No one knows. Nobody's been to deep space. But my guess is no.
In space, weightlessness occurs because there is no gravity acting on objects. As a result, objects and astronauts float freely without feeling the sensation of weight. This is different from mass, which remains constant regardless of location.
In deep space where the gravitational force is zero, you would be essentially weightless. Weight is the force exerted by gravity on an object, so in the absence of gravity, there would be no force acting on you to give you weight.
Density affects the weight of an object by determining how much mass is concentrated in a given volume. Objects with higher density have more mass packed into a smaller space, resulting in greater weight. Conversely, objects with lower density have less mass confined in a larger volume, leading to reduced weight.
Objects like balloons, styrofoam, cotton balls, and bubbles have large volume but small mass and weight. This is because their density is low, meaning they have very little mass compared to the amount of space they occupy.
An object that fits this description is a physical object, such as a book or a table. These objects have volume and mass, which means they take up space and have weight.
Deep space Objects!
Uranus
The bull
Because weight is based on gravity, and gravity changes throughout space.
One way to compare the mass of objects in deep space is by measuring their gravitational influence on surrounding objects. Another method is to analyze the orbital motion of objects within a system to determine their mass. Additionally, astrophysicists can use techniques such as microlensing or radio observations to estimate the mass of objects in deep space.
Deep space appears black to human eyes because it is primarily a vacuum with very little matter to reflect or emit light. However, there are colorful celestial objects within deep space such as stars, galaxies, and nebulae that can be seen with telescopes.
In space, weightlessness occurs because there is no gravity acting on objects. As a result, objects and astronauts float freely without feeling the sensation of weight. This is different from mass, which remains constant regardless of location.
I believe it is "interstellar". Intergalactic is the space between galaxies. Deep space. Interstellar space is the space between stars, nebulas, and all other objects WITHIN a galaxy.
If you leave earths gravitational field (sufficiently), objects will have a very negligible gravitational potential energy. You can consider it zero. But what if it were a compressed spring that you brought out into 'deep space'? It would still retain elastic potential energy. A bomb in deep space would still have explosive(?) potential energy. With that said, if you had two or more objects in deep space, they would have gravitational potential energy between the group of them, but not the earth.
Objects in communication satellites still have weight, as weight is a measure of the force of gravity acting on an object. However, in the microgravity environment of space, objects appear weightless because they are in free fall around the Earth.
Balance is mostly comparing the two objects weight so that relates to matter because matter is anything that takes up space and has weight. Balance takes up space and it mostly has weight.
In deep space where the gravitational force is zero, you would be essentially weightless. Weight is the force exerted by gravity on an object, so in the absence of gravity, there would be no force acting on you to give you weight.