Yes, light can curve due to gravitational pull, a phenomenon predicted by Einstein's theory of general relativity. This effect, known as gravitational lensing, occurs when light from a distant object is bent as it passes near a massive object, such as a galaxy or black hole, resulting in distorted or magnified images.
A planet or moon bends toward the light due to the gravitational force of the sun or star, causing its orbit to curve. This bending of the path of the planet toward the light is what keeps it in orbit around the star.
Global winds curve due to the Coriolis effect, which is caused by the rotation of the Earth. In the Northern Hemisphere, global winds are deflected to the right, while in the Southern Hemisphere, they are deflected to the left. This deflection results in the curved paths of global winds around the Earth.
Objects in the Southern Hemisphere curve to the left due to the Coriolis effect. This is because the Earth's rotation causes a deflection to the left in the Southern Hemisphere. This is the opposite of the deflection in the Northern Hemisphere, where objects curve to the right.
Winds appear to curve due to the Coriolis effect, which is a result of the Earth's rotation. As air moves from high pressure to low pressure, it is deflected to the right in the Northern Hemisphere and to the left in the Southern Hemisphere. This deflection causes winds to curve instead of moving in a straight line.
a burning candle is a light source due to the fire.
A ball thrown straight will curve downward due to the pull of gravity acting on it. As the ball moves forward, gravity exerts a downward force on it, causing it to follow a curved path towards the ground. This downward curve is influenced by factors such as air resistance and the initial velocity and angle at which the ball was thrown.
A planet or moon bends toward the light due to the gravitational force of the sun or star, causing its orbit to curve. This bending of the path of the planet toward the light is what keeps it in orbit around the star.
Light curves on Earth due to the planet's curvature. As light travels through the atmosphere, it refracts (bends) slightly. This refraction causes the light to curve downward, following the Earth's surface rather than traveling in a straight line.
The sir of astronomy said that space is curve but how that is possible according to me space can not curve if space is the form of curve than all galleries ,plants ,stars, and everything which belong to universe will be move in the same way but there are moving in special curve path . The curve path be may because of different forces which make them make is a curve path. The forces are well know my as . But on curve path I have a example suppose that you are moving on a path the path is curve you are moving in a straight line with any speed but it appear to as that we are moving in a curve path. in reality we are moving in straight line. same condition of earth which are moving in a curve due to same special forces not in a curve space. Now we know very wall that the curve path is due to same special forces which force any body to move in a curve path . In short the curve is due to same force , it is not mean that space is curve. If so than the shape of space is like Imagine the image
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Light rays striking a convex mirror are reflected away from each other due to the outward curve of the mirror. The reflected rays diverge and do not converge to a focal point, resulting in an upright and diminished virtual image.
Light cannot escape from a black hole due to its extremely strong gravitational pull. The gravity of a black hole is so intense that not even light, the fastest thing in the universe, can escape its grasp.
According to Einstein's general relativity theory, light is deflected due to a gravitational pull. The light takes the shortest path in space-time, which is not the same as the shortest path in space. However, very large gravitational forces are required to get detectable deviations from the shortest path in space. When light from distant objects passes near very massive objects (such as super-massive black holes), the effect is relatively large. The deflection due to the gravitational pull of the earth is minuscule, but still detectable.
The curve typically starts with a steep increase in photosynthesis rate as light intensity increases, as more energy is available for the process. This is followed by a plateau where the rate levels off, indicating that other factors like temperature or enzyme availability are limiting the rate of photosynthesis. Finally, the curve may even decline at very high light intensities due to damage to the photosynthetic machinery.
A black hole is an astronomical object that absorbs all light that hits it due to its intense gravitational pull. No light can escape from a black hole, making it appear completely black to an outside observer.
Due to irresponsible driving