transmit light signals over large distances from one point to another

 

display images onto screens or walls

 

control the way energized atoms release photons.

 

make distant objects visible

 

The light in this instrument travels by travelling down a “hallway” and bouncing off through total internal reflection

 

light is passed through a prism where it is then put on a screen

 

This instrument works by exciting atoms and causing them to release photons. After the photons have been released, they bounce back and forth until they are emitted out of the device.

 

This instrument uses a laser that shines light into a lens. The lens then hits a splitter where it is split from one beam to two. The two beams of light then hit mirrors that direct them to their correct locations.

 

Light is gathered from a tiny area of a well-illuminated specimen close by. Then it is brought into focus by a lens.

 

Light hits a lens, bending it in one direction and a new direction as it leaves. It then converges together and creates a real image, where it is planted onto film through a chemical reaction.

 

White light travels through pixels, where it then passes through a prism and the 3 primary colors become dispersed so multiple colors are displayed.

 

Light is collected from distant objects and brought into focus. The eyepiece then takes the light and spreads it out in your field of vision.

 

a laser, shutter, beam splitter, lenses, mirrors and film

 

lens, film, body

 

lens, dichroic prism, screen, colored light, regular mirror and dichroic mirror, light source (white light)

 

Objective lens (can be either mirrors or glass), eyepiece, aperture, pupil

 

Make a chemical record of the pattern of light onto film.

 

make objects really small in size larger/visible

 

control the way energized atoms release photons

 

transmit light signals over large distances from one point to another.

 

White light is sent through a prism that takes the 3 primary colors and disperses them so multiple colors are displayed.

 

The instrument excites atoms and causes them to release photons, which then bounce back and forth until they are emitted.

 

Light hits a splitter where it splits from 1 beam to two. The light then hits mirrors which sends them to correct locations, where they are recorded with film.

 

Light is gathered from a tiny area of a well-illuminated specimen close by. Then it is brought into focus by a lens.

 

display images onto screens or walls

 

control the way energized atoms release photons.

 

make very distant objects visible

 

make a chemical record of the pattern of light onto film.

 

The instrument gives you a "bigger eye" by collecting light from distant objects and bringing it into focus.

 

white light gets changed by pixels, passes through a prism and is then dispersed.

 

light is gathered from a tiny area, which is then brought into focus and magnified by a lens.

 

a laser hits a splitter and then hits mirrors, creating a 3-dimensional image

 

make really small objects larger

 

make distant objects visible

 

display images onto screens or walls

 

generate 3-dimensional images of light

 

A laser, shutter, beam splitter, lenses, mirrors and film.

 

Ocular lens, focus, objective lens, stage, light bulb

 

A flash tube, two mirrors, atoms

 

Lens, dichroic prism, screen, colored light, regular mirror and dichroic mirror, light source (white light)

 

atoms are excited and release photons, which bounce back and forth until they are emitted.

 

Light is gathered from a tiny area of a well-illuminated specimen close by. Then it is brought into focus by a lens.

 

a laser hits a splitter and then hits mirrors, creating a 3-dimensional image

 

light travels down a "hallway" and is then decoded at the end by an optical receiver

 

atoms are excited and release photons, which bonce back and forth until they are emitted out of the device.

 

Light is collected from distant objects and brought into focus. The eyepiece then takes the light and spreads it out in your field of vision.

 

White light travels through pixels, where it then passes through a prism and the 3 primary colors become dispersed so multiple colors are displayed.

 

Light hits a lens, bending it in one direction and a new direction as it leaves. It then converges together and creates a real image, where it is planted onto film through a chemical reaction.

 

cladding, core and a buffer coating

 

a laser, shutter, beam splitter, lenses mirrors and film.

 

Lens, film, body

 

a flash tube, two mirrors and atoms

 

Lens, film, body

 

A flash tube, two mirrors, atoms

 

Ocular lens, focus, objective lens, stage, light bulb

 

Objective lens (can be either mirrors or glass), eyepiece, aperture, pupil

 

Lens, dichroic prism, screen, colored light, regular mirror and dichroic mirror, light source (white light)

 

Ocular lens, focus, objective lens, stage, light bulb

 

Cladding, core and buffer coating

 

A laser, shutter, beam splitter, lenses, mirrors and film.

 

Objective lens (can be either mirrors or glass), eyepiece, aperture, pupil

 

A laser, shutter, beam splitter, lenses, mirrors and film.

 

A flash tube, two mirrors, atoms

 

Cladding, core and buffer coating

 

The instrument collects lots of light from distant objects and brings that light into focus, taking up more space in your field of vision.

 

light hits a lens and gets bent, creating a real image. the image is then planted onto film and leaves an impression by a chemical reaction

 

atoms are excited and release photons, which bounce back and forth until they are emitted out of the device.

 

Light is gathered from a tiny area of a well-illuminated specimen close by. Then it is brought into focus by a lens.