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A review on the field patents and recent developments over the application of metal organic frameworks (MOFs) in supercapacitors

机译:超级电容器中金属有机框架(MOFS)应用的现场专利及最近发展的综述

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Global energy demand and the seriousness in sustainable energy obligations along with a large amount of CO2 emission and rapid depletion of fossil fuels have diligently persuaded the researchers to promote eco-benign energy storage systems with high performance. High energy and power density, long cycling life, ultra-flexibility, environment friendly, light-weight with challenges of the benefits of industrial applications, safety, and reliability are currently considered in inventing efficient energy storage systems. Therefore, promoting and employing effective technologies to storing energy has widely become a development trend. Achieving that object is paved by developing batteries and supercapacitors (SCs) which are remarkably attracted enormous research interest and scientific reports. Supercapacitors are on a rapid and significant development path, with possessing desirable electrochemical benefits, including high power density, long cycle-life, rapid charge-discharge rate, and absolutely demanded commercial features. To understand the real performance of investigated supercapacitors, we considered the electrochemical output of applied SC systems. Actually, various types of electrode materials, electrolytes, have been significantly used to improve the electrochemical features in terms of specific capacitance, energy density, power density, and cycle life. Here, we focused on reviewing filed patents on application of MOFs in SCs and the recent improvements in employed components consisting of electrode and electrolyte in supercapacitive behavior. From the technical results, ZIF-series, UiO-66/67, MIL-based, MOF-74, MOF-5, Ni-3(HITP)(2), Cu-3(HITP)(2) are widely used in MOF-based SCs. Patents are costly to register and they are also extremely reliable documents that are remarkably reliable in comparison to articles. Because patents are seriously challenged scientifically and legally, they contain critical information that inventors must disclose in full detail. Compared to articles, patents are a truly reliable reference for all researchers, especially youthful researchers, start-ups, and technology developers, due to their complete disclosure, reproducibility and 100% reliability. While innovation is a key component in both papers and patents, patents certainly contain an Inventive Step (IS), which is the main criterion that distinguishes these two references. Furthermore, mixed-metal MOF and compositing materials such as PANI (conductive polymers), graphene, CNTs, and nanomaterials or using as precursor material, provide higher surface area, simultaneous EDLC and pseudocapacitance effect which is desirable for electrochemical devices. Among considered files, only 135 patents were closely related to this subject showing its stepping-stone age. In addition, the aqueous electrolyte such as KOH and H2SO4 are well-demanded to ease charge transfer in SCs. The statistical analysis showed that China is leading developer towards developing MOF-based SCs; while, the USA and South Korea are two next following countries. China seems to have a very large market share for this type of SC. The USA, EU, and South Korea, despite their close economic share and market share, need to sacrifice more diligent efforts in competition with China. We believe that this review opens a new prospective of MOF-based SCs for future electrochemical considering to provide higher performed devices. (C) 2020 Elsevier B.V. All rights reserved.
机译:全球能源需求和可持续能源义务的严重性以及大量二氧化碳排放和化石燃料的迅速消耗努力促进了研究人员,促进具有高性能的生态良性储能系统。高能量和功率密度,长循环寿命,超灵活性,环境友好,重量轻,具有工业应用,安全性和可靠性的益处的挑战,目前在发明高效的能量存储系统中考虑。因此,促进和采用有效的技术来储存能源已被广泛成为发展趋势。通过开发电池和超级电容器(SCS)来铺设实现该物体,这显着吸引了巨大的研究兴趣和科学报告。超级电容器采用快速而显着的开发路径,具有所需的电化学益处,包括高功率密度,长循环寿命,快速充电 - 放电率,绝对要求的商业特征。要了解所研究的超级电容器的实际表现,我们认为应用SC系统的电化学输出。实际上,各种类型的电极材料,电解质已经显着地用于改善特定电容,能量密度,功率密度和循环寿命的电化学特征。在这里,我们专注于审查申请MOFS在SCS中的申请专利以及近期在超级电容行为中由电极和电解质组成的使用组分的改进。从技术结果,ZIF系列,UIO-66/67,MIL基,MOF-74,MOF-5,Ni-3(HITP)(2),Cu-3(Hitp)(2)被广泛应用于基于MOF的SCS。注册专利昂贵,它们也是非常可靠的文件,与文章相比,这也非常可靠。因为专利在科学和合法地受到严重挑战,但它们包含了发明人必须全面披露的关键信息。与文章相比,专利是所有研究人员,特别是青年研究人员,初创企业和技术开发人员的真正可靠的参考,因为它们完全披露,再现性和100%的可靠性。虽然创新是论文和专利中的关键组成部分,但专利肯定包含了一个创造性的步骤(是),这是区分这两个参考的主要标准。此外,混合金属MOF和合成材料如PANI(导电聚合物),石墨烯,CNT和纳米材料或用作前体材料,提供更高的表面积,同时EDLC和伪孔隙效果,这对于电化学装置是期望的。在考虑的文件中,只有135项专利与这个主题密切相关,呈现其踩踏石时代。另外,诸如KOH和H 2 SO 4的水性电解质非常需要易于在SCS中缓解电荷转移。统计分析表明,中国是发展基于MOF的SCS的开发商;虽然,美国和韩国是下一个国家。中国似乎对这种SC的市场份额非常大。美国,欧盟和韩国尽管经济份额和市场份额密切,但需要牺牲与中国竞争更加勤奋的努力。我们认为,本综述开启了基于MOF的SCS的新潜在,以便考虑到提供更高的执行设备。 (c)2020 Elsevier B.v.保留所有权利。

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