Students kit Fundamental physics
Grade level: 5–10
Use: Demonstration experiments in physics lessons
The Demo Set Elementary Physics enables teachers to conduct 96 fundamental experiments covering mechanics, energy, heat, acoustics, optics and electricity. The focus is on clearly demonstrating and understanding fundamental laws of physics rather than on the precise measurement of physical quantities.
The individual components included in the set can be used in a variety of ways and combined for different experimental setups. Illustrated experiment instructions support teachers in setting up and conducting the experiments. According to the product description, no additional equipment or devices are required. This also allows the demo set to be used outside a dedicated science laboratory.
The experiments cover key areas of elementary physics and allow a wide range of physical principles and relationships to be demonstrated in the classroom.
Technical specifications
Size of kit: 540 x 450 x 150 mm
The students determine the volume of a solid.
This experiment examines force measurement.
The students measure the pendulum oscillations using a homemade pendulum.
Using a balloon, balloon valve, trolley and valve fork, students can investigate the effect of forces.
The students observe the inertia of the mass with the help of a steel ball.
How does a two-sided lever work? With the help of a profile rail, a balance and a force gauge, the students can investigate and find out.
This experiment shows how a spring force gauge works and the relationship between the mass of a body and the force exerted.
A beam balance can be used to compare an unknown mass of a body with a known mass of a weight.
The students build a running weight scale and learn the difference to a beam scale.
In this experiment, the students investigate the properties of the fixed roller.
In this experiment, the principle of the pulley is investigated.
How does the water level in a beaker behave if you tilt it sideways a little?
Two filter tubes are connected to each other and filled with liquid. The students observe what happens when they are stationary and what happens when a filter tube is lowered.
What happens when you fill a beaker with liquid and immerse a capillary tube vertically?
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The students investigate the pressure distribution in liquids using a suction bottle and a hose.
In this experiment, pressure is applied to a liquid that is in an enclosed space.
Students investigate the buoyancy of liquids by immersing them in water.
In this experiment, students learn about Archimedes' law.
Using an Erlenmeyer flask, students investigate swimming, floating, and sinking.
Using a paddle wheel, students can observe that water has power.
This experiment shows that air is a body.
This experiment investigates the fact that trapped air can be compressed, but can also expand.
The students build a U-tube manometer and observe the water column when pressure is applied in a suction bottle.
What happens when gases heat up or cool down? In this experiment, the students can immediately observe the changes in volume when a gas heats up and cools down.
This experiment shows the positive and negative pressure of the trapped air in the U-tube.
In this experiment, a suction bottle with a funnel is placed in a tub filled with water. Air is now pulled out with the help of a syringe. The students observe what happens now and learn how a suction hook works.
The students learn about the model of a spray bottle.
In this experiment, a balloon is filled with air using a balloon valve and placed on an air cushion plate. The students observe what happens when the valve is opened.
An inflated balloon is held over a paddle wheel with the balloon valve. The valve is then opened and the students observe the paddle wheel.
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We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
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We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
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This experiment investigates the stability and center of gravity of a body.
With the help of a profile rail, a trolley and a force gauge, the students can investigate and find out about friction.
How does a one-sided lever work? With the help of a profile rail, a trolley and a dynamometer, the students can investigate and find out.
In this experiment, the students observe the center of gravity using a homemade cardboard body.
In this experiment, the students investigate the properties of the loose roll.
A force is required to pull a body upwards on an inclined plane. In this experiment, the students find out why this is the case.
In this experiment, the surface tension between the water surface and the underside of an air cushion plate is investigated.
What happens if you put a plastic plate on top of a cup filled with water, turn them both over, and then lift them up?
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We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
We will shortly provide you with a description of the experiment at this point.
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- 1 × Beaker, 500 ml with 2 scales
- 1 × Bimetallic strip
- 2 × Bridge plug
- 1 × Triangular bridges
- 1 ×
- 1 ×
- 1 × Electric motor with 4 mm plugs
- 1 ×
- 1 × Burner
- 2 × Lamp Holder MES
- 2 ×
- 1 × Weight set for beam balance
- 1 × Glass tubing, straight, 100 mm with jet
- 1 × Glass tubing, straight, 200 mm
- 1 × Bulb,MES, 2,5V/0,1A clearset of 10 pcs.
