CN113845688B - 冰凌架构的储氢材料制造方法 - Google Patents

冰凌架构的储氢材料制造方法 Download PDF

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CN113845688B
CN113845688B CN202111381460.XA CN202111381460A CN113845688B CN 113845688 B CN113845688 B CN 113845688B CN 202111381460 A CN202111381460 A CN 202111381460A CN 113845688 B CN113845688 B CN 113845688B
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Abstract

本发明涉及一种冰凌架构的储氢材料制造方法,将聚乙烯、聚丙烯、尼龙等工程塑料和低温ADC微粒子粉末发泡剂进行称量、配比与搅拌,搅拌好的料放入注塑机料筒,待材料加热后直接注入冰凌产品模具内,进而得到较佳的泡孔结构,形成冰凌框架备用;另一方面进行溶液配制,获得混合溶液即透气胶备用;再一方面配比复合材料备用;接着将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,制成储氢成品,使冰凌框架沾满储氢复合材料并满布微孔,在常温状态下能可逆地大量吸收、储存和释放氢气,促进氢能在发电、燃烧环节的安全使用,提高绿色能源的使用效率。

Description

冰凌架构的储氢材料制造方法
技术领域
本发明属于氢能源存储行业,涉及储氢环节的主要材料,特别涉及一种冰凌架构的储氢材料的制造方法。
背景技术
氢能被称为人类21世纪的终极能源,氢能产业包括制氢、储氢和应用三个环节。制氢是储氢的基础,储氢是现在行业面临的瓶颈。因此,发明一种冰凌架构的储氢材料,可有效丰富储氢行业在用材与选材上的宽泛取向,它将促使该领域科研人员研发出新的科研成果。
目前市场上储氢产品很多,大体上有甲醇储氢、高压储氢、液化储氢、固态吸附储氢和金属氢化物储氢等,除了高压储氢目前已经商业化外,其他储氢产品目前还处于实验阶段。所以,如何研发出能够更好地促进储氢产品的行业需求,并在储氢行业得到广泛应用,成为科研人员亟待解决的问题。
有鉴于此,研发一种选用灵活、结构简单、安全性高、储氢容量大,且具有成本低、寿命长、操作简便、高效节能、绿色环保等特点的储氢产品成为该领域科研人员寻求的新目标。
发明内容
本发明的任务是提供一种冰凌架构的储氢材料制造方法,将聚乙烯、聚丙烯、尼龙等工程塑料和低温ADC(偶氮二甲酰胺)微粒子粉末发泡剂进行称量、配比与搅拌,搅拌好的料放入注塑机料筒,待材料加热后直接注入冰凌产品模具内,进而得到较佳的泡孔结构,形成冰凌框架备用;另一方面进行溶液配制,获得混合溶液即透气胶备用;再一方面配比复合材料备用;接着将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,制成储氢成品,使冰凌框架沾满储氢复合材料并满布微孔,能可逆地大量吸收、储存和释放氢气,解决了按传统技术生产的储氢产品效果较为一般的问题。
本发明的技术解决方案如下:
一种冰凌架构的储氢材料制造方法,选用包括聚乙烯、聚丙烯、尼龙和热塑性塑料在内的工程塑料80份、低温ADC微粒子粉末发泡剂20份进行称量、配比与搅拌,将搅拌好的料放入注塑机料筒,待材料经加热熔融后直接注入冰凌产品模具内,模具需加热至材料的匹配温度,一次注入量为模具内容积的85%,且留有15%发泡空间,得到高的气泡核密度,进而得到佳好的泡孔结构,注塑结束,完成冰凌框架雏形;
接着开模取出成型产品进入第二道表面去膜工序,将注塑成型的冰凌框架进行浸泡,浸泡液由80%可乐与20%白醋组成,浸泡时间为48小时,浸泡时间届满即捞出,捞出沥干后放入去离子水中漂净晾干,晾干后的冰凌框架表面膜层被清除并成功打通框架内部通道,形成冰凌框架半成品备用;
另一方面进行溶液配制,取正硅酸乙酯55份、去离子水30份和甲醇15份及其他配料5份,按照该配制比例置于容器中进行混合搅拌,搅拌速度120rpm,搅拌时间45分钟,以此工艺获得混合溶液即透气胶备用;
再一方面开展复合材料配比,取石墨碳粉末和硼、碘、镁、钠粉末进行称量配比、搅拌,充分混匀后出筒备用;
然后将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,复配时先将冰凌框架每10个穿成一串,再把成串的冰凌框架放进混合溶液容器中进行上下运动,运动10次后拎起抖动无液滴即可,接着直接放进复合材料工作箱内,放置时吊挂在箱体上方的吊钩上,吊钩成旋转状态,旋转的速度为60rpm,箱内由12个喷嘴从不同的角度喷出复合材料,使复合材料附和在冰凌框架内外表面,最后将这些经融配的冰凌框架通过85℃隧道窑烘干后制成储氢制成品。
