摘要:
One embodiment of the invention provides a nanostructure layer, comprising: a first population of semiconductor nanocrystals forming electron transport conduits; a second population of semiconductor nanocrystals forming hole transport conduits; and a third population of semiconductor nanocrystals capable of at least one of the following: absorbing light or emitting light.
摘要:
A first population of semiconductor nanocrystals to create electron transport conduits, a second population so semiconductor nanocrystals to create hole transport conduits; and a third population of semiconductor nanocrystals to be used for either light absorption or light emission can be combined to form an inorganic nanostructure layer.
摘要:
An electrophoretic display medium includes at least one set of colored particles in a dielectric fluid, wherein the dielectric fluid is a silicone fluid, and wherein the display medium has an electrical conductivity of about 10−11 to about 10−15 S/m. The display medium is included in an electrophoretic display device by including the medium in a multiplicity of individual reservoirs of a display layer or layers that is located between conductive substrates.
摘要:
An electrophoretic display device includes a display layer comprised of a binder having a multiplicity of individual cavities therein that contain a display medium, and conductive substrates, at least one of the conductive substrates being transparent, wherein the display layer is located in between the conductive substrates, and wherein the display medium comprises one or more set of colored particles in a dielectric fluid and has an electrical conductivity of about 10−11 to about 10−15 S/m. The display device may be made by forming composite particles comprised of a sacrificial binder and the one or more set of particles of the display medium; mixing the composite particles with the binder to form a mixture; forming a layer from the mixture; removing the sacrificial binder from the composite particles in the layer to form cavities in the layer that contain the one or more set of colored particles; and filling the cavities with the dielectric fluid.
摘要翻译:电泳显示装置包括由粘合剂组成的显示层,所述粘合剂包含显示介质中的多个单独空腔,以及导电基板,至少一个所述导电基板是透明的,其中所述显示层位于所述导电基板 ,并且其中所述显示介质包括介电流体中的一组或多组着色颗粒,并且其电导率为约10 -11至约10 -15 S / m 。 显示装置可以通过形成由牺牲粘合剂和显示介质的一组或多组颗粒组成的复合颗粒来制造; 将复合颗粒与粘合剂混合以形成混合物; 从混合物形成一层; 从所述层中的复合颗粒中去除牺牲粘合剂,以在该层中形成包含一组或多组着色颗粒的空腔; 并用介电流体填充空腔。
摘要:
An electrophoretic display medium includes at least one set of colored particles in a dielectric fluid, wherein the dielectric fluid is a silicone fluid, and wherein the display medium has an electrical conductivity of about 10−11 to about 10−15 S/m. The display medium is included in an electrophoretic display device by including the medium in a multiplicity of individual reservoirs of a display layer or layers that is located between conductive substrates.
摘要翻译:电泳显示介质包括介电流体中的至少一组着色颗粒,其中介电流体是有机硅流体,并且其中显示介质的电导率为约10-11%至约10 -15 S / m。 显示介质包括在电泳显示装置中,通过将介质包括在位于导电基板之间的显示层的多个单独的储存器中。
摘要:
The disclosure provides, in various embodiments, a method for fractionating a polyalkylene, and the fractionated polyalkylene produced thereby. The method includes, for example, separating, from a starting polyalkylene, a first portion of a polyalkylene having a Mw less than the Mw of the starting polyalkylene. Also included are carriers, phase change inks and toners comprising the fractionated polyalkylene, such as the first portion of a polyalkylene.
摘要:
The disclosure provides, in various embodiments, a method of purifying polyalkylene. Also included are microencapsulated Gyricon beads, phase change ink, and toners comprising the purified polyalkylene.
摘要:
Composite materials having colloidal photonic crystals patterned in substrates for use in different technologies including lab-on-chip and photonic chip technologies. The colloidal crystals are patterned either on or within surface relief patterns in the substrates of the composite materials and each colloidal crystal exhibits Bragg diffraction.
摘要:
Disclosed is a technique for producing bichromal balls that are adapted for use in high temperature applications. The bichromal balls find particular application in signs and display devices that can be used in environments in which the temperature exceeds 40° C.