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  • 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
  • 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 x3000 when printed 10 cm wide.
    K14SEMtissue-tooth049.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 x4000 when printed 10 cm wide.
    K14SEM140611tooth029.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 x4200 when printed 10 cm wide.
    K14SEM140611tooth028.jpg
  • Scanning electron micrograph of human brain cells. Brain cells or nerons are an extensive network of interconnecting dendrites. Cortical Neurons make up the brain's cortex (grey matter). The cerebral cortex is a sheet of neural tissue that is outermost to the cerebrum of the mammalian brain. It covers the cerebrum and cerebellum, and is divided into left and right hemispheres. The cerebral cortex plays a key role in memory, attention, perceptual awareness, thought, language, and consciousness. Magnification x1400 at 12 cm wide.
    K15sem-human-brain0050.jpg
  • Scanning electron micrograph of human brain cells. Brain cells or nerons are an extensive network of interconnecting dendrites. Cortical Neurons make up the brain's cortex (grey matter). The cerebral cortex is a sheet of neural tissue that is outermost to the cerebrum of the mammalian brain. It covers the cerebrum and cerebellum, and is divided into left and right hemispheres. The cerebral cortex plays a key role in memory, attention, perceptual awareness, thought, language, and consciousness. Magnification x400 at 12 cm wide.
    K15sem-human-brain0053.jpg
  • Scanning electron micrograph of human brain cells. Brain cells or nerons are an extensive network of interconnecting dendrites. Cortical Neurons make up the brain's cortex (grey matter). The cerebral cortex is a sheet of neural tissue that is outermost to the cerebrum of the mammalian brain. It covers the cerebrum and cerebellum, and is divided into left and right hemispheres. The cerebral cortex plays a key role in memory, attention, perceptual awareness, thought, language, and consciousness. Magnification x1400 at 12 cm wide.
    K15sem-human-brain0046.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
  • Scanning electron microscope (SEM) of human bone tissue. Colored scanning electron micrograph  of cancellous (spongy) bone. Cancellous bone is found in the interior of bones. Cancellous bone is characterized by a honeycomb arrangement, comprising a network of trabeculae (rod-shaped tissue). These structures provide support and strength to the bone. The spaces within this tissue contain bone marrow (not seen), a blood forming substance. This image is x150 when printed 10 cm wide.
    K13bone-c200A.jpg
  • Dried Human bone photographed at 5x magnification.  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.
    K13-bonestack001.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 x1000 when printed 10 cm wide.
    K14SEM-humanbone043B.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
  • 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-humanbone046-2B.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-humanbone046-2.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-humanbone034B.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-humanbone039B.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 x300 when printed 10 cm wide.
    K14SEM-humanbone038B.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 x1000 when printed 10 cm wide.
    K14SEM-humanbone043.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-humanbone041.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 x300 when printed 10 cm wide.
    K14SEM-humanbone038.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-humanbone035.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-humanbone035B.jpg
  • Cross section of human skin showing a layer of tattoo ink in the skin. A tattoo is made by inserting permanent ink into the dermis (lower layer) of the skin using a needle.  This image was photographed at 200x on a 35mm sensor.
    K14-tattoo-humanskin40xpan2.jpg
  • Cross section of human skin showing a layer of tattoo ink in the skin. A tattoo is made by inserting permanent ink into the dermis (lower layer) of the skin using a needle.  This image was photographed at 200x on a 35mm sensor.
    K14-tattoo-humanskinpan1B.jpg
  • Bird red blood cells collected from a Baltimore Oriole (Icterus galbula).  Colored scanning electron micrograph (SEM) of red blood cells (erythrocytes, red) from avian tissue. These cells contain hemoglobin, a pigment that allows them to carry oxygen around the body. Non-mammalian red blood cells (such as these) are oval (discoid) in shape and contain a cell nucleus. Human red blood cells are disc-shaped and do not have a cell nucleus. Magnificationof image is 1960x and the image is  80um  wide. .
    K12sem-bird-blood-01.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
  • 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
  • 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 x6530 when printed 10 cm wide.
    K14SEM-platelets-tissue052.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
  • 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 x9420 when printed 10 cm wide.
    K14SEM-platelets-tissue014A.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 x9420 when printed 10 cm wide.
    K14SEM-platelets-tissue014.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
  • 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
  • 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: 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: x2990 when printed 10cm wide.
    K14-sem-tissue081B.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: x2990 when printed 10cm wide.
    K14-sem-tissue081.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: x5100 when printed 10cm wide.
    K14-sem-tissue079B.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: x2640 when printed 10cm tall.
    K14-sem-tissue071.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-tissue069B.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-tissue069.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: x22,570 when printed 10cm wide.
    K14-sem-tissue026C.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: x1930 when printed 10cm wide.
    K14SEM140618tooth026.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: x2000 when printed 10cm wide.
    K14SEM-lymphocyte-Z030B.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: x2000 when printed 10cm wide.
    K14SEM-lymphocyte-Z030.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: x9970 when printed 10cm wide.
    K14-sem-tissue086.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: x6580 when printed 10cm wide.
    K14-sem-tissue083.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: x12,000 when printed 10cm wide.
    K14-sem-tissue084.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: x22,570 when printed 10cm wide.
    K14-sem-tissue026B.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: x22,570 when printed 10cm wide.
    K14-sem-tissue026.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: x7330 when printed 10cm wide.
    K14-sem-tissue095.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-tissue077B.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-tissue091B.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: x5100 when printed 10cm wide.
    K14-sem-tissue079.jpg
  • A light microscope image of the epidermal layer of a cactus (unidentified) showing  numerous calcium oxalate crystals.  Calcium oxalate crystals in plants are called raphides, in humans they can appear as kidney stones. These crystals help remove calcium build up in the tissues and make it undesirable for herbivore animals to eat the plant.Photo taken at 20x.
    K14-oxalatextal72.jpg
  • A SEM image of the edge of a leaf shows a calcium oxalate crystal. These crystals are found throughout the plant and are responsible for throat irritation when medical marijuana is smoked. Plants that have too many oxalate crystals are good candidates for modern THC extraction techniques. Calcium oxalate crystals in plants are called raphides. Humans have similar calcium crystals that can appear as kidney stones. These crystals help remove calcium build up in the tissues and make it undesirable for grazing animals to eat the plant. Magnification is x120 on the printed page.
    K170406z056.jpg
  • A light microscope image of the epidermal layer of a cactus (unidentified) showing  numerous calcium oxalate crystals.  Calcium oxalate crystals in plants are called raphides, in humans they can appear as kidney stones. These crystals help remove calcium build up in the tissues and make it undesirable for herbivore animals to eat the plant.Photo taken at 40x.
    K14-oxalatextal71.jpg
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