CN112500165A - 一种利用常温混捏工艺制备炭素制品的方法 - Google Patents

一种利用常温混捏工艺制备炭素制品的方法 Download PDF

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CN112500165A
CN112500165A CN202011395756.2A CN202011395756A CN112500165A CN 112500165 A CN112500165 A CN 112500165A CN 202011395756 A CN202011395756 A CN 202011395756A CN 112500165 A CN112500165 A CN 112500165A
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刘占军
李国栋
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Shanxi Institute of Coal Chemistry of CAS
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Abstract

本发明涉及一种利用常温混捏工艺制备炭素制品的方法,属于炭素材料制备技术领域,解决炭素制品生产周期长、高能耗和环保的技术问题,本发明包括以下步骤:将骨料破碎后根据粒径进行分级,按产品骨料级配要求配制待混捏骨料备用→将沥青破碎制得沥青粉料→待混捏骨料与沥青粉料混合均匀后加入有机试剂,室温下混捏制得混捏均匀糊料→将制得的糊料在成型设备上成型,制得生坯→将生坯放入炭化炉中,采用常规炭化升温工艺焙烧得到所需炭制品。本发明利用常温混捏工艺制备炭素制品,解决了混捏、成型过程中的高能耗和环境污染问题;降低了对混捏和成型设备的要求,减少了设备投资;同时简化了生产工艺,缩短了生产周期,提高了设备产能。

