resistor required ≈ 8.04 Ohms

Part C

The time for all the lights to go out = The time for the lamps to use all the power available in the battery

The time for all the lights to go out, t = E/∑P

∴ t = 72 Wh/(3.36 W) = 21.4285714 h

∴ The time for all the lights to go out, t ≈ 21.43 h

The time for all the lights to go out = The time for the lamps to use all the power available in the battery = t ≈ 21.43 h

∴ The time for all the lights to go out ≈ 21.43 hours.

Here, we are required to determine how the total reaction energy is calculated.

Total reaction energy =

The total reaction energy, otherwise known as the Enthalpy of the reaction is given by the difference between the enthalpy of the product and that of the reactants.

Also, it is important to note that the enthalpy is the sum total of the internal energy and the work energy of the entity in discuss, which may either be the reactants or the products.

Ultimately,

Total reaction energy =

Read more:

https://brainly.in/question/27471669

Answer:

B. reactant bond energy – product bond energy

Explanation:

The speed of a particle with trajectory c(t) = (ln(t^2+1), t^3) at time t0=5 is approximately 130.8 meters per second.

To find the speed of the particle at t0=5, we need to find the derivative of the position function with respect to time and then evaluate it at t=5.

The position function c(t) gives us the particle's x-coordinate and y-coordinate at any given time t. To find the velocity vector, we take the derivative of the position function with respect to time. The x-component of the velocity vector is dx/dt, and the y-component is dy/dt.

Taking the derivative of c(t) gives us c'(t) = \((1/(t^2+1), 3t^2).\) At t=5, the velocity vector is c'(5) = (1/26, 75).

To find the speed of the particle, we take the magnitude of the velocity vector: c'(5) =\(sqrt((1/26)^2 + 75^2)\) ≈ 130.8 meters per second. Therefore, the speed of the particle at t0=5 is approximately 130.8 meters per second.

Learn more about magnitude here:

https://brainly.com/question/31022175

#SPJ11

Q1) To find how long it takes the Batarang to stop after it hits the target, we can use the formula F = ma, where F is the force, m is the mass, and a is the acceleration

Rearranging the formula to solve for a, we get a = F/m. Plugging in the given values, we get a = 600 N / 0.2 kg = 3000 m/s^2. Next, we can use the formula v = at, where v is the final velocity, a is the acceleration, and t is the time. Since the Batarang stops after it hits the target, the final velocity is 0. Rearranging the formula to solve for t, we get t = v/a. Plugging in the given values, we get t = 0 / 3000 m/s^2 = 0 seconds. Therefore, it takes the Bata rang 0 seconds to stop after it hits the target.
Q2) To find how far the Bata rang travels while the force is being applied, we can use the formula d = vt, where d is the distance, v is the velocity, and t is the time. Since the Batarang stops after it hits the target, the time is 0 seconds, as we found in Q1. Plugging in the given values, we get d = 20 m/s * 0 seconds = 0 meters.

Read more about Batarang here:https://brainly.com/question/28642548

#SPJ11

Q1) To find how long it takes the Batarang to stop after it hits the target, we need to use the equation of motion: v = u + at

Where v is the final velocity (which is zero in this case), u is the initial velocity (20 m/s), a is the acceleration (-600 N/0.2 kg = -3000 m/s^2, since force = mass x acceleration), and t is the time we are trying to find.

Rearranging the equation, we get: t = (v - u) / a

Substituting the given values, we get: t = (0 - 20) / (-3000) = 0.00667 seconds. Therefore, it takes the Batarang 0.00667 seconds to stop after hitting the target.

Q2) To find how far the Batarang travels while the force is being applied, we need to use the equation of motion: s = ut + (1/2)at^2; where s is the distance traveled, u is the initial velocity (20 m/s), a is the acceleration (-3000 m/s^2, as before), and t is the time it takes for the Batarang to stop (0.00667 seconds).

