• The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
    Kavli
    Logo
    The Research Fund of the Kavli Institute for Systems Neuroscience
    Hjerneforskningsfondet for Kavli-instituttet
    TFSR
    The logo of The Research Fund of the Kavli Institute for Systems Neuroscience. If you need help, please contact Kavli Communications.
  • Entry for EPT 2024 Photo Competition. Title: Blowing out a candle - Visualising heat waves with Schlieren photography Time series (left to right) showing blow out of a candle flame. Due to the difference in the refractive index of heated gas, the heat waves can be visualised by Schlieren photography. Light from a point source is aimed towards a spherical mirror which focuses the light back to a point, where a knife edge is placed to cut out undistorted light. In this way, any changes in the density caused by the candle, placed between the light and the mirror, appear as a sharp contrast (red/black) in the image due to refraction. Photo: Eirik Æsøy/NTNU
    Eirik Æsøy
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. Title: Blowing out a candle - Visualising heat waves with Schlieren photography Time series (left to right) showing blow out of a candle flame. Due to the difference in the refractive index of heated gas, the heat waves can be visualised by Schlieren photography. Light from a point source is aimed towards a spherical mirror which focuses the light back to a point, where a knife edge is placed to cut out undistorted light. In this way, any changes in the density caused by the candle, placed between the light and the mirror, appear as a sharp contrast (red/black) in the image due to refraction. Photo: Eirik Æsøy/NTNU
  • Entry for EPT 2024 Photo Competition. The wake merging downstream of an acrylic disc with non-uniform blockage (right) and a wire disc (left) is investigated with hot-wire anemometry in the wind tunnel. Leon Li helped with the photo. Photo: Ingrid Johanne Neunaber/NTNU
    Ingrid Johanne Neunaber
    Ingrid Neunaber
    ept_2024_photo_competition
    ept
    vindtunnel
    Entry for EPT 2024 Photo Competition. The wake merging downstream of an acrylic disc with non-uniform blockage (right) and a wire disc (left) is investigated with hot-wire anemometry in the wind tunnel. Leon Li helped with the photo. Photo: Ingrid Johanne Neunaber/NTNU
  • Entry for EPT 2024 Photo Competition. Vortex shedding and Kármán vortex street in Nidelva. Photo: Reza Niroomand/NTNU
    Reza Niroomand
    ept_2024_photo_competition
    ept
    strømning
    Entry for EPT 2024 Photo Competition. Vortex shedding and Kármán vortex street in Nidelva. Photo: Reza Niroomand/NTNU
  • Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU
    Qian Wang
    ept_2024_photo_competition
    ept
    hydrogen
    forbrenning
    combustion
    Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU
  • Entry for EPT 2024 Photo Competition. Erik is doing welding on some frame. Photo: Khalid Hamid/NTNU
    Khalid Hamid
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. Erik is doing welding on some frame. Photo: Khalid Hamid/NTNU
  • Entry for EPT 2024 Photo Competition. In this video, the transient structures arising from the dynamic operation of the sliding door are simulated. The transmission of passive scalar concentration between the isolation room (blue color) and the anteroom (red color), connected via a sliding door in the middle of a partition wall, is visualized from a top view on a plane situated 1 meter above the floor. The motion of the door initiates complex airflow patterns that can result in the escape of potentially contaminated air. Photo: Elyas Larkermani/NTNU
    Elyas Larkermani
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. In this video, the transient structures arising from the dynamic operation of the sliding door are simulated. The transmission of passive scalar concentration between the isolation room (blue color) and the anteroom (red color), connected via a sliding door in the middle of a partition wall, is visualized from a top view on a plane situated 1 meter above the floor. The motion of the door initiates complex airflow patterns that can result in the escape of potentially contaminated air. Photo: Elyas Larkermani/NTNU
