Cell Collection (#99)

Animal cell structure, artwork
Animal cell structure. Artwork showing the internal structure of an animal cell. Inside the cell, the cellular structures (organelles) include the Golgi apparatus (green)

Embryonic stem cells, light micrograph
Embryonic stem cells. Fluorescence light micrograph of human embryonic neural stem cells forming neuronal networks. Tubulin protein is red; cell nuclei are blue

Adipose stem cells, light micrograph
Adipose stem cells. Fluorescence light micrograph of human stem cells derived from adipose (fat) tissue. Nestin protein filaments are red; membrane cofactor protein is green;

Brain cells, light micrograph
Brain cells. Fluorescence light micrograph of activated microglial cells (stained for membrane co-factor protein, yellow) and oligodendrocytes (stained for myelin basic protein, red)

Pine tree tissue, light micrograph
pine stem light microscopy

Golgi apparatus, artwork. This structure is an organelle found within eukaryotic cells. It receives proteins and lipids that are synthesised elsewhere on the endoplasmic reticulum

Neural stem cells, light micrograph
Neural stem cells. Light micrograph of human adult neural stem cells grown in suspension as neurospheres. Magnification: x5 when printed 10 centimetres wide

Healthy and crenated red blood cells, SEM
Red blood cells. Coloured scanning electron micrograph (SEM) of normal healthy red blood cells (red) and a crenated red blood cell (white)

Lung cells, fluorescent micrograph
Lung cells. Immunofluorescence light micrograph of pulmonary endothelial cells. Endothelial cells are specialized epithelial cells that line the inner surface of blood vessels

Nerve cell and axon, diagram
Nerve cell and axon. Diagram showing how the input to a nerve cell (neuron) through dendrites (shown by arrows at upper left) is transmitted (yellow arrow) along the nerve cells axon (across bottom)

Protein synthesis, artwork
peptid

Blood clotting, SEM
Blood clotting. Coloured scanning electron micrograph (SEM) of human red blood cells (erythrocytes, red) and platelets (thrombocyte, white) forming a blood clot

DNA packaging, artwork
DNA packaging. Computer artwork showing how DNA (deoxyribonucleic acid) is packaged within cells. Two DNA strands, consisting of a sugar-phosphate backbone attached to nucleotide bases

Cell division, conceptual artwork
cell division

Synthetic cell creation, computer artwork
Computer artwork depicting the creation of synthetic cells. From top: the chromosome of an existing bacterial cell is decoded, fragments copied and assembled forming a new synthetic DNA

Bacteria shapes, artwork
Bacterial shapes. Computer artwork showing the appearance of various different types of bacteria

Alzheimers disease, computer artwork
3D computer artwork depicting senile amyloid plaque (brown) in the brain, which kill surrounding neurons (blue). Large numbers of senile plaques are characteristic features of Alzheimers disease

Bacterial replication, artwork
Bacterial replication. Computer artwork showing a single bacterium dividing to form two identical daughter cells. This process is a form of asexual reproduction and is known as binary fission

Protein, microtubules and cell, artwork
3D computer artwork of a protein attached to microtubules, transporting vesicles and other important parts of the cell. Microtubules are polymers of the protein tubulin

Photosynthesis, diagram
Photosynthesis. Diagram showing the inputs and outputs (coloured arrows) involved in photosynthesis in the leaf of a plant

Retinal rod cell anatomy, diagram

Vestibular ciliated cells, diagram
Vestibular ciliated cells. Diagram of the anatomical structure and function of the vestibular ciliated cells found in the inner ear that help sense and control of balance

Mirror neurons, conceptual image
Mirror neurons, conceptual computer artwork. Nerve cells, or neurons, and a human eye reflected on a shiny surface representing a mirror neuron cell. Mirror neurons are found in the brain

Milk-producing cell, artwork
Milk-producing cell. Artwork of the anatomical structure of a lacteal (milk-producing) cell. Normal cell organelles include the nucleus (black, centre), the golgi apparatus (white)

ATP sulfurylase molecule. Computer model showing the structure of an ATP sulfurylase (ATPS) enzyme. ATPS catalyses the primary step of sulphate activation within cells

Vestibular ciliated cells, artwork
Vestibular ciliated cells. Artwork of the anatomical structure and function of the vestibular ciliated cells found in the inner ear that help sense and control of balance

Prokaryotic mechanosensitive ion channel molecule. Computer model showing two views of the molecular structure of a Mechanosensitive Channel of Large Conductance (MscL)

Acrosome reaction, artwork
Acrosome reaction. Computer artwork showing the process by which an acrosome from a spermatozoon (sperm cell) binds to an ovum (egg cell, bottom). Each spermatozoon has an acrosome in its tip

Solar power plant, Nevada, USA
Solar power plant. Rows of photovoltaic arrays at the Nellis Solar Power Plant, Nellis Air Force Base, Nevada, USA. This 14 megawatt energy system generates in excess of 25 million kilowatt-hours of

Retinal rod cell anatomy, artwork
Retinal rod cell anatomy. Artwork of the external (left) and internal (right) anatomical structure of a retinal cell. These cells are found in the retina that lines the back of the eyes

Nerve cell with electrical sparks
Nerve cell. Conceptual computer artwork of a nerve cell, also called a neuron emitting electrical sparks. Neurons are responsible for passing information around the central nervous system (CNS)

Milk-producing cell, diagram
Milk-producing cell. Diagram of the anatomical structure of a lacteal (milk-producing) cell. Normal cell organelles include the nucleus (black, centre), the golgi apparatus (white)

Mirror neuron, conceptual image
Mirror neuron, conceptual computer artwork. Nerve cell, or neuron, reflected in water, representing a mirror neuron cell. Mirror neurons are found in the brain

Animal cell anatomy, artwork
Animal cell anatomy. Artwork showing the internal and external anatomy of an animal cell

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"Exploring the Intricacies of Life: Unveiling the Wonders of Cells" Delving into the microscopic world, a histological diagram of a mammalian retina reveals the intricate structure and organization of cells that enable us to perceive light. The cerebellum tissue, captured in a light micrograph, showcases its complex network of cells responsible for coordinating movement and balance. Intriguingly, even philosophers find solace in contemplating cellular existence. "Philosopher in Meditation, " an oil painting from 1632, reminds us that pondering life's mysteries often leads us back to our fundamental building blocks – cells. Zooming further into this realm, nerve and glial cells come alive under the lens. This captivating light micrograph highlights their vital role in transmitting signals throughout our nervous system. Meanwhile, a lavender pollen grain captured through scanning electron microscopy (SEM) displays nature's exquisite design at the cellular level. The battle against diseases takes center stage as T lymphocytes confront cancer cells in another SEM image. Science and evolution intertwine as we witness these tiny warriors fighting for survival within our bodies. Artistic expressions also shed light on cell significance; "The Death of Socrates, " painted in 1787, serves as a poignant reminder that even great minds are ultimately composed of countless individual cells. Santiago Ramon y Cajal's meticulous drawing from 1894 unveils various cell types within the mammalian cerebellum. His work not only represents scientific progress but also exemplifies how art can aid understanding by visually capturing complexity. Stepping away from biology momentarily, we encounter Rolls Royce/Snecma Olympus 593 Mk602 engine undergoing testing within a controlled environment called a test cell. Here too, precision engineering relies on understanding cellular mechanics to achieve optimal performance. Returning to biological marvels - HeLa cells take center stage under yet another microscope lens. These immortalized human cells have revolutionized medical research, paving the way for countless breakthroughs.