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  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_9738PR.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5855.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5795.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5649.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5450.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5287.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4829.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4648.jpg
  • Snowflake with a platelet crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6525.jpg
  • Snowflake with a platelet crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6511.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_9862PR-cropped.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    fantastic2003.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    2100300012_RT8PR.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K14-snowflake9024A.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6817.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6794.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6779.jpg
  • Snowflake with a platelet crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6528.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11-snow6840.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11-snow6824B.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11-snow6743.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5107.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4206.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    coin_5128.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    bIMG_4779.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    070214frost0006.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    Snowflake05-1936.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K13Snow011A.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K13snow006A.jpg
  • Snowflake with a platelet crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11snowflake6501.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5804.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5429.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4967.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    2130300134_rt8PR.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    2130300089_RT8PR.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    k11-snowflake0058.jpg
  • Snowflake with a platelet crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6507.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_9604PR.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    snowKINSMAN5287.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6846.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    K11Snowflake6819.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5329.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5221.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_5194.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4961.jpg
  • Snowflake with a stellar (or dendritic) crystal form, made in a cloud when water freezes at negative fifteen degrees Celsius. When crystallization occurs slowly, in calm air and in temperatures near the freezing point, snowflakes will exhibit hexagonal symmetry.
    IMG_4604.jpg
  • Kiwi fruit, (Actinidia deliciosa). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4473.jpg
  • Kiwi fruit, (Actinidia deliciosa). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4468.jpg
  • A Black walnut fruit (Juglans nigra). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4392.jpg
  • Daffodil flower as seen in UV light. The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series.
    K20-C_3541UVVF.jpg
  • A species of glow in the dark mushroom, Panellus stipticus. This naturally occurring bio-luminescent mushroom is common in New England forests in the fall. This species lives on partially decayed oak and uses a unique chemical reaction to digest chemicals in the oak that are toxic to other fungi. Part of a series showing the mushroom in visible and bio-luminescent light.
    K13-glow2A.jpg
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell006.JPG
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration079.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration074.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration062.jpg
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine911.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine910.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine907.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine845.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine841.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine840.JPG
  • A drip of water splashes as it hits a shallow dish of water.  The action is frozen in time with a high-speed flash with a duration of 1/20,000th of a second.  The impact of the water droplet creates a unique crown shaped splash.
    070227drip0449.jpg
  • A drip of water splashes as it hits a shallow dish of water.  The action is frozen in time with a high-speed flash with a duration of 1/20,000th of a second.  The impact of the water droplet creates a unique crown shaped splash.
    070227drip0427.jpg
  • A browning banana. The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. There was a small amout of white light added to the exposure to show the yellow of the banana. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4448.jpg
  • Daffodil flower as seen in UV light. The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series.
    K20-D_3539UVVF.jpg
  • Daffodil flower as seen in UV light. The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series.
    K20-A_3552UVVF.jpg
  • A species of glow in the dark mushroom, Panellus stipticus. This naturally occurring bio-luminescent mushroom is common in New England forests in the fall. This species lives on partially decayed oak and uses a unique chemical reaction to digest chemicals in the oak that are toxic to other fungi. Part of a series showing the mushroom in visible and bio-luminescent light.
    K13-glow2-010A.jpg
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell017.JPG
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration072.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration075.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration076.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration065.jpg
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine854.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine850.JPG
  • “Yooperlite” is the common name for syenite rich in fluorescent sodalite. These specimens of fluorescent sodalite were recently discovered Michigan.<br />
The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series.
    K20-UVIVF_5667.jpg
  • Kiwano fruits (Cucumis metuliferus). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4520.jpg
  • Kiwano fruits (Cucumis metuliferus). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4516.jpg
  • Kiwano fruits (Cucumis metuliferus). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4504.jpg
  • A species of glow in the dark mushroom, Panellus stipticus. This naturally occurring bio-luminescent mushroom is common in New England forests in the fall. This species lives on partially decayed oak and uses a unique chemical reaction to digest chemicals in the oak that are toxic to other fungi. Part of a series showing the mushroom in visible and bio-luminescent light.
