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Nucleotide Collection

"Nucleotide

Background imageNucleotide Collection: Double-stranded RNA molecule

Double-stranded RNA molecule. Computer model of the structure of double-stranded RNA (ribonucleic acid). The majority of RNA in a cell is in the single-stranded form

Background imageNucleotide Collection: DNA molecule

DNA molecule, computer artwork. DNA (deoxyribonucleic acid) is composed of two strands twisted into a double helix. Each strand consists of a sugar-phosphate backbone attached to nucleotide bases

Background imageNucleotide Collection: DNA molecule

DNA molecule. Computer artwork of a molecule of DNA (deoxyribonucleic acid) with the chemical formulas of its components. DNA is composed of two sugar-phosphate backbones (blue)

Background imageNucleotide Collection: DNA molecule, artwork

DNA molecule, artwork
DNA molecule. Computer artwork of a double stranded DNA (deoxyribonucleic acid) molecule amongst clouds of swirling gas. DNA is composed of two strands twisted into a double helix

Background imageNucleotide Collection: Arecibo message and decoded key C016 / 6817

Arecibo message and decoded key C016 / 6817
Arecibo message and decoded key. Diagram showing the binary transmission (left) known as the Arecibo message, with the message decoded and labelled at centre and right

Background imageNucleotide Collection: DNA autoradiogram, artwork

DNA autoradiogram, artwork. Autoradiograms show the order of nucleotide bases (basic building blocks) in a sample of DNA (deoxyribonucleic acid)

Background imageNucleotide Collection: DNA Double Helix with Autoradiograph

DNA Double Helix with Autoradiograph
Conceptual computer illustration of the DNA double helix together with a graphic representation of an autoradiograph display

Background imageNucleotide Collection: Grapevine genome sequencing

Grapevine genome sequencing. Data from a gelelectrophoresis experiment to sequence the PinotNoir grape ( Vitis sp. ) genome

Background imageNucleotide Collection: Mitochondrial DNA

Mitochondrial DNA. Computer artwork of the genetic material (DNA, deoxyribonucleic acid) found in the cell structures called mitochondria

Background imageNucleotide Collection: DNA analysis

DNA analysis, negative image. Graphs showing the results of DNA (deoxyribonucleic acid) sequencing. A DNA molecule consists of two sugar-phosphate backbones, arranged as a double helix

Background imageNucleotide Collection: Illustration showing DNA replication

Illustration showing DNA replication
Beginnings, Biology, Biomedical Illustration, Chromosome, Close-Up, Complexity, Connection, Development, Dna, Fragility, Genetic Research, Growth, Healthcare and Medicine, Helix, Identity

Background imageNucleotide Collection: Caduceus with DNA, artwork C013 / 9990

Caduceus with DNA, artwork C013 / 9990
Caduceus with DNA. Computer artwork of the Caduceus symbol entwined by a strand of DNA (deoxyribonucleic acid). The caduceus is the traditional symbol of the Greek god Hermes

Background imageNucleotide Collection: DNA autoradiogram and face

DNA autoradiogram and face
MODEL RELEASED. DNA autoradiogram. Computer artwork of a DNA (deoxyribonucleic acid) autoradiogram superimposed over a womans face

Background imageNucleotide Collection: DNA

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

Background imageNucleotide Collection: Genetic sequence

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

Background imageNucleotide Collection: Conceptual image of a telomere

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

Background imageNucleotide Collection: Illustration of muscle contraction

Illustration of muscle contraction

Background imageNucleotide Collection: Microscopic view of telomeres highlighted at the tips of chromosome

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

Background imageNucleotide Collection: Conceptual image of chromosomes inside the blood stream

Conceptual image of chromosomes inside the blood stream

Background imageNucleotide Collection: Conceptual image of a telomere showing DNA structure

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

Background imageNucleotide Collection: Microscopic view of chromosome

Microscopic view of chromosome

Background imageNucleotide Collection: Illustration of muscle contraction (with labels)

Illustration of muscle contraction (with labels)

Background imageNucleotide Collection: Conceptual image of chromosome

Conceptual image of chromosome

Background imageNucleotide Collection: Cytosine-guanine interaction, artwork C017 / 7215

Cytosine-guanine interaction, artwork C017 / 7215
Cytosine-guanine interaction. Computer artwork showing the structure of bound cytosine (left) and guanine molecules (right)

Background imageNucleotide Collection: Cytosine-guanine interaction, artwork C017 / 7216

Cytosine-guanine interaction, artwork C017 / 7216
Cytosine-guanine interaction. Computer artwork showing the structure of bound cytosine (left) and guanine molecules (right)

Background imageNucleotide Collection: Thymine-adenine interaction, artwork C017 / 7367

Thymine-adenine interaction, artwork C017 / 7367
Thymine-adenine interaction. Computer artwork showing the structure of bound thymine and adenine molecules. Atoms are shown as colour-coded spheres: carbon (green), hydrogen (white)

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3416

DNA sequence, artwork F008 / 3416
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3420

