Abstract: A method, a device, and a system for resource allocation are provided to improve network capacities. The method implemented by an access network device includes: obtaining a first quantity of repetitions M and a first MCS order that are of a scheduling resource of a first terminal, and a second quantity of repetitions N and a second MCS order that are of a scheduling resource of a second terminal; calculating overlapping areas of first and second total scheduling resources based on the first and second quantities of repetitions and the first and second MCS orders, respectively; determining a maximum overlapping area of the first total scheduling resource based on the calculated overlapping areas; and allocating to the second terminal, N consecutive scheduling resources overlapping with the first total scheduling resource, wherein an overlapping area is less than or equal to the maximum overlapping area.

Abstract: One example method includes obtaining, by an access network device, a waiting duration corresponding to transmitting uplink data of a first subframe quantity by a terminal, where the first subframe quantity is a subframe quantity with the greatest scheduling efficiency within a preset subframe quantity value range when the access network device schedules the terminal to transmit the uplink data. In response to determining that the waiting duration is greater than a threshold, the access network device can then determine a second subframe quantity that is within the preset subframe quantity value range and that enables the waiting duration to be less than or equal to the threshold. The access network device can then send a first uplink authorization instruction to the terminal, where the first uplink authorization instruction is used to instruct the terminal to send uplink data of the second subframe quantity.

Abstract: Embodiments of this application disclose an uplink transmission resource allocation method and apparatus. The uplink transmission resource allocation method and the apparatus may reduce resource fragments of an uplink transmission resource, increase an uplink peak rate of a cell, and improve spectrum utilization efficiency. The method may include: determining uplink data transmission grant instruction duration, first state transition duration, and duration of first uplink data transmission; and determining a target subcarrier based on the uplink data transmission grant instruction duration, the first state transition duration, and the duration of the first uplink data transmission, where the target subcarrier is an available subcarrier with a minimum difference between a start slot of uplink data transmission duration and an end slot of an allocated resource on an available subcarrier, and the available subcarrier is a subcarrier whose resource within the uplink data transmission duration is an idle resource.

Abstract: A method, a device, and a system for resource allocation are provided to improve network capacities. The method implemented by an access network device includes: obtaining a first quantity of repetitions M and a first MCS order that are of a scheduling resource of a first terminal, and a second quantity of repetitions N and a second MCS order that are of a scheduling resource of a second terminal; calculating overlapping areas of first and second total scheduling resources based on the first and second quantities of repetitions and the first and second MCS orders, respectively; determining a maximum overlapping area of the first total scheduling resource based on the calculated overlapping areas; and allocating to the second terminal, N consecutive scheduling resources overlapping with the first total scheduling resource, wherein an overlapping area is less than or equal to the maximum overlapping area.

Abstract: This application provides a downlink transmission resource allocation method and apparatus. The method includes determining a first time domain resource length and a second time domain resource length, and adjusting the second time domain resource length if the first time domain resource length is greater than or equal to a preset threshold. The method also includes if a third time domain resource length is greater than or equal to a decreased second time domain resource length, determining the first time domain resource length as a first target time domain resource length, and determining the decreased second time domain resource length as a second target time domain resource length. A first time domain resource is used to switch from a first state to a second state, a second time domain resource is used to receive the downlink data, and a third time domain resource is used to transmit the downlink data.

Abstract: One example method includes obtaining, by an access network device, a waiting duration corresponding to transmitting uplink data of a first subframe quantity by a terminal, where the first subframe quantity is a subframe quantity with the greatest scheduling efficiency within a preset subframe quantity value range when the access network device schedules the terminal to transmit the uplink data. In response to determining that the waiting duration is greater than a threshold, the access network device can then determine a second subframe quantity that is within the preset subframe quantity value range and that enables the waiting duration to be less than or equal to the threshold. The access network device can then send a first uplink authorization instruction to the terminal, where the first uplink authorization instruction is used to instruct the terminal to send uplink data of the second subframe quantity.

Abstract: A drug decocting container comprises a cover body (1), an inner-layer container, and an outer-layer container. The inner-layer container is em-bedded in the inner part of the outer-layer container, the strength of the outer-layer container is larger than that of the inner-layer container, and the outer-layer container supports the inner-layer container and controls deformation of the inner-layer container. The cover body (1) is connected with the inner-layer container in a sealing way to form a sealed cavity, and a liquid inlet and a liquid outlet are provided on the sealed cavity. An inner pipe (3) is supported by a high-strength outer pipe (2) in the drug decocting container, such that the wall thickness of the inner pipe (3) can be thin, thereby reducing costs of the inner pipe (3), providing a condition for disposable use of the inner pipe (3), and preventing drugs from influencing each other by residues in the inner pipe (3) so as to affect the quality of a beverage while decocting different drugs.

