mhurhangee/ep-ind-claims huggingface dataset:
A liquid accommodation body, comprising: a container main body member of a concave shape having an opening on one side and a partitioning wall, the container main body member forming a liquid accommodation portion for accommodating a liquid, the partitioning wall partitioning the liquid accommodation portion into a main chamber and a buffer chamber, and the container main body member forming a liquid supply portion which communicates with the liquid accommodation portion and has an opening allowing the liquid of the liquid accommodation portion to flow to the outside; a sheet member attached to the container main body member, the sheet member being attached to an end portion of the partitioning wall; a cover member attached to the container main body so as to cover the liquid accommodation portion, the cover member having a convex portion (266, 268) formed on an inner side of the cover member, the convex portion (266, 268) opposing the end portion of the partitioning wall in order to suppress deformation of the cover member, the cover member having a ventilation port; a cap which is mounted on the container main body member in a detachable manner so as to block the opening of the liquid supply portion and which, together with the liquid supply portion, forms an inner chamber; and a first communication path which communicates the inner chamber with the outside via the ventilation port, the first communication path including an inner portion communication path formed on an inner side of the cover member. a container main body member of a concave shape having an opening on one side and a partitioning wall, the container main body member forming a liquid accommodation portion for accommodating a liquid, the partitioning wall partitioning the liquid accommodation portion into a main chamber and a buffer chamber, and the container main body member forming a liquid supply portion which communicates with the liquid accommodation portion and has an opening allowing the liquid of the liquid accommodation portion to flow to the outside; a sheet member attached to the container main body member, the sheet member being attached to an end portion of the partitioning wall; a cover member attached to the container main body so as to cover the liquid accommodation portion, the cover member having a convex portion (266, 268) formed on an inner side of the cover member, the convex portion (266, 268) opposing the end portion of the partitioning wall in order to suppress deformation of the cover member, the cover member having a ventilation port; a cap which is mounted on the container main body member in a detachable manner so as to block the opening of the liquid supply portion and which, together with the liquid supply portion, forms an inner chamber; and a first communication path which communicates the inner chamber with the outside via the ventilation port, the first communication path including an inner portion communication path formed on an inner side of the cover member.
A maleimide based copolymer comprising aromatic vinyl monomer unit, vinyl cyanide monomer unit, and maleimide monomer unit; wherein the maleimide based copolymer has a glass transition temperature of 165 to 200°C measured in accordance with JIS K-7121 at a temperature elevation rate of 10 °C/min; and a melt mass flow rate of 25 to 80 g/10min measured in accordance with JIS K 7210 at 265°C with 98 N load, characterized in that an amount of the vinyl cyanide monomer unit contained in the maleimide based copolymer is 7 to 20 mass%.
Portable power tool, in particular portable power tool having a spindle that can be driven in an oscillatory manner, having at least one tool clamping device comprising a clamping unit that has at least one clamping element for securely clamping a working tool in an axial direction that runs at least substantially parallelwise in relation to a pivot axis and/or rotation axis of a drive shaft, and has at least one clamping head, which is disposed on the clamping element and which is provided for clamping the working tool at a free end of the clamping unit, wherein the clamping unit has a guide unit, which is provided for guiding at least one movement of the working tool along at least one movement direction that differs substantially from the axial direction, in at least one operating state, wherein the longitudinal axis of the clamping element is substantially parallel to the axial direction when the clamping element is in a mounted state, and wherein the clamping head has a chamfer, at least on a side that faces away from a clamping surface, characterized in that the clamping head has at least one clamping surface that is disposed asymmetrically in respect of a longitudinal axis of the clamping element.
A method comprising: removing a conical collector through a cabin exhaust valve of the aircraft wherein ambient cabin air has been driven from the cabin over a reagent fluid within the conical collector in order to collect a representative sample within the reagent fluid.
