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  • This image is part of a series showing the new security features of the United States 100 dollar bill.  These anti-counterfeit features include micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks.  In particular this image shows the lenticular lens array that shows a pattern of different colors as the viewing angle of the money is changed. This is a Scanning electron microscope image that is 4 mm wide.  When printed 10 cm wide the magnification is 250 x
    K13SEM-new100lenticular-A.jpg
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell006.JPG
  • This is a scanning electron microscope image of the This image is part of a series showing the new security features of the United States 100 dollar bill.  These anti-counterfeit features include micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks.  In particular this image shows the micro-lens, or lenticular array that shows a differnt color when the viewing angle is changed. Magnification is 125x when printed 10 cm wide.
    K13-SEM100bill-003.jpg
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell017.JPG
  • This is a scanning electron microscope image of the new 100 dollar bill. This image is part of a series showing the new security features of the United States 100 dollar bill.  These anti-counterfeit features include micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks.  In particular this image shows the micro-lens, or lenticular array that shows a differnt color when the viewing angle is changed. Magnification is 250x when printed 10 cm wide.
    K13-SEM100bill-paper002.jpg
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell004.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell022.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell014.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell005.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell002.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell003.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell001.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell010.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell021.JPG
  • This is a scanning electron microscope image of the This image is part of a series showing the new security features of the United States 100 dollar bill.  These anti-counterfeit features include micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks.  In particular this image shows the micro-lens, or lenticular array that shows a differnt color when the viewing angle is changed.
    K13-SEM100bill-002.jpg
  • A microscopic view of an inkjet printer head.  The circular hole is the ink nozzle and the flow is often controlled with electrostatics.  The magnification is 200x on the 35 mm camera.
    K09printerhead046.jpg
  • A microscopic view of an inkjet printer head.  The circular hole is the ink nozzle and the flow is often controlled with electrostatics.  The magnification is 100x on the 35 mm camera.  There is a dropplet of red ink on the head.
    K09printerhead0016.jpg
  • A cyanotype print with the fern that cast the shadow seen in the print.  In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-9.jpg
  • A cyanotype print with the fern that cast the shadow seen in the print.  In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-2.jpg
  • A cyanotype print with the fern that cast the shadow seen in the print.  In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-3.jpg
  • A cyanotype print with the fern that cast the shadow seen in the print.  In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-10.jpg
  • This is a cyanotype print of Sea Colander (Agarum sp.) collected in the Atlantic waters of Canada.  Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-15.jpg
  • A sheet of exposed cyanotype chemical paper with the fern that blocked the UV light. Exposure to UV light has caused the chemicals to turn blue. The next step would be to wash the print in water. In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-7.jpg
  • A sheet of unexposed paper treated with the cyanotype chemicals. The ferns are placed on the treated paper to block UV light.  Exposure to UV light will cause the chemicals to turn blue. In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-5.jpg
  • This is a cyanotype print of Kelp (Macrocystis sp.) collected in the waters of California along the Pacific Ocean.Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-14.jpg
  • This is a cyanotype print of False Sour Weed (Dictyosiphon foeniculaceus): a common seaweed found in the Atlantic waters of Canada.  Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-12.jpg
  • This is a cyanotype print of Kelp (Macrocystis sp.) collected in the waters of California along the Pacific Ocean.Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-13.jpg
  • This is a cyanotype print of Sea Colander (Agarum sp.) collected in the Atlantic waters of Canada.  Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-16.jpg
  • A sheet of unexposed paper treated with the cyanotype chemicals. The ferns are placed on the treated paper to block UV light.  Exposure to UV light will cause the chemicals to turn blue. In this process an object is placed on the ultraviolet sensitive chemically treated paper and exposed to a strong UV light source – in this case sunlight.  The object is then removed and the print washed in cool water to remove the unreacted chemicals. Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-6.jpg
  • Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-8.jpg
  • A sheet of unexposed paper treated with the cyanotype chemicals.  Exposure to UV light will cause the chemicals to turn blue.  Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-4.jpg
  • Cyanotype is a photographic printing process that produces a cyan-blue print. Engineers used the process well into the 20th century as a simple and low-cost process to produce copies of drawings, referred to as blueprints. The process uses two chemicals: ammonium iron(III) citrate and potassium ferricyanide.  The English scientist and astronomer Sir John Herschel discovered the procedure in 1842.
