会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明授权
    • Modified lubricant
    • 改性润滑剂
    • US08957003B2
    • 2015-02-17
    • US13895845
    • 2013-05-16
    • Enerage Inc.
    • Mark Y. WuCheng-Yu HsiehJun-Meng LinChen-Xin Yu
    • C10M103/02C10M125/02C10M171/06
    • C10M125/02C10M2201/041C10N2220/082C10N2220/084C10N2230/06C10N2250/10
    • A modified lubricant includes lubricant grease and nano-graphite plates dispersed thoroughly in the lubricant grease. The content of the nano-graphite plates is 0.0001 wt % to 10 wt %. Each nano-graphite plate has a length or a width between 1 and 100 μm, a thickness within 10 nm and 100 nm, and N graphene layers stacked together and a surface modifying layer disposed on the top or bottom of the nano-graphite plates, wherein N is 30 to 300. The surface modifying layer has a surface modifying agent which includes at least two functional groups located at two ends of the surface modifying agent, one of the two functional groups is chemically bonded with certain organic functional group remaining on the surface of the nano-graphite plate, and the other of the two functional groups forms the functional surface of the nano-graphite plate.
    • 改性润滑剂包括在润滑油脂中充分分散的润滑脂和纳米石墨板。 纳米石墨板的含量为0.0001重量%〜10重量%。 每个纳米石墨板的长度或宽度在1和100μm之间,厚度在10nm和100nm之内,N个石墨烯层叠在一起,并且表面改性层设置在纳米石墨板的顶部或底部, 其中N为30至300.表面改性层具有表面改性剂,其包含位于表面改性剂两端的至少两个官能团,两个官能团中的一个与保留在表面改性剂上的某些有机官能团化学键合 纳米石墨板的表面,两个官能团中的另一个形成纳米石墨板的功能表面。
    • 4. 发明申请
    • GRAPHENE TRANSPARENT CONDUCTIVE FILM
    • 石墨透明导电膜
    • US20140342142A1
    • 2014-11-20
    • US14032768
    • 2013-09-20
    • ENERAGE INC.
    • Mark Y. WUCheng-Yu HsiehCheng-Shu Peng
    • H01B1/24
    • H01B1/24
    • A graphene transparent conductive film, Which includes a plurality of graphene sheets and a transparent conductive binder binding the graphene sheets to form the graphene transparent conductive film. The weight ratio of the graphene sheets to the transparent conductive binder is within a range of 0.01 to 1 wt %, and the volume percentage of the transparent conductive binder in the graphene transparent conductive film is within a range of 0.5 to 10%. The transparent conductive binder is a transparent conductive polymer comprising at least one structure of polythiophene and polycationic polymer. The graphene sheets are stacked and bound together by the transparent conductive binder to form the integrated conductive network structure such that the resulting graphene transparent conductive film still has lower sheet resistance with high transparency. Therefore, the present invention can be formed on the flexible support body and greatly expand the field of application.
    • 石墨烯透明导电膜,其包括多个石墨烯片和粘合石墨烯片以形成石墨烯透明导电膜的透明导电粘合剂。 石墨烯片与透明导电性粘合剂的重量比在0.01〜1重量%的范围内,石墨烯透明导电膜中的透明导电性粘合剂的体积比例在0.5〜10%的范围内。 透明导电粘合剂是包含聚噻吩和聚阳离子聚合物的至少一种结构的透明导电聚合物。 石墨烯片通过透明导电粘合剂堆叠并结合在一起以形成集成导电网络结构,使得所得到的石墨烯透明导电膜仍具有较低透明度的薄层电阻。 因此,本发明可以形成在柔性支撑体上,并大大扩展了应用领域。
    • 5. 发明授权
    • Method of surface modifying graphene
    • 表面改性石墨烯的方法
    • US09410041B1
    • 2016-08-09
    • US14642170
    • 2015-03-09
    • Enerage Inc.
