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Biotechnological Collection

"Unleashing the Biotechnological Marvels: From Square Tomatoes to Artificial Life" In the realm of biotechnology, innovation knows no bounds

Background imageBiotechnological Collection: Square tomato

Square tomato. Conceptual image of a tomato that has a cuboid shape. This could represent a tomato that has been genetically modified to form this shape to allow more efficient packaging

Background imageBiotechnological Collection: Creation of artificial life, artwork

Creation of artificial life, artwork
Creation of artificial life. Conceptual computer artwork depicting the creation of a new life-form in a petri dish. Geneticists are working on methods for combining artificially replicated genes into

Background imageBiotechnological Collection: Antibody molecule F007 / 0109

Antibody molecule F007 / 0109
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0107

Antibody molecule F007 / 0107
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0104

Antibody molecule F007 / 0104
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0105

Antibody molecule F007 / 0105
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0103

Antibody molecule F007 / 0103
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0102

Antibody molecule F007 / 0102
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Antibody molecule F007 / 0101

Antibody molecule F007 / 0101
Antibody molecule. Crystal structure of a monoclonal immunoglobulin (IgG2a). IgG antibodies are composed of 2 long heavy chains and 2 shorter light chains

Background imageBiotechnological Collection: Genetic fingerprints, conceptual artwork C016 / 7521

Genetic fingerprints, conceptual artwork C016 / 7521
Genetic fingerprints, conceptual computer artwork

Background imageBiotechnological Collection: Gecko foot C014 / 0963

Gecko foot C014 / 0963
Gecko foot. Close-up of the foot of a southern turniptail gecko (Thecadactylus solimoensis), showing the adhesive lamellae (ridges)

Background imageBiotechnological Collection: Imitation honeycomb filling C014 / 0293

Imitation honeycomb filling C014 / 0293
Imitation honeycomb filling. Close-up of a acrylic tubes assembled to mimic the honeycomb structure of bee hives. The honeycomb structure offers great strength to weight ratio

Background imageBiotechnological Collection: Imitation honeycomb C014 / 0294

Imitation honeycomb C014 / 0294
Imitation honeycomb. Section of material with a design based on the honeycomb structure of bee hives. This structure gives the material great strength whilst keeping its weight to a minimum

Background imageBiotechnological Collection: Imitation honeycomb filling C014 / 0291

Imitation honeycomb filling C014 / 0291
Imitation honeycomb filling. Close-up of a section through acrylic tubes assembled to mimic the honeycomb structure of bee hives. The honeycomb structure offers great strength to weight ratio

Background imageBiotechnological Collection: Imitation honeycomb filling C014 / 0292

Imitation honeycomb filling C014 / 0292
Imitation honeycomb filling. Close-up of a acrylic tubes assembled to mimic the honeycomb structure of bee hives. The honeycomb structure offers great strength to weight ratio

Background imageBiotechnological Collection: Imitation honeycomb filling C014 / 0290

Imitation honeycomb filling C014 / 0290
Imitation honeycomb filling. Top down view of acrylic tubes assembled to mimic the honeycomb structure of bee hives. The honeycomb structure offers great strength to weight ratio

Background imageBiotechnological Collection: Imitation skin C014 / 0286

Imitation skin C014 / 0286
Imitation skin. Close-up of the surface of a latex material designed to mimic the look and feel of human skin. The skin is made by SkinBag and is used for fashion clothing and accessories

Background imageBiotechnological Collection: Iridescence C014 / 0284

Iridescence C014 / 0284
Iridescence. Butterfly with iridescent wings on a surface coated with iridescent material. Iridescence is caused by the tiny microstructures of the surface reflecting light in different ways

Background imageBiotechnological Collection: Artificial mould C014 / 0281

Artificial mould C014 / 0281
Artificial mould. Close-up of material designed to resemble mould (fungus). This material is used for decorative flocking effects on material surfaces

Background imageBiotechnological Collection: Plant-based insulating materials C014 / 0322

