红外与激光工程
紅外與激光工程
홍외여격광공정
INFRARED AND LASER ENGINEERING
2015年
8期
2321-2326
,共6页
石东平%吴超%李孜军%潘伟
石東平%吳超%李孜軍%潘偉
석동평%오초%리자군%반위
红外热像仪%环境高温物体%反射温度补偿%入射温度补偿
紅外熱像儀%環境高溫物體%反射溫度補償%入射溫度補償
홍외열상의%배경고온물체%반사온도보상%입사온도보상
infrared thermometry%environmental temperature object%reflected temperature compensation%incidence temperature compensation
以红外辐射理论及红外热像仪测温原理为基础,为解决环境高温物体对红外测温的影响,提出反射温度补偿和入射温度补偿两种方法。分析了两种温度补偿方法的理论可行性和实际操作方案并具体进行实验测温对比。对4个硫化矿样本分别应用两种补偿方法同未经补偿的红外测温进行实验测温对比研究,分析结果显示:经过温度补偿后,相对误差明显小于未经补偿的红外测温,且反射温度补偿法较入射温度补偿法更为精确,验证了两种温度补偿方法的可用性及精确性。两种补偿方法在保证测量精度的同时拓宽了普通红外热像仪的应用范围,保证了硫化矿自燃红外预测数值精度。
以紅外輻射理論及紅外熱像儀測溫原理為基礎,為解決環境高溫物體對紅外測溫的影響,提齣反射溫度補償和入射溫度補償兩種方法。分析瞭兩種溫度補償方法的理論可行性和實際操作方案併具體進行實驗測溫對比。對4箇硫化礦樣本分彆應用兩種補償方法同未經補償的紅外測溫進行實驗測溫對比研究,分析結果顯示:經過溫度補償後,相對誤差明顯小于未經補償的紅外測溫,且反射溫度補償法較入射溫度補償法更為精確,驗證瞭兩種溫度補償方法的可用性及精確性。兩種補償方法在保證測量精度的同時拓寬瞭普通紅外熱像儀的應用範圍,保證瞭硫化礦自燃紅外預測數值精度。
이홍외복사이론급홍외열상의측온원리위기출,위해결배경고온물체대홍외측온적영향,제출반사온도보상화입사온도보상량충방법。분석료량충온도보상방법적이론가행성화실제조작방안병구체진행실험측온대비。대4개류화광양본분별응용량충보상방법동미경보상적홍외측온진행실험측온대비연구,분석결과현시:경과온도보상후,상대오차명현소우미경보상적홍외측온,차반사온도보상법교입사온도보상법경위정학,험증료량충온도보상방법적가용성급정학성。량충보상방법재보증측량정도적동시탁관료보통홍외열상의적응용범위,보증료류화광자연홍외예측수치정도。
Based on the basic theory of infrared radiation and principles of temperature measurement using infrared imager, two methods of temperature compensation were proposed, reflected temperature compensation and incidence temperature compensation, in order to ensure environmental temperature object has less of an effect on infrared measurement. The theoretical analysis proved its feasibility and the operation program was put forward and used in production. The compensation measurements were demonstrated in a laboratory experiment with four sulfide ore samples. The results show that the fitting of compensation measurement with true temperature is better than that of common infrared measurement. The fractional error of reflected compensation measurement significantly is less than the incidence. The theoretical analysis and experiment result indicate the feasibility of the proposed methods. The compensation measurements ensure the measurement accuracy as well as expand the scope of common thermal infrared imager application and ensure the numerical accuracy of infrared prediction in the spontaneous combustion of sulfide ores.