    K14-cyanotype-1.jpg
  • Scanning Electron Micrograph (SEM) of the top surface of a Cannabis sativa (marijuana) leaf, showing trichomes. Magnification: 500X at 8x10" print size.
    K14sem-canna-16.jpg
  • SEM image with false color of the reflective ink on a new 100 dollar bill.  This image shows the the special highly reflective optical ink used on the large 100 pattern and on the liberty bell. This ink can not be duplicated with a digital printer. This image is part of a series showing the new security features of the United States 100 dollar bill. These anti-counterfeit features include micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks. This image is x150 magnification when printed 10 cm wide.
    K14SEM140611new100bill_0095.jpg
  • Scanning electron microscope image of the lenticular array in the U.S. 100 dollar bill. The lenticular array, or micro-lens, shows a different color when the viewing angle of the bill is changed. This is just one of the security (anti-counterfeit) features of the United States 100 dollar bill, others include: micro-print, watermarks, lenticular images, special inks, fluorescent fibers and strips, colored fibers, and the use of full colored inks.
    K14SEM140611new100bill_0107.jpg
  • Color-enhanced Scanning Electron Micrograph (SEM) of the surface of a marijuana (Cannabis sativa) plant, showing glandular cells, called trichomes. These are capitate trichomes that have stalks. They secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug. Magnification: 52X when printed 10 cm wide.
    170613gland-triF031pan3.jpg
  • Skin from the Great Hammerhead Shark (Sphyrna mokarran). The Great Hammerhead Shark is the largest species of hammerhead shark, family Sphyrnidae, attaining a maximum length of 6.1 m (20 ft). It is found in tropical and warm temperate waters worldwide. This specimen was collected in Florida. This is a scanning electron microscope shot of the skin. Magnification is x142 when printed 10 cm wide.
    K14SEM-hammerhead-skin008B.jpg
  • SEM of Human bone. This image shows the cancellous (spongy) bone of the human shin. Bone tissue is either compact or cancellous. Compact bone usually makes up the exterior of the bone, while cancellous bone is found in the interior. Cancellous bone is characterised by a honeycomb arrangement of trabeculae. These structures help to provide support and strength. The spaces within this tissue normally contain bone marrow, a blood forming substance.  Magnification is x50 when printed 10 cm wide.
    K14SEM-humanbone039.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant bud.  Glandular cells called trichomes are also present. These are capitate trichomes that have stalks. These trichomes secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug.  Magnification is 180x when printed 10 cm wide.
    K13SEM-pot-A01color-CSC.jpg
  • Crystals in the roots of the Cannabis plant. The exact composition of these are currently unknown and their role in the life cycle of the plant is a mystery. Why are they there? What do they do? What is the chemical composition of the crystals? Just a few of the questions that seem to be a daily occurrence when looking at the cannabis plant with this level of magnification.<br />
Magnification on the printed page is 4300x at 9 inches wide.
    K170614Root-crystalscombo.jpg
  • Crystals in the roots of the Cannabis plant. The exact composition of these are currently unknown and their role in the life cycle of the plant is a mystery. Why are they there? What do they do? What is the chemical composition of the crystals? Just a few of the questions that seem to be a daily occurrence when looking at the cannabis plant with this level of magnification.<br />
Magnification on the printed page is 4300x at 9 inches wide.
    170614Root-crystalscombo.jpg
  • The male flower of the cannabis plant (Cannabis sativa) plant photographed in a scanning electron microscope. Magnification when printed 10 inches wide is x50.
    170524CPD-stemL086_2.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant.  Glandular cells called trichomes are also present. These are capitate trichomes that have stalks. These trichomes secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug.  Magnification is 100x when printed 10 cm wide.
