DCS # | DEMONSTRATION | REFERENCE | ABSTRACT |
4D10.00 | Brownian Motion | | |
4D10.10 | Brownian motion cell | PIRA 200 | View a smoke cell under a microscope. |
4D10.10 | Brownian motion smoke cell on tv | 4D10.10 | Look through a microscope at a small illuminated cell filled with smoke. |
4D10.10 | Brownian motion | Hh-3 | Observe the motion of particles in a smoke cell through a microscope. |
4D10.10 | Brownian motion smoke cell | A-48 | Observe the Brownian motion smoke cell through a low powered microscope. |
4D10.10 | Brownian motion cell | M-22j | Observe a small smoke cell through a microscope. |
4D10.10 | Brownian motion cell | A-1b | View a smoke cell under a microscope. |
4D10.10 | brownian motion | Disc 16-07 | A smoke cell is viewed under 100X magnification. |
4D10.11 | Brownian motion - virtual image | A-51 | The optical setup for viewing Brownian motion by enlarged virtual image. |
4D10.12 | Brownian motion | AJP 44(2),188 | Use a laser beam to illuminate a smoke cell under a microscope viewed with TV |
4D10.12 | smoke cell | 27-8.1 | Project the Brownian motion smoke cell with TV Picture. |
4D10.13 | Brownian motion on tv | AJP 55(10),955 | Polystyrene microspheres are used in place of the smoke cell, the eyepiece of the microscope is removed and the image is formed on the shielded TV tube. |
4D10.13 | smoke cell for tv | AJP 41(2),278 | Modifications to the standard Welch smoke tube for use with television projection. |
4D10.14 | Brownian motion - light scattering | AJP 37(9),853 | Pass a laser beam through a cell with a suspension of polystyrene spheres. Hold a card up and show the fluctuations of the scattered light. |
4D10.15 | Brownian motion - macroscopic cell | AJP 40(5),761 | Ball bearings hit a piece of stressed plexiglass Crossed Polaroids render the balls invisible. |
4D10.20 | Brownian motion simulator | PIRA 1000 | |
4D10.20 | Brownian motion simulation | 4D10.20 | Place many small and a few large balls on a vibrating plate on an overhead projector. |
4D10.20 | Brownian motion simulation | Disc 16-08 | A large disc is placed in with small ball bearings in the shaker frame on the overhead projector. |
4D10.21 | Brownian motion simulation | 27-7.6 | A Brownian motion shaker for the overhead projector. Includes the original references to Brown and Einstein. |
4D10.25 | Brownian motion simulation | AJP 47(9),827 | The Cenco kinetic theory apparatus is modified by mounting a baffle in the center of the tube to reduce the spinning of the particles, and suspending a 1 cm bead in one half of the chamber. |
4D10.30 | colloidal suspension | PIRA 1000 | |
4D10.30 | Brownian motion - colloidal | A-49 | Place a colloidal metal suspension made by sparking electrodes under water on a microscope slide. |
4D10.31 | formation of lead carbonate crystals | 27-8.5 | Project the formation of flat-sided crystals of lead carbonate in a glass cell on a screen. See Sutton, A-50. |
4D10.31 | rotary Brownian motion | A-50 | Observe a dilute suspension of flat lead carbonate crystals under low magnification. |
4D10.33 | Brownian motion in TiO2 suspension | 27-8.2 | A TV camera looks through a microscope at a water suspension of TiO2. |
4D10.34 | Brownian motion corridor demo. | AJP 32(7),vi | Dow latex spheres in water through a 1900 power projection microscope, mechanical analog with a 2" puck and 1/4" ball bearings. |
4D10.34 | Brownian motion corridor demo. | 27-8.4 | A corridor demonstration of Brownian motion of Dow latex spheres using a projection 1900 power microscope. |
4D10.40 | Dow spheres suspension | PIRA 1000 | |
4D10.40 | Brownian motion of a galvanometer | AJP 31(12),922 | An optical-lever amplifier for studying the Brownian motion of a galvanometer. |
4D10.40 | Brownian motion with Dow spheres | 27-8.3 | Small polystyrene spheres made by Dow are suspended in water for illustrating Brownian motion. |