- 1 × Bulb 4V / 1 A
- 1 ×
- 2 × Rubber stopper with 6 mm bore
- 1 × Rubber stopper 24/19 mm
- 1 ×
- 1 × Heating wire, covered, 0,20 mm Ø
- 1 × Heat protection gauze
- 4 × Tubular clips, 5 mm
- 3 × Cross base
- 2 × Crocodile clip with 4 mm plug
- 1 × Ball, nickel-plated steel
- 1 × Screen translucent, plastic
- 1 × Plastic beaker, 100 ml
- 2 ×
- 2 × Plastic box 140/50/35 mm
- 1 × Hearing tube
- 1 × Syringe with nozzle, 30 ml
- 1 × Friction rod
- 1 × Copper wire with insulation
- 1 ×
- 1 × Coloring agent blue (food color)
- 1 ×
- 1 ×
- 1 × Pulley with hook
- 1 × Balloons with reinforced surface tension
- 1 ×
- 1 × Measuring cylinder, PP, 25 ml
- 1 × Metal axle, 125 mm
- 1 × Needle support
- 1 × Needle support with plug
- 1 × Diaphragm with arrow
- 1 × Beaker, Duran, tall form, 50 ml
- 1 × Erlenmeyer flask, Duran 25 ml
- 1 × Caster with iron powder
- 1 ×
- 1 ×
- 1 × Lever switch arm with plug
- 1 × Dynamometer, 1 N
- 1 × Screen white, plastic
- 3 ×
- 2 × Plastic box, 105/90/50 mm
- 1 × AA battery, 1.5 V, alkaline
- 1 ×
- 1 × Test tube, 100 mm, plastic
- 1 × Pulley, unmounted, 58 mm dia.
- 1 × Carriage
- 1 ×
- 1 × Suction flask
- 1 × Paddle wheel
- 1 ×
- 1 × Tube coupling
- 1 × Cord, demonstration, 1 mm dia.
- 1 × Floating platform
- 1 × Silicone tubing, 7/1,5 mm
- 1 × Spools of string with dog-bone ends
- 1 × Mirror, plane, glass
- 1 × Coil with core and plugs
- 2 × Magnet rod AlNiCo, north pole marked red
- 1 × Plug-in element base
- 1 ×
- 1 ×
- 1 ×
- 2 × Scale plan, yellow, with bows
- 1 ×
- 1 × Compass card
- 1 × Angled stand base
- 1 ×
- 1 × Prism, equilateral, 25 x 25 mm
- 1 × Friction rubber, wool
- 1 × Lever switch contact with plug
- 1 ×
- 1 × Spring 100 mm / 12 N
- 1 × Thermometer, student type –25 to +50 °C
- 1 × Beaker w. punctured base
- 1 × Slide holder
- 1 × Storing diagram,int.vers.(Fundamental Physics)
- 1 × Spring steel strip with oscillation head, 300 mm
- 1 × Clamp, 14 mm Ø with notch
- 1 × Clamp, 25 mm Ø with notch
- 1 × Clamp, 8 mm Ø with notch
- 1 × Lever with three bores and clamp socket
- 2 × Clamp block
- 1 × Holding clip, 20 mm Ø, with notch
- 1 × Air cushion disc with bore 8/6 mm
- 1 × Sound box, 3 parts
- 1 × Metal plate, 150 mmØ
- 2 ×
- 1 ×
- 1 ×
- 2 ×
- 1 ×
- 2 ×
- 1 ×
- 2 ×
- 2 ×
- 2 ×
- 1 × Projection box, black
- 1 × Friction pad (foam) 95/45/10 mm
- 2 × Cord stretcher
- 1 × Sand timer, 1 minute
- 1 × Foam insert 1 for 16005, 505x355x35 mm
- 1 × Foam insert 2 for 16005, 515x350x85 mm
- 1 × Lidfoam grey,515x355x10mm
- 1 × Slit diaphragm 2/1
- 1 × Tuning fork, 95 mm long not tuned
- 1 × U-shaped tube, perspex
- 1 ×
- 2 ×
- 1 ×
- 3 ×
- 1 ×
- 1 ×