mhurhangee/ep-ind-claims huggingface dataset:
Device for laying pipelines, which can be connected to the boom of a transport vehicle and which carries the pipe to be laid in order to fit it into a laid pipe (To), comprising: a fastening head which is formed by a pivot joint having a vertical axis and a tilting joint having a horizontal axis, a guide rail having a support for positioning and fixing to the end of the laid pipe (To) and aligning the pipe to be laid on the laid pipe (To), a carriage which is formed by a telescopic pipe which is fitted to the guide rail and which is activated relative thereto and which is provided with a support which carries the pipe to be positioned and fitted in the curve (DT o) of the laid pipe (To), which device is characterised in that the guide rail is connected to the fastening head through the telescopic pipe. a fastening head which is formed by a pivot joint having a vertical axis and a tilting joint having a horizontal axis, a guide rail having a support for positioning and fixing to the end of the laid pipe (To) and aligning the pipe to be laid on the laid pipe (To), a carriage which is formed by a telescopic pipe which is fitted to the guide rail and which is activated relative thereto and which is provided with a support which carries the pipe to be positioned and fitted in the curve (DT o) of the laid pipe (To), which device is characterised in that the guide rail is connected to the fastening head through the telescopic pipe.
A signal multiplexing apparatus, comprising: an injection level controller configured to generate a power-reduced enhanced layer signal by reducing power of an enhanced layer signal; a combiner configured to combine a core layer signal and the power-reduced enhanced layer signal for generating a multiplexed signal; a power normalizer configured to reduce power of the multiplexed signal to power corresponding to the core layer signal for generating a power-reduced multiplexed signal; and a time interleaver configured to perform interleaving applied to both a core layer corresponding to the core layer signal and an enhanced layer corresponding to the power-reduced enhanced layer signal after combining the core layer signal and the power-reduced enhanced layer signal, wherein the time interleaver is shared for both the core layer and the enhanced layer, wherein the injection level controller reduces the power of the enhanced layer signal corresponding to a scaling factor and the power normalizer reduces the power of the multiplexed signal corresponding to a normalizing factor, wherein the scaling factor is applied to the enhanced layer signal and the normalizing factor is applied to both the core layer signal and the power-reduced enhanced layer signal, wherein the scaling factor and the normalizing factor vary in opposite directions according to variations of reduction in power corresponding to the injection level controller, wherein the injection level controller changes an injection level with predetermined step sizes, the predetermined step sizes including 0.5dB. an injection level controller configured to generate a power-reduced enhanced layer signal by reducing power of an enhanced layer signal; a combiner configured to combine a core layer signal and the power-reduced enhanced layer signal for generating a multiplexed signal; a power normalizer configured to reduce power of the multiplexed signal to power corresponding to the core layer signal for generating a power-reduced multiplexed signal; and a time interleaver configured to perform interleaving applied to both a core layer corresponding to the core layer signal and an enhanced layer corresponding to the power-reduced enhanced layer signal after combining the core layer signal and the power-reduced enhanced layer signal, wherein the time interleaver is shared for both the core layer and the enhanced layer, wherein the injection level controller reduces the power of the enhanced layer signal corresponding to a scaling factor and the power normalizer reduces the power of the multiplexed signal corresponding to a normalizing factor, wherein the scaling factor is applied to the enhanced layer signal and the normalizing factor is applied to both the core layer signal and the power-reduced enhanced layer signal, wherein the scaling factor and the normalizing factor vary in opposite directions according to variations of reduction in power corresponding to the injection level controller, wherein the injection level controller changes an injection level with predetermined step sizes, the predetermined step sizes including 0.5dB.
A power screw driver comprising a housing having a vacuum chamber arranged to communicate with a source of sub-atmospheric pressure, a motor, a bit drive spindle, a bit supporting sleeve connected to the bit drive spindle, wherein the front end part surrounds the tool bit and wherein the rear end part of the bit supporting sleeve is surrounded by the vacuum chamber; characterized in that it also comprises a bearing journaling the bit supporting sleeve between a forward end part and a rear end part of the bit supporting sleeve and in that the bit supporting sleeve comprises at least one longitude vacuum passage extending from its rear end part to its forward end part.
