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Thermal infrared downlink radiation measuring device and measuring method thereof

A measuring device, thermal infrared technology, applied in electrical radiation detectors and other directions, can solve problems such as low accuracy, and achieve the effect of improving accuracy

Active Publication Date: 2013-01-16
INST OF GEOGRAPHICAL SCI & NATURAL RESOURCE RES CAS
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0014] The present invention provides a thermal infrared downlink radiation measuring device and its measuring method in order to solve the problem of low accuracy in the prior art of directly measuring the temperature using a bare matte gold-plated cover plate

Method used

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  • Thermal infrared downlink radiation measuring device and measuring method thereof
  • Thermal infrared downlink radiation measuring device and measuring method thereof
  • Thermal infrared downlink radiation measuring device and measuring method thereof

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0099] like image 3 As shown, two thermocouple placement slots 2 are distributed at horizontal intervals, and one end of the two thermocouple placement slots 2 are respectively set at two trisection points of the same side of the matte gold-plated cover plate 1, and the thermocouple placement slots The length of 2 is 2 / 3 of the length of 1 side of the matt gold-plated cover;

[0100] Two thermocouple sensors 4 are arranged on each thermocouple placement slot 2 , and the two thermocouple sensors 4 are respectively arranged at the middle and end points of the thermocouple placement slot 2 .

Embodiment 2

[0102] like Figure 4 As shown, two thermocouple placement slots 2 are distributed at horizontal dislocation intervals, and one end of the two thermocouple placement slots 2 is respectively set at the trisection point of any pair of parallel sides on the matt gold-plated cover plate 1, and the thermocouple placement The length of the slot 2 is 2 / 3 of the side length of the matt gold-plated cover plate 1 .

[0103] Two thermocouple sensors 4 are arranged on each thermocouple placement slot 2 , and the two thermocouple sensors 4 are respectively arranged at the middle and end points of the thermocouple placement slot 2 .

Embodiment 3

[0105] like Figure 5 As shown, the two thermocouple placement slots 2 are distributed in a crisscross pattern, and the endpoints of the two thermocouple placement slots 2 are respectively set at the intersections of the trisecting lines of the matte gold-plated cover plate 1 .

[0106] Two thermocouple sensors 4 are arranged on each thermocouple placement slot 2 , and the two thermocouple sensors 4 are respectively arranged at two end points of the thermocouple placement slot 2 .

[0107] Utilize the measuring method realized by thermal infrared descending radiation measuring device, and its operation steps are,

[0108] step 1,

[0109] Install the assay device in an unshielded environment.

[0110] Connect the 4 positive wires of the 4 thermocouple sensors 4 in parallel to form a positive terminal, and the 4 negative wires to form a negative terminal in parallel, and then insert them into the positive and negative terminals of the thermocouple thermometer host 11 respecti...

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Abstract

The invention provides an environmental thermal infrared irradiance measuring device and a measuring method thereof. The measuring device includes a matte gold plated cover plate, thermocouple placing grooves, thermocouple sensors, a water container, a main engine of a thermocouple temperature measuring instrument, and a thermal infrared radiometer, wherein the thermocouple placing grooves are milled and formed in the lower surface of the matte gold plated cover plate, and are provided with downward openings; the thermocouple sensors are placed in the thermocouple placing grooves; the matte gold plated cover plate is arranged at the top of the water container; the top ends of the thermocouple placing grooves are lower than the upper edge of the water container; and the thermocouple sensors are electrically connected with the thermocouple temperature measuring instrument. The measuring method includes the steps of: collecting and calculating the black-body radiation on the upper surface of the matte gold plated cover plate through thermocouples; measuring the emergent radiancy of the matte gold plated cover plate through the infrared radiometer; and obtaining the sky thermal infrared downlink radiation or the environmental thermal infrared irradiance via the conversion formula. The device is the only device for directly measuring the sky hemisphere integral downlink radiation, and the precision in temperature measurement for the outer surface of the naked matte gold plated cover plate is greatly improved.

Description

technical field [0001] The invention belongs to the field of quantitative infrared remote sensing detection, and in particular relates to a thermal infrared descending radiation measuring device and a measuring method. Background technique [0002] Thermal infrared descending radiation is divided into the following two types, [0003] 1) Sky thermal infrared downlink radiation; [0004] The measuring device is set in an unshielded environment, and there are no shelters such as tall buildings and trees around the measuring device. The thermal radiation measured in this environment is called sky thermal infrared descending radiation. [0005] 2) Environmental irradiance; [0006] The measuring device is set in a canopy environment, that is, there is a shield between the measuring device and the sky. The thermal radiation measured at this time is called the ambient irradiance, which includes the thermal infrared descending radiation of the sky and the descending descending ob...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): G01J5/12
Inventor 张仁华邵全琴樊江文邴龙飞
Owner INST OF GEOGRAPHICAL SCI & NATURAL RESOURCE RES CAS
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