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  • The sunset moth or the urania moth species (Urania ripheus) is an iridescent moth that is active during the day . This migratory insect lives in tropical rainforests in Madagascar. The 8 cm wide wings are iridescent and reflect red, yellow, and green.
    urania-r_00036.jpg
  • An X-ray of a cactus.
    K15Xcactus1B.jpg
  • An X-ray of a cactus.
    K15Xcactus1A.jpg
  • A digital streak image of a bouquet of flowers. This type of image is used to test the stability of digital time-lapse camera systems as well as collect image data around a circular object.  In this case the camera is tilted with respect to the rotation and a colorful twist of colors is the wonderful result.
    K09s2A-074.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-C4503Bug.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-A4114Bee.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-A4114UV.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-B4497UV.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-E4510Bee.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-E4510Bug.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-A4114Bug.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-G-4523Bug.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-F-4520Bee.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-F-4520Bug.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-C4503Bee.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-G-4523Bee.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-E4510UV.jpg
  • A Sunflower seen in one form of simulated “bee vision” or insect vision. Since many insects have vision that ranges from the yellow to the ultraviolet part of the spectrum, this image has been adjusted to have the areas of highest reflectivity in the green part of the spectrum. This sunflower image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-B4497Bee.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-G-4523UV.jpg
  • A Sunflower seen in simulated insect vision. In this image the UV reflectivity from the flower has been added to a normal human vision image to create one interpretation of what an insect might see. The image shows the different patterns on the flower petals as perceived by insects that can see well into the ultraviolet region of the spectrum. These special patterns that have evolved to attract insects to the flower are called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation, visible light, insect vision, and simulated bee vision.
    K19Flower-B4497Bug.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-F-4520UV.jpg
  • A Sunflower seen in ultraviolet (UV) radiation. The image shows the different patterns on the flower petals that have evolved to attract insects to the flower. These patterns are often called honey guides. This image is part of a series showing the same flower in ultraviolet (UV) radiation and visible light.
    K19Flower-C4503UV.jpg
  • A false color X-ray of a fern.
    K15Xfern01C.jpg
  • A false color X-ray of a fern.
    K15Xfern01D.jpg
  • A false color X-ray of a fern.
    K15Xfern01A.jpg
  • A false color X-ray of a fern.
    K15Xfern01B.jpg
  • The scales found on the back of a mosquito (family Culicidae).  These scales decrease fluid flow across the surface of the mosquito and allow it to fly with less energy.  Several mosquito species are vectors for human diseases, including malaria and yellow fever.   This is a scanning electron microscope image.  The calibration bar is 10 um and the magnification is 360 x..
    K08semmosquito-b11.jpg
  • An X-ray of a Datura Flower( Datura stramonium ) in Flower showing trumpet shaped flower.  This plant also can be called Thorn Apple or Jimson weed.
    trumpet2.jpg
  • An X-ray of a Datura Flower( Datura stramonium ) in Flower showing trumpet shaped flower.  This plant also can be called Thorn Apple or Jimson weed.
    trumpet1-fix2blue.jpg
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.
    K10BZRXN3563.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.  This image is part of a series.
    K10BZRXN3578.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.  This image is part of a series.
    K10BZRXN3575.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.  This image is part of a series.
    K10BZRXN3572.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.  This image is part of a series.
    K10BZRXN3581.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.  This image is part of a series.
    K10BZRXN3584.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.
    K10BZRXN3569.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.
    K10BZRXN3566.tif
  • Chemical waves in a Belousov-Zhabotinsky (BZ) reagent. This is a well-mixed solution of citric acid, potassium bromate and a cerium sulphate catalyst. If the local relative concentrations in the reagent are altered, for example by the impact of a dust particle on the surface, the equilibrium of the reaction is disturbed. The reaction then oscillates between oxidation and reduction. The oscillation propagates through the solution as a concentration front (yellow lines), caused by the dynamic coupling between the propagation rate of the reaction and the rates of diffusion of the reagents. Such chemical waves may be modeled using chaos mathematics.
    K10BZRXN3560.tif
  • Baculites ("walking stick rock") is a genus of extinct marine animals in the phylum Mollusca and class Cephalopoda. They are a straight-shelled type of  ammonite that lived worldwide in the Late Cretaceous period.   Baculites grew up to two meters long and have long been thought to have lived in a vertical orientation with the head hanging straight down.   This specimen is from South Dakota.
    K08Baculite0024.jpg
  • Baculites ("walking stick rock") is a genus of extinct marine animals in the phylum Mollusca and class Cephalopoda. They are a straight-shelled type of  ammonite that lived worldwide in the Late Cretaceous period.   Baculites grew up to two meters long and have long been thought to have lived in a vertical orientation with the head hanging straight down.   This specimen is from South Dakota.
    K08Baculite0023.jpg
  • Baculites ("walking stick rock") is a genus of extinct marine animals in the phylum Mollusca and class Cephalopoda. They are a straight-shelled type of  ammonite that lived worldwide in the Late Cretaceous period.   Baculites grew up to two meters long and have long been thought to have lived in a vertical orientation with the head hanging straight down.   This specimen is from South Dakota.
    K08Baculite0012.jpg
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