Science Park Equipment

Showing 13–24 of 30 results

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    Science Park Equipment

    Globe Time Cylinder Globe Outdoor Science Park Model

    The Cylindrical Time Indicator is a simple astronomical instrument that shows the time of the day using the Sun’s shadow. It consists of a cylindrical pillar or tube with a metal rod (gnomon) fixed onit. As sunlight falls on the rod, its shadow moves across markings on the cylinder, indicating the time. Scientific Concept Works on the principle of the apparent motion of the Sun in the sky. The shadow position changes with time due to Earth’s rotation. Shows how ancient people measured time before clocks were invented.

  • Gyroscope Outdoor Educational Park Model
    Science Park Equipment

    Gyroscope Outdoor Educational Park Model

    A gyroscope is a rotating wheel or disc mounted so that it can spin freely in any direction. In a science park model, the wheel is rotated at high speed, and visitors can observe that the spinning gyroscope resists changes in its orientation. It appears to “balance itself” in ways that seem surprising. Based on the principle of conservation of angular momentum. A spinning object tends to keep its axis of rotation stable, resisting tilting or turning. Demonstrates precession – the slow circular movement of the gyroscope axis when an external force is applied.

  • Inclined Plane Educational Science Park Model
    Science Park Equipment

    Inclined Plane Educational Science Park Model

    An inclined plane is a simple machine made by tilting a flat surface. It allows heavy objects to be moved upward or downward with less effort compared to lifting them vertically. The longer the slope, the less force is required. In a science park model, students can roll or slide objects on the slope to see how the inclined plane makes work easier.Learning Outcome Demonstrates the principle of mechanical advantage. Shows how force and distance are related.

  • Kaleidoscope Science Park Model Outdoor
    Science Park Equipment

    Kaleidoscope Science Park Model Outdoor

    Here’s how it works:Inside the tube, there are two or more mirrors placed at an angle (usually 60°).At one end, there are small pieces of colored glass, beads, or plastic.When light enters and you rotate the tube, the mirrors reflect these pieces multiple times,forming repeating patterns.Educational use:Teaches reflection of light and symmetry.Fun tool for creativity and visual learning

  • Lift Yourself Outdoor Science Park Model
    Science Park Equipment

    Lift Yourself Outdoor Science Park Model

    It consists of a strong seat or chair attached to a pulley system.The user sits on the seat and pulls the rope downward.By applying force, they lift themselves upward using the mechanical advantage of pulleys.The more pulleys used, the easier it becomes to lift oneself (less effort needed).Demonstrates the principle of pulleys, force, and mechanical advantage.Shows how simple machines reduce effort.Explains the concept of work done, force, load, and effort.Engages students in hands-on science learning.

  • Lissajous Curve Science Park Model
    Science Park Equipment

    Lissajous Curve Science Park Model

    How it’s formed: One wave controls the movement along the X-axis, and another wave controls the Y-axis. Depending on their frequency ratio and phase difference, different shapes appear — like ellipses, circles, figure-eights, or complex loops. Equation: xA=sin (at+δ),yB=sin (bt)frac{x}{A} = sin(at + delta), quad frac{y}{B} = sin(bt)Ax =sin(at+δ),By =sin(bt) where A and B are amplitudes, a and b are frequencies, and δ is the phase difference.

  • Math Tree Math Park Model
    Science Park Equipment

    Math Tree Math Park Model

    How it works:It’s usually a tube with two or three mirrors placed inside at an angle.At one end, there are small colored beads, glass, or plastic pieces.When you look through the other end and rotate the tube, light reflects between the mirrors,making symmetrical, ever-changing patterns.Educational use:Teaches reflection of light and symmetry.Fun tool for creativity and visual learning.

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    Science Park Equipment

    Newtons 3rd Law Of Motion Outdoor Working Model

    When an object exerts a force on another object, the same force acts on that object by the other object in the opposite direction is called Newton’s third law of motion. Law: “Every action has an equal and opposite action.

  • Newtons Colour Disc Science Park Model
    Science Park Equipment

    Newtons Colour Disc Science Park Model

    How it works:The disc is divided into seven coloured segments — red, orange, yellow, green, blue, indigo, and violet (the colours of the rainbow) When the disc is spun quickly, the colours blend together because of persistence of vision.The human eye perceives the mix of these colours as white light.

  • Passing Parabola Mathematics Outdoor Science Park Model
    Science Park Equipment

    Passing Parabola Mathematics Outdoor Science Park Model

    Passing through a point: If a parabola passes through a specific point (x1,y1)(x_1, y_1)(x1 ,y1 ), then those coordinates satisfyits equation.You can use this to find the equation of a parabola if other conditions are known (like vertex oraxis).Educational use:Explains concepts in algebra, geometry, and physics (like projectile motion).Commonly used in math labs to demonstrate quadratic functions.

  • Periodic table outdoor science park
    Science Park Equipment

    Periodic table outdoor science park

    Rows (Periods): Show elements in order of increasing atomic number. Columns (Groups): Contain elements with similar properties (e.g., metals, non-metals, noble gases). Blocks: s, p, d, and f blocks indicate electron orbital types. Helps predict element behaviour, bonding, and reactivity. Developed by Dmitri Mendeleev, later updated to include new elements. Educational importance: Essential for learning chemistry basics. Makes it easy to compare properties and understand trends in the elements.

  • Persistence Of Vision Science Park Model
    Science Park Equipment

    Persistence Of Vision Science Park Model

    Human eye retains an image for about 1/16th of a second after it disappears. If pictures change faster than this, they overlap in our brain, creating the illusion of smooth motion. This is the principle behind movies, cartoons, and animations. Learning Outcome Explains how motion pictures and television work. Shows the link between science of vision and entertainment technology. Makes abstract concepts of optics and perception easy to understand.

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