I'm a little rusty on my physics, but this question does not provide enough information to answer.
The strength of a gravitational field (according to Newtonian physics, at least) is a function of two interacting masses and the distance between those two interacting masses.
Newton's law of universal gravitation is:
F = G * m1 * m2 / r^2
where:
G is the gravitational constant
m1 is the mass of the first point object
m2 is the mass of the second point object
r is the distance between the two point objects
So presuming that the SECOND point object has the same mass as the first point object (5.00kg for both), then your answer will be:
6.674 * 10^-11 * 5 * 5 / 2^2 = 4.17 * 10 ^-10 Newtons.
You will note that this shows us that gravity is an incredibly weak force - EASILY the weakest of the four fundamental forces in the universe.
Gravitational energy is the potential energy associated with gravitational force. If an object falls from one point to another point inside a gravitational field, the force of gravity will do positive work on the object, and the gravitational potential energy will decrease by the same amount.
Digits after (to the right of) the decimal point contribute to the accuracy of the number, not its magnitude (or size). So only the digits to the left of the decimal point contribute to the magnitude. Digits after (to the right of) the decimal point contribute to the accuracy of the number, not its magnitude (or size). So only the digits to the left of the decimal point contribute to the magnitude. Digits after (to the right of) the decimal point contribute to the accuracy of the number, not its magnitude (or size). So only the digits to the left of the decimal point contribute to the magnitude. Digits after (to the right of) the decimal point contribute to the accuracy of the number, not its magnitude (or size). So only the digits to the left of the decimal point contribute to the magnitude.
The strength of the electric field is a scalar quantity. But it's the magnitude of thecomplete electric field vector.At any point in space, the electric field vector is the strength of the force, and thedirection in which it points, that would be felt by a tiny positive charge located there.
Estimating will give an indication of the order of magnitude of the answer. The decimal point determines the order of magnitude.
The magnitude or value of the number.
Gravitational potential is a scalar quantity. It represents the amount of energy per unit mass at a point in a gravitational field. When considering gravitational potential, only the magnitude of the potential is important, not its direction.
At a point between the Earth and the Moon where the gravitational field strength is zero, the gravitational pull from the Earth and the Moon cancels out, resulting in a net force of zero. This point is known as the L1 Lagrange point, where the gravitational forces are balanced due to the interaction between the gravitational pull of the Earth and the Moon.
The unit of measuring gravitational field strength is Newtons per kilogram (N/kg). It represents the force exerted on a unit mass at a particular point in a gravitational field.
The magnitude of an electric field is defined as the force per unit charge experienced by a test charge placed in the field. It is measured in units of newtons per coulomb (N/C). This magnitude represents the strength of the electric field at a particular point.
No. The sum of the gravitational field and the electric field is a useless concept.
The reference point for gravitational potential energy is typically set to be at an infinite distance away from the gravitational field, where the potential energy is considered to be zero. This allows for the calculation of the change in potential energy as an object moves within the field.
true
A gravitational field is the force field that exists in the space around every mass or group of masses. This field extends out in all directions, but the magnitude of the gravitational force decreases as the distance from the object increases. It is measured in units of force per mass, usually newtons per kilogram (N/kg). A gravitational field is a type of force field and is analogous to electric and magnetic fields for electrically charged particles and magnets, respectively. There are two ways of showing the gravitational field around an object: with arrows and with field lines. Both of these are shown in the picture below. Arrows show the magnitude and direction of the force at different points in space. The longer the arrow, the greater the magnitude. Field lines show the direction the force would act on an object placed at that point in space. The magnitude of the field is represented by the spacing of the lines. The closer the lines are to each other, the higher the magnitude. The gravitational field varies slightly at the earth's surface. For example, the field is slightly stronger than average over subterranean lead deposits. Large caverns that may be filled with natural gas have a slightly weaker gravitational field. Geologists and prospectors of oil and minerals make precise measurements of the earth's gravitational field to predict what may be beneath the surface. Website Name : INshortkhabar
Yes, the electric field created by a point charge is directly proportional to the magnitude of the charge. As the charge increases, the electric field strength at a given distance from the charge also increases.
Gravitational energy is the potential energy associated with gravitational force. If an object falls from one point to another point inside a gravitational field, the force of gravity will do positive work on the object, and the gravitational potential energy will decrease by the same amount.
Gravitational field strength represents the intensity of the gravitational force experienced by an object at a specific point in space. It is a measure of how strong the force of gravity is at that location and is typically expressed in units of newtons per kilogram. A greater field strength indicates a stronger gravitational pull on objects placed within that field.
Magnetism is a force. Vector notation is required to indicate magnitude and direction of a force.