A valve control apparatus of an internal combustion engine, the apparatus comprising: a valve provided in a gas passage of the engine and varying a flow rate of gas flowing through the gas passage by carrying out an opening and closing motion; and a valve actuation unit executing a sticking avoiding operation for dissolving or preventing sticking of the valve by causing the valve to move to and fro so as to open and close the valve by predetermined moving amounts respectively in one direction and the other direction near a full-close position of the valve, wherein, after an ignition ON operation is carried out and then an operation of the engine is started, the apparatus executes the sticking avoiding operation by the valve actuation unit when an ignition OFF operation is carried out, characterised in that after the ignition ON operation is carried out, the apparatus inhibits the sticking avoiding operation by the valve actuation unit when the ignition OFF operation is carried out without starting the operation of the engine. a valve provided in a gas passage of the engine and varying a flow rate of gas flowing through the gas passage by carrying out an opening and closing motion; and a valve actuation unit executing a sticking avoiding operation for dissolving or preventing sticking of the valve by causing the valve to move to and fro so as to open and close the valve by predetermined moving amounts respectively in one direction and the other direction near a full-close position of the valve, wherein, after an ignition ON operation is carried out and then an operation of the engine is started, the apparatus executes the sticking avoiding operation by the valve actuation unit when an ignition OFF operation is carried out, characterised in that after the ignition ON operation is carried out, the apparatus inhibits the sticking avoiding operation by the valve actuation unit when the ignition OFF operation is carried out without starting the operation of the engine.
An oxalate salt of 6-(2,4-dichlorophenyl)-5-{4-[1-(3-fluoro-propyl)-pyrrolidin-3-yloxy]-phanyl)-8,9-dihydro-7H-benzocycloheptene-2-carboxylic acid methyl ester of the formula below:
An invasive medical probe apparatus, comprising: an elongate flexible probe, having a distal end for insertion into a body of a subject; a plurality of coils, said coils being fixed at different, respective points in a known relation to a reference location on said probe, and when subjected to an externally applied magnetic field, said coils generate respective signals responsively to position coordinates thereof; and signal processing circuitry, which receives said signals and processes them to determine respective locations of said points along a portion of said probe, wherein said probe has a proximal segment wherein a coil of the plurality of coils is disposed on or about the proximal segment; and characterized in that the remaining coils of the plurality of coils extend beyond the proximal segment and are supported only by flexible connecting wires that attach said coils to said proximal segment. an elongate flexible probe, having a distal end for insertion into a body of a subject; a plurality of coils, said coils being fixed at different, respective points in a known relation to a reference location on said probe, and when subjected to an externally applied magnetic field, said coils generate respective signals responsively to position coordinates thereof; and signal processing circuitry, which receives said signals and processes them to determine respective locations of said points along a portion of said probe, wherein said probe has a proximal segment wherein a coil of the plurality of coils is disposed on or about the proximal segment; and characterized in that
A cathode material comprising a plurality of particles, wherein each of the plurality of particles is characterized by comprising: a core layer comprising a lithium metal oxide material, wherein the lithium metal oxide material has a composition of Li[Ni a Co b Mn c Al d]O 2, wherein a+b+c+d=1, 0.8<a<1, 0<b<1, 0≤c<1, and 0≤d<1; and a coating layer coated on the core layer and comprising a solid electrolyte, wherein the solid electrolyte is formed by a reaction of a first material on the core layer and has a composition of Li 3 InCl x F y, x+y=6, 4≤x≤5.5, and 0.5≤y≤2, wherein the lithium metal oxide material, the first material, and a solvent are mixed to form a precursor, and the precursor is heat-treated to form the cathode material, wherein the first material comprises lithium, indium, chlorine, and fluorine, and the lithium metal oxide material and the solid electrolyte have a weight ratio ranged from 1:0.3 to 1:0.6. a core layer comprising a lithium metal oxide material, wherein the lithium metal oxide material has a composition of Li[Ni a Co b Mn c Al d]O 2, wherein a+b+c+d=1, 0.8<a<1, 0<b<1, 0≤c<1, and 0≤d<1; and a coating layer coated on the core layer and comprising a solid electrolyte, wherein the solid electrolyte is formed by a reaction of a first material on the core layer and has a composition of Li 3 InCl x F y, x+y=6, 4≤x≤5.5, and 0.5≤y≤2, wherein the lithium metal oxide material, the first material, and a solvent are mixed to form a precursor, and the precursor is heat-treated to form the cathode material, wherein the first material comprises lithium, indium, chlorine, and fluorine, and the lithium metal oxide material and the solid electrolyte have a weight ratio ranged from 1:0.3 to 1:0.6.