    K14SEM-canna-44.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the bottom surface of a cannabis (Cannabis sativa) plant.  Magnification is 90x when printed 10 cm wide.
    K14SEM-canna-29B.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the bottom surface of a cannabis (Cannabis sativa) plant.  Magnification is 90x when printed 10 cm wide.
    K14SEM-canna-29.jpg
  • Colored-enhanced scanning electron micrograph (SEM) of a section through a xylem vessel in a cannabis stem. The xylem transports water and mineral nutrients from the roots throughout the plant. The walls of the xylem vessels are strengthened with lignin  loops, a woody substance that helps to support the plant. Magnification: x2200 when printed at 10 centimeters wide.
    K13SEM-canna67.jpg
  • Transverse section of Stinking Hellebore (Helleborus foetidus).  A poisonous plant.  Light micrograph of a section through a stem.  The magnification is 200 times when printed 10 inches wide.
    K07Stinking200x03.tif
  • Transverse section of Stinking Hellebore (Helleborus foetidus).  A poisonous plant.  Light micrograph of a section through a stem.  The magnification is 200 times when printed 10 inches wide.
    K07Stinking200x02.tif
  • Transverse section of a King Solomon's-seal (Polygonatum muliiflorum) stem. Polygonatum (King Solomon's-seal, Solomon's Seal) is a genus of about 50 species of flowering plants within the family Ruscaceae, formerly classified in the lily family Liliaceae.  Light micrograph of a section through a  stem.  The magnification is 200 times when printed 10 inches wide.
    K07KingSolomon200x05.tif
  • An SEM image of the skin from a Sandbar Shark (Carcharhinus plumbeus). The magnification is x230 when printed 10 cm wide.
    K14SEM-sandbarshark-skinC028.jpg
  • SEM image of Human blood platelets in the process of clotting. This sample was taken from the root of a tooth from an 18 year old male during oral surgery. Magnification is x10,100 when printed 10 cm wide.
    tissue041.jpg
  • Scanning electron microscope (SEM) image of human muscle tissue collected from an 18 year old male during tooth surgery. The  connective tissue I  collagen fibers and red blood cells . Magnification x9570 when printed 10 cm wide.
    K14SEMtissue-1tooth04.jpg
  • This is false color scanning electron microscope (SEM) image of a Martian meteorite.  This is a fragment of NWA 1068 Martian Meteorite that fell in Northwest Africa.  This specimen is from the Hupe Planetary collection.  This is an example of a Picritic Shergottit.  Magnification is x300 when printed 10 cm wide.
    K14semmars0047.jpg
  • Colored scanning electron micrograph (SEM) of clotting red blood cells from a 18 year old male's wisdom tooth tissue.  The red blood cells are starting to clot in this image.  Magnification: x1830 when printed 10cm wide.
    K14SEM140618tooth043.jpg
  • Colored scanning electron micrograph (SEM) of clotting red blood cells from a 18 year old male's wisdom tooth tissue.  The red blood cells are starting to clot in this image.  Magnification: x2330 when printed 10cm wide.
    K14SEM140618tooth013.jpg
  • Color-enhanced Scanning Electron Microscope  (SEM) of volcanic ash (volcanic glass; pumice) from Mount St. Helens in Washington State. Collected on May 18, 1980  Magnification is x450 when printed 10 cm wide.
    K14SEM-volcanic-ash026B.jpg
  • Color-enhanced Scanning Electron Micrograph (SEM) of a rotten oak branch. The rot appears as filaments of mycelium, or fungus, that have grown though the wood. These filaments can clearly be seen in the circular tunnels in the wood. Magnification: x1300 when printed 10 cm wide.
    K14SEM-rottenoak081.jpg
  • An SEM image of Human blood platelets in the process of clotting.  This sample was taken from the root of a tooth from an 18 year old male during oral surgery.  Magnification is x3330 when printed 10 cm wide.
    K14SEM-platelets-tissue024.jpg
  • Scanning electron microscope image of sterilized medical paper gauze.  This type of paper is used in medical application and to carry tissue samples to a lab.  Magnification is x205 when printed 10 cm wide.