Plant-based insulating materials C014 / 0322
Plant-based insulating materials. Close-up of two different insulating materials made from plant products; one made from compressed dried algae (top) and the other made from soya (Glycine max)

Background imageBiotechnological Collection: Hook and loop fastener C014 / 0321

Hook and loop fastener C014 / 0321
Hook and loop fastener. Close-up of a hook and loop fastener showing the hooks (right) clinging to the loops (left). These common fasteners were inspired by the prickly burrs used by some plants to

Background imageBiotechnological Collection: Shark-skin-inspired antibacterial surface

Shark-skin-inspired antibacterial surface. Close-up of Sharklet an antibacterial material whose surface structure was inspired by the microstructures found on the surface of shark skin

Background imageBiotechnological Collection: Artificial gecko feet adhesive C014 / 0313

Artificial gecko feet adhesive C014 / 0313
Artificial gecko feet adhesive. Coloured scanning electron micrograph (SEM) showing the surface of a material that uses a similar structure to that of a geckos foot

Background imageBiotechnological Collection: Mother of pearl fabric C014 / 0316

Mother of pearl fabric C014 / 0316
Mother of pearl fabric. Close-up of a fabric (left) made using strips of mother of pearl, next to a pearly seashell (right), the source of mother of pearl

Background imageBiotechnological Collection: Fabric inspired by pine cones C014 / 0308

Fabric inspired by pine cones C014 / 0308
Fabric inspired by pine cones. Close-up of the surface of a climate-sensitive fabric that reacts to temperature and humidity in a similar manner to that of pines cones

Background imageBiotechnological Collection: Gecko foot C014 / 0258

Gecko foot C014 / 0258
Gecko foot. Close-up of the foot of a New Caledonian crested gecko (Rhacodactylus ciliatus), showing the adhesive lamellae (ridges)

Background imageBiotechnological Collection: Fig tree fabric C014 / 0234

Fig tree fabric C014 / 0234
Fig tree fabric. Close-up of fabric made using bark from an African fig (Ficus natalensis) tree. The fabric, known as barkcloth, uses bark from trees grown in Uganda

Background imageBiotechnological Collection: Hydrophobic paint C014 / 0237

Hydrophobic paint C014 / 0237
Hydrophobic paint. Close-up of a surface coated in paint that repels water (hydrophobic). This paint has been developed by studying and replicating structures found in nature

Background imageBiotechnological Collection: Salmon skin leather C014 / 0235

Salmon skin leather C014 / 0235
Salmon skin leather. Close-up of leather formed from the skin of a salmon. This eco-friendly product uses discarded skin from the commercial fishing industry

Background imageBiotechnological Collection: Hydrophobic paint C014 / 0236

Hydrophobic paint C014 / 0236
Hydrophobic paint. Close-up of a surface coated in paint that repels water (hydrophobic). This paint has been developed by studying and replicating structures found in nature

Background imageBiotechnological Collection: Fig tree fabric C014 / 0232

Fig tree fabric C014 / 0232
Fig tree fabric. Close-up of fabric made using bark from an African fig (Ficus natalensis) tree. The fabric, known as barkcloth, uses bark from trees grown in Uganda

Background imageBiotechnological Collection: Imitation mother of pearl fabric C014 / 0231

Imitation mother of pearl fabric C014 / 0231
Imitation mother of pearl fabric. Close-up of a fabric made using plastic that has been treated to look like mother of pearl

Background imageBiotechnological Collection: Imitation mother of pearl fabric C014 / 0230

Imitation mother of pearl fabric C014 / 0230
Imitation mother of pearl fabric. Close-up of a fabric made using plastic that has been treated to look like mother of pearl

Background imageBiotechnological Collection: Gene therapy, conceptual image C013 / 4716

Gene therapy, conceptual image C013 / 4716
Gene therapy, conceptual image. Computer artwork of DNA (deoxyribonucleic acid) molecules inside pill capsules, representing treatments to repair abnormally functioning genes