A method of a User Equipment, in the following also referred to as UE, the method comprising: keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, idle state and a serving cell of the UE is a second cell, wherein the UE is configured with the dedicated PUR configuration in a first cell different than the second cell; selecting a third cell during a RRC connection re-establishment procedure; and responsive to the selecting the third cell, determining whether or not to release the dedicated PUR configuration based upon whether or not the third cell is the same as the first cell, wherein the determining whether or not to release the dedicated PUR configuration is performed when the UE is in RRC connected state, characterized by further comprising: keeping the dedicated PUR configuration responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element if the RRCConnectionReconfiguration message does not comprise fullConfig. and releasing the dedicated PUR configuration responsive to receiving the RRCConnectionReconfiguration message comprising the mobilityControlInfo information if the RRCConnectionReconfiguration message comprises fullConfig, wherein a fourth cell indicated by the mobilityControlInfo information element is different than the first cell. keeping a dedicated Preconfigured Uplink Resources, in the following also referred to as PUR, configuration when the UE is in Radio Resource Control, in the following also referred to as RRC, idle state and a serving cell of the UE is a second cell, wherein the UE is configured with the dedicated PUR configuration in a first cell different than the second cell; selecting a third cell during a RRC connection re-establishment procedure; and responsive to the selecting the third cell, determining whether or not to release the dedicated PUR configuration based upon whether or not the third cell is the same as the first cell, wherein the determining whether or not to release the dedicated PUR configuration is performed when the UE is in RRC connected state, characterized by further comprising: keeping the dedicated PUR configuration responsive to receiving a RRCConnectionReconfiguration message comprising a mobilityControlInfo information element if the RRCConnectionReconfiguration message does not comprise fullConfig. and releasing the dedicated PUR configuration responsive to receiving the RRCConnectionReconfiguration message comprising the mobilityControlInfo information if the RRCConnectionReconfiguration message comprises fullConfig, wherein a fourth cell indicated by the mobilityControlInfo information element is different than the first cell.
A method to manufacture an implantable optrode comprising: depositing a first cladding layer comprising a fluoropolymer over a substrate layer; treating a first face of the first cladding layer, opposite the substrate layer, with a fluoropolymer etchant to change a surface energy of the first face of the first cladding layer; depositing a core material on the first face of the first cladding layer; encapsulating the core material with a second cladding layer; and machining one or more channels into the implantable optrode to form one or more microfluidic channels in the implantable optrode. depositing a first cladding layer comprising a fluoropolymer over a substrate layer; treating a first face of the first cladding layer, opposite the substrate layer, with a fluoropolymer etchant to change a surface energy of the first face of the first cladding layer; depositing a core material on the first face of the first cladding layer; encapsulating the core material with a second cladding layer; and machining one or more channels into the implantable optrode to form one or more microfluidic channels in the implantable optrode.
A system for lowering a core body temperature of a patient, said system comprising: an endotracheal tube with at least two lumens terminating in separate distal ports (46,48) to separately deliver breathing gas and frozen particles to a respiratory system of the patient; a temperature sensor configured to measure a temperature of gas being exhaled through the breathing gas lumen; a controller configured to adjust the amount or rate of delivery of frozen particles through the frozen particle lumen, whereby a target core temperature of the patient can be achieved and maintained by adjusting the amount or rate of delivery of the frozen particles in response to changes in the temperature of the exhaled gas; wherein the distal ports are axially or otherwise separated so that the distal port of the breathing gas lumen is disposed proximally of the distal port on the frozen particle lumen. an endotracheal tube with at least two lumens terminating in separate distal ports (46,48) to separately deliver breathing gas and frozen particles to a respiratory system of the patient; a temperature sensor configured to measure a temperature of gas being exhaled through the breathing gas lumen; a controller configured to adjust the amount or rate of delivery of frozen particles through the frozen particle lumen, whereby a target core temperature of the patient can be achieved and maintained by adjusting the amount or rate of delivery of the frozen particles in response to changes in the temperature of the exhaled gas; wherein the distal ports are axially or otherwise separated so that the distal port of the breathing gas lumen is disposed proximally of the distal port on the frozen particle lumen.
