
Photoelectric Effect1970-01-01T00:00:00+00:00PHOTOELECTRIC effect showing photons striking a metal surface and electrons being ejected. Purple spheres represent photons (e.g. of ultraviolet light) striking a metal surface. These photons "knock" electrons (shown as bright green spheres) out of the...PT24Shttps://d38zjy0x98992m.cloudfront.net/e6bd1390-1d3b-4733-a576-e19a8bdbfd15/PHOTOELECTRIC_UHD_265_xlarge.jpghttps://d38zjy0x98992m.cloudfront.net/e6bd1390-1d3b-4733-a576-e19a8bdbfd15/PHOTOELECTRIC_UHD_265_mp4_hd_video.mp4https://www.scientific.pictures/-/galleries/physics/-/medias/e6bd1390-1d3b-4733-a576-e19a8bdbfd15/pricehttps://www.scientific.pictures/-/galleries/physics/-/medias/e6bd1390-1d3b-4733-a576-e19a8bdbfd15/price
Standing Wave Summation
Animation showing how the standing wave is formed by the addition of a wave (green) and its reflection (red). The resulting (purple) wave is formed by the sum of these two waves. Notice how at fixed points the standing wave has no amplitude. These points are called nodes and their positions are shown by fine grey vertical lines. Standing waves like these are set up in musical instruments and there are various harmonic frequencies that can form these standing waves inside a given resonator.
Animation ID: Standing-wave-summation-perspective-FHD-Russell-Kightley
Duration: 00:02
copyright Russell Kightley
Animation resolution: 1920x1080 pixels @ 30.0 fps, ~141.9 Mbits/s
Animation keywords: addition, amplitude, crest, frequency, harmonic, instrument, interference, light, music, musical, nodal, node, nodes, oscillate, oscillating, oscillation, pattern, phase, physics, point, propagate, propagated, propagation, pulse, pulses, resonance, resonator, ripple, sinuoidal, standing, standing wave, sum, superposition, superpositioning, transverse, travelling, trough, undulate, undulation, vibrating, vibration, wave, waveform, wavelength, waves
Standing Wave Summation2020-08-17T08:09:58ZAnimation showing how the standing wave is formed by the addition of a wave (green) and its reflection (red). The resulting (purple) wave is formed by the sum of these two waves. Notice how at fixed points the standing wave has no amplitude. These poin...PT2Shttps://d3e1m60ptf1oym.cloudfront.net/1a7eaa93-c9d9-40e9-b961-6668c7598739/Standing-wave-summation-perspective-FHD-Russell-Kightley_xlarge.jpghttps://d3e1m60ptf1oym.cloudfront.net/1a7eaa93-c9d9-40e9-b961-6668c7598739/Standing-wave-summation-perspective-FHD-Russell-Kightley_mp4_hd_video.mp4https://www.scientific.pictures/-/galleries/physics/-/medias/1a7eaa93-c9d9-40e9-b961-6668c7598739/pricehttps://www.scientific.pictures/-/galleries/physics/-/medias/1a7eaa93-c9d9-40e9-b961-6668c7598739/price

Standing Wave Summation1970-01-01T00:00:00+00:00Animation showing how the standing wave is formed by the addition of a wave (green) and its reflection (red). The resulting (purple) wave is formed by the sum of these two waves. Notice how at fixed points the standing wave has no amplitude. These poin...PT4Shttps://d3e1m60ptf1oym.cloudfront.net/e5f969bd-5bf7-44ea-975e-8f04aab7f149/STANDING-WAVE-Russell-Kightley-FHD_xlarge.jpghttps://d3e1m60ptf1oym.cloudfront.net/e5f969bd-5bf7-44ea-975e-8f04aab7f149/STANDING-WAVE-Russell-Kightley-FHD_mp4_hd_video.mp4https://www.scientific.pictures/-/galleries/physics/-/medias/e5f969bd-5bf7-44ea-975e-8f04aab7f149/pricehttps://www.scientific.pictures/-/galleries/physics/-/medias/e5f969bd-5bf7-44ea-975e-8f04aab7f149/price