    • Mark Y. WuCheng-Yu HsiehCheng-Shu Peng
    • C01B31/02C09C1/44C01B31/04
    • C01B31/0492C01B32/194C01B32/196
    • A method of surface modifying graphene is disclosed and includes placing powder-like graphene into a closed container, heating up to a preset impurity detaching temperature higher than 100° C. so as to detach the impurity from the surface of graphene, further adjusting the treatment temperature to a preset surface modifying temperature, and injecting the gaseous surface modifying agent to be physically adsorbed by the surface of graphene. Thus, surface modified graphene is formed. The surface modifying temperature is higher than the sublimation temperature of the surface modifying agent and less than the decomposition temperature of the surface modifying agent. Therefore, the present invention is simpler and safer because of only physical adsorption used and no chemical reaction involved. Dispersibility of surface modified graphene in the solution is greatly increased to improve uniformity and enhance the performance of the final product formed of surface modified graphene.
    • 公开了一种表面改性石墨烯的方法,包括将粉末状石墨烯置于密闭容器中,加热至高于100℃的预设杂质分离温度,以从石墨烯表面分离杂质,进一步调节处理 温度到预设的表面改性温度,并且注入待被石墨烯表面物理吸附的气态表面改性剂。 因此,形成表面改性石墨烯。 表面改性温度高于表面改性剂的升华温度,低于表面改性剂的分解温度。 因此,由于仅使用物理吸附并且不涉及化学反应,本发明更简单和更安全。 表面改性石墨烯在溶液中的分散性大大增加,以提高由表面改性石墨烯形成的最终产物的均匀性和增强性能。
    • 6. 发明申请
    • GRAPHENE DISSIPATION STRUCTURE
    • 石墨消散结构
    • US20150313041A1
    • 2015-10-29
    • US14594730
    • 2015-01-12
    • Enerage Inc.
    • Mark Y. WuCheng-Yu HsiehJing-Ru ChenShu-Ling HsiehKuan-Ting Li
    • H05K7/20
    • H01L23/373H01L2924/0002H01L2924/00
    • Disclosed is a graphene dissipation structure including a substrate and a graphene dissipation layer. The substrate has at least two surfaces. One of the surfaces contacts at least one heat source, and another one is not in contact with the heat source and provided with the graphene dissipation layer, which includes surface-modified graphene nanometer sheets, a carrier resin and a filler. The surface-modified graphene nanometer sheets are well dispersed in the carrier resin, and enhanced to contact each other through the filler to form a thermal conductive network. The ratio of the particle size of the filler and the thickness of the graphene nanometer sheets is about 2 to 100. Therefore, the heat absorbed by the substrate from the heat source is transferred to the graphene dissipation layer, and further dissipated to the outside through thermal conduction or radiation, thereby achieving the function of heat dissipation.
    • 公开了包括基板和石墨烯耗散层的石墨烯耗散结构。 衬底具有至少两个表面。 其中一个表面接触至少一个热源,另一个表面不与热源接触并且设置有石墨烯耗散层,其包括表面改性的石墨烯纳米片,载体树脂和填料。 表面改性的石墨烯纳米片很好地分散在载体树脂中,并且通过填料增强以彼此接触以形成导热网络。 填料的粒径与石墨烯纳米片的厚度之比约为2〜100。因此,基板从热源吸收的热量转移到石墨烯耗散层,并进一步通过 热传导或辐射,从而实现散热的功能。
    • 7. 发明申请
    • GRAPHENE MASTERBATCH
    • US20150294752A1
    • 2015-10-15
    • US14594662
    • 2015-01-12
    • Enerage Inc.
    • Mark Y. WuCheng-Yu HsiehJing-Ru ChenShu-Ling Hsieh
    • H01B1/24
    • H01B1/24C08J3/226
    • Disclosed is a graphene masterbatch including a base resin, electrically conductive carbon black, graphene nanoplatelets with modified surface and a dispersant. The modified surface of graphene nanoplatelet is formed by a modifying agent containing a coupling compound so as to possess hydrophobic and hydrophilic functional groups, which help graphene nanoplatelets form chemical bonding with carbon black and the base resin. Since the modified surface makes graphene nanoplatelets evenly dispersed in the base resin, the graphene masterbatch of the present invention is suitably melt blended with a polymer material to form a composite material such that graphene nanoplatelets are evenly dispersed in the polymer material, thereby enhancing junction strength, increasing mechanical properties, and improving anti-oxidation, acid/base resistance, and thermal conductivity.
