Archaea Collection

Salt loving halobacteria turns a shallow lake bed red, Lone Pine, California, USA
Salt loving halobacteria turns a shallow salt lake bed red; Lone Pine, California, United States of America

Halobacterium archaea artwork C013 / 5126
Halobacterium archaea artwork. Halobacteria is classed as archaea, a relatively new domain introduced when DNA of bacteria revealed that genes of archaea are more similar to eukaryotes

Pyrococcus furiosus archaea artwork
Pyroccocus furiosus archaea, artwork. Archaea are single-celled organisms that are similar to bacteria but have been found to have higher organism characteristics

Artists concept of Archean stromatolites on the shore of an ancient sea
Dome-shaped stromatolites, averaging three feet high and four feet wide, populate the shallow shore of an ancient sea 3 billion years ago

A variety of micro organisms have ventured out of the ocean and onto two volcanic
A variety of single-celled organisms have ventured out of the ocean and onto the rocky remains of two volcanic calderas, adding color to an otherwise monochromatic landscape

Archaeon enzyme, molecular model F006 / 9459
Archaeon enzyme. Molecular model of an enzyme from Thermoplasma acidophilum. This is the 20S proteasome. A proteasome is a complex type of proteinase (protein-digesting enzyme)

Bacteriorhodopsin protein F006 / 9327
Bacteriorhodopsin protein. Molecular model showing the structure of bacteriorhodopsin (bR), a protein found in primitive micro-organisms known as Archaea. This protein acts as a proton pump

Bacteriorhodopsin protein F006 / 9299
Bacteriorhodopsin protein. Molecular model showing the structure of bacteriorhodopsin (bR), a protein found in primitive micro-organisms known as Archaea. This protein acts as a proton pump

Bacteriorhodopsin protein F006 / 9260
Bacteriorhodopsin protein. Molecular model showing the structure of bacteriorhodopsin (bR), a protein found in primitive micro-organisms known as Archaea. This protein acts as a proton pump

Glutamate transporter protein, molecular model. This is a membrane protein that facilitates the uptake of glutamate by a cell, thus playing an important role in neurology in higher organisms

Chaperonin folding protein C015 / 5560
Chaperonin folding protein, molecular model. Chaperonins are proteins that provide favourable conditions for the correct folding of other proteins

Chaperonin folding protein C015 / 5559
Chaperonin folding protein, molecular model. Chaperonins are proteins that provide favourable conditions for the correct folding of other proteins

Chaperonin folding protein C015 / 5697
Chaperonin folding protein, molecular model. Chaperonins are proteins that provide favourable conditions for the correct folding of other proteins

Chaperonin folding protein C015 / 5698
Chaperonin folding protein, molecular model. Chaperonins are proteins that provide favourable conditions for the correct folding of other proteins

Archaea (Methanosarcina sp. ) SEM C013 / 7189
Archaea (Methanosarcina sp.) scanning electron micrograph (SEM). These primitive archaebacteria have unusual cell walls and membranes and are methane producers

Archaea (Methanosarcina sp. ) SEM C013 / 7190
Archaea (Methanosarcina sp.) scanning electron micrograph (SEM). These primitive archaebacteria have unusual cell walls and membranes and are methane producers

DNA and restriction enzyme, artwork
DNA and restriction enzyme. Computer artwork of double-stranded DNA (deoxyribonucleic acid, blue) and a restriction enzyme protein EcoKI (green)

Iron-hydrogenase molecule. Computer model showing the molecular structure of an iron-hydrogenase ([FE]-hydrogenase) enzyme from the Methanocaldococcus jannaschii archaeon

Bacteriorhodopsin, diagram
Bacteriorhodopsin. Diagram of the molecular structure of bacteriorhodopsin, a protein found in primitive micro-organisms known as Archaea

Bacteriorhodopsin, artwork
Bacteriorhodopsin. Artwork of the molecular structure of bacteriorhodopsin, a protein found in primitive micro-organisms known as Archaea

Grand Prismatic thermal springs aerial
Aerial view of Grand Prismatic thermal spring in Yellowstone National Park, USA. The bright colours are natural. People can be seen walking on the raised trail at the top of this frame giving scale

Night Clepsydra Geyser Yellowstone Park
Long exposure (30 second) exposure of Clepsydra Geyser taken at night by moon light with stars visible in sky. This Geyser is located in the Lower Geyser Basin of Yellowstone National Park in

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"Unveiling the Enigmatic World of Archaea: From Red Lake Beds to Ancient Seas" In the picturesque Lone Pine, California, USA, a stunning phenomenon takes place as salt-loving halobacteria turn a shallow lake bed into a vibrant shade of red. Nature's artistry is at play here, showcasing the resilience and adaptability of archaea. Delving deeper into this mysterious realm, we encounter Pyrococcus furiosus archaea artwork that captivates with its intricate details. The delicate strokes depict these heat-loving organisms thriving amidst extreme conditions, reminding us of their remarkable survival strategies. Halobacterium archaea artwork C013 / 5126 mesmerizes with its vivid colors and patterns. It serves as an artistic representation of these ancient microorganisms that have stood the test of time in saline environments across the globe. Transporting our imagination further back in time, we are greeted by an artist's concept depicting Archean stromatolites on the shore of an ancient sea. These captivating structures were formed by diverse microorganisms venturing out from their oceanic homes onto two volcanic landscapes—a testament to life's tenacity and evolution. Zooming into molecular levels, we encounter fascinating glimpses into the inner workings through images like Archaeon enzyme F006 / 9459 and Bacteriorhodopsin protein F006 / 9327. These molecular models showcase intricate mechanisms employed by these organisms for various biological processes—an awe-inspiring display of nature's ingenuity. Bacteriorhodopsin proteins F006 / 9299 and F006 / 9260 continue to unravel secrets held within archaeal cells. Their unique structures hint at specialized functions crucial for energy production or light sensing—highlighting how even at microscopic scales, life has evolved ingenious solutions to thrive in challenging environments. As our journey through this enigmatic world nears its end, we once again encounter the intricate beauty of Archaeon enzyme molecular models.