Genes Collection (page 2)

C. elegans worm
Caenorhabditis elegans nematode worm, light micrograph. This soil-dwelling hermaphrodite nematode worm is one of the most studied animals in biological and genetic research

DNA, computer artwork. DNA (deoxyribonucleic acid) consists of two strands (yellow) of sugar phosphates forming a double helix

Genetic sequence. Printout of the genetic code of a single strand of DNA (deoxyribonucleic acid). DNA normally comprises two spiralling paired strands of sugar phosphates that are linked by

Gregor Mendel, caricature
Gregor Mendel (1822-1884). Caricature of the Austrian botanist and founder of genetics Gregor Johann Mendel. Mendel, the abbot of an abbey in Brno, Austria

Uniforms civil guard Courtray Belgium 1832 Black chalk
Artokoloro

Grand Review Juste-Milieu Passing La Caricature
Artokoloro

Prise de Constantine 19th century Pen ink watercolor
Artokoloro

Album Lithographique 1830-1837 1830-1837 Overall
Artokoloro

People Delivered Vampire Taxes 1833 Lithograph
Artokoloro

Conceptual image of a telomere. A telomere is a region of the DNA sequence at the end of a chromosome. Their function is to protect the ends of the chromosome from degradating

Cell nucleus with chromosome. The cell nucleus helps control eating, movement, and reproduction

Microscopic view of DNA binding

Microscopic view of telomeres highlighted at the tips of chromosome. A telomere is a region of the DNA sequence at the end of a chromosome

Microscopic view of DNA

Conceptual image of chromosomes inside the blood stream

Conceptual image of a telomere showing DNA structure. A telomere is a region of the DNA sequence at the end of a chromosome. Their function is to protect the ends of the chromosome from degradation

Microscopic view of chromosome

Stylized view of strands of human DNA or deoxyribonucleic acid

Conceptual image of sickle cell anemia. Sickle cell anemia is a disease in which your body produces abnormally shaped red blood cells. The cells are shaped like a crescent or sickle

Microscopic view of sicke cells causing anemia disease

Microscopic view of cancer cells. Cancer occurs when a cells gene mutations make the cell unable to correct DNA damage

Conceptual image of chromosome

Conceptual image of DNA

Cluster of DNA strands of human DNA or deoxyribonucleic acid

The Port of Genes (Genoa), 1878. Watercolour by J. L Genatto. Sunlit buildings at quayside
The Port of Genes (Genoa), 1878. Watercolour by J.L Genatto. Sunlit buildings at quayside, women leaning on sea wall by masts of vessels docked vessels

Sheep farming, shepherd using sterile single use pin on Texel ram nose to extract blood for Scrapie genotype testing, England, May

Double Helix of Human DNA

Artwork of DNA structure

Lion-jaguar hybrid cub (Panthera hybrid), side view

Stochastic gene expression, illustration C018 / 0906
Stochastic gene expression, illustration. Every cell in an organism contains every single gene that makes up the organisms genome. However, they are not all active (expressed) in each cell

Tumour suppressor protein and DNA C017 / 3647
Tumour suppressor protein and DNA. Computer artwork showing a molecule of the tumour suppressor protein p53 (blue and pink) bound to a molecule of DNA (deoxyribonucleic acid, yellow and orange)

DNA molecule, artwork C017 / 7217
DNA molecule. Computer artwork showing a double stranded DNA (deoxyribonucleic acid) molecule. DNA is composed of two strands twisted into a double helix

DNA molecule, artwork C017 / 0616
DNA molecule. Computer artwork looking along the interior of a double stranded DNA (deoxyribonucleic acid) molecule. DNA is composed of two strands twisted into a double helix

DNA molecule, artwork C017 / 0615
DNA molecule. Computer artwork looking along the interior of a double stranded DNA (deoxyribonucleic acid) molecule. DNA is composed of two strands twisted into a double helix

DNA molecule, artwork C017 / 0617
DNA molecule. Computer artwork looking along the interior of a double stranded DNA (deoxyribonucleic acid) molecule. DNA is composed of two strands twisted into a double helix

Tumour suppressor protein and DNA C017 / 3644
Tumour suppressor protein and DNA. Computer artwork showing a molecule of the tumour suppressor protein p53 (blue and pink) bound to a molecule of DNA (deoxyribonucleic acid, yellow and orange)

Tumour suppressor protein and DNA C017 / 3646
Tumour suppressor protein and DNA. Computer artwork showing a molecule of the tumour suppressor protein p53 (blue and pink) bound to a molecule of DNA (deoxyribonucleic acid, yellow and orange)

DNA components, artwork C017 / 7350
DNA components. Computer artwork showing the structure of the two molecules that make up the backbone of DNA (deoxyribonucleic acid), phosphate (left) and deoxyribose (right)

Circular DNA molecule, artwork F006 / 7088
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Circular DNA molecule, artwork F006 / 7072
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Circular DNA molecule, artwork F006 / 7095
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Circular DNA molecule, artwork F006 / 7086
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Circular DNA molecule, artwork F006 / 7083
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Circular DNA molecule, artwork F006 / 7084
Circular DNA (deoxyribonucleic acid) molecule, computer artwork. Circular DNA has no ends, but consists of a ring structure

Glycine riboswitch molecule F007 / 9921
Molecular model of the bacterial glycine riboswitch. This is an RNA element that can bind the amino acid glycine. Glycine riboswitches usually consist of two metabolite-binding aptamer domains tandem

Glycine riboswitch molecule F007 / 9906
Molecular model of the bacterial glycine riboswitch. This is an RNA element that can bind the amino acid glycine. Glycine riboswitches usually consist of two metabolite-binding aptamer domains tandem

Human chromosome. Coloured scanning electron micrograph (SEM) of a human chromosome. Chromosomes occur in the nucleus of every cell in the body

DNA molecule, artwork F008 / 2034
DNA molecule, computer artwork

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"Unlocking the Secrets: Exploring the Fascinating World of Genes" The X and Y chromosomes: Unraveling the Blueprint of Life. A mesmerizing sight: Leopard's black panther showcases melanistic phase, a result of its genes. DNA molecule: Nature's intricate code for life captured in stunning computer models. Abstract artwork reveals the beauty hidden within the DNA molecule. Gregor Mendel - Pioneering Austrian botanist who laid the foundation for understanding genetic inheritance. Peering into our origins: DNA Double Helix with Autoradiograph offers a glimpse into our genetic makeup. Guinea pigs showcase Mendel's Law through a vibrant poster, highlighting genetic patterns in action. Z-DNA tetramer molecule C015/6557 - Unveiling unique structures within our chromosomes. Chromosomes - The carriers of hereditary information that shape who we are. Delving deep into genetics, this captivating journey takes us from unraveling the mysteries held by X and Y chromosomes to witnessing nature's marvels like a leopard donning its striking black panther coat due to specific genes at play. The awe-inspiring complexity of life is encapsulated in DNA molecules, whether portrayed as computer models or abstract artworks that depict their elegance and intricacy. We pay homage to Gregor Mendel, an Austrian botanist whose groundbreaking work paved the way for understanding how traits are passed down through generations. Through images like DNA Double Helix with Autoradiograph or posters demonstrating Mendel's Laws using guinea pigs as examples, we gain insight into our own origins and witness firsthand how genetics shape every living being on this planet. Zooming further into microscopic wonders, we encounter Z-DNA tetramer molecules and explore fascinating structures found within our very own chromosomes – repositories of invaluable hereditary information.