No it isn't, because the type of image a convex lens forms depends on where the object is relative to the focal point of the lens.
Rainbows are optical illusions caused by sunlight passing through raindrops in the atmosphere. They do not have a physical starting or ending point, as they are circular arcs of colored light. The perceived location of a rainbow will depend on the observer's position relative to the sunlight and raindrops.
The moon that crosses the meridian at 9pm will depend on the specific date and location. You can use a planetarium app or website to determine which moon will be crossing the meridian at that time for your location.
A convex Lens forms a real, inverted image which can be displayed on a screen placed before the lens i.e, opposite the direction the light rays are coming from. A diminished image is formed at the focus when light rays from an object are focus on the screen.
The time the Moon set yesterday would depend on your location. You can check online resources like timeanddate.com or apps like Stellarium to find the specific moonset time for your location on the specific date.
Before you depend on this "General Relativity", you should check what it depend on. It relativises its reference frames, arguments, concepts, imaginations, assumptions in a big and complicated circle --- its base is relative. If you want to lean on something based on that shaky ground, it's your choice.
this will depend.
The answer will depend on the location and ages of the students.
Rainbows are optical illusions caused by sunlight passing through raindrops in the atmosphere. They do not have a physical starting or ending point, as they are circular arcs of colored light. The perceived location of a rainbow will depend on the observer's position relative to the sunlight and raindrops.
No, as long as the polygon is convex.
A normal 2-D quadrilateral would be neither convex or concave. There are three-dimensional quadrilaterals, such as prisms, but it would depend on the shape.
yes, of course
This will depend entirely on the geometry of the convex mirror. Only if the mirror is a spherical shell will the answer be "no."
Yes, the location of the tape will appear to change if your distance from the mirror changes. This is due to the way light reflects off the mirror and creates the illusion of the tape being closer or farther away, depending on your position relative to the mirror.
it depends on the certain location
That's going to depend on 'relative' to what ?Relative to the acceleration of gravity on Earth, it's precisely 1.000, or 100% .Relative to the acceleration of gravity on Pluto, it's 16.822, or 1,682.2 % .
Long-term growth in the industry will depend on the ability of U.S. companies to continue to introduce new optical technologies and improve on existing ones,
The answer would depend on the time of year and location of the reading.