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Membrane Collection (page 11)

The intricate anatomy of the human ear is beautifully depicted in this lithograph, published in 1876

Background imageMembrane Collection: Small intestine lining, light micrograph

Small intestine lining, light micrograph
Small intestine lining. Light micrograph of a section through the finger-like projections (villi) of the duodenum, the uppermost part of the small intestine

Background imageMembrane Collection: Mature poppy ovary, light micrograph

Mature poppy ovary, light micrograph
Mature poppy ovary. Light micrograph (LM) of a cross-section through a mature poppy ovary, which is incompletely divided by septa (membranes) that do not meet in the centre

Background imageMembrane Collection: Influenza virus structure, artwork

Influenza virus structure, artwork
Influenza virus structure, cutaway artwork. The core of the virus is its genetic material, here 8 coloured ribbons of single-stranded RNA (ribonucleic acid)

Background imageMembrane Collection: Orchid tuber, light micrograph

Orchid tuber, light micrograph
Orchid tuber. Polarised light micrograph of a transverse section through the root tuber of an orchid (Phaius grandifolius) showing starch grains (blue-red and yellow-green)

Background imageMembrane Collection: ZP3 glycoprotein molecule

ZP3 glycoprotein molecule
ZP3 glycoprotein. Computer artwork of a molecule of ZP3 (zona pellucida glycoprotein 3), a sperm receptor in the external membrane (zona pellucida) of a female germ cell (egg)

Background imageMembrane Collection: ATPase muscle enzyme

ATPase muscle enzyme
Calcium pumping ATPase enzyme. Computer model of an electrostatic potential surface map of part of the ATPase enzyme that pumps calcium in and out of muscle cells and controls muscle contractions

Background imageMembrane Collection: Horseshoe clam, Hippopus hippopus, Rongelap, Marshall Islands, Micronesia

Horseshoe clam, Hippopus hippopus, Rongelap, Marshall Islands, Micronesia
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Fluted giant clam, Tridacna squamosa, Rongelap, Marshall Islands, Micronesia

Fluted giant clam, Tridacna squamosa, Rongelap, Marshall Islands, Micronesia
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Giant clam, Tridacna gigas, Rongelap, Marshall Islands, Micronesia

Giant clam, Tridacna gigas, Rongelap, Marshall Islands, Micronesia
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Small giant clam, Tridacna maxima, surrounded by lobe coral, Porites lutea, Namu atoll

Small giant clam, Tridacna maxima, surrounded by lobe coral, Porites lutea, Namu atoll, Marshall Islands (N. Pacific)
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Fluted giant clam, Tridacna squamosa, Rongelap, Marshall Islands, Micronesia

Fluted giant clam, Tridacna squamosa, Rongelap, Marshall Islands, Micronesia
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Horseshoe clam, Hippopus hippopus, Rongelap, Marshall Islands, Micronesia

Horseshoe clam, Hippopus hippopus, Rongelap, Marshall Islands, Micronesia
Andre Seale / SplashdownDirect

Background imageMembrane Collection: Bacterial cell

Bacterial cell, computer artwork. This is ageneralised bacterium, illustrating features ofdifferent bacterial types that would not becombined in a single cell



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The intricate anatomy of the human ear is beautifully depicted in this lithograph, published in 1876. One notable feature highlighted here is the membrane, which plays a crucial role in transmitting sound waves to our auditory system. Moving on to cellular structures, the rough endoplasmic reticulum (ER) takes center stage under a transmission electron microscope (TEM). This network of membranes within cells is responsible for protein synthesis and transport. Artwork showcasing different cell types also emphasizes the significance of membranes. From the delicate cell membrane itself, represented by artwork C013 / 7467, to mitochondria seen through TEM imaging - these organelles possess their own unique membranes that regulate various cellular functions. Intriguingly, even chloroplasts have their own distinct membrane structure as revealed by artwork dedicated to studying photosynthesis. These specialized organelles found in plants are responsible for converting sunlight into energy. Beyond biology, membranes find relevance elsewhere too. Think about damp-proofing measures taken in houses – membranes act as barriers against moisture infiltration and protect our living spaces from potential damage. However, not all mentions of they are positive. Bacterial meningitis can be detected through MRI scans where inflammation affects the protective brain meninges' integrity. Understanding how pathogens breach these defensive layers helps diagnose and treat such infections effectively. Nature's wonders also exhibit fascinating adaptations involving membranes; take Plecotus sp. , commonly known as long-eared bats with their remarkable hearing abilities thanks to specialized ear membrane structures aiding echolocation skills. Zooming into finer details under TEM again reveals eye muscles' intricate arrangement (TEM C014 / 1468), highlighting how well-organized muscle fibers rely on precise membranous connections for coordinated movement and vision control. Lastly, let's not forget intestinal microvilli observed through TEM – finger-like projections covered by plasma membrane lining our intestines play a vital role in nutrient absorption during digestion processes. From ancient lithographs to modern imaging techniques, the significance of membranes spans across various fields.