An organic light-emitting diode, OLED, array substrate comprising: a base substrate; a first metal layer disposed on the base substrate; a first insulating layer disposed on a side of the first metal layer far away from the base substrate; and a second metal layer disposed on a side of the first insulating layer far away from the base substrate, wherein the first metal layer comprises a first power line, and the second metal layer comprises a second power line; and the second power line is connected in parallel with the first power line through a first via hole which penetrates the first insulating layer; wherein the first power line has a planar structure made from a metal mesh, characterized in that the metal mesh is provided with a hollow structure, a size of the hollow structure is larger than a size of a mesh in the metal mesh, and the hollow structure comprises a plurality of discontinuous hollow sub-structures. a base substrate; a first metal layer disposed on the base substrate; a first insulating layer disposed on a side of the first metal layer far away from the base substrate; and a second metal layer disposed on a side of the first insulating layer far away from the base substrate, wherein the first metal layer comprises a first power line, and the second metal layer comprises a second power line; and the second power line is connected in parallel with the first power line through a first via hole which penetrates the first insulating layer; wherein the first power line has a planar structure made from a metal mesh, characterized in that the metal mesh is provided with a hollow structure, a size of the hollow structure is larger than a size of a mesh in the metal mesh, and the hollow structure comprises a plurality of discontinuous hollow sub-structures.
A device (122; 600; 700) for controlling the electrical insulation between two adjacent portions (106, 108) of a railway track comprising two rail tracks (102, 104), said electrical insulation being carried out by an insulating device comprising, for each rail track (102, 104), an insulated joint (110, 112) inserted into said rail track (102, 104), said insulating device being surrounded: - on one side, by a receiving device, said receiver, of an electrical signal conveyed by a track circuit of one of said adjacent portions (106, 108), and - on the other, by a transmitting device, said transmitter, of an electrical signal conveyed by a track circuit of the other of said adjacent portions (106, 108); said control device (122; 600; 700) being characterized in that it comprises: - measuring means arranged in order to measure a first electric voltage at the terminals of said transmitter, and in particular between the terminals connecting said transmitter to the railway line, and a second electric voltage at the terminals of said receiver, and in particular between the terminals connecting said receiver to the railway line, and - at least one testing means arranged in order to test said measured voltages. - on one side, by a receiving device, said receiver, of an electrical signal conveyed by a track circuit of one of said adjacent portions (106, 108), and - on the other, by a transmitting device, said transmitter, of an electrical signal conveyed by a track circuit of the other of said adjacent portions (106, 108); - measuring means arranged in order to measure a first electric voltage at the terminals of said transmitter, and in particular between the terminals connecting said transmitter to the railway line, and a second electric voltage at the terminals of said receiver, and in particular between the terminals connecting said receiver to the railway line, and - at least one testing means arranged in order to test said measured voltages.
Method for managing an incoming telephone call for a communication system comprising a gateway coupled to a multimedia content receiver also coupled to a monitor and having recording means able to record a content during reception, said communication system being furthermore coupled to a fixed telephone and/or to a mobile telephone, characterised in that it comprises a step in which, in case of detection of an incoming telephone call by said communication system during a broadcasting of a content by said monitor, said broadcasting is temporarily interrupted while still recording with said recording means the rest of the content received by said communication system, and a message is displayed on said monitor prompting a user of the latter to accept or refuse said incoming telephone call detected, then, in case of acceptance, said recording of the rest of the content received is continued with said recording means until the end of said telephone call is detected.
Method for generating a synthetic mammogram, having the steps: - acquisition of a plurality of projection data sets at a plurality of projection angles (PI -1,0,1,2,..., 12), - generation of at least one synthetic mammogram with an image property essentially equivalent to a conventional full-field digital mammography acquisition based on several projection data sets, - wherein the generation step comprises a determination of an average intensity projection based on the multiplicity of projection data sets as the first image component, wherein one projection data set or a plurality of projection data sets are selected, - at least one of the following steps is applied to the average intensity projection: - intensity adjustment, - grey value distribution adjustment, - scattered ray correction, and - calcification-retaining noise filter, - the generation step comprises a determination (211, 221) of a maximum intensity projection based on the multiplicity of projection data sets as the second image component, and - the first image component and the second image component are recombined to form the synthetic mammogram. - acquisition of a plurality of projection data sets at a plurality of projection angles (PI -1,0,1,2,..., 12), - generation of at least one synthetic mammogram with an image property essentially equivalent to a conventional full-field digital mammography acquisition based on several projection data sets, - wherein the generation step comprises a determination of an average intensity projection based on the multiplicity of projection data sets as the first image component, wherein one projection data set or a plurality of projection data sets are selected, - at least one of the following steps is applied to the average intensity projection: - intensity adjustment, - grey value distribution adjustment, - scattered ray correction, and - calcification-retaining noise filter, - intensity adjustment, - grey value distribution adjustment, - scattered ray correction, and - calcification-retaining noise filter, - the generation step comprises a determination (211, 221) of a maximum intensity projection based on the multiplicity of projection data sets as the second image component, and - the first image component and the second image component are recombined to form the synthetic mammogram.
A data transmission method, wherein the method is applied to a first device and the method comprises: sending a first signal to a second device, wherein the first signal comprises a first data signal and a first pilot signal, and the first data signal is generated based on a first transmission parameter; characterised by: receiving, from the second device, first information in response to the first signal before receiving, from the second device, an ACK/NACK corresponding to the first data signal; determining a second transmission parameter based on the first information when the first information is evaluated as reliable; sending a second signal to the second device after receiving the first information, wherein the second signal comprises a second data signal and a second pilot signal, and the second data signal is generated based on the second transmission parameter, wherein the first data signal and the second data signal carry a same transport block; and receiving, from the second device, the ACK/NACK corresponding to the first data signal. receiving, from the second device, first information in response to the first signal before receiving, from the second device, an ACK/NACK corresponding to the first data signal; determining a second transmission parameter based on the first information when the first information is evaluated as reliable; sending a second signal to the second device after receiving the first information, wherein the second signal comprises a second data signal and a second pilot signal, and the second data signal is generated based on the second transmission parameter, wherein the first data signal and the second data signal carry a same transport block; and receiving, from the second device, the ACK/NACK corresponding to the first data signal.
A method performed by a network element for transitioning a user equipment in a wireless network between UMTS radio resource control states or modes, the method comprising: receiving an indication message from the user equipment; the method further characterized by: checking a radio resource profile for the user equipment; determining whether a number of indications received from the user equipment within a predetermined time period exceeds a predetermined number; and responsive to determining that the number of indications received from the user equipment within the predetermined time period does not exceed said predetermined number, sending a transition message to the user equipment to transition to a less battery intensive radio resource control state; and responsive to determining that the number of indications received from the user equipment within the predetermined time period exceeds said predetermined number, not sending a transition message to the user equipment. receiving an indication message from the user equipment; the method further characterized by: checking a radio resource profile for the user equipment; determining whether a number of indications received from the user equipment within a predetermined time period exceeds a predetermined number; and responsive to determining that the number of indications received from the user equipment within the predetermined time period does not exceed said predetermined number, sending a transition message to the user equipment to transition to a less battery intensive radio resource control state; and checking a radio resource profile for the user equipment; determining whether a number of indications received from the user equipment within a predetermined time period exceeds a predetermined number; and responsive to determining that the number of indications received from the user equipment within the predetermined time period does not exceed said predetermined number, sending a transition message to the user equipment to transition to a less battery intensive radio resource control state; and responsive to determining that the number of indications received from the user equipment within the predetermined time period exceeds said predetermined number, not sending a transition message to the user equipment.