    • 公开了一种石墨烯母料,其包括基础树脂,导电炭黑,具有改性表面的石墨烯纳米片和分散剂。 石墨烯纳米片的改性表面由含有偶联化合物的改性剂形成,以具有疏水和亲水官能团,这有助于石墨烯纳米片与炭黑和基础树脂形成化学键合。 由于改性表面使石墨烯纳米片均匀分散在基体树脂中,本发明的石墨烯母料适当地与聚合物材料熔融共混以形成复合材料,使得石墨烯纳米片均匀分散在聚合物材料中,从而提高结合强度 ,提高机械性能,提高抗氧化性,耐酸碱性和导热性。
    • 9. 发明授权
    • Graphene printed pattern circuit structure
    • 石墨烯印刷图案电路结构
    • US09460828B2
    • 2016-10-04
    • US14528936
    • 2014-10-30
    • Enerage Inc.
    • Mark Y WuCheng-Yu HsiehJing-Ru ChenShu-Ling HsiehKuan-Ting Li
    • H01B1/24H05K1/09H05K1/03
    • H01B1/24H05K1/0313H05K1/097H05K2201/0245H05K2201/0257H05K2201/0323
    • Disclosed is a graphene printed circuit pattern structure including a substrate excellent in electrical insulation and a graphene printed circuit layer provided on the substrate. The graphene printed circuit layer is electrically conductive and has a circuit pattern like an electrical circuit on the circuit board. The graphene printed circuit layer includes surface-modified nanographene platelets, a carrier resin and a filler. The ratio of the particle size of the filler to the thickness of the surface-modified nanographene platelet is 2-1000, and the surface-modified nanographene platelets are dispersed in the carrier resin. The filler is uniformly placed among the surface-modified nanographene platelets so as to enhance effective contact for the surface-modified nanographene platelets. The graphene printed circuit pattern structure provides excellent electrical properties and heat dissipation to achieve protection by preventing electrical elements from overheat.
    • 公开了一种石墨烯印刷电路图案结构,其包括电绝缘性优异的基板和设置在基板上的石墨烯印刷电路层。 石墨烯印刷电路层是导电的并且具有类似于电路板上的电路的电路图案。 石墨烯印刷电路层包括表面改性的纳米线性血小板,载体树脂和填料。 填料的粒径与表面改性纳米石墨烯薄片的厚度的比例为2-1000,表面改性的纳米油墨片分散在载体树脂中。 将填料均匀地置于表面改性纳米油墨片中,以增强表面改性纳米石墨烯血小板的有效接触。 石墨烯印刷电路图案结构提供优异的电性能和散热性,以通过防止电气元件过热来实现保护。
    • 10. 发明授权
    • Graphene polymer composite material
    • 石墨烯聚合物复合材料
    • US09309382B2
    • 2016-04-12
    • US14527599
    • 2014-10-29
    • Enerage Inc.
    • Mark Y WuCheng-Yu HsiehJing-Ru ChenShu-Ling Hsieh
    • C08K9/06C08K3/04
    • C08K9/06C08K3/04C08K3/042C08K9/04
    • Disclosed is a graphene polymer composite material, including a matrix resin, a filler and a plurality of nano-scaled graphene sheets. Each nano-scaled graphene sheet has a surface-modified layer formed of a surface modifying agent, which provides hydrophilic and hydrophobic functional groups used to form chemical bonds with the matrix resin and the filler, thereby greatly improving strength of junction cohesion. The filler helps the graphene sheets to contact each other so as so to increase overall electrical conductivity and thermal conductivity. Since the graphene sheets are uniformly dispersed in the matrix resin, the composite material of the present invention possesses excellent mechanical property, anti-oxidation, acid-base resistance, high electrical conductivity and thermal conductivity. Therefore, the composite material is suitable for the industries in need of high performance material.
    • 公开了一种石墨烯聚合物复合材料,其包括基质树脂,填料和多个纳米级石墨烯片。 每个纳米级石墨烯片具有由表面改性剂形成的表面改性层,其提供用于与基质树脂和填料形成化学键的亲水和疏水官能团,从而大大提高结合性内聚力。 填料有助于石墨烯片彼此接触,从而增加总的导电性和导热性。 由于石墨烯片均匀地分散在基质树脂中,本发明的复合材料具有优异的机械性能,抗氧化性,耐酸碱性,高导电性和导热性。 因此,复合材料适用于需要高性能材料的行业。