Description

一种利用常温混捏工艺制备炭素制品的方法
技术领域
本发明属于炭素材料制备技术领域,具体涉及一种利用常温混捏工艺制备炭素制品的方法。
背景技术
炭素制品具有轻质、耐高温、抗烧蚀以及良好的导热、导电性能和机械性能,被广泛用于诸多领域,其在化工、冶金、核聚变堆、电子等方面的应用更是日益深入。随着社会进步,经济增长方式由粗旷型转变成集约型和高技术性。高能耗、高污染的经济增长已经不能适合中国的国情,提高效率和技术,降低成本,降低能耗和无污染已经成为发展经济的主流。而传统炭素制品生产是热混捏、热成型的高能耗、高污染方式,并且生产周期长,效率低下。因此,该行业的生存和发展,必须依赖科技进步,改掉这些不符合社会发展要求的缺点。
近年来在炭素制品制备领域出现了一些创新,例如:申请号为201710682059.7的专利“一种石墨电极的新型制备工艺”主要工艺:天然石墨等原料→常温混料→装模真空→等静压成型→固化→涂层→碳化烧成→加工整理→涂层→产品。采用了液体改质沥青树脂、呋喃树脂等液体结合剂实现了常温混料,降低了混料工序的能耗,但混料后增加了糊料干燥和成型坯体的固化工序,这在一定程度上又增加了生产的能耗和污染物的挥发,延长了生产周期。没有从根本上解决炭素制品生产周期长、高能耗和环保的问题。
发明内容
为了克服现有技术的不足,解决炭素制品生产周期长、高能耗和环保的技术问题,本发明提供一种利用常温混捏工艺制备炭素制品的方法,通过下列途径实现:
一种利用常温混捏工艺制备炭素制品的方法,包括以下步骤:
S1、将骨料破碎后根据粒径进行分级,按产品骨料级配要求配制待混捏骨料备用;
S2、将沥青破碎至粒径为1~200μm,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏后制得物料混合物,其中沥青粉料占物料混合物总重量的10~35%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的2~25%;最后,将有机试剂与物料混合物在混捏锅中室温下混捏10~180min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上成型,制得生坯;
S5、将步骤S4制得的生坯放入炭化炉中,采用常规炭化升温工艺焙烧,制得炭素制品。
进一步地,在所述步骤S1中,骨料为无烟煤、石油焦、沥青焦、天然石墨、人造石墨、炭微球和炭黑中的一种或多种。
进一步地,在所述步骤S2中,沥青的软化点为80-350℃。
进一步地,所述沥青为煤沥青、石油沥青、改性沥青或中间相沥青中的一种或多种。
进一步地,在所述步骤S3中,有机试剂为酮类、脂类、芳烃类或者杂环化合物中的一种或多种。
进一步地,在所述步骤S4中,成型的方法为模压成型、振动成型、挤压成型或等静压成型中的任一种。
与现有技术相比本发明的有益效果为:
1、利用常温混捏工艺制备炭素制品,这样不用热混捏、热成型,解决了混捏、成型过程中的高能耗和环境污染问题;
2、常温混捏技术降低了对混捏和成型设备的要求,减少了设备投资;
3、本发明无需进行混捏锅和压型设备升温、糊料干燥和成型坯体的固化工序,缩短了生产周期,提高了设备产能。
具体实施方式
以下实施例用于说明本发明,但不用来限制本发明的范围。若未特别指明,实施例均按照常规实验条件。另外,对于本领域技术人员而言,在不偏离本发明的实质和范围的前提下,对这些实施方案中的物料成分和用量进行的各种修改或改进,均属于本发明要求保护的范围。
以下实施例中焙烧采用的升温工艺均为:
Figure DEST_PATH_IMAGE002
实施例1
一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、本实施例1中选择电煅无烟煤作为骨料,将骨料破碎后根据粒径Φ≤0.075mm、0.075mm<Φ≤3、3<Φ≤6mm进行分级,按产品骨料级配要求配制待混捏骨料备用,本实施例1中Φ≤0.075mm的粉料占骨料总重量的40%,0.075mm<Φ≤3颗粒料占骨料总重量的30%,3<Φ≤6mm颗粒料占骨料总重量的30%;
S2、将沥青破碎至粒径≤100μm,沥青的软化点为80℃,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏0.5h后制得物料混合物,其中沥青粉料占物料混合物总重量的10%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的2%,本实施例1中有机试剂选用喹啉;最后,将有机试剂与物料混合物在混捏锅中室温下混捏180min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上模压成型,制得生坯;
S5、将步骤S4制得的生坯放入井式炭化炉中,采用表1升温工艺焙烧得到炭块,焙烧最高温度为1000℃,对炭块进行性能检测,检测结果见表2。
实施例2
一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、本实施例2中选择煅后石油焦作为骨料,将骨料破碎后根据粒径Φ≤0.075mm、0.075mm<Φ≤3、3<Φ≤6mm进行分级,按产品骨料级配要求配制待混捏骨料备用,本实施例2中Φ≤0.075mm的粉料占骨料总重量的40%,0.075mm<Φ≤3颗粒料占骨料总重量的30%,3<Φ≤6mm颗粒料占骨料总重量的30%;
S2、将沥青破碎至粒径≤120μm,沥青的软化点为100℃,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏0.5h后制得物料混合物,其中沥青粉料占物料混合物总重量的17%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的3%,本实施例2中有机试剂选用吡啶;最后,将有机试剂与物料混合物在混捏锅中室温下混捏120min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上振动成型,制得生坯;
S5、将步骤S4制得的生坯放入井式炭化炉中,采用表1升温工艺焙烧得到炭块,焙烧最高温度为1000℃,对炭块进行性能检测,检测结果见表2。
实施例3
一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、本实施例3中选择煅后沥青焦作为骨料,将骨料破碎后根据粒径Φ≤0.075mm、0.075mm<Φ≤3、3<Φ≤6mm进行分级,按产品骨料级配要求配制待混捏骨料备用,本实施例3中Φ≤0.075mm的粉料占骨料总重量的40%,0.075mm<Φ≤3颗粒料占骨料总重量的30%,3<Φ≤6mm颗粒料占骨料总重量的30%;
S2、将沥青破碎至粒径≤150μm,沥青的软化点为120℃,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏0.5h后制得物料混合物,其中沥青粉料占物料混合物总重量的20%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的5%,本实施例3中有机试剂选用辛基吡咯烷酮;最后,将有机试剂与物料混合物在混捏锅中室温下混捏90min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上挤压成型,制得生坯;
S5、将步骤S4制得的生坯放入井式炭化炉中,采用表1升温工艺焙烧得到炭块,焙烧最高温度为1000℃,对炭块进行性能检测,检测结果见表2。
实施例4
一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、本实施例4中选择煅后沥青焦作为骨料,将骨料破碎后根据粒径Φ≤0.075mm、0.075mm<Φ≤3、3<Φ≤6mm进行分级,按产品骨料级配要求配制待混捏骨料备用,本实施例4中Φ≤0.075mm的沥青焦粉料占骨料总重量的35%,Φ≤0.075mm的天然石墨粉占骨料总重量的5%,0.075mm<Φ≤3颗粒料占骨料总重量的30%,3<Φ≤6mm颗粒料占骨料总重量的30%;
S2、将沥青破碎至粒径≤180μm,沥青的软化点为200℃,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏0.5h后制得物料混合物,其中沥青粉料占物料混合物总重量的28%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的12%,本实施例4中有机试剂选用甲苯;最后,将有机试剂与物料混合物在混捏锅中室温下混捏60min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上等静压成型,制得生坯;
S5、将步骤S4制得的生坯放入井式炭化炉中,采用表1升温工艺焙烧得到炭块,焙烧最高温度为1000℃,对炭块进行性能检测,检测结果见表2。
实施例5
一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、本实施例4中选择电煅无烟煤作为骨料,将骨料破碎后根据粒径Φ≤0.075mm、0.075mm<Φ≤3、3<Φ≤6mm进行分级,按产品骨料级配要求配制待混捏骨料备用,本实施例5中Φ≤0.075mm的粉料占骨料总重量的40%,0.075mm<Φ≤3颗粒料占骨料总重量的30%,3<Φ≤6mm颗粒料占骨料总重量的30%;
S2、将沥青破碎至粒径≤200μm,沥青的软化点为350℃,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入高速混料机中,混捏0.5h后制得物料混合物,其中沥青粉料占物料混合物总重量的35%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的25%,本实施例5中有机试剂选用二甲基碳酸酯;最后,将有机试剂与物料混合物在混捏锅中室温下混捏10min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上模压成型,制得生坯;
S5、将步骤S4制得的生坯放入井式炭化炉中,采用表1升温工艺焙烧得到炭块,焙烧最高温度为1000℃,对炭块进行性能检测,检测结果见表2。
Figure DEST_PATH_IMAGE003
以上所述,仅为本发明的具体实施方式,但本发明的保护范围并不局限于此,任何熟悉技术领域的技术人员在本发明揭露的技术范围内,可轻易想到的变化或替换,都应涵盖在本发明的保护范围之内。因此,本发明的保护范围应以所述权利要求的保护范围为准。

