Answer:
The appropriate solution is "0.597 mm".
Explanation:
Given that:
Wavelength,

or,

Distance,

Separated by,

or,

As we know,
⇒ 
or,
The separation of two slits will be:
⇒ 
By putting the values, we get


or,

The correct statement is:
The dust particle will move to a larger orbit and orbit the Sun in more than 1 year.
In fact, the dust particle has smaller mass than the Earth, therefore the gravitational attraction exerted by the Sun on the dust will be smaller, according to the formula of the gravitational force:

where G is the gravitational constant, MS is the Sun mass, m is the mass of the Earth (at first) and then of the dust particle (later), and r is the distance from the Sun. When we replace the Earth with the dust particle we see that m decreases, so the gravitational force F decreases, and the particle will move to a larger orbit. Then its orbital period will increase, according to the third law of Kepler, which states that the square of the orbital period is proportional to the cube of the orbital radius:

therefore, since the orbit is larger, the orbital period is greater.
Answer:

Explanation:
When a particle moves from a point where the potential energy is Ua to point where it is Ub,the change in potential energy is is equal to work done
So

Where Wa-b here is negative this means Ub is greater Ua. Therefore potential energy increases
So
Ah hah ! That description fits things like mass, linear momentum,
energy, angular momentum, electric charge, and politicians. They
never appear or disappear, they just move from place to place.
We say that those quantities are conserved.
<span>The zero reference position should be the position the system has the least potential energy. As an object falls, its potential energy is converted into kinetic energy.
Gravity's ability to do work (potential energy) reaches zero when it hits the ground and stops falling, hence the ground is the most common zero reference position.</span>