    K14SEM-med-gauze056.jpg
  • Color-enhanced Scanning Electron Microscope image (SEM) of a human lymphocyte cell.  Magnification: is x6200 when printed 10 cm wide.
    K14SEM-lymphocyte-Z027B.jpg
  • SEM of Human bone. This image shows the cancellous (spongy) bone of the human shin. Bone tissue is either compact or cancellous. Compact bone usually makes up the exterior of the bone, while cancellous bone is found in the interior. Cancellous bone is characterised by a honeycomb arrangement of trabeculae. These structures help to provide support and strength. The spaces within this tissue normally contain bone marrow, a blood forming substance.  Magnification is x40 when printed 10 cm wide.
    K14SEM-humanbone041B.jpg
  • SEM of Human bone. This image shows the cancellous (spongy) bone of the human shin. Bone tissue is either compact or cancellous. Compact bone usually makes up the exterior of the bone, while cancellous bone is found in the interior. Cancellous bone is characterised by a honeycomb arrangement of trabeculae. These structures help to provide support and strength. The spaces within this tissue normally contain bone marrow, a blood forming substance.  Magnification is x40 when printed 10 cm wide.
    K14SEM-humanbone034.jpg
  • A false color scanning electron microscope (SEM) image of Magic mushroom spores. (Psilocybe cubensis )These spores will grow into the fungus that is Psilocybe cubensis , or the magic mushroom.   When ingested, this fungus causes euphoria, hallucinations and altered perception of time. Each spore of this strain is approximately 8 by 11 um.  Magnification is x660 when printed 10 cm wide.
    K14SEM-cubensis-spores900BLUE.jpg
  • A false color scanning electron microscope (SEM) image of Magic mushroom spores. (Psilocybe cubensis )These spores will grow into the fungus that is Psilocybe cubensis , or the magic mushroom.   When ingested, this fungus causes euphoria, hallucinations and altered perception of time. Each spore of this strain is approximately 8 by 11 um.  Magnification is x660 when printed 10 cm wide.
    K14SEM-cubensis-spores900.jpg
  • Color-enhanced Scanning Electron Micrograph (SEM) of a biting midge (Ceratopogonidae sp.), more commonly known as a No See-Um.   Magnification: x165 when printed 10 cm wide.
    K14SEM-bitting-midge019.jpg
  • Color-enhanced Scanning Electron Microscope (SEM) image of human tooth dentine (fracture surface) showing a crack in the surface. 70% of dentin consists of the mineral hydroxyapatite, 20% is organic material, and 10% is water. Magnification: x1200 when printed 10 cm wide.
    K14SEM--tooth062B.jpg
  • Colored scanning electron micrograph (SEM) of clotting red blood cells from a 18 year old male's wisdom tooth tissue.  The red blood cells are starting to clot in this image.  Magnification: x3380 when printed 10cm wide.
    K14-sem-tissue091.jpg
  • Colored scanning electron micrograph (SEM) of clotting red blood cells from a 18 year old male's wisdom tooth tissue.  The red blood cells are starting to clot in this image.  Magnification: x2330 when printed 10cm wide.
    K14-sem-tissue077.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant.  Glandular cells called trichomes are also present. These are capitate trichomes that have stalks. These trichomes secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug.  Magnification is 180x when printed 10 cm wide.
    K13SEM-pot-multiBSE-001.jpg
  • Needle playing a record. Colored scanning electron micrograph (SEM) of the needle (stylus) of a record player.  This needle is designed to play stero recordings.   This needle is designed for mon recordings at 78 RPM. The magnification is 105x when printed 10 cm wide
    K13SEM-78rpmNeedleB.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant bud.  Glandular cells called trichomes are also present. These are capitate trichomes that have stalks. These trichomes secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug.  Magnification is 180x when printed 10 cm wide.
    K13SEM-pot-A01color-CSB.jpg
  • Color-enhanced Scanning Electron Micrograph (SEM) of the surface of a marijuana (Cannabis sativa) plant, showing glandular cells, called trichomes. These are capitate trichomes that have stalks. They secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug. Magnification: 52X when printed 10 cm wide.