Abstract: A drug decocting container comprises a cover body (1), an inner-layer container, and an outer-layer container. The inner-layer container is em-bedded in the inner part of the outer-layer container, the strength of the outer-layer container is larger than that of the inner-layer container, and the outer-layer container supports the inner-layer container and controls deformation of the inner-layer container. The cover body (1) is connected with the inner-layer container in a sealing way to form a sealed cavity, and a liquid inlet and a liquid outlet are provided on the sealed cavity. An inner pipe (3) is supported by a high-strength outer pipe (2) in the drug decocting container, such that the wall thickness of the inner pipe (3) can be thin, thereby reducing costs of the inner pipe (3), providing a condition for disposable use of the inner pipe (3), and preventing drugs from influencing each other by residues in the inner pipe (3) so as to affect the quality of a beverage while decocting different drugs.

Abstract: The subject matter disclosed and claimed herein relates to novel in vitro assays for measuring glucokinase activity and use of these assays for identifying modulators of glucokinase.

Abstract: A ceramic capacitor is disclosed. The capacitor comprises a plurality of base metal inner electrode layers, a plurality of ceramic dielectric layers between the inner electrode layers, and external electrodes in electrical conductivity with the inner electrode layers. At least one secondary component having an intentionally added chemistry is dispersed in the inner electrode layers and/or the dielectric layers. The chemistry evolves an oxidizing species in a controlled manner, such that it offsets localized highly reducing atmospheres that are present when the capacitor is fired in a reducing atmosphere, thereby promoting enhanced electrode connectivity in thin layer base metal multilayer capacitors.

Abstract: A capacitor with conductive layers arranged in parallel relationship. The conductive layers have nickel alloyed with a refractory metal in an amount sufficient to raise the melting temperature of said conductive layer at least 1° C. above the melting temperature of nickel. A dielectric layers is between the conductive layers. Alternating layers of said conductive layers are in electrical contact with external terminations of opposing polarity.

Abstract: A capacitor with conductive layers arranged in parallel relationship. The conductive layers have nickel alloyed with a refractory metal in an amount sufficient to raise the melting temperature of said conductive layer at least 1° C. above the melting temperature of nickel. A dielectric layers is between the conductive layers. Alternating layers of said conductive layers are in electrical contact with external terminations of opposing polarity.

Abstract: The present invention is directed to a lubricating shaving aid on a shaving razor or a shaving cartridge to reduce frictional drag between a razor blade edge and a shaver's skin and to provide a lubricating film on the shaver's skin during wet shaving. The lubricating shaving aid comprises a water soluble component and a water insoluble component and is formed such that the water insoluble component is released as the water soluble component dissolves upon exposure to water. The invention further discloses a method for making the same from an aqueous dispersion of water, a water soluble component in solution, and a dispersion of a water insoluble component dispersed in the water and the solution of the water soluble component.

Abstract: Ink follower compositions include a non-polar liquid that is a mixture of high molecular weight polybutene and low molecular weight polybutene, the high molecular weight polybutene having a number average molecular weight greater than about 900 and the low molecular weight polybutene having a number average molecular weight of about 500, the ratio of high molecular weight polybutene to low molecular weight polybutene being at least 2:1; a thickener and a polar additive. The polar additive is water or a non-ionic surfactant, e.g., ethoxylated nonylphenol.

Abstract: The present invention is directed to a lubricating shaving aid on a shaving razor or a shaving cartridge to reduce frictional drag between a razor blade edge and a shaver's skin and to provide a lubricating film on the shaver's skin during wet shaving. The lubricating shaving aid comprises a water soluble polyacrylamide and a water insoluble polyurethane. The invention further discloses a method for making the same.

Abstract: An erasable ink composition contains a water-insoluble polymeric dye obtained by copolymerizing ethylenically unsaturated monomers at least one of which possesses a dye moiety covalently bonded thereto. The ink is intended for use in any of a variety of marking instruments, in particular, a ball-point pen.

Abstract: Ink follower compositions include a non-polar liquid, a thickener and a polar additive. The polar additive is preferably selected from the group consisting of non-ionic surfactants, e.g., ethoxylated nonylphenols, and low molecular weight alcohols.

Abstract: An erasable ink composition contains a water-insoluble polymeric dye obtained from the polymerization of at least two coreactive polyfunctional monomers with at least one of the monomers possessing a dye moiety covalently bonded thereto. The ink is intended for use in any of a variety of marking instruments, in particular, a ball-point pen.

Abstract: An erasable ink composition contains a dispersion of solid particles of water-insoluble polymer-encapsulated colorant obtained from the emulsion polymerization of at least one emulsion-polymerizable monomer in the presence of solid colorant particles. The ink is intended for use in any of a variety of marking instruments, in particular, a ball-point pen.

Abstract: Novel, improved ink compositions are aqueous-based, shock-resistant, shear-thinning inks for writing instruments having a shear index greater than 0.6. The inks are a substantially uniform dispersion including colorant(s), a water dispersible, polymeric shear-thinning material selected from the group consisting of welan gum, rhamsan gum and combinations thereof, and a substantially water-soluble polymeric viscosity modifier in a polar solvent system. While the ink compositions have a high viscosity at low shear rates, they undergo shear-thinning and are readily flowable in response to shear rates produced in writing to provide a writing ink having an especially desirable combination of performance characteristics.