mhurhangee/patent-ind-claim-en huggingface dataset:
Method for correcting the time defined by an internal clock of an entity able to receive signals from a satellite positioning system and to communicate with at least one other entity, said method, when the signals do not allow satellite positioning of said entity , comprising the following steps: - said entity receiving a message from said other entity, said message comprising a first item of time data T e associated with the transmission time of said message, - said entity determining a second item of time data T r associated with the time of reception of said message by said entity, - computing a time difference ΔT relating to the difference between the second item of time data T r and the first item of time data T e , and then - determining a temporal correction ε T to be made to the time defined by the internal clock of said entity on the basis of said time difference ΔT, the method being characterized in that the step of determining a temporal correction ε T comprises the following sub-steps: - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM , ΔT th_CAM , between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r . - said entity receiving a message from said other entity, said message comprising a first item of time data T e associated with the transmission time of said message, - said entity determining a second item of time data T r associated with the time of reception of said message by said entity, - computing a time difference ΔT relating to the difference between the second item of time data T r and the first item of time data T e , and then - determining a temporal correction ε T to be made to the time defined by the internal clock of said entity on the basis of said time difference ΔT, the method being characterized in that the step of determining a temporal correction ε T comprises the following sub-steps: - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM , ΔT th_CAM , between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r . - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM , ΔT th_CAM , between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r .
A positive electrode for a secondary battery, the positive electrode comprising a positive electrode active material layer formed on a surface of a positive electrode collector, wherein the positive electrode active material layer has a multilayer structure including a first positive electrode active material layer formed on the positive electrode collector and a second positive electrode active material layer formed on the first positive electrode active material layer, the first positive electrode active material layer comprises a first positive electrode active material, a first binder which is a melamine-based compound, and a second binder which is different from the melamine-based compound, and the second positive electrode active material layer comprises a second positive electrode active material and the first binder which is a melamine-based compound. wherein the positive electrode active material layer has a multilayer structure including a first positive electrode active material layer formed on the positive electrode collector and a second positive electrode active material layer formed on the first positive electrode active material layer, the first positive electrode active material layer comprises a first positive electrode active material, a first binder which is a melamine-based compound, and a second binder which is different from the melamine-based compound, and the second positive electrode active material layer comprises a second positive electrode active material and the first binder which is a melamine-based compound.
An X-ray data processing apparatus arranged to estimate true values from X-ray count values detected by a pixel array X-ray detector of a photon counting system, the apparatus comprising: a management unit arranged to receive and manage a count value for each detection part of the pixel array X-ray detector , wherein an X-ray detection pixel is a detection part; an effective area ratio calculation unit arranged to calculate a ratio of a detection ability under influence of charge share to an original detection ability in the detection part as an effective area ratio of the detection part , the effective area ratio calculation unit being arranged to calculate a plurality of effective area ratios for each detection part using data regarding the detection part and data regarding a respective one of a plurality of X-ray sources having different wavelengths and a respective one of a plurality of detection energy threshold values; and a correction unit arranged to correct the managed count values using the calculated effective area ratios to estimate the true values, wherein the correction unit is arranged to perform linear transformation of count values for the detection energy threshold values to the true count values for the X-ray sources by solving simultaneous equations, wherein each of the equations expresses that the true numbers of photons from the X-ray sources having different wavelengths, which numbers are weighted by respective ones of the effective area ratios, are equal to a count value observed using a respective one of the detection energy threshold values. a management unit arranged to receive and manage a count value for each detection part of the pixel array X-ray detector , wherein an X-ray detection pixel is a detection part; an effective area ratio calculation unit arranged to calculate a ratio of a detection ability under influence of charge share to an original detection ability in the detection part as an effective area ratio of the detection part , the effective area ratio calculation unit being arranged to calculate a plurality of effective area ratios for each detection part using data regarding the detection part and data regarding a respective one of a plurality of X-ray sources having different wavelengths and a respective one of a plurality of detection energy threshold values; and a correction unit arranged to correct the managed count values using the calculated effective area ratios to estimate the true values, wherein the correction unit is arranged to perform linear transformation of count values for the detection energy threshold values to the true count values for the X-ray sources by solving simultaneous equations, wherein each of the equations expresses that the true numbers of photons from the X-ray sources having different wavelengths, which numbers are weighted by respective ones of the effective area ratios, are equal to a count value observed using a respective one of the detection energy threshold values.
A data transmission method for a front-haul transport network, FTN, the method comprising: determining (S110) a configuration parameter of a logical channel for data transmission, wherein the configuration parameter comprises a type of the logical channel, and data transmitted on different logical channels have at least one of different requirements on transmission delays or different utilization rates of physical transmission resources; mapping (S120) the logical channel to at least one block frame of a frame based on the configuration parameter, wherein each block frame has a preset correspondence with a physical transmission resource; and transporting (S130) data carried in the at least one block frame according to the type of the logical channel mapped to the at least one block frame, wherein a format of the block frame is an encoding format of 64B/66B. determining (S110) a configuration parameter of a logical channel for data transmission, wherein the configuration parameter comprises a type of the logical channel, and data transmitted on different logical channels have at least one of different requirements on transmission delays or different utilization rates of physical transmission resources; mapping (S120) the logical channel to at least one block frame of a frame based on the configuration parameter, wherein each block frame has a preset correspondence with a physical transmission resource; and transporting (S130) data carried in the at least one block frame according to the type of the logical channel mapped to the at least one block frame, wherein a format of the block frame is an encoding format of 64B/66B.
An angioplasty balloon catheter comprising an axially moveable retractable sheath and a