所述注塑机采用超临界流体辅助的微孔注塑嘴。
按本发明的一种冰凌架构的储氢材料制造方法,将聚乙烯、聚丙烯、尼龙等工程塑料和低温ADC(偶氮二甲酰胺)微粒子粉末发泡剂进行称量、配比与搅拌,搅拌好的料放入注塑机料筒,待材料加热后直接注入冰凌产品模具内,进而得到较佳的泡孔结构,形成冰凌框架备用;另一方面进行溶液配制,获得混合溶液即透气胶备用;再一方面配比复合材料备用;接着将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,制成储氢成品,使冰凌框架沾满储氢复合材料并满布微孔。经过这样的技术工艺处理,能够充分改善复合材料的力学性能,保持整个冰凌框架沾满储氢复合材料并满布微孔,让复合材料的晶体结构强度加强,使其成为在常温和氢气压力下,能可逆地大量吸收、储存和释放氢气的冰凌框架组合体化合物。
采用本发明的制造方法制成的储氢复合材料用于罐内安装时,只需将冰凌框架直接倒入罐体内,倒满为止,如果将来更换时,用勺子将其掏出就能轻松地完成作业。因此,按本发明方法生产的产品在应用时具有个体重量轻、安装简便、更换灵活、安全性高的特点,同时具备成本低、寿命长、高效节能、静音简洁、绿色环保、材料储氢量大的特点,在常温状态下能可逆地大量吸收、储存和释放氢气,促进氢能在发电、燃烧环节的安全使用,提高绿色能源的使用效率。
采用本发明的冰凌架构的储氢材料制造方法,为日常氢能源应用过程中对储能产品的选用提供了新的选项,具有广泛的应用价值。
附图说明
图1是本发明中的一种沾满储氢复合材料的冰凌框架的立体图。
图2是本发明中的一种沾满储氢复合材料的冰凌框架的斜向俯视图。
具体实施方式
下面结合附图和实施例对本发明作详细说明。
本发明提供一种冰凌架构的储氢材料制造方法,选用聚乙烯、聚丙烯、尼龙和热塑性塑料等材料的工程塑料80份、低温ADC(偶氮二甲酰胺)微粒子粉末发泡剂20份进行称量、配比与搅拌,将搅拌好的料放入注塑机料筒,注塑机采用超临界流体辅助的微孔注塑嘴。待材料经加热熔融后直接注入冰凌产品模具内,模具需加热至材料的匹配温度,一次注入量为模具内容积的85%,且留有15%发泡空间,这样能提高注射速度,更有利于得到更高的气泡核密度,进而得到较佳的泡孔结构,注塑结束,表明冰凌框架雏形完成。
参看图1和图2,图中显示了一种沾满储氢复合材料的冰凌框架,冰凌框架内壁布设数排朝向中心的凸片,凸片的向中心端部设有数个凹口,每排凸片的底端和顶端分别与冰凌框架的底面和顶面齐平。如图中所示,凹片的凹口呈直角形状,也可以呈圆弧形状,还可以呈锯齿形状,有利于在更多的比表面积上沾满储氢复合材料。
在制造过程中,接下来开模取出成型产品进入第二道表面去膜工序,将注塑成型的冰凌框架进行浸泡,浸泡液由80%可乐与20%白醋组成,浸泡时间为48小时,浸泡时间届满即捞出,捞出沥干后放入去离子水中漂净晾干,晾干后的冰凌框架表面膜层被清除并成功打通框架内部通道,形成冰凌框架半成品备用。
另一方面进行溶液配制,取正硅酸乙酯55份、去离子水30份和甲醇15份及其他配料5份,按照该配制比例置于容器中进行混合搅拌,搅拌速度120rpm,搅拌时间45分钟,以此工艺获得混合溶液(透气胶)备用。
再一方面开展复合材料配比,取石墨碳粉末和硼、碘、镁、钠等粉末进行称量配比、搅拌,充分混匀后出筒备用。
然后将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,复配时先将冰凌框架每10个穿成一串,再把成串的冰凌框架放进混合溶液容器中进行上下运动,运动10次后拎起抖动无液滴即可,接着直接放进复合材料工作箱内,放置时吊挂在箱体上方的吊钩上,吊钩成旋转状态,旋转的速度为60rpm,箱内由12个喷嘴从不同的角度喷出复合材料,使复合材料附和在冰凌框架内外表面,最后将这些经融配的冰凌框架通过85℃隧道窑烘干后制成储氢制成品。
经过这样的技术工艺处理,能够充分改善复合材料的力学性能,保持整个冰凌框架沾满储氢复合材料并满布微孔,让复合材料的晶体结构强度加强,使其成为在常温和氢气压力下,能可逆地大量吸收、储存和释放氢气的冰凌框架组合体化合物。
综上所述,按本发明的冰凌架构的储氢材料制造方法制成储氢成品,使冰凌框架沾满储氢复合材料并满布微孔,能可逆地大量吸收、储存和释放氢气。采用本发明的制造方法生产的储氢产品可用于罐内安装,具有个体重量轻、安装简便、更换灵活、安全性高的特点,同时具备成本低、寿命长、高效节能、静音简洁、绿色环保、材料储氢量大的特点,在常温状态下能可逆地大量吸收、储存和释放氢气,促进氢能在发电、燃烧环节的安全使用,提高绿色能源的使用效率。
当然,本技术领域内的一般技术人员应当认识到,上述实施例仅是用来说明本发明,而并非用作对本发明的限定,只要在本发明的实质精神范围内,对上述实施例的变化、变型等都将落在本发明权利要求的范围内。