DNA sequence, artwork F008 / 3420
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3422

DNA sequence, artwork F008 / 3422
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3417

DNA sequence, artwork F008 / 3417
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3426

DNA sequence, artwork F008 / 3426
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3415

DNA sequence, artwork F008 / 3415
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3423

DNA sequence, artwork F008 / 3423
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3418

DNA sequence, artwork F008 / 3418
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3424

DNA sequence, artwork F008 / 3424
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3421

DNA sequence, artwork F008 / 3421
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3427

DNA sequence, artwork F008 / 3427
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA molecule F008 / 3657

DNA molecule F008 / 3657
DNA molecule. Computer artwork of the structure of deoxyribonucleic acid (DNA) with a double helix in the background. DNA is composed of two strands twisted into a double helix

Background imageNucleotide Collection: Chromosomes, SEM

Chromosomes, SEM
Chromosomes. Coloured scanning electron micrograph (SEM) of two chromosomes. The SEM is overlaid on a DNA autoradiogram background

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3419

DNA sequence, artwork F008 / 3419
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: DNA sequence, artwork F008 / 3425

DNA sequence, artwork F008 / 3425
DNA (deoxyribonucleic acid) sequence, computer artwork

Background imageNucleotide Collection: Metal-sensing RNA molecule F006 / 9636

Metal-sensing RNA molecule F006 / 9636
Metal-sensing RNA molecule. Molecular model of an M-box riboswitch, a length of RNA (ribonucleic acid) that regulates levels of metal ions in a cell

Background imageNucleotide Collection: Cytosine molecule, artwork C017 / 7214

Cytosine molecule, artwork C017 / 7214
Cytosine molecule. Computer artwork showing the structure of a molecule of the nucleobase cytosine (2-oxy-4-aminopyrimidine)

Background imageNucleotide Collection: Oxoguanine glycosylase complex F006 / 9318

Oxoguanine glycosylase complex F006 / 9318
Oxoguanine glycosylase complex. Computer model showing an 8-Oxoguanine glycosylase (OGG1) molecule (beige) bound to a section of DNA (deoxyribonucleic acid, red and blue)

Background imageNucleotide Collection: Oxoguanine glycosylase complex F006 / 9307

Oxoguanine glycosylase complex F006 / 9307
Oxoguanine glycosylase complex. Computer model showing an 8-Oxoguanine glycosylase (OGG1) molecule (beige) bound to a section of DNA (deoxyribonucleic acid, red and blue)

Background imageNucleotide Collection: Adenosine molecule

Adenosine molecule
Adenosine monophosphate (AMP), molecular model. Nucleotide used as a monomer in RNA. Atoms are represented as spheres and are colour-coded: carbon (grey), hydrogen (green-blue), nitrogen (blue)

Background imageNucleotide Collection: Thymidylic acid-ribonuclease A complex

Thymidylic acid-ribonuclease A complex. Molecular model of a thymidylic acid tetramer (blue) in complex with ribonuclease A (red)

Background imageNucleotide Collection: Cytosine-guanine bond, illustration C018 / 0745

Cytosine-guanine bond, illustration C018 / 0745
Adenine-thymine bond. Illustration showing the hydrogen bonding between the nucleotides cytosine (left) and guanine (right)



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"Nucleotide: Unraveling the Blueprint of Life" From the intricate double-stranded RNA molecule to the iconic DNA helix they can the building blocks that hold the secrets of life. This captivating artwork showcases a DNA molecule, reminding us of its profound significance in our existence. Delving deeper into scientific achievements, we uncover groundbreaking discoveries like the decoding of key C016 / 6817 from the Arecibo message - an interstellar communication attempt. These findings highlight how nucleotides transcend earthly boundaries and ignite curiosity beyond our planet. Intriguingly, this artwork also features a mesmerizing DNA autoradiogram, capturing moments when scientists visualize genetic information through radioactive labeling techniques. Such images serve as windows into understanding complex biological processes at their core. Venturing further into genetics research, mitochondrial DNA takes center stage. This unique form holds vital clues about our ancestry and evolution while shedding light on various inherited diseases. The realm of DNA analysis expands with grapevine genome sequencing – a testament to humanity's quest for knowledge and innovation. By unraveling nature's code within these tiny molecules, researchers gain insights that revolutionize agriculture and improve crop yields worldwide. As we explore this captivating world of nucleotides, it becomes evident that they are not mere chemical structures but rather gateways to unlocking life's mysteries. The juxtaposition between artistry and science reminds us that beauty lies not only in aesthetics but also in comprehending nature's intricacies. Ultimately, every strand of DNA carries within it a unique genetic sequence – an individual story waiting to be deciphered by those who dare to venture into its depths. Nucleotides pave the way for breakthroughs in medicine, forensics, evolutionary biology - shaping our understanding of ourselves and all living organisms on Earth. So let us marvel at these remarkable molecules; let us embrace their complexity and celebrate their role as messengers from time immemorial.