    K13-glowmush1A.jpg
  • A species of glow in the dark mushroom, Panellus stipticus. This naturally occurring bio-luminescent mushroom is common in New England forests in the fall. This species lives on partially decayed oak and uses a unique chemical reaction to digest chemicals in the oak that are toxic to other fungi. Part of a series showing the mushroom in visible and bio-luminescent light.
    K13-glow1-043.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-shell004.JPG
  • A 3d Printed shell made with a unique program by Andy kinsman
    K12-3D-shell002.JPG
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration078.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration071.jpg
  • Sand patterns formed from vibrating a square sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency. When the plat is driven at a resonate frequency the sand grains will collect in the nodes. Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate. The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate. This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 - 1827) also know for his work with the speed of sound.
    K10vibration067.jpg
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine912.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine908.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine853.JPG
  • .The unique fishbone pattern is created by two colliding steams of liquids.  Each stream or jet is created by a 1mm diameter nozzle.  This image if from a series of images where the velocity of the fluid jet is varied from .8 to 3 meters per second.  This pattern is currently the focus of scientists studying the strange world of fluid dynamics.  The pattern is a stable flow state that is a balance of surface tension,  viscosity, momentum, and gravity.  The fluid used in this experiment is 90% glycerol  and 10% water solution with a viscosity of 20cS.   This image was taken with a high speed flash at 1/40,000th of a second at at a magnification of 1x.  This pattern cal also be called the fish effect, herringbone effect, or the fishbone effect.
    K12glycerine852.JPG
  • Sand patterns formed from vibrating a quare sheet of thin metal. These formations, known as Chladni patterns, occur when fine particles, such as grains of sand or salt, form a unique pattern in response to pure tone vibrations such as musical notes. This sand was placed on a metal plate that was vibrated at different frequency.  When the plat is driven at a resonate frequency the sand grains will collect in the nodes.   Chladni Oscillations are a standing wave pattern visualized by vibrating a metal plate.  The nodes and anti-nodes of the oscillation are made visible my placing sand grains on the plate.   This technique for visualizing sound waves was discovered by Ernst Florens Friedrich Chladni (1756 – 1827) also know for his work with the speed of sound.
    K10vibrationsquare03.jpg
  • Scanning electron microscope image of Galium aparine.  Common names include, Catchweed, Bedstraw, Sticky Willy, Goose Grass, and Cleavers.  This unique plant has seeds covered in burs similar to Velcro.  The seeds are dispersed by getting stuck in animals fur.  The magnification on this image is 45x and represents an area 2 mm wide on the seed.
    K08SEM-Galium-bur028.jpg
  • An x-ray of ginko leaves.(Ginkgo biloba) also known as the maidenhair tree. The leaves are unique among trees in that they have no midrib and no network of veins; rather the venation consists of aconstantly branching fan from the base of the leaf.  Ginkgo biloba leaves and fruit are used in many herbal preparations.
    ginkgo3fix11x14levels.jpg
  • A drip of water splashes as it hits a shallow dish of water.  The action is frozen in time with a high-speed flash with a duration of 1/20,000th of a second.  The impact of the water droplet creates a unique crown shaped splash.
    070227drip0319.jpg
  • These  pointed scales are also known as dermal teeth. They give the shark's skin the feel of sandpaper.  The scales disrupt turbulence over the skin, considerably reducing the drag on the shark as it swims.  The reduction in fluid drag allows the shark to swim with less energy.  This unique design is duplicated in swimsuits and other surfaces that move through the water. The scale bar is 100 um and the magnification is 129x.
    K08sem-sharkskin05lines.jpg
  • Flint corn (Zea mays indurata) commonly known as Indian corn is the same species but a variant of maize.  The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4530.jpg
  • Flint corn (Zea mays indurata) commonly known as Indian corn is the same species but a variant of maize.  The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4524.jpg
  • Kiwi fruit, (Actinidia deliciosa). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4467.jpg
  • A seed pod of the thorn apple (Datura stramonium). The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet visible light fluorescence and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4402.jpg
  • A browning banana. The specimen was illuminated with shortwave ultraviolet light (UV) that cannot be detected with the camera used for this image. The tissues in the plant absorbed the UV light and fluoresced in the visible spectrum. This technique is called ultraviolet light induced visible light fluorescence (UVIVLF) and is often used in biology to detect unique compounds in samples. This image is part of a series
    K20-UVIVF_4440.jpg
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