User equipment, UE, comprising: a module to determine a value for a discontinuous reception, DRX, parameter based at least in part on information associated with an application when the application is running on the UE, the information associated with the application includes traffic pattern of packets associated with the application, the traffic pattern indicating whether the application generates background traffic packets and the information indicating delay requirements for the application, the DRX parameter including one of an on-duration of a DRX cycle, a DRX cycle length, an inactivity DRX timer, and radio resource control, RRC, inactivity timer; and a transmitter to send a message to an enhanced node-B, eNB,, the message including at least one of the value for the DRX parameter and the information associated with the application, characterised in that the module is arranged to cause the UE to enter a DRX mode using DRX parameters having values determined by the eNB, wherein at least one of the values is based at least in part on the information associated with the application, and the module is arranged to cause the UE to stay in the DRX mode and refrain from entering radio resource control, RRC, idle state based on the traffic pattern of packets associated with the application, and wherein a value for an RRC inactivity timer for entering RRC idle state is greater than a periodicity of keep-alive messages associated with the application. a module to determine a value for a discontinuous reception, DRX, parameter based at least in part on information associated with an application when the application is running on the UE, the information associated with the application includes traffic pattern of packets associated with the application, the traffic pattern indicating whether the application generates background traffic packets and the information indicating delay requirements for the application, the DRX parameter including one of an on-duration of a DRX cycle, a DRX cycle length, an inactivity DRX timer, and radio resource control, RRC, inactivity timer; and a transmitter to send a message to an enhanced node-B, eNB,, the message including at least one of the value for the DRX parameter and the information associated with the application, characterised in that the module is arranged to cause the UE to enter a DRX mode using DRX parameters having values determined by the eNB, wherein at least one of the values is based at least in part on the information associated with the application, and the module is arranged to cause the UE to stay in the DRX mode and refrain from entering radio resource control, RRC, idle state based on the traffic pattern of packets associated with the application, and wherein a value for an RRC inactivity timer for entering RRC idle state is greater than a periodicity of keep-alive messages associated with the application.
A processor-readable medium, having stored thereon processor-executable instructions which, when executed by a processor, cause the processor to detect physiological movement of a user, the processor-executable instructions comprising: instructions to control producing, via a speaker coupled to an electronic processing device, a sound signal in a vicinity that includes a user; instructions to control sensing, via a microphone coupled to the electronic processing device, a sound signal reflected from the user; instructions to process the sensed sound signal; and instructions to detect a breathing signal from the processed sound signal, wherein the sound signal comprises a repeated waveform with changing frequencies that form a triangular or a sinusoidal waveform, and wherein the repeated waveform is phase continuous. instructions to control producing, via a speaker coupled to an electronic processing device, a sound signal in a vicinity that includes a user; instructions to control sensing, via a microphone coupled to the electronic processing device, a sound signal reflected from the user; instructions to process the sensed sound signal; and instructions to detect a breathing signal from the processed sound signal, wherein the sound signal comprises a repeated waveform with changing frequencies that form a triangular or a sinusoidal waveform, and wherein the repeated waveform is phase continuous.
An electrical connector comprising a quarter turn fastener, the quarter turn fastener comprising a stud having at least one helical cam slot and a receptacle comprising at least one cam follower and a biasing means, the connector further comprising means for connection to an electrical assembly, wherein the means for connection to the electrical assembly comprises a spade and wherein the stud comprises a body having a head at one end thereof, wherein the electrical connector has a first electrical contact surface and a second electrical contact surface and releasably connects the first and second surfaces in operative engagement, the at least one cam slot is provided on the stud to allow for quarter turn rotation of the body of the stud with respect to the receptacle to open and/or close the fastener, respectively, wherein the receptacle is captivated to the spade but able to rotate to enable assembly, and wherein the electrical connector maintains a constant clamp force across the surfaces (16, 17). the receptacle is captivated to the spade but able to rotate to enable assembly, and wherein the electrical connector maintains a constant clamp force across the surfaces (16, 17).
A method for managing a wireless connection of an Unmanned Aerial Vehicle, UAV,, the method comprising: receiving flight information describing a flight path for the UAV; determining a set of network resources (202A, 202B) for the UAV based on the flight information; and reserving, for the UAV, the set of network resources by a first network cell and a second network cell of a wireless network based on the flight information for an at least partially overlapping time period. receiving flight information describing a flight path for the UAV; determining a set of network resources (202A, 202B) for the UAV based on the flight information; and reserving, for the UAV, the set of network resources by a first network cell and a second network cell of a wireless network based on the flight information for an at least partially overlapping time period.
