CN107964091B - 一种多功能双极性导电聚合物及其制备方法与应用 - Google Patents

一种多功能双极性导电聚合物及其制备方法与应用 Download PDF

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CN107964091B
CN107964091B CN201711172634.5A CN201711172634A CN107964091B CN 107964091 B CN107964091 B CN 107964091B CN 201711172634 A CN201711172634 A CN 201711172634A CN 107964091 B CN107964091 B CN 107964091B
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孟鸿
王艺霖
李微硕
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Peking University Shenzhen Graduate School
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Abstract

本申请提供一种多功能双极性导电聚合物及其制备方法与应用。该聚合物可随施加电位不同而实现N型掺杂和P型掺杂,并且可以在中性态、氧化态和还原态产生相应的(绿色‑深灰色‑砖红色)颜色转变。具有稳定性良好、可溶液制备、掺杂‑去掺杂速度快、存储电荷密度高等特点。可以解决现有Ⅲ型聚合物超级电容器材料N型掺杂不稳定,溶解度不佳,较难应用于柔性、大面积超级电容器器件制备及批量生产的问题。同时,该聚合物材料兼具电致变色性能,制得的超级电容器的充放电状态可根据颜色变化判断,是集电致变色与储能性能为一体的新型智能超级电容器,可能将推动新一代能量储存体系的发展,在人类应对能量危机与环境污染之路上发挥巨大作用。

