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Crystallin Collection

"Unlocking the Secrets of Crystallin

Background imageCrystallin Collection: Eye lens protein molecule F006 / 9758

Eye lens protein molecule F006 / 9758
Eye lens protein. Molecular model of gammaB-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Eye lens protein molecule F006 / 9695

Eye lens protein molecule F006 / 9695
Eye lens protein. Molecular model of alpha-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Rabbit eye lens protein molecule F006 / 9657

Rabbit eye lens protein molecule F006 / 9657
Rabbit eye lens protein. Molecular model of lambda-crystallin, a structural protein found in the eye lenses of rabbits (family Leporidae)

Background imageCrystallin Collection: Eye lens protein molecule F006 / 9652

Eye lens protein molecule F006 / 9652
Eye lens protein. Molecular model of alpha-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Shrew eye lens protein molecule F006 / 9444

Shrew eye lens protein molecule F006 / 9444
Shrew eye lens protein. Molecular model of eta-crystallin, a structural protein only found in the eye lenses of elephant shrews (family Macroscelididae)

Background imageCrystallin Collection: Eye lens protein molecule F006 / 9367

Eye lens protein molecule F006 / 9367
Eye lens protein. Molecular model of delta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Eye lens protein molecule F006 / 9253

Eye lens protein molecule F006 / 9253
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Eye lens protein molecule C015 / 5153

Eye lens protein molecule C015 / 5153
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Eye lens protein molecule C015 / 5152

Eye lens protein molecule C015 / 5152
Eye lens protein. Molecular model of beta-crystallin, a protein found in the lens of the eye. The regular arrangement of the protein in the lens is thought to be responsible for its transparency

Background imageCrystallin Collection: Lens fibre of an eye

Lens fibre of an eye
Lens fibre from an eye. Coloured scanning electron micrograph (SEM) of the fibre-like cells that form the crystalline lens of the eye

Background imageCrystallin Collection: Gecko eye lens, SEM

Gecko eye lens, SEM
Gecko eye lens. Coloured scanning electron micrograph (SEM) of a freeze fractured lens (crystalline lens) from a geckos eye. The cells are in a stacked linear, fibre-like arrangement

Background imageCrystallin Collection: Eye lens fibres, SEM

Eye lens fibres, SEM
Eye lens fibres. Coloured scanning electron micrograph (SEM) of a freeze-fracture of a lens of an eye, showing the regular arrangement of fibres


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"Unlocking the Secrets of Crystallin: Exploring the Intricate World of Eye Lens Proteins" Captivating images captured through Scanning Electron Microscopy (SEM) reveal the mesmerizing beauty hidden within our eye lenses. These intricate structures are composed of various crystallin proteins, such as F006/9758, F006/9695, F006/9657, F006/9652, F006/9444, F006/9367, and C015/5153. Delving into the molecular realm, researchers have unraveled the unique characteristics of these eye lens protein molecules. Each variant holds its own distinct properties and plays a crucial role in maintaining crystal-clear vision. From rabbits to shrews and beyond, these proteins exhibit remarkable diversity across species. The lens fiber of an eye acts as a scaffold for these crystallin proteins to assemble themselves meticulously. Their precise arrangement ensures optimal transparency and light refraction necessary for sharp visual perception. Intriguingly, SEM imaging also allows us to observe the fascinating architecture of eye lens cells. These specialized cells work tirelessly behind-the-scenes to maintain clarity by continuously producing and organizing crystallin proteins. As we delve deeper into understanding crystallin's complex nature, we uncover invaluable insights that may pave the way for advancements in ophthalmology. By deciphering their roles in preventing cataracts or age-related vision impairments like presbyopia or macular degeneration, scientists strive towards enhancing ocular health worldwide. Crystallin serves as a captivating window into one of nature's most remarkable creations – our eyesight. Through cutting-edge technology and relentless scientific exploration, we inch closer towards comprehending this enigmatic world within our very own eyes.