G01K17/08

Method for measuring and continuously monitoring the heat transfer characteristics of a fluid in a system
11014148 · 2021-05-25 · ·

A method and apparatus for measuring quench characteristics of a fluid. The apparatus includes a probe with an energy input device electrically connected to a display unit to monitor temperature, media flow characteristics and media heat transfer characteristics. The method includes continuously measuring thermal energy transfer in a quenching media by measuring the surrounding fluid's heat transfer relative to input probe energy.

Heat flux sensor with improved heat transfer
10976204 · 2021-04-13 · ·

A sensor capsule for a heat flux sensor includes a hot end and a cold end. The sensor capsule includes a thermal conductor extending from the hot end toward the cold end, and a plurality of temperature sensors coupled to the thermal conductor at different distances from the hot end.

Heat flux sensor with improved heat transfer
10976204 · 2021-04-13 · ·

A sensor capsule for a heat flux sensor includes a hot end and a cold end. The sensor capsule includes a thermal conductor extending from the hot end toward the cold end, and a plurality of temperature sensors coupled to the thermal conductor at different distances from the hot end.

Control Of Nematodes
20210068383 · 2021-03-11 ·

The present invention is concerned with the technical field of crop protection. The present invention relates to a system, a method, a kit and a computer program product for controlling nematodes.

Control Of Nematodes
20210068383 · 2021-03-11 ·

The present invention is concerned with the technical field of crop protection. The present invention relates to a system, a method, a kit and a computer program product for controlling nematodes.

System and method for thermo-mechanical monitoring of a solar receiver

A concentrated solar power (CSP) plant includes: a plurality of heliostats or a heliostat field; a substantially cylindrical solar energy receiver located atop a central tower and having an external surface covered with receiver panels and a heat shield adjacent the solar receiver, the heliostats reflecting solar energy to the external surface of the receiver, each receiver panel including a plurality of heat exchanger tubes configured to transport a heat transfer fluid, which are partly exposed on the external surface of the receiver; and a thermo-mechanical monitoring system for ensuring integrity of the solar receiver panel tubes in operation. The thermomechanical monitoring system includes at least: a plurality of thermal imaging devices located on ground and mounted each on a securing and orienting device, for measuring infrared radiation emitted by the external surface of the receiver and providing a panel temperature-dependent signal in an area of the external surface.

System and method for thermo-mechanical monitoring of a solar receiver

A concentrated solar power (CSP) plant includes: a plurality of heliostats or a heliostat field; a substantially cylindrical solar energy receiver located atop a central tower and having an external surface covered with receiver panels and a heat shield adjacent the solar receiver, the heliostats reflecting solar energy to the external surface of the receiver, each receiver panel including a plurality of heat exchanger tubes configured to transport a heat transfer fluid, which are partly exposed on the external surface of the receiver; and a thermo-mechanical monitoring system for ensuring integrity of the solar receiver panel tubes in operation. The thermomechanical monitoring system includes at least: a plurality of thermal imaging devices located on ground and mounted each on a securing and orienting device, for measuring infrared radiation emitted by the external surface of the receiver and providing a panel temperature-dependent signal in an area of the external surface.

MAGNETIC THERMOELECTRIC CONVERSION ELEMENT AND THERMOELECTRIC CONVERSION SYSTEM INCLUDING SAME

To protect the surface of a member exposed to a high-temperature environment and detect surface temperature or heat flow distribution, this magnetic thermoelectric conversion element, which is provided on the surface of a support in contact with a heat source, has: a magnetic body; an electromotive body which is magnetically coupled to the magnetic body and has electrical conductivity; and a heat-resistant metal oxide film covering the magnetic body and the electromotive body.

SYSTEM AND METHOD FOR THERMO-MECHANICAL MONITORING OF A SOLAR RECEIVER
20200386211 · 2020-12-10 ·

A concentrated solar power (CSP) plant includes: a plurality of heliostats or a heliostat field; a substantially cylindrical solar energy receiver located atop a central tower and having an external surface covered with receiver panels and a heat shield adjacent the solar receiver, the heliostats reflecting solar energy to the external surface of the receiver, each receiver panel including a plurality of heat exchanger tubes configured to transport a heat transfer fluid, which are partly exposed on the external surface of the receiver; and a thermo-mechanical monitoring system for ensuring integrity of the solar receiver panel tubes in operation. The thermomechanical monitoring system includes at least: a plurality of thermal imaging devices located on ground and mounted each on a securing and orienting device, for measuring infrared radiation emitted by the external surface of the receiver and providing a panel temperature-dependent signal in an area of the external surface.

SYSTEM AND METHOD FOR THERMO-MECHANICAL MONITORING OF A SOLAR RECEIVER
20200386211 · 2020-12-10 ·

A concentrated solar power (CSP) plant includes: a plurality of heliostats or a heliostat field; a substantially cylindrical solar energy receiver located atop a central tower and having an external surface covered with receiver panels and a heat shield adjacent the solar receiver, the heliostats reflecting solar energy to the external surface of the receiver, each receiver panel including a plurality of heat exchanger tubes configured to transport a heat transfer fluid, which are partly exposed on the external surface of the receiver; and a thermo-mechanical monitoring system for ensuring integrity of the solar receiver panel tubes in operation. The thermomechanical monitoring system includes at least: a plurality of thermal imaging devices located on ground and mounted each on a securing and orienting device, for measuring infrared radiation emitted by the external surface of the receiver and providing a panel temperature-dependent signal in an area of the external surface.