Description

一种多功能双极性导电聚合物及其制备方法与应用
技术领域
本发明涉及有机光电材料器件领域,特别涉及一种多功能双极性导电聚合物及其制备方法与应用。
背景技术
导电聚合物是由具有共扼π-键的高分子经化学或电化学“掺杂”由绝缘体转变为导体的一类高分子材料。自20世纪70年代中期发现导电聚合物以来,在许多科学研究单位内,导电聚合物已成为研究的热门课题。经过不断发展突破,目前最新一代的导电聚合物以D-A聚合物为主。因其性质的多样化,导电聚合物在多重领域都有很好大的应用。良好的导电性和电活性,使导电聚合物成为一类重要的超级电容器电极材料,其电容主要来自于法拉第准电容。电极材料是超级电容器最为关键的部分,也是决定其性能的主要因素,因此开发具有优异性能的电极材料是超级电容器研究中最核心的课题。导电聚合物是一类重要的超级电容器电极材料,在充放电过程中发生氧化和还原反应,在聚合物膜上快速产生N型或P型掺杂,从而使聚合物存储了很高密度的电荷,产生了很大的法拉第赝电容。Ⅲ型聚合物超级电容器(2个电极的电极材料由既可以N型掺杂又可以P型掺杂的双极性导电聚合物构成)在充放电时能充分利用溶液中的阴阳离子,具有类似于蓄电池的放电特征,因此被认为是最有发展前景的超级电容器。对于多数导电聚合物来说,其N型的掺杂往往不稳定。此外,目前大多数D-A聚合物均溶解度不佳,难以应用于柔性、大面积超级电容器器件制备及批量生产。
发明内容
针对上述现存的问题及市场的巨大需求,本发明提供一种多功能双极性导电聚合物,结合双极性与溶解性的D-A聚合物突破Ⅲ型聚合物超级电容器的瓶颈。
本发明解决上述技术问题的方案为,提供一种多功能双极性导电聚合物,其特征在于,其分子结构式通式如下所示:
Figure GDA0002273074720000021
其中,x=1,y=0或者x=0,y=1;
D1为
Figure GDA0002273074720000022
及其衍生物中的一种;
A为
Figure GDA0002273074720000023
及其衍生物中的一种;
D2为
Figure GDA0002273074720000024
及其衍生物中的一种,R为-H或-CnH2n+1或-OCnH2n+1,1<n≤50。
在本发明提供的多功能双极性导电聚合物中,所述D2中,-CnH2n+1或-OCnH2n+1为直链或叉链。
本发明还提供该多功能双极性导电聚合物的制备方法,统一表示如图2所示。将D1-A单元与加侧链的D2单元在催化剂的作用下进行直接芳基化聚合,得到所述双极性导电聚合物;
具体地,本制备方法通过对不可溶D-A-D(给体-受体-给体)聚合物一侧的D(给体)进行溶解性改善,由D-A(给体-受体)单元与加侧链的D(给体)单元在催化剂的作用下进行直接芳基化聚合(DHAP)得到双极性导电聚合物。通过给一侧给体单元加不同长度、形状的侧链修饰调节聚合物的溶解性。
本发明还在于保护所述多功能双极性导电聚合物材料在用于制备包括但不限于超级电容器以及电致变色装置的各种装置中的应用;
进一步,本发明还在于保护含有所述多功能双极性导电聚合物材料的器件;
器件优选为聚合物薄膜,所述聚合物薄膜可采用已有技术的任一种成膜方法制备得到,本发明优选成膜方法如下:
将聚合物溶于氯仿/氯苯溶液(氯仿/氯苯体积比=4:1),使用喷涂装置(包含但不限于与空气压缩机连接的美工喷笔)喷涂聚合物溶液于镀有ITO或FTO的玻璃表面而形成电致变色薄膜。其中,聚合物的氯仿/氯苯溶液浓度为1mg/mL。
实施本发明,具有如下有益效果:本发明的多功能双极性导电聚合物,使用直接芳基化聚合(DHAP)聚合而得,是通过对不可溶给体-受体-给体(D-A-D)聚合物一侧的给体进行溶解性改善,由给体-受体(D-A)单元与加侧链改善溶解性的给体(D)单元拼接而成的双极性导电聚合物。聚合物薄膜可随施加电位不同而实现N型掺杂和P型掺杂,并且可以在中性态、氧化态和还原态产生相应的(绿色-深灰色-砖红色)颜色转变。具有稳定性良好、可溶液制备、掺杂-去掺杂速度快、存储电荷密度高等特点。可以解决现有Ⅲ型聚合物超级电容器材料N型掺杂不稳定,溶解度不佳,较难应用于柔性、大面积超级电容器器件制备及批量生产的问题。同时,所述材料兼具电致变色性能,制得的超级电容器的充放电状态可根据颜色变化判断,是集电致变色与储能性能为一体的新型智能超级电容器。此类双极性导电聚合物,作为超级电容器电极材料,必将推动新一代能量储存体系的发展,在人类应对能量危机与环境污染之路上发挥巨大作用。
附图说明
图1为本发明所述多功能双极性导电聚合物分子结构式;
图2为本发明所述多功能双极性导电聚合物材料制备方法示意图;
图3为本发明实施例1中所述Pro-BT-ED共聚物分子结构式;
图4为本发明实施例1中所述聚合物薄膜的循环伏安曲线;
图5为本发明实施例1中所述聚合物薄膜的原位吸收光谱;
图6为本发明实施例1中所述聚合物作为超级电容器电极材料在铂单电极上不同扫速下的循环伏安曲线;
图7为本发明实施例1中所述聚合物作为超级电容器电极材料在铂单电极上不同扫速下的面电容。
具体实施方式
下面将结合实施例对本发明内容做具体说明。
实施例1
D1为3,4-乙烯二氧噻吩(ED),A为苯并噻二唑(BT),D2为(Pro),R为-OC6H13;所述聚合物为ED-BT-Pro共聚物,其分子结构式为图3所示,其制备方法如下:
a.将4,7-二溴-2,1,3-苯并噻二唑(1.77g,6.00mmol)与2-(三丁基锡)-3,4-乙烯二氧噻吩(1.73g,6.00mmol)加入甲苯(60.0mL)中,在氮气氛围下搅拌15分钟后,加入四(三苯基膦)钯(0.5mmol,0.35g),在110℃下回流搅拌18小时,待反应完全后,冷却至室温。有机相经旋蒸移除有机溶剂,用柱层析方法取得深黄色固体产物ED-BT-Br(1.07g,产率76%)
b.将步骤a所得产物ED-BT-Br(1.07g,3.00mmol)用N-溴代丁二酰亚胺(NBS)(0.59g,3.3mmol)进行溴化,反应溶剂为二甲基酰胺(DMF);在室温下反应3小时,反应完全后用水和二氯甲烷萃取,有机相用无水硫酸钠干燥、过滤后,通过在乙醇与氯仿混合溶剂中重结晶得到橙色固体产物Br-ED-BT-Br(1.22g,产率94%)
c.直接芳基化聚合(DHAP):将步骤b所得产物Br-ED-BT-Br(0.37g,0.85mmol)与Pro(0.40g,0.85mmol)溶于N,N-二甲基乙酰胺(DMAc)(85mL)中,加入醋酸钯(7.85mg,0.035mmol),特戊酸(25.53mg,0.25mmol)以及碳酸钾(82.9mg,0.6mmol),通氮气10分钟后,置于140℃下搅拌24小时,反应完全后,将混合物滴入甲醇,过滤得到沉淀物,经索氏提取得到最终产物Pro-BT-ED共聚物。
实施例2:
包含实施例1所述多功能双极性导电聚合物材料Pro-BT-ED共聚物的电致变色器件,优选为喷涂的电致变色薄膜。该电致变色薄膜可在绿色-深灰色-砖红色之间转化。聚合物的起始氧化电位为-0.62V,起始还原电位为-1.45V,最大吸收波长为735nm。
本实施例所述聚合物薄膜在不同扫速下的循环伏安曲线如图4所示,测试的对电极为铂丝,参比电极为银离子电极,此图说明聚合物的起始氧化电位为-0.62V,起始还原电位为-1.45V。
本实施例所述聚合物薄膜的原位吸收光谱如图5所示,图中为从-1.7V至1.1V间不同电压下的吸收光谱,可见薄膜处于中性态时(施加电压-0.1V)最大吸收波长为735nm,随着电压升高,该波长下的吸收减弱,吸收峰逐渐红移,当薄膜处于完全氧化状态时(施加电压1.1V)在1500nm处有最大吸收。随着电压降低,吸收峰逐渐蓝移,当薄膜处于完全还原状态时(施加电压-1.7V)在455nm处有最大吸收。这一系列的变化与薄膜的颜色变化可对应起来。中性态的吸收光谱截止波长为1107.1nm,计算得其带隙为1.12eV。
实施例3
包含实施例1所述多功能双极性导电聚合物材料Pro-BT-ED共聚物的超级电容器,此例中采用的为将所述电极喷涂在铂电极制成的超级的电容器。
本实施例所述聚合物薄膜在铂单电极上,不同扫速下的循环伏安曲线如图6所示,测试的对电极为铂丝,参比电极为银/银离子电极。可见薄膜具有良好的双极性,N-型掺杂和P-型掺杂均可逆。并且有较低的起始氧化电位(-0.62V),较宽的电位窗口(-2.0V至1.0V)。
本实施例所述聚合物薄膜在铂单电极上的面电容如图7所示。
本发明的导电聚合物,除了作为超级电容器的电极材料之外,也是一类重要的有机电致变色材料,这类材料具有较高的比容量、良好的导电性和柔性,且分子结构多样可调易得到丰富多彩的颜色。一种兼具储能与变色性能的双极性可溶D-A聚合物材料及其制备的新型智能超级电容器,必将极大改善打破阻碍现有超级电容器发展的制约。
以上实施例进一步说明本发明的内容,但不应理解为对本发明的限制。在不背离本发明精神和实质的情况下,对本发明方法、步骤或条件所作的修改和替换,均属于本发明的范围。若未特别指明,实施例中所用的技术手段为本领域技术人员所熟知的常规手段。

