Spectrum Collection (#13)

Light through prisms
Multiple exposure of white light through a triangular prism. White light passing through a triangular prism is split into its constituent wavelenghts, forming the colours of the rainbow

Flowers under red light. Colour is the result of an object reflecting and absorbing different parts of the visible (light) spectrum. Only reflected light contributes to an objects colour

Photo of spectral colours in prism
Photograph of the spectral colours produced by passing white light through a prism

Light spectrum from electronic flash

Prism splitting light
White light passing through triangular prism

Visible light spectrum produced from electronic flash and prism

te light passed through a prism
Refraction. A beam of white light passed through an equilateral triangular prism. The light is split into its component wavelengths, producing a spectrum

Flowers under blue light. Colour is the result of an object reflecting and absorbing different parts of the visible (light) spectrum. Only reflected light contributes to an objects colour

Soap film patterns. When white light is shone on a soap film (a thin mix of soap and water), coloured interference patterns are formed that correspond to the thickness of the film

Light split into colours by a prism
Light spectrum. Computer artwork of a beam of white light being split into its constituent colours as it passes through a glass prism

Newtons rings on clouds
Newtons rings. This is an optical effect that is produced by interference between light reflected from a hemispherical surface and a flat plane. It can be caused by photographic lenses

Flowers under white light. The foliage and flowers appear in their natural colours under white light. Colour is the result of an object reflecting and absorbing different parts of the visible (light)

Betelgeuse emission spectrum
Sirius emission spectrum. This multicoloured band is obtained by recording what wavelengths of light (each seen as a different colour) are emitted by the star Betelgeuse (Alpha Canis Majoris)

Omicron Ceti emission spectrum. This multicoloured band is obtained by recording what wavelengths of light (each seen as a different colour) are emitted by the star Omicron Ceti (Mira Ceti)

Pleiades emission spectra. These multicoloured bands are obtained by recording what wavelengths of light (each seen as a different colour) are emitted by each star in the open cluster Pleiades

South America; Latin America; Argentina; Brazil; Iguacu Falls

SA, Chile, Landscape, aerial

Light from stained glass windows on pillars in Lincoln Cathedral UK
Ashley Cooper / SpecialistStock

a rainbow over Bassenthwaite Lake in the Lake District UK
Ashley Cooper / SpecialistStock

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"Spectrum: Unveiling the Colors of Science, Art, and Nature" Step into a world where science meets art and nature reveals its true colors. The concept has fascinated humanity for centuries, unraveling secrets that span from the depths of space to the intricate patterns found in fractals. Let us embark on a captivating journey through time and knowledge. In 1954, the mass spectrometer emerged as a groundbreaking invention, enabling scientists to analyze matter with unprecedented precision. Its arrival marked a turning point in scientific research, unlocking new realms of understanding. Meanwhile, back in 1908, an ingenious paint chart was introduced - an innovative tool that revolutionized color selection for artists worldwide. This humble creation empowered painters to explore endless possibilities on their canvases. Speaking of colors, Robert Arthur Wilson's color wheel became an iconic symbol in artistic circles. With its harmonious arrangement of hues and shades, it provided guidance for countless creators seeking aesthetic perfection. But let us not forget about the stars above; they too have their own spectral tales to tell. Diagrams showcasing stellar classes and luminosity remind us how Sir Isaac Newton's pioneering work paved the way for our comprehension of light's behavior. Delving deeper into this realm is H-He-Hg emission spectra C017/7260 – a mesmerizing sight that captures elements emitting distinct wavelengths when energized. It serves as a testament to mankind's ability to decipher nature's language through scientific instruments. James Clerk Maxwell enters our narrative next – his caricature representing his significant contributions to electromagnetic theory. His profound insights laid the foundation for comprehending light as part of a larger electromagnetic spectrum. The spectroscope by Bunsen and Kirchhoff takes center stage next; dating back to around 1860 but published later in 1880 – it allowed scientists unparalleled glimpses into unseen worlds by analyzing light emitted or absorbed by various substances. Venturing beyond traditional boundaries brings us to the captivating Mandelbrot fractals.