Background imageBiotechnological Collection: Gene therapy, conceptual image C013 / 4717

Gene therapy, conceptual image C013 / 4717
Gene therapy, conceptual image. Computer artwork of a DNA (deoxyribonucleic acid) molecule inside a pill capsule, representing treatments to repair abnormally functioning genes

Background imageBiotechnological Collection: Gene therapy, conceptual image C013 / 4715

Gene therapy, conceptual image C013 / 4715
Gene therapy, conceptual image. Computer artwork of DNA (deoxyribonucleic acid) molecules inside nano-robots, representing the use of nano-robots to repair abnormally functioning genes

Background imageBiotechnological Collection: Gene therapy, conceptual image C013 / 4690

Gene therapy, conceptual image C013 / 4690
Gene therapy, conceptual image. Computer artwork of DNA (deoxyribonucleic acid) molecules inside pill capsules, representing treatments to repair abnormally functioning genes

Background imageBiotechnological Collection: Liposomes, SEM

Liposomes, SEM

Background imageBiotechnological Collection: DNA Biochip

DNA Biochip. Computer artwork of a DNA Biochip, a piece of biotechnology used for cheap and rapid simultaneous analyses, for example infectious organisms in samples of blood

Background imageBiotechnological Collection: DNA helix on circuit board

DNA helix on circuit board. Computer artwork representing the fusion of computers and humans to form cybernetic beings, or the use of computers in genetic engineering to design improved humans

Background imageBiotechnological Collection: Insulin production

Insulin production. Scientists working in a facility for the production of recombinant human insulin. Insulin is used to treat insulin- dependent diabetes mellitus

Background imageBiotechnological Collection: Microbe fermentation unit

Microbe fermentation unit for the production of hormones and enzymes for medical and industrial use. This is a method of solid state fermentation called tray or koji fermentation

Background imageBiotechnological Collection: Vaccine production

Vaccine production
DNA vaccine production. Technician checking the quality of a sample of recombinant hepatitis B vaccine. Traditional hepatitis vaccine contains the full virus

Background imageBiotechnological Collection: Gene therapy, conceptual image

Gene therapy, conceptual image. Computer artwork representing the treatment of chromosomes (purple) to repair abnormally functioning genes

Background imageBiotechnological Collection: Biochip, artwork

Biochip, artwork
conducting path in gauze



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"Unleashing the Biotechnological Marvels: From Square Tomatoes to Artificial Life" In the realm of biotechnology, innovation knows no bounds. Step into a world where science and art converge, revealing astonishing creations that push the boundaries of what we thought was possible. Behold the square tomato, a testament to human ingenuity in manipulating nature's design. Through meticulous genetic engineering, scientists have crafted this marvel with precision and purpose. Its symmetrical form challenges conventional norms while promising enhanced efficiency in packaging and transportation. But it doesn't stop there; biotechnologists are venturing even further by delving into the creation of artificial life itself. In laboratories teeming with cutting-edge technology, they strive to unlock the secrets of existence. These endeavors blur the line between creator and creation as humanity takes on an unprecedented role in shaping our biological landscape. Antibody molecules F007/0109, F007/0107, F007/0104, F007/0105, F007/0103, and F007/0102 stand as beacons of hope against diseases that plague our world. Engineered for targeted efficacy against specific pathogens or cancer cells, these microscopic warriors hold immense potential for revolutionizing healthcare treatments. The intricate dance of genetic fingerprints unfolds before us like conceptual artwork come alive - C016/7521 reveals a mesmerizing tapestry unique to each individual's DNA blueprint. Unlocking these patterns opens doors to personalized medicine tailored precisely for one's genetic makeup. Nature herself becomes an inspiration as biotechnologists draw insights from her ingenious designs - behold the gecko foot C014/0963. This remarkable feat allows us to mimic its adhesive properties for applications ranging from climbing robots to medical adhesives that adhere seamlessly without causing harm. Delight your taste buds with imitation honeycomb filling C014 / 0293 - a culinary masterpiece born out of biomimicry.