Claims (7)

1.一种多功能双极性导电聚合物,其特征在于,其分子结构式通式如下所示:
Figure FDA0002421296490000011
其中,x=1,y=0或者x=0,y=1;
D1为
Figure FDA0002421296490000012
A为
Figure FDA0002421296490000013
D2为
Figure FDA0002421296490000014
R为-CmH2m+1或-OCmH2m+1,1<m≤50。
2.根据权利要求1中所述的多功能双极性导电聚合物,其特征在于,所述D2中,-CmH2m+1或-OCmH2m+1为直链或叉链。
3.一种多功能双极性导电聚合物的制备方法,其特征在于,将D1-A单元与加侧链的D2单元在催化剂的作用下进行直接芳基化聚合,得到所述双极性导电聚合物,反应式如下:
Figure FDA0002421296490000015
其中,x=1,y=0或者x=0,y=1;
D1为
Figure FDA0002421296490000021
A为
Figure FDA0002421296490000022
D2为
Figure FDA0002421296490000023
R为-CmH2m+1或-OCmH2m+1,1<m≤50。
4.权利要求1-2中任意一项所述的多功能双极性导电聚合物,或者权利要求3制备得到的多功能双极性导电聚合物,在用于制备超级电容器中的应用。
5.权利要求1-2中任意一项所述的多功能双极性导电聚合物,或者权利要求3制备得到的多功能双极性导电聚合物,在用于制备电致变色装置中的应用。
6.含有权利要求1-2中任意一项所述的多功能双极性导电聚合物或者权利要求3制备得到的多功能双极性导电聚合物的器件。
7.根据权利要求6所述的器件,其特征在于,所述器件为聚合物薄膜。
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