Abstract:
A lithium-ion battery comprises a positive electrode, a negative electrode, an electrolyte system and an ion-selective conducting layer disposed between the positive electrode and the negative electrode. The ion-selective conducting layer consists of high polymers and an inorganic lithium salt having lithium-ion conductivity, or consists of the inorganic lithium salt. The inorganic lithium salt includes LimMnOx, wherein the values of the m and n ensure the LimMnOx an electrically neutral compound, M is selected from at least one of B, P, Si, Se, Zr, W, Ti, Te, Ta, Al and As. The lithium-ion battery has a conduction layer having preference-selective conductivity for the lithium ions and disposed between the positive electrode and the negative electrode. The selective-conduction layer has improved mobility for lithium ions. Metal ions generated from the oxidized metal current collector at the negative electrode due to the over-charging of the battery can be blocked.
Abstract:
A field emission cathode device includes a cathode substrate, a gate electrode, a first dielectric layer, a cathode electrode, and an electron emission layer. The gate electrode is located on a surface of the cathode substrate. The first dielectric layer is located on a surface of the gate electrode and defines a first opening to expose part of the gate electrode. The cathode electrode is spaced from the gate electrode through the first dielectric layer defining a second opening in alignment with the first opening. A field emission display using the field emission cathode device is also related.
Abstract:
Methods, systems, and apparatus, including computer program products, for translation of markup language documents with display replacement. In some implementations, a method includes displaying a markup language document in an original language by rendering an internal representation of the document, sending a data structure containing the texts from the text nodes of the internal representation, as distinct data entities, to a translation service, replacing the texts with translated texts received from the translation service resulting in a translated representation, and displaying a first translation of the document by rendering the translated representation. In some implementations, partial, incremental translation is performed. In some implementations, a method includes receiving a notification that a phrase in a markup language document has been selected, requesting translation of the text of the selected phrase, and then displaying a received translation in a user interface.
Abstract:
A field emission cathode device includes an insulative substrate, a plurality of cathode electrodes, and a plurality of electron emission units. The insulative substrate has a top surface and a bottom surface. The insulative substrate defines a plurality of openings. The cathode electrodes are located on the bottom surface. Each of the electron emission units has a first portion secured between the insulative substrate and one corresponding cathode electrode and a second portion received in one corresponding opening.
Abstract:
The present invention discloses a service negotiation method, system and device. The service negotiation method includes: obtaining a service negotiation request that contains multiple services; obtaining a requirement processing result of the multiple services according to the service negotiation request; and selecting a target service according to the requirement processing result, generating a service negotiation result corresponding to the service negotiation request, and returning the service negotiation result. The present invention enables the service network to support service negotiation under multiple service requirements and meets the needs of service interactions and the requirements of the negotiation requester. With the present invention, the success rate of service negotiation is increased and the user satisfaction is enhanced.
Abstract:
A field emission cathode structure includes a dielectric layer, a field emission unit, a grid electrode, and a conductive layer. The dielectric layer is positioned on the insulating substrate and defines a cavity. A field emission unit is attached on the cathode electrode and received in the cavity of the dielectric layer. The field emission unit is electrically attached to the cathode electrode. The grid electrode is located on the dielectric layer, and electrons emitted from the field emission unit emit through the grid electrode. The conductive layer is electrically attached to the grid electrode and insulated from the field emission unit. A field emission display device using the above-mentioned field emission cathode structure is also provided.
Abstract:
An improved integrated circuit (IC) layout is described that provides conductive pads on opposite sides of a substrate. The conductive pads provide for connectivity to the chip in different chip orientations. Accordingly, multiple chips having the same layout can be provided in a package, instead of providing each chip with a different layout. Since the same layout may be used for each chip, manufacturing costs are reduced.
Abstract:
A method for managing a terminal device includes: setting management commands; sending the management commands to a terminal device; and obtaining executed results of the management commands from the terminal device. Another method for managing a terminal device, comprising: setting management commands; configuring a terminal device with the management commands; and obtaining executed results of the management commands from the terminal device.
Abstract:
A method for making a field emission double-plane light source includes following steps. A metallic based network, a pair of anodes, and a number of supporting members, are provided. Each of the anodes includes an anode conductive layer and a fluorescent layer formed on the anode conductive layer. A number of carbon nanotubes, metallic conductive particles, glass particles and getter powders are mixed to form an admixture. The admixture is coated on an upper surface and a bottom surface of the network. The admixture on the upper and bottom surfaces of the network is dried and baked. The anodes, the cathode, and the supporting members are assembled and sealed to obtain the field emission double-plane light source.
Abstract:
A field emission double-plane light source includes a first anode, a second anode, and a cathode separately arranged between the first and second anodes. Each of the first and second anodes includes an anode substrate, an anode conductive layer formed on a surface of the anode substrate, and a fluorescent layer formed on the anode conductive layer. The cathode has a metallic based network with two opposite surfaces, each facing a respective one of the first and second anodes. Each of the surfaces of the network has a respective electron emission layer thereon facing a corresponding fluorescent layer of one of the first and second anodes. Each of the electron emission layers includes a glass matrix, and a plurality of carbon nanotubes, metallic conductive particles, and getter powders dispersed in the glass matrix. A method for making such field emission double-plane light source is also provided.