Claims (2)

1.一种冰凌架构的储氢材料制造方法,其特征在于:选用包括聚乙烯、聚丙烯、尼龙和热塑性塑料在内的工程塑料80份、低温ADC微粒子粉末发泡剂20份进行称量、配比与搅拌,将搅拌好的料放入注塑机料筒,待材料经加热熔融后直接注入冰凌产品模具内,模具需加热至材料的匹配温度,一次注入量为模具内容积的85%,且留有15%发泡空间,得到高的气泡核密度,进而得到佳好的泡孔结构,注塑结束,完成冰凌框架雏形;
接着开模取出成型产品进入第二道表面去膜工序,将注塑成型的冰凌框架进行浸泡,浸泡液由80%可乐与20%白醋组成,浸泡时间为48小时,浸泡时间届满即捞出,捞出沥干后放入去离子水中漂净晾干,晾干后的冰凌框架表面膜层被清除并成功打通框架内部通道,形成冰凌框架半成品备用;
另一方面进行溶液配制,取正硅酸乙酯55份、去离子水30份和甲醇15份及其他配料5份,按照该配制比例置于容器中进行混合搅拌,搅拌速度120rpm,搅拌时间45分钟,以此工艺获得混合溶液即透气胶备用;
再一方面开展复合材料配比,取石墨碳粉末和硼、碘、镁、钠粉末进行称量配比、搅拌,充分混匀后出筒备用;
然后将备用的冰凌框架、混合溶液、复合材料各放置在各自的容器中进行复合融配,复配时先将冰凌框架每10个穿成一串,再把成串的冰凌框架放进混合溶液容器中进行上下运动,运动10次后拎起抖动无液滴即可,接着直接放进复合材料工作箱内,放置时吊挂在箱体上方的吊钩上,吊钩成旋转状态,旋转的速度为60rpm,箱内由12个喷嘴从不同的角度喷出复合材料,使复合材料附和在冰凌框架内外表面,最后将这些经融配的冰凌框架通过85℃隧道窑烘干后制成储氢制成品;
所述冰凌框架内壁布设数排朝向中心的凸片,凸片的向中心端部设有数个凹口,每排凸片的底端和顶端分别与冰凌框架的底面和顶面齐平;冰凌框架沾满储氢复合材料并满布微孔,能可逆地大量吸收、储存和释放氢气。
2.按权利要求1所述的冰凌架构的储氢材料制造方法,其特征在于:所述注塑机采用超临界流体辅助的微孔注塑嘴。
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