Because there are no frictional forces.
You would need a telescope with a large aperture to observe objects in space clearly. Aperture size is important for collecting enough light from distant objects. A telescope with a minimum aperture of 4 inches is recommended for observing celestial objects such as galaxies, nebulae, and star clusters.
Your question is very nearly meaningless, because "in space" is not a well defined location and different locations and motions in space would have different properties. In freefall, which is what I suspect you meant, objects have no "weight" per se, but they still have inertia. It would therefore be possible to move objects you could not move on Earth, but it would not necessarily be easy, and if the object was already moving it could be difficult to stop it.
Objects sent into space need to be made as lightweight as possible due to the huge cost. A large amount of fuel is needed to achieve the required escape velocity and orbital speed for every kg sent - this could be as much 10,000 US dollars per kg (or 22,000 US dollars per pound)
Space boots are necessary in space to protect astronauts from extreme temperature changes, provide traction in microgravity environments, and shield them from sharp objects or debris that could pose a hazard. They also help regulate blood flow and reduce the risk of injury during spacewalks and other extravehicular activities.
To calculate the area of a space, you need to know the dimensions of the shape. If the shape is a square or rectangle, you can use the formula Area = Length x Width. If it's a circle, you can use the formula Area = πr^2, where r is the radius. For a space of 3000 sq meters, you would need more information about the shape to calculate the specific dimensions and therefore the area.
In space, there is no atmosphere or air resistance, so objects do not encounter drag forces that can slow them down. This means that streamlined shapes, which reduce air resistance on Earth, are unnecessary in the vacuum of space. Objects can travel freely without the need for aerodynamic designs, making their shapes less critical for movement. However, for operations involving re-entry into an atmosphere, streamlining becomes essential again to manage heat and drag.
Objects need to be streamlined to reduce air resistance and drag when moving through a fluid, such as air or water. This design reduces the energy required for movement and increases speed and efficiency.
Objects that are designed for movement through a fluid medium, such as airplanes, cars, boats, and even underwater robots, need to be streamlined. Streamlining reduces drag, making it easier for these objects to move efficiently and swiftly through the air or water.
Buses do not have a streamlined shape primarily due to their design requirements for passenger capacity and interior space. The need to accommodate a large number of seats and standing room necessitates a boxy, flat shape, which maximizes usable space. Additionally, buses operate at lower speeds compared to vehicles like cars or airplanes, where aerodynamics play a more critical role in fuel efficiency. Consequently, the trade-off between passenger capacity and aerodynamic design results in the traditional bus shape.
Satellites operate in the vacuum of space where there is no air resistance, so they do not need to be streamlined for aerodynamic purposes. Their design is primarily focused on functionality, efficiency, and stability in their orbits.
A submarine is not streamlined primarily because its design prioritizes buoyancy and structural integrity over hydrodynamic efficiency. Unlike streamlined objects that minimize drag, submarines have a robust hull to withstand water pressure at depth and accommodate various systems, including ballast tanks and propellers. Additionally, the need for features like hatches and periscopes creates protrusions that disrupt a streamlined shape. Consequently, while submarines are designed to be efficient underwater, their form is not optimized for streamlining in the same way as fast-moving aquatic animals or streamlined vehicles.
To make an object streamlined, you need to shape it in a way that reduces air resistance as it moves through a fluid medium, such as air or water. Typically, this involves creating a smooth, aerodynamic shape that allows the fluid to flow around the object with minimal resistance. Design features like a teardrop shape, rounded edges, and a sleek profile can help to make an object more streamlined.
because to know how much space is in a shape
Guppies do not have a streamlined body; instead, they have a more rounded and compact shape. Their bodies are generally small and colorful, which helps them in evading predators. While streamlined bodies are typical of fish that need to swim rapidly through water, guppies rely on their agility and quick movements rather than speed.
fish need to be more streamlined than land mammals because they need to be able to stream quickly through water. They need to be able to do this for many reasons such as to either catch their prey (if they are large carniverous fish) or escape from their predator.
You would need a telescope with a large aperture to observe objects in space clearly. Aperture size is important for collecting enough light from distant objects. A telescope with a minimum aperture of 4 inches is recommended for observing celestial objects such as galaxies, nebulae, and star clusters.
The reason Space Mouse can be used with 3D motion is because it can be used to easily manipulate objects in the the 3D application. Space Mouse eliminates the need to go back and forth to the menu when positioning 3D objects.