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Membrane Collection (#7)

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

Background imageMembrane Collection: Clathrin lattice, molecular model C015 / 6770

Clathrin lattice, molecular model C015 / 6770
Molecular model of a complete clathrin lattice. The polyhedral protein lattice coats eukaryotic cell membranes (vesicles) and coated pits and appears to be involved in protein secretion

Background imageMembrane Collection: Nucleus and endoplasmic reticulum C015 / 6768

Nucleus and endoplasmic reticulum C015 / 6768
Computer artwork showing part of a human or eukaryotic cell. In the middle the nucleus which has a membrane with nuclear pores. Inside the nucleus is the DNA

Background imageMembrane Collection: Nucleus and endoplasmic reticulum C015 / 6767

Nucleus and endoplasmic reticulum C015 / 6767
Computer artwork showing part of a human or eukaryotic cell. In the middle the nucleus which has a membrane with nuclear pores. Inside the nucleus is the DNA

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0619

Animal cell organelles, artwork C016 / 0619
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0621

Animal cell organelles, artwork C016 / 0621
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0620

Animal cell organelles, artwork C016 / 0620
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0617

Animal cell organelles, artwork C016 / 0617
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0618

Animal cell organelles, artwork C016 / 0618
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0615

Animal cell organelles, artwork C016 / 0615
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0616

Animal cell organelles, artwork C016 / 0616
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Cell membrane, artwork C016 / 0614

Cell membrane, artwork C016 / 0614
Computer artwork of a cutaway side view of the human cell membrane. The cell Membrane is a complex part of the cell that controls what can get in and out of the cell

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0611

Animal cell organelles, artwork C016 / 0611
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Cell membrane, artwork C016 / 0613

Cell membrane, artwork C016 / 0613
Computer artwork of a cutaway side view of the human cell membrane. The cell Membrane is a complex part of the cell that controls what can get in and out of the cell

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0612

Animal cell organelles, artwork C016 / 0612
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0605

Animal cell organelles, artwork C016 / 0605
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0610

Animal cell organelles, artwork C016 / 0610
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Cell membrane, artwork C016 / 0609

Cell membrane, artwork C016 / 0609
Computer artwork of a cutaway side view of the human cell membrane. The cell Membrane is a complex part of the cell that controls what can get in and out of the cell

Background imageMembrane Collection: Cell membrane, artwork C016 / 0607

Cell membrane, artwork C016 / 0607
Computer artwork of a cutaway side view of the human cell membrane. The cell Membrane is a complex part of the cell that controls what can get in and out of the cell

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0604

Animal cell organelles, artwork C016 / 0604
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, red) which has a membrane with nuclear pores

Background imageMembrane Collection: Animal cell organelles, artwork C016 / 0606

Animal cell organelles, artwork C016 / 0606
Computer artwork showing the organelles in a eukaryotic cell. This is an animal cell. Structures include the nucleus (centre, orange) which has a membrane with nuclear pores

Background imageMembrane Collection: Cell membrane, artwork C016 / 0603

Cell membrane, artwork C016 / 0603
Computer artwork of a cutaway side view of the human cell membrane. The cell Membrane is a complex part of the cell that controls what can get in and out of the cell

Background imageMembrane Collection: Ionotropic glutamate receptor C015 / 5813

Ionotropic glutamate receptor C015 / 5813
Ionotropic glutamate receptor, molecular model. When glutamate binds to this receptor, it opens up trans-membrane ion channels vital for the functioning of the nervous system

Background imageMembrane Collection: Ionotropic glutamate receptor C015 / 5812

Ionotropic glutamate receptor C015 / 5812
Ionotropic glutamate receptor, molecular model. When glutamate binds to this receptor, it opens up trans-membrane ion channels vital for the functioning of the nervous system

Background imageMembrane Collection: Influenza virus, artwork C018 / 2894

Influenza virus, artwork C018 / 2894
Influenza virus. Cut-away computer artwork of an influenza (flu) virus particle (virion). In each particles lipid envelope (blue) are two types of protein spike

Background imageMembrane Collection: Chloroplast, TEM C017 / 8233

Chloroplast, TEM C017 / 8233
Chloroplast. Coloured transmission electron micrograph (TEM) of chloroplast from the leaf of a Coleus blumei plant. Chloroplasts are the sites of photosynthesis

Background imageMembrane Collection: Influenza virus, artwork C018 / 2893

Influenza virus, artwork C018 / 2893
Influenza virus. Cut-away computer artwork of an influenza (flu) virus particle (virion). In each particles lipid envelope (blue) are two types of protein spike

Background imageMembrane Collection: Influenza virus, artwork C018 / 2891

Influenza virus, artwork C018 / 2891
Influenza virus. Cut-away computer artwork of an influenza (flu) virus particle (virion). In each particles lipid envelope (blue) are two types of protein spike

Background imageMembrane Collection: Influenza virus, artwork C018 / 2890

Influenza virus, artwork C018 / 2890
Influenza virus. Cut-away computer artwork of an influenza (flu) virus particle (virion). In each particles lipid envelope (green) are two types of protein spike

Background imageMembrane Collection: Influenza virus, artwork C018 / 2892

Influenza virus, artwork C018 / 2892
Influenza virus. Cut-away computer artwork of an influenza (flu) virus particle (virion). In each particles lipid envelope (brown) are two types of protein spike

Background imageMembrane Collection: Influenza inhibition mechanism, artwork C016 / 5794