A radiation image converting panel comprising: a support body having a first main surface and a second main surface opposing said first main surface; and a radiation converting film provided on a film forming region which exists within said first main surface of said support body and includes at least a gravity center position of said first main surface, said radiation converting film being comprised of columnar crystals which are coincident or tilted at a predetermined angle with respect to a normal direction of said first main surface, characterized in that in the film forming region of said first main surface, a part of said radiation converting film having a maximum film thickness locates on a central area around the gravity center position whose radius equals 5% or less of a minimum distance (Wmin) from the gravity center position to an edge of said film forming region, and a part of said radiation converting film having a minimum film thickness locates on a middle area sandwiched by a circumference of a circle whose radius equals 80% of the minimum distance and a contour of the central area. a support body having a first main surface and a second main surface opposing said first main surface; and a radiation converting film provided on a film forming region which exists within said first main surface of said support body and includes at least a gravity center position of said first main surface, said radiation converting film being comprised of columnar crystals which are coincident or tilted at a predetermined angle with respect to a normal direction of said first main surface, characterized in that in the film forming region of said first main surface, a part of said radiation converting film having a maximum film thickness locates on a central area around the gravity center position whose radius equals 5% or less of a minimum distance (Wmin) from the gravity center position to an edge of said film forming region, and a part of said radiation converting film having a minimum film thickness locates on a middle area sandwiched by a circumference of a circle whose radius equals 80% of the minimum distance and a contour of the central area.
A method of controlling a printer, the printer including a number of print heads (32,34) extending across a print zone, each print head including at least one nozzles array extending in a direction of a print head axis, each nozzle array comprising a center section of nozzles and side sections of nozzles, wherein the side sections of neighboring nozzle arrays overlap defining an overlap region and the center sections of the nozzle arrays define non-overlap regions; the method comprising: printing a test pattern using at least two nozzle arrays, the test pattern comprising an inferential-type pattern (112L,112R) printed by the side sections of the nozzle arrays in the overlap region and a reference pattern printed by the center sections of the nozzle arrays in the non-overlap regions; detecting characteristics of the printed test pattern; comparing the characteristics of the printed test pattern in the overlap region and in the non-overlap region; and deriving alignment information from the comparison; wherein the inferential-type pattern comprises a group of features printed in a row extending perpendicularly to the print head axis, wherein the features printed by two neighboring nozzle arrays in the same overlap region are offset relative to each other in the direction perpendicular to the print head axis when the nozzle arrays are in a nominal position; and wherein the reference pattern comprises a set of reference images (126-,126N,126+), the reference images simulating features printed by the side sections of two neighboring nozzle arrays in the same overlap region for a number of alignment states of the nozzle arrays. printing a test pattern using at least two nozzle arrays, the test pattern comprising an inferential-type pattern (112L,112R) printed by the side sections of the nozzle arrays in the overlap region and a reference pattern printed by the center sections of the nozzle arrays in the non-overlap regions; detecting characteristics of the printed test pattern; comparing the characteristics of the printed test pattern in the overlap region and in the non-overlap region; and deriving alignment information from the comparison; wherein the inferential-type pattern comprises a group of features printed in a row extending perpendicularly to the print head axis, wherein the features printed by two neighboring nozzle arrays in the same overlap region are offset relative to each other in the direction perpendicular to the print head axis when the nozzle arrays are in a nominal position; and wherein the reference pattern comprises a set of reference images (126-,126N,126+), the reference images simulating features printed by the side sections of two neighboring nozzle arrays in the same overlap region for a number of alignment states of the nozzle arrays.
Cement production plant comprising - a preheater for preheating raw meal, - a calciner for calcining the preheated raw meal, - a furnace with a furnace burner for firing the raw meal to form cement clinker, wherein the furnace has a combustion gas inlet for admitting a combustion gas with an oxygen content of 30% to 100% into the furnace, and - a cooler for cooling the cement clinker, - wherein the calciner and the furnace each have a respective fuel inlet for admitting fuel into the calciner and the furnace, characterized in that the calciner and the furnace each have a respective inert gas inlet (64, 68) for respectively admitting inert gas into the calciner and the furnace. - a preheater for preheating raw meal, - a calciner for calcining the preheated raw meal, - a furnace with a furnace burner for firing the raw meal to form cement clinker, wherein the furnace has a combustion gas inlet for admitting a combustion gas with an oxygen content of 30% to 100% into the furnace, and - a cooler for cooling the cement clinker, - wherein the calciner and the furnace each have a respective fuel inlet for admitting fuel into the calciner and the furnace,