    170613cola-bladeC015pan1.jpg
  • The male flower of the cannabis plant (Cannabis sativa) plant photographed in a scanning electron microscope. Magnification when printed 10 inches wide is x50.
    170524CPD-stemK075pan2.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant.  Magnification is 180x when printed 10 cm wide.
    K14SEM-canna-19.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant.  Magnification is 180x when printed 10 cm wide.
    K13SEM-pot-multiBSE-001canna-14.jpg
  • Colored-enhanced scanning electron micrograph (SEM) of a section through a xylem vessel in a cannabis stem. The xylem transports water and mineral nutrients from the roots throughout the plant. The walls of the xylem vessels are strengthened with lignin  loops, a woody substance that helps to support the plant. Magnification: x1200 when printed at 10 centimeters wide.
    K13SEM-canna66.jpg
  • A cross section of a mature Cannabis  stem.   The pith cells in the center of the cannabis stem. Pith is composed of soft spongy cells, which store and transport nutrients throughout the plant. . Magnification: x2200 when printed at 10 centimeters wide.
    K13SEM-canna-pith62.jpg
  • Cannabis plant. Colored scanning electron micrograph (SEM) of the surface of a cannabis (Cannabis sativa) plant.  Glandular cells called trichomes are also present. These are capitate trichomes that have stalks. These trichomes secrete a resin containing tetrahydrocannabinol (THC), the active component of cannabis when used as a drug.  Magnification is 180x when printed 10 cm wide.
    K13SEM-canna-37.jpg
  • A Scanning electron microscope shot of a rotten oak branch.  The rot can be seen by filaments of mycelium or fungus that has grown though the wood.  The fungus filaments can clearly be seen in the circular tunnels in the wood.Magnification is 300x when printed 10 cm wide.
    K13-SEMRotten-oak1.jpg
  • Transverse section of a Tamarisk stem (Tamarix tetrandra) .  micrograph of a section through a  stem.  The magnification is 200 times when printed 10 inches wide.
    K07Tamarisk200x02.tif
  • Transverse section of Stinking Hellebore (Helleborus foetidus).  A poisonous plant.  Light micrograph of a section through a stem.  The magnification is 32 times when printed 10 inches wide.
    K07Stinking32x.tif
  • Transverse section stem of an oak tree (Quercus robur).  Light micrograph of a section through a stem.  The magnification is 200 times when printed 10 inches wide.
    K07oak200x02.tif
  • Transverse section stem of Ivy (Hedera) a dicotyledon.  Light micrograph of a section through an ivy stem.  The magnification is 600 times when printed 10 inches wide.
    K07ivy-stem600x5.tif
  • Transverse section of a honeysuckle stem. Honeysuckle (Lonicera periclymenum), known as Common Honeysuckle, European Honeysuckle or woodbine.Light micrograph of a section through a  stem.  The magnification is 32 times when printed 10 inches wide.
    K07honeysuckle32x.tif
  • Transverse section of a  Datura Stem (Datura stramonium).  Light micrograph of a section through a stem.  The magnification is 32 times when printed 10 inches wide.  Datura is also known by the common names Jimson Weed, Gypsum Weed, Stink Weed, Loco Weed, Jamestown Weed, Thorn Apple, Angel's Trumpet, Devil's Trumpet, Devil's Snare is a common weed in the Nightshade Family. It contains tropane alkaloids that are sometimes used as a hallucinogen.
    K07datura32X.tif
  • Butchers Broom (box holly) Ruscus aculeatus. Butcher's broom is an aromatic, diuretic, mildly laxative herb that reduces inflammation and constricts the veins.  The plant is considered a medicinal herb since medieval times.  Magnifation is 32 times when printed 10 inches wide.
    K07butchers-broom.tif
  • An SEM image of the skin from a Sandbar Shark (Carcharhinus plumbeus). The magnification is x200 when printed 10 cm wide.
