According to the question, the given only information is:
Radius of a neutron is 1*10^-13 cm
And the purpose is to:
Find out the density of a neutron in grams over cm^3
(So it's only one neutron?)
THE MOTHOD
Since we know the density of a certain object can be acquired by using the formula Density=Mass / Volume, now the only uncertainty is the mass of a neutron.
There is a way to estimate the mass of a neutron through an experiment, which will be needing the followings, a mass spectrometer, an electronic gun, alpha particle, a nitrogen particle.
INSTRUCTIONS
1) Use an electronic gun to shoot out an electron, into an orbit around the mass spectrometer. Magnetic force would equal to centripetal force, and by using this formula
eVB=m*(V^2/R)
we could find out the mass of an electron.
2) Collide an alpha particle with a nitrogen particle, to produce a proton. By using the same method above, calculate the mass of the proton with a mass spectrometer.
3) Collide an alpha particle with a nitrogen particle with a regulated energy so that the alpha particle could be scattered. By using the laws "Conservation of momentum" and "Conservation of energy", we could find out the mass of the nitrogen nucleus(M).
M=7*(mass of proton + mass of neutron)
A neutrons mass could be estimated by solving the equation above.
Thus the density of a neutron is
D=(1.674927*10^-27) grams/ 1cm^3=1.674927*10^-27 g/cm^3
CUBES
If the question were "If the radius of a neutron is 1*10^-13 cm, calculate the density of neutrons in g over cm3?", the method would be totally different and difficult, as well as controversial.
1) BLOCKS
Since the particle is neutron that we are taking into account, we could assume that neutrons can be positioned side by side with no space and force amongst them. Just like constructing a building, bricks and bricks are very close together, but rather than rectangulars, more sphere shaped perhaps.
D=M/V={[1 / (2*1*10^-13)]^3*1.674927*10^-27} grams/ 1 cm^3=2.09365875*10^11
Whcih is not possible.
2) LATTICE
Maybe neutrons could be placed in a way like NaCl or other solids(if possible), with a distance between one another. This is where math comes into place. Note that there are three forms of lattace, which means three different ways of calculation and results.
Anyways, this question is still a bit odd. We might be asking the dencity of a lattice which NaCl forms, but not possibly the density of neutrons, unless under special circumstances.
3.14 x the radius (from the center of the room to the edge) = the square footage
Radius is 7.0 KM
The radius of Earth is 6,378.1 kilometers, or 3,959 miles. The radius is the distance from the Earth's center to its surface.
The amount of paint needed is a function of the radius
It is 71492 kilometres.
To find the radius of the aluminum sphere, you need to know its density. Without density information, it's not possible to calculate the radius just from the mass given.
The atomic radius can be determined by finding the density of a material because the density is related to the spacing between atoms in a solid material. By measuring the density and knowing the atomic mass of the material, scientists can calculate the volume occupied by each atom and thus determine the atomic radius.
Assuming it is spherical, such a fragment would have a volume of 4.19x10^-6 cm^3. A neutron star has a density on the order of 5x10^14 g/cm^3. At this density, the fragment would have a mass of roughly 2000 metric tons.
The formula to calculate the weight of a circle plate is weight = density x volume, where density is the material density and volume is calculated as π x (radius^2) x thickness.
Density is the ratio of mass to volume. There's not enough information in the question to enable us to calculate the volume.
This is not really a realistic scenario; an astronomer would first figure out the mass and volume, and THEN calculate the density based on these pieces of information.Anyway, first you would get the volume, as density / mass. Then, from the volume, you can calculate the radius, using the formula of a sphere. This will only work for fairly large asteroids; for smaller ones it would be a very rough approximation - small asteroids usually have irregular shapes.
A neutron star having a radius the size of a city is significant because it is incredibly dense and compact, packing a mass greater than that of the sun into a small space. This extreme density results in intense gravitational forces and unique physical properties, making neutron stars important objects for studying the laws of physics under extreme conditions.
To find the density of the nucleus, we first need to calculate the volume of the nucleus. The volume of a sphere is given by V = 4/3 * π * r^3, where r is the radius of the nucleus. Once we have the volume, we can divide the mass of the nucleus (which is equal to the atomic mass) by the volume to find the density. Density = mass / volume. Substituting the given values, we can calculate the density accordingly.
Unless you can calculate or measure the volume, you cannot. And even if you could you would get the average density - of the material of the ball and the air inside.
That's the approximate radius of a neutron star, a.k.a. a pulsar.
Double the Radius to Calculate the Diameter.
To calculate the density of an element from the periodic table, you would need to know the element's atomic mass and atomic volume. The formula for density is mass divided by volume. You can find the atomic mass on the periodic table and calculate the volume using the element's atomic radius or other relevant data.