General Simulation Description

DIFFRACTION

Discover how light bends around obstacles and openings — explore the phenomenon of diffraction and visualize wave behavior in immersive VR.

Physics

10 minutes

DIFFRACTION

About the laboratory

Experience the wonders of VR physics with our diffraction simulation! Using a divergent monochromatic beam of light, this simulation allows you to observe the intensity distribution of a diffraction pattern on a screen. VR lessons offer an engaging and informative experience that is perfect for students and physics enthusiasts alike. Discover the world of diffraction like never before with XReady Lab!

Experience our VR lessons through real recordings

Cambridge (Science/Physics)

Lower Secondary: Interference
Upper Secondary: IGCSE (Fresnel diffraction), O-level (Dispersion, Fresnel diffraction)
Advanced: AS-level (Interference and coherence), Pre-U (Fraunhofer diffraction)

International Baccalaureate (Science/Physics)

Middle Years Programme: Fresnel diffraction
Diploma Programme: Fraunhofer diffraction

National curriculum in England (Physics)

Key stage 3: Wave optics
Key stage 4: Interference, Diffraction

Indian curriculum CBSE (Science/Physics)

Secondary stage (classes 9-10): Fresnel diffraction/Fraunhofer diffraction
CBSE Class 12 board exam: Interference/Diffraction

Scuola secondaria in Italia (Scienze/Physics)

Unità 1: Introduzione alla diffrazione di Fresnel
Unità 2: Proprietà delle onde elettromagnetiche
Unità 3: Principi della diffrazione di Fresnel

Next-Generation Science Standards (Physical Sciences)

Recommended for HS (Waves and Electromagnetic Radiation)

National curriculum of the Netherlands (Physics)

VMBO: Definition of Fresnel diffraction and its importance in wave optics. Understanding the difference between Fresnel and Fraunhofer diffraction. Calculation of the diffraction pattern using the Huygens-Fresnel principle. Applications of Fresnel diffraction in fields such as holography and microscopy.
HAVO: Analysis of the diffraction pattern produced by various apertures, such as slits and circular apertures. Understanding the concept of zone plates and their use in focusing X-rays. Calculation of the diffraction pattern for multiple apertures using the principle of superposition. Use of Fresnel diffraction in designing optical systems, such as laser beam shaping and diffractive optical elements.
VWO: Advanced topics in Fresnel diffraction, including the diffraction of non-circular apertures and the use of numerical methods to calculate diffraction patterns. Understanding the relationship between Fresnel diffraction and Fourier optics, including the use of Fourier transforms to calculate diffraction patterns. Analysis of diffractive optical elements, such as gratings and holograms. Introduction to wavefront shaping and its applications in Fresnel diffraction, including spatial light modulators.

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