红外与激光工程
紅外與激光工程
홍외여격광공정
INFRARED AND LASER ENGINEERING
2014年
10期
3193-3198
,共6页
林红雪%朱晨光%李敏%汪海珍
林紅雪%硃晨光%李敏%汪海珍
림홍설%주신광%리민%왕해진
红外诱饵%薄膜%低燃温%辐射强度
紅外誘餌%薄膜%低燃溫%輻射彊度
홍외유이%박막%저연온%복사강도
infrared flare%thin film%low flare temperature%radiation intensity
以传统镁/聚四氟乙烯配方的红外诱饵剂为基础,以燃烧时间、燃烧温度和红外辐射强度作为考核参数,对以红磷和氧化铜作为功能添加剂的薄膜型低燃温红外诱饵剂进行了实验研究。以镁、聚四氟乙烯、红磷和氧化铜的导热性系数作为参量,综合比较了不同配方对反应速度的影响,以及对燃烧温度、辐射强度的影响。研究结果显示,以红磷和氧化铜为功能添加剂可以改善低火焰温度条件下的燃烧稳定性。当红磷含量为25%,镁粉含量为25%,氧化铜含量为10%~15%,聚四氟乙烯含量为35%~40%时,0.03 cm厚燃烧反应薄膜的燃烧最为稳定,燃烧时间大于3 s,辐射强度在1.5 W/sr左右,燃温为800℃左右。
以傳統鎂/聚四氟乙烯配方的紅外誘餌劑為基礎,以燃燒時間、燃燒溫度和紅外輻射彊度作為攷覈參數,對以紅燐和氧化銅作為功能添加劑的薄膜型低燃溫紅外誘餌劑進行瞭實驗研究。以鎂、聚四氟乙烯、紅燐和氧化銅的導熱性繫數作為參量,綜閤比較瞭不同配方對反應速度的影響,以及對燃燒溫度、輻射彊度的影響。研究結果顯示,以紅燐和氧化銅為功能添加劑可以改善低火燄溫度條件下的燃燒穩定性。噹紅燐含量為25%,鎂粉含量為25%,氧化銅含量為10%~15%,聚四氟乙烯含量為35%~40%時,0.03 cm厚燃燒反應薄膜的燃燒最為穩定,燃燒時間大于3 s,輻射彊度在1.5 W/sr左右,燃溫為800℃左右。
이전통미/취사불을희배방적홍외유이제위기출,이연소시간、연소온도화홍외복사강도작위고핵삼수,대이홍린화양화동작위공능첨가제적박막형저연온홍외유이제진행료실험연구。이미、취사불을희、홍린화양화동적도열성계수작위삼량,종합비교료불동배방대반응속도적영향,이급대연소온도、복사강도적영향。연구결과현시,이홍린화양화동위공능첨가제가이개선저화염온도조건하적연소은정성。당홍린함량위25%,미분함량위25%,양화동함량위10%~15%,취사불을희함량위35%~40%시,0.03 cm후연소반응박막적연소최위은정,연소시간대우3 s,복사강도재1.5 W/sr좌우,연온위800℃좌우。
This research builds upon the traditional composition of the infrared flare (Magnesium/Teflon, MT), and red phosphorus and copper oxide were chose as functional additives, a composition of thin-film infrared flare with low flame temperature was optimized based on its burning time, flame temperature and radiation intensity. In addition to respective conductivity of the material component were chosen as parameters, combustion rates of different prescriptions were analyzed based on their conductivity, and an indication of the impact of combustion temperature and radiation intensity was fiven. The results of the study show that red phosphorus and copper oxide added can improve combustion stability under lower flame temperature. When the content of red phosphorus was 25%, magnesium powder was 25%, copper oxide was 10%-15%, teflon was 35%-40%, the combustion of the 0.03 cm-thick thin film was most stable, and its combustion time is greater than about 3 s, the most radiation intensity is 1.5 W/sr, the flame temperature is about 800℃.