  • Entry for EPT 2024 Photo Competition. The wake merging downstream of an acrylic disc with non-uniform blockage (left) and a wire disc (right) is investigated with hot-wire anemometry in the wind tunnel. Leon Li helped with the photo. Photo: Ingrid Johanne Neunaber/NTNU
    Ingrid Johanne Neunaber
    Ingrid Neunaber
    ept_2024_photo_competition
    ept
    vindtunnel
    Entry for EPT 2024 Photo Competition. The wake merging downstream of an acrylic disc with non-uniform blockage (left) and a wire disc (right) is investigated with hot-wire anemometry in the wind tunnel. Leon Li helped with the photo. Photo: Ingrid Johanne Neunaber/NTNU
  • Entry for EPT 2024 Photo Competition. A look at wind induced waves on water surface from inside water illuminated by green laser. Photograph is a single image with no enhancements. Photo: Adharsh Shankaran/NTNU
    Adharsh Shankaran
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. A look at wind induced waves on water surface from inside water illuminated by green laser. Photograph is a single image with no enhancements. Photo: Adharsh Shankaran/NTNU
  • Entry for EPT 2024 Photo Competition. Condensation of water vapor in the mineral wool insulation sample during cooling of the sample bottom. Larger droplets are distributed in the group close each other, as they grow at the expense of smaller droplets during condensation process. Daniela Damaceno, SINTEF Energy Reasearch, helped with the photo. Photo: Hristina Dragovic/NTNU
    Hristina Dragovic
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. Condensation of water vapor in the mineral wool insulation sample during cooling of the sample bottom. Larger droplets are distributed in the group close each other, as they grow at the expense of smaller droplets during condensation process. Daniela Damaceno, SINTEF Energy Reasearch, helped with the photo. Photo: Hristina Dragovic/NTNU
  • Entry for EPT 2024 Photo Competition. The ammonia/hydrogen/nitrogen flame in the long confinement (H=260mm) near lean blow-off at 40m/s has the oscillation phenomena, which looks like a beating heart. Photo: Tong Su/NTNU
    Tong Su
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. The ammonia/hydrogen/nitrogen flame in the long confinement (H=260mm) near lean blow-off at 40m/s has the oscillation phenomena, which looks like a beating heart. Photo: Tong Su/NTNU
  • Entry for EPT 2024 Photo Competition. In the course "TEP4220 - Environmental impact indicators for decision support" we had an interactive lecture where we collected scientific data by taking photos of species on campus with the app, "iNaturalist". The specie in the photo is an edible mushroom called "Matblekksopp" in Norwegian, "Lawyer's Wig" in English, and "Coprinus comatus" in Latin. Photo: Solveig Birgitte Jacobsen Aarak (student)
    Solveig Birgitte Jacobsen Aarak
    ept_2024_photo_competition
    ept
    Entry for EPT 2024 Photo Competition. In the course "TEP4220 - Environmental impact indicators for decision support" we had an interactive lecture where we collected scientific data by taking photos of species on campus with the app, "iNaturalist". The specie in the photo is an edible mushroom called "Matblekksopp" in Norwegian, "Lawyer's Wig" in English, and "Coprinus comatus" in Latin. Photo: Solveig Birgitte Jacobsen Aarak (student)
  • Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU
    Qian Wang
    ept_2024_photo_competition
    ept
    hydrogen
    forbrenning
    Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU
  • Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU
    Qian Wang
    ept_2024_photo_competition
    ept
    hydrogen
    forbrenning
    Entry for EPT 2024 Photo Competition. The FlameSheetTM combustor has the capability to operate with high hydrogen fuel blends due to a novel aerodynamically trapped vortex flame stabilization strategy and the corresponding increased flashback resistance due to its unique “U-bend” flow pattern, offering a carbon-free solution for the transition to pure hydrogen fueling. An optically-accessible laboratory-scale FlamesheetTM combustor has been developed to study the system dynamics during hydrogen operation. Photo: Qian Wang/NTNU