Influenza inhibition mechanism, artwork C016 / 5794
Influenza inhibition mechanism. Artwork of the membrane of an influenza (flu) virus, showing a molecule of the drug zanamivir (space-filled sphere model)

Background imageMembrane Collection: MERS coronavirus, artwork C016 / 3611

MERS coronavirus, artwork C016 / 3611
MERS coronavirus proteins. Cutaway computer model showing the protein structure of a MERS coronavirus particle (virion). MERS (Middle East respiratory syndrome)

Background imageMembrane Collection: E. coli induced cell death, SEM C016 / 3078

E. coli induced cell death, SEM C016 / 3078
E. coli induced cell death. Coloured scanning electron micrograph (SEM) of a macrophage white blood cell (centre) that is being destroyed by toxins released by Escherichia coli (E)

Background imageMembrane Collection: E. coli induced cell death, SEM C016 / 3077

E. coli induced cell death, SEM C016 / 3077
E. coli induced cell death. Coloured scanning electron micrograph (SEM) of a macrophage white blood cell (centre) that is being destroyed by toxins released by Escherichia coli (E)

Background imageMembrane Collection: SARS coronavirus proteins, artwork C016 / 3056

SARS coronavirus proteins, artwork C016 / 3056
SARS coronavirus proteins. Computer model showing the spike proteins (red) of a SARS coronavirus particle (virion). SARS (severe acute respiratory syndrome)

Background imageMembrane Collection: SARS coronavirus, artwork C016 / 3055

SARS coronavirus, artwork C016 / 3055
SARS coronavirus proteins. Computer artwork of SARS coronavirus particles (virions). SARS (severe acute respiratory syndrome)

Background imageMembrane Collection: SARS coronavirus, artwork C016 / 3054

SARS coronavirus, artwork C016 / 3054
SARS coronavirus proteins. Cutaway computer model showing the protein structure of a SARS coronavirus particle (virion). SARS (severe acute respiratory syndrome)

Background imageMembrane Collection: SARS coronavirus, artwork C016 / 3053

SARS coronavirus, artwork C016 / 3053
SARS coronavirus proteins. Cutaway computer model showing the protein structure of a SARS coronavirus particle (virion). SARS (severe acute respiratory syndrome)

Background imageMembrane Collection: SARS coronavirus proteins, artwork C016 / 3052

SARS coronavirus proteins, artwork C016 / 3052
SARS coronavirus proteins. Computer model showing the proteins of a SARS coronavirus particle (virion). SARS (severe acute respiratory syndrome)

Background imageMembrane Collection: Animal cell, artwork C013 / 9985

Animal cell, artwork C013 / 9985
Animal cell. Computer artwork showing the cell organelles found inside a typical animal cell. The nucleus (large round) can be seen at centre

Background imageMembrane Collection: Animal cell, artwork C013 / 9984

Animal cell, artwork C013 / 9984
Animal cell. Computer artwork showing the cell organelles found inside a typical animal cell. The nucleus (large round) can be seen at centre

Background imageMembrane Collection: Pore protein from staphylococcus aureus C013 / 9380

Pore protein from staphylococcus aureus C013 / 9380
Structure of staphylococcal alpha-hemolysin, a heptameric transmembrane pore. Computer artwork of the ribbon structure of the pore forming-toxin from the bacteria Staphylococcus aureus

Background imageMembrane Collection: Pore protein from staphylococcus aureus C013 / 9378

Pore protein from staphylococcus aureus C013 / 9378
Structure of staphylococcal alpha-hemolysin, a heptameric transmembrane pore. Computer artwork of the ribbon structure of the pore forming-toxin from the bacteria Staphylococcus aureus

Background imageMembrane Collection: Pore protein from staphylococcus aureus C013 / 9379

Pore protein from staphylococcus aureus C013 / 9379
Structure of staphylococcal alpha-hemolysin, a heptameric transmembrane pore. Computer artwork of the ribbon structure of the pore forming-toxin from the bacteria Staphylococcus aureus

Background imageMembrane Collection: Pore protein from staphylococcus aureus C013 / 9377

Pore protein from staphylococcus aureus C013 / 9377
Structure of staphylococcal alpha-hemolysin, a heptameric transmembrane pore. Computer artwork of the ribbon structure of the pore forming-toxin from the bacteria Staphylococcus aureus

Background imageMembrane Collection: Potassium channel molecule

Potassium channel molecule. Molecular model of a KcsA potassium ion (K+) channel molecule from Streptomyces lividans bacteria

Background imageMembrane Collection: Nanopore DNA sequencing, conceptual image C013 / 8901

Nanopore DNA sequencing, conceptual image C013 / 8901
Nanopore DNA sequencing, conceptual image. Computer artwork of a DNA (deoxyribonucleic acid) strand (green and red) being sequenced (letters) as it passes through a nanopore (tiny hole)

Background imageMembrane Collection: Potassium channel molecule C013 / 8878

Potassium channel molecule C013 / 8878
Potassium channel molecule. Computer model showing the secondary structure of a KcsA potassium ion (K+) channel molecule from Streptomyces lividans bacteria

Background imageMembrane Collection: Sucrose-specific porin molecule C013 / 8870

Sucrose-specific porin molecule C013 / 8870
Sucrose-specific porin molecule. Moleuclar model showing the secondary and quaternary structure of a molecule of sucrose-specific porin




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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.