Science Alive! mobile exhibits are packaged in individual, colourful "plastic box" containers. These containers support each interactive at table top height for display and use. When inverted, the bins become the storage containers and table tops are the lids. The exhibits are highly portable and therefore suitable for outreach away from the main venue. The "plastic box" containers stack together taking up minimum space.

The interactives are all stand-alone self contained units and may be utilised as a complete exhibition or integrated into an existing exhibition or theme.

Themes include

Bin Specifications

Polyethylene durable construction bins

Bin tops

Exhibit Graphic Stands Specifications

Accompanying graphics for all exhibits:

Powered exhibits require two single phase 220V

Picture of Bin

Inertia - ST 13

Roll different shapes (ball, cylinder or disc) down a slope, see the order in which they reach the bottom.

Specifications

Non-powered Interactive.

mo

Hand Battery - ST 14

By placing hands on different metal plates, an electric current can be generated. Visitors can hold hands to see if the effect is increased, as well as moistening and rubbing hands.

Specifications

Non-powered Interactive.

mo

Chaotic Pendulum - ST 15

Flick the arms of the chaotic pendulum and see the myriad of rotational swing combinations that are produced.

Specifications

Non-powered Interactive.

mo

Energy Transfer Pendulum - ST 16

Two pendulums hanging from either end of a flexible spring transfer the swinging motion of one pendulum to the other and back again.

Specifications

Non-powered Interactive.

mo

How a CD Works - ST 17

By looking at the CD model find out how a digital message is picked up and transmitted from a CD into sound so that it can be heard.

Specifications

Powered Interactive.

mo

Heat to Electricity - ST 18

A panel which when touched on one side, produces an electric current.

Specifications

Non-powered Interactive.

mo

Spinning Water - ST 19

Rotate a thin tank of water and see how the water appears to climb up the sides of the tank. Greater speed increases the effect.

Specifications

Non-powered Interactive.

mo

PE to KE Different Mass - ST 20

Two ramps are the same height but have balls of different mass. Release the balls down the ramp to collide with a pendulum. The amount of energy transferred is demonstrated by the distance the pendulum moves.

Specifications

Non-powered Interactive.

mo

PE to KE Different Heights - ST 21

Two balls with the same mass are released down two ramps of different heights. The balls travel down the ramps to collide with a pendulum. The amount of energy transferred in the system is shown by the distance the pendulum is displaced.

Specifications

Non-powered Interactive.

mo

Electricity to Heat - ST 22

When the current is turned on in one direction, the visitor can feel the pad heating up. When the current is reversed the visitor can feel it becoming cold. This demonstrates the Peltier Principle.

Specifications

Powered Interactive.

mo

Iris Operation - ST 23

Look into a small concave mirror and switch on the light to see how the iris of your eye contracts to limit the amount of light entering.

Specifications

Powered Interactive.

mo

Magnetic Eddy Currents - ST 24

Compare how fast a magnetic disk falls down an aluminium tube (with holes cut in the side so you can see) compared with a non-magnetic disk.

Specifications

Non-powered Interactive.

mo

Colour Mixing - ST 25

Turn on each of the three primary colours - blue, red and yellow, to see how secondary colours form. When all three lights are on white light is produced. Place a hand under the lamps to create coloured shadows.

Specifications

Powered Interactive.

mo

Pneumatic Ratios - ST 26

Experiment with pneumatic ratios. Pump the short fat ram and the long narrow ram moves a long distance. Pump the long narrow ram and the short fat ram moves a short distance.

Specifications

Non-powered Interactive.

mo

Arch Bridge - ST 27

Build an arched bridge over the support. Remove the support and bridge is free-standing and stable.

Specifications

Non-powered Interactive.

mo

Speed of Sound in Different Materials

By striking the ends of different materials - wood, concrete and aluminium - visitors can explore the time it takes for sound to travel through the material. A digital readout displays the time in milliseconds.

Specifications

Powered Interactive.

mo

Seeing Sounds

Strike the tuning fork. Watch the wave patterns on the oscilliscope. Visitors can also see the wave patterns formed by their voice and compare.

Specifications

Powered Interactive.

mo

Longitudinal and Transverse Waves

A longitudinal wave is created by compressing a wire slinky and releasing it. Move a knob sideways to see a transverse wave. This demonstrates the compression and decompression of sound waves.

Specifications

Non-powered Interactive.

mo

Speed of Sound in Air

The visitor speaks into a mouth piece. The sound travels through a long tube inside the bin and can be heard at the earpiece after a short delay.

Specifications

Non-powered Interactive.

mo

Sound Tubes 1

The visitor strikes metal pipes of the same length but different diameters. How does the sound change from one pipe to the next? Try to play a tune.

Specifications

Non-powered Interactive.

mo

Sound Tubes 2

The visitor strikes metal pipes of different lengths but the same diameter. How does this affect the sound produced. Compare this with Sound Tubes 1.

Specifications

Non-powered Interactive.

mo