a globe.
There is no such thing as a two-dimensional space. By virtue of being a space, you are talking three dimensions. It sounds like what you're really asking is: What is a two-dimensional AREA bounded by an infinite set of points (or infinite number of sides - same thing)? Typically, that would be a circle...however you didn't specify the points all had to be equidistant from its center so it could be any irregular shape containing at least one curve (any curved portion would automatically have to contain infinite points). The best way to ask the question so that the only answer would be 'a circle' is: What is a two-dimensional area formed by an infinite set of points, all of which are equidistant from its center?
A diagram representing mathematical or logical sets pictrorially as circles or closed curves whithin an enclosing. Rectangle common elements of sets being represented by the areas of overlal amongs the circles and two things being comper or being similar
By using the Pythagoras theory, which is a2 + b2 = C2 A and B being each length and c being the diagonal.
Rectangle.
A closed geometric figure with four sides, each side being a straight line
Yes, you feel the centrifugal force when driving around sharp curves. It is the force that pushes you away from the center of the curve, making you feel like you are being pulled outward.
The equator.
Multiple curves, or arcs, comprise a wave which generally consists of a crest (high point) and a trough (low point). So generally speaking, a wavy line would be two or more curved lines that are connected.
To flatter a slender figure you must accentuate curves with your clothing. Boosting the breat area and flaring the hip area, without being to baggy or droopy.
Parallel-being everywhere equidistant and not intersectingLine-A geometric object that is straight, infinitely long and infinitely thin.So two "wavy lines" (that never intersect and are equidistant) would fulfill the definition of "parallel," but not of "line."
This is because the intersection would be impossible. If they crossed then they would have the same utility rather than being two different curves.
The distance from the fixed point at the center of a circle to any point on the curve is called the radius.
The planets orbit in an ellipse. An ellipse is described as a geometric shape where the sum of the distance from the foci at any point is the same. An ellipse has three main points. Two foci and a center like a circle. While a true circle has all its external points equidistant from its center, an ellipse measures its points from the foci, which are equidistant to the center point at on both sides. The planets ellipse is closer to a circle than an all out ellipse, however, the orbit is still a true ellipse. It is also true that the shape of a planet's orbit (an ellipse) is a conic section, i.e. the intersection of a right circular cone where the intersecting plane is not perpendicular to the cone's axis, but less than being parallel to one of the cone's nappes.
No, weights do not have to be equidistant from the fulcrum to achieve balance. The key factor is the product of the weight and its distance from the fulcrum being equal on both sides of the fulcrum, rather than the distances themselves being equal. This concept is described by the law of the lever, which states that the product of the weight and its distance from the fulcrum is the same on both sides for balance.
It's called being a highschool student who goes to a school that curves grades very generously!
A nation loses land after being defeated in a war.
"Equidistant" refers to being at an equal distance from two or more points, lines, or objects. It implies a balance in distances, where no point is closer or farther away than another.