John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation for Atmospheric Research - Boulder CO The Board of Regents of the University and Community College System of Nevada - Reno NV
International Classification:
G01W 100
US Classification:
702130, 702 3, 7317016, 7317017, 7317021
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.
John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation for Atmospheric Research - Boulder CO The Board of Regents of the University College System of Nevada - Boulder CO
International Classification:
G01W 100
US Classification:
702 3, 702130, 7317016, 7317017, 7317021, 356336
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.
John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation for Atmospheric Research The Board of Regents of the University College System of Nevada, on behalf of Desert Research Inst.
International Classification:
G01W 100
US Classification:
702130, 702 3, 7317016, 7317017, 7317021
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.
John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation For Atmospheric Research - Boulder CO The Board of Regents of the University Community College System of Nevada
International Classification:
G01W 100
US Classification:
702130, 702 3, 7317016, 7317017, 7317021
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.
John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation for Atmospheric Research - Boulder CO The Board of Regents of the University of College System of Nevada - Boulder CO
International Classification:
G01W 100
US Classification:
702 3, 702130, 7317016, 7317017, 7317021, 356336
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.
John Hallett - Reno NV Roy Martin Rasmussen - Boulder CO
Assignee:
University Corporation for Atmospheric Research - Boulder CO The Board of Regents of the University Community College System of Nevada on behalf of Desert Research Inst. - Boulder CO
International Classification:
G01W 100
US Classification:
702130, 702 3, 7317016, 7317017, 7317021
Abstract:
A precipitation measuring system comprising a top thermal plate positioned to maximize exposure to falling precipitation and includes at least one ridge circumscribing the top surface for capturing precipitation. A second thermal plate is positioned under the top thermal plate to protect it from falling precipitation while still exposing it to the same atmospheric temperature and wind conditions. At least one solar radiation sensor is connected to the precipitation measuring system to measure solar radiation contacting at least one of the top and bottom thermal plates. During a precipitation event, the top and bottom thermal plates are maintained at a constant temperature and a power consumption curve for each thermal plate is quantified. The precipitation rate is measured by the difference in the power consumption curve for the top thermal plate and the power consumption curve for the bottom thermal plate.