Claims (6)

1.一种利用常温混捏工艺制备炭素制品的方法,其特征在于包括以下步骤:
S1、将骨料破碎后根据粒径进行分级,按产品骨料级配要求配制待混捏骨料备用;
S2、将沥青破碎至粒径为1~200μm,制得沥青粉料;
S3、首先,将步骤S2制得的沥青粉料与步骤S1制得的待混捏骨料加入混捏锅中,混捏后制得物料混合物,其中沥青粉料占物料混合物总重量的10~35%;然后,向物料混合物中加入有机试剂,有机试剂的重量占物料混合物总重量的2~25%;最后,将有机试剂与物料混合物在混捏锅中室温下混捏10~180min,制得混捏均匀的糊料;
S4、将步骤S3制得的糊料在成型设备上成型,制得生坯;
S5、将步骤S4制得的生坯放入炭化炉中,采用常规炭化升温工艺焙烧,制得炭素制品。
2.根据权利要求1所述的一种利用常温混捏工艺制备炭素制品的方法,其特征在于:在所述步骤S1中,骨料为无烟煤、石油焦、沥青焦、天然石墨、人造石墨、炭微球和炭黑中的一种或多种。
3.根据权利要求1所述的一种利用常温混捏工艺制备炭素制品的方法,其特征在于:在所述步骤S2中,沥青的软化点为80-350℃。
4.根据权利要求1或3所述的一种利用常温混捏工艺制备炭素制品的方法,其特征在于:所述沥青为煤沥青、石油沥青、改性沥青或中间相沥青中的一种或多种。
5.根据权利要求1所述的一种利用常温混捏工艺制备炭素制品的方法,其特征在于:在所述步骤S3中,有机试剂为酮类、脂类、芳烃类或者杂环化合物中的一种或多种。
6.根据权利要求1所述的一种利用常温混捏工艺制备炭素制品的方法,其特征在于:在所述步骤S4中,成型的方法为模压成型、振动成型、挤压成型或等静压成型中的任一种。
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