    K14SEM-sandbarshark-skinC035B.jpg
  • An SEM image of the skin from a Sandbar Shark (Carcharhinus plumbeus). The magnification is x230 when printed 10 cm wide.
    K14SEM-sandbarshark-skinC028B.jpg
  • An SEM image of the skin from a Sandbar Shark (Carcharhinus plumbeus). The magnification is x200 when printed 10 cm wide.
    K14SEM-sandbarshark-skinC020.jpg
  • Skin from the Great Hammerhead Shark (Sphyrna mokarran). The Great Hammerhead Shark is the largest species of hammerhead shark, family Sphyrnidae, attaining a maximum length of 6.1 m (20 ft). It is found in tropical and warm temperate waters worldwide. This specimen was collected in Florida. This is a scanning electron microscope shot of the skin. Magnification is x240 when printed 10 cm wide.
    K14SEM-hammerhead-skin043B.jpg
  • Skin from the Great Hammerhead Shark (Sphyrna mokarran). The Great Hammerhead Shark is the largest species of hammerhead shark, family Sphyrnidae, attaining a maximum length of 6.1 m (20 ft). It is found in tropical and warm temperate waters worldwide. This specimen was collected in Florida. This is a scanning electron microscope shot of the skin. Magnification is x73 when printed 10 cm wide.
    K14SEM-hammerhead-skin003B.jpg
  • An SEM image of the skin from a Hammerhead shark (Sphyrna zygaena). The magnification is x174 when printed 10 cm wide.
    K14SEM-hammerhead-skin002B.jpg
  • A SEM image of the skin from the Blacktip reef shark (Carcharhinus melanopterus)   Magnification is x215 when printed 10 cm wide.
    K14SEM-blacktip012.jpg
  • An SEM image of a reed from a woodwind instrument.  The reed is from Giant Grass (Arundo donax ), also called, wild cane or giant cane, native to  South Eastern France. Small slivers of the giant grass are shaped into thin wedges that vibrate when air is blown across the surface.  These musical reeds are  used by woodwind instruments such as saxophones and clarinets, and double reed wind instruments such as bassoons and oboes.  The reeds are also used in saxophones and clarinets,  The magnification of the image is x80 when printed 10 cm wide
    K14SEMreed-music86C.jpg
  • False color scanning electron micrograph of the internal siliceous skeleton of Radiolaria sp. Radiolaria are amoeboid protozoa. Around the skeleton, in a living organism, is an external layer of protoplasm from which radiate numerous pseudopodia, or false feet. Radiolaria are usually marine and planktonic. This specimen was collected in the Mediterranean ocean off the cost of Sicily Italy. Magnification: x200 when printed 10 cm wide
    K14SEM140618radiolian069.jpg
  • Color-enhanced Scanning Electron Microscope  (SEM) of volcanic ash (volcanic glass; pumice) from Mount St. Helens in Washington State. Collected on May 18, 1980  Magnification is x450 when printed 10 cm wide.
    K14SEM-volcanic-ash026.jpg
  • Color-enhanced Scanning Electron Micrograph (SEM) of a rotten oak branch. The rot appears as filaments of mycelium, or fungus, that have grown though the wood. These filaments can clearly be seen in the circular tunnels in the wood. Magnification: x1500 when printed 10 cm wide.
    K14SEM-rottenoak091.jpg
  • An SEM image of Human blood platelets in the process of clotting.  This sample was taken from the root of a tooth from an 18 year old male during oral surgery.  Magnification is x9540 when printed 10 cm wide.
    K14SEM-platelets-tissue054B.jpg
  • An SEM image of Human blood platelets in the process of clotting.  This sample was taken from the root of a tooth from an 18 year old male during oral surgery.  Magnification is x9540 when printed 10 cm wide.
    K14SEM-platelets-tissue054.jpg
  • An SEM image of Human blood platelets in the process of clotting.  This sample was taken from the root of a tooth from an 18 year old male during oral surgery.  Magnification is x3330 when printed 10 cm wide.
    K14SEM-platelets-tissue024B.jpg
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Ted Kinsman

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