Substituting the given values, we get: s = 20(0.00667) + (1/2)(-3000)(0.00667)^2 = 0.067 meters

Therefore, the Batarang travels 0.067 meters while the force is being applied.

To learn more about acceleration, visit here

https://brainly.com/question/12550364

#SPJ4

Answer:

4 Ohms

Explanation:

Apply the formula:

Voltage = I (current) . Resistance

You can change it the way you want to use for your purpose.

In this case...

R = V/I

R = 12/3

R = 4 Ohms (Ohm is the unit of measurement of eletrical resistance)

Answer:

like this

Explanation:

Answer:

If it is pure, the substance is either an element or a compound. If a substance can be separated into its elements, it is a compound. If a substance is not chemically pure, it is either a heterogeneous mixture or a homogeneous mixture. If its composition is uniform throughout, it is a homogeneous mixture.

Explanation:

Answer:

its Phyiscs How hard Can It Really Be

Answer:

i. Cv =3R/2

ii. Cp = 5R/2

Explanation:

i. Cv = Molar heat capacity at constant volume

Since the internal energy of the ideal monoatomic gas is U = 3/2RT and Cv = dU/dT

Differentiating U with respect to T, we have

= d(3/2RT)/dT

= 3R/2

ii. Cp - Molar heat capacity at constant pressure

Cp = Cv + R

substituting Cv into the equation, we have

Cp = 3R/2 + R

taking L.C.M

Cp = (3R + 2R)/2

Cp = 5R/2

Answer:

If it is a True or False question then the answer would be TRUE

Explanation:

Answer:

he is right it’s D

Explanation:

if u could not read his hand writing

The SI unit that is most appropriate for measuring weight is N ( Newton )

Weight of an object is the force acting on the object due to gravity. It is denoted using W.

W = m g

W = Weight

m = Mass

g = Acceleration due to gravity

Newton in SI base units is written as kg m \(s^{-2}\). 1 kg of mass equals to 9.8 N. The standard dimension for weight is M L \(T^{-2}\).

Therefore, the SI unit that is most appropriate for measuring weight is N ( Newton )

To know more about Weight

https://brainly.com/question/13040516

#SPJ1

The basketball and the block of ice have the same kinetic energy since they have the same mass and speed. The energy of an object in motion is determined by its mass and velocity, and since both objects have the same mass and velocity, they possess equal kinetic energy.

The kinetic energy of an object in motion is determined by its mass and velocity. The greater the mass or velocity of an object, the greater its kinetic energy. In this scenario, the basketball and the block of ice have the same mass and are moving with the same speed, so they possess equal kinetic energy. Even though the basketball is rolling and the block of ice is sliding, they both have the same linear speed. The basketball rolls without slipping because its point of contact with the floor is stationary, and this rotational motion does not affect its linear speed.

learn more about kinetic energy here:

https://brainly.com/question/999862

#SPJ4

I'm pretty sure this poor guy could never have been accepted for astronaut training, much less a mission to the Moon.  

He weighs something like 335 pounds when he's ON THE MOON !

If he has enough fuel, and survives a trip back to Earth, he'll weigh around 9,080 Newtons here.  That's like 2,040 pounds ... durn close to a ton ! !

Answer:

Gravitational field strength:

Moon is 1.6N/kg

Earth is 9.8N/kg or 10N/kg

Moon:

Weight = mass x gravitational field

1500N = m x 1.6N/kg

÷1.6 both sides

937.5 = m

Mass of astronaut is 937.5kg

(Your mass doesn't change, no matter where you go, in space)

Earth:

Weight = mass x gravitational field

= 937.5kg x 9.8 N/kg

= 9187.5N

Or

Weight = mass x gravitational field

= 937.5kg x 10 N/kg

= 9375N

Thus, the astronaut's weight will be 9187.5N or 9375N on Earth.

Hope this helps!

Answer:

5.0 kg

Explanation:

use the equation; (m1v1i) + (m2v2i) = (m1v1f) + (m2v2f)

The energy available through fusion for a 90 kg human body is approximately 5.67 x 10^13 joules. With this energy, the body could operate on fusion power for approximately 18,000 years.

Part A:

To calculate the energy available through fusion, we need to find 0.7% of the mass of the human body and convert it to energy using Einstein's famous equation E=mc^2.

Mass of the human body (m) = 90 kg

Conversion efficiency (η) = 0.7% = 0.007

Energy (E) = η * m * c^2

The speed of light (c) is approximately 3 x 10^8 m/s.

Plugging in the values:

E = 0.007 * 90 kg * (3 x 10^8 m/s)^2

Calculating:

E ≈ 0.007 * 90 kg * (9 x 10^16 m^2/s^2)

E ≈ 5.67 x 10^13 joules

Therefore, the energy available through fusion is approximately 5.67 x 10^13 joules.

Part B:

To find how long the body could operate on fusion power, we need to divide the available energy by the power consumption of the human body.

Given:

Average power of the human body (P) = 100 watts

The time (t) can be calculated as:

t = E / P

Plugging in the values:

t = (5.67 x 10^13 joules) / (100 watts)

Calculating:

t ≈ 5.67 x 10^11 seconds

To convert seconds to years, divide by the number of seconds in a year (approximately 31,536,000 seconds):

t ≈ (5.67 x 10^11 seconds) / (31,536,000 seconds/year)

t ≈ 1.8 x 10^4 years

Therefore, the body could operate on fusion power for approximately 18,000 years

To know more about power ,visit:

https://brainly.com/question/1634438

#SPJ11

Answer:

it is dropped from a height of 10m

Explanation:

Answer:

57.1 meters

Explanation:

the distance the body has fallen is given by

  d = 1/2 a t^2     with a = 9.8m/s^2   this becomes

d = 4.9 t^2          

   now we want   the distance in one more second to equal the distance fallen before that one second

   or     4.9 t^2   =   4.9 (t+1 )^2 - 4.9 t^2    re-arrange

         2 * 4.9 t^2 = 4.9 (t+1)^2        simplify to

            0 = - 4.9 t^2 + 9.8 t + 4.9     use Quadratic Formula to find

                            t = 2.414  

   then t +1 = 3.414

this corresponds to distance    d = 1/2 at^2 = 1/2 ( 9.8) (3.414)^2 = 57.1 meters

check:    in 2.414 seconds distance =   1/2 a t^2 =  28.6

              in one second more distance =   1/2 (9.8)(3.414)^2 = 57.1      

                       so in the last one second it has fallen approx another 28.6 m

Check !  

Answer:

The speed of light is 30,060,120.24048 m/s.

Explanation:

15000000 km into m

1 km = 1000m

15000000 km = 15000000 × 1000 m

= 15000000000m

speed = distance travelled / time taken

or, speed = 15000000000/499 m/s

so, speed = 30,060,120.24048m/s

To solve the problem we must know about the relationship between Speed, distance, and Time.

We know that sped, distance, and time all are in a relationship to each other. this relationship can be given as,

\(\rm{Speed = \dfrac{Distance}{Time}\)

The speed of the light is 30,060.12 km/sec.

Given to us

We know that speed can be described as,

\(\rm{Speed = \dfrac{Distance}{Time}\)

Therefore,

\(\text{Speed of light} = \dfrac{\text{Distance between the earth and the sun}}{\text{Time taken by the light to travel the distance}}\)

Substitute the value,

\(\text{Speed of light} = \dfrac{15,000,000\ km}{499\ seconds}\)

\(\text{Speed of light} = 30,060.12\ km/sec\)

Hence, the speed of the light is  30,060.12 km/sec.

Learn more about Speed, distance, and Time:

https://brainly.com/question/15100898

Answer:

The work done by the 20 N force is 61.3 J

Explanation:

20 N Force at horizon is: F=20 N*cos 40=15.32 N

The work done by 20 N at horizon is: W=F*S=15.32 N* 4 m=61.3 J

Answer:

The work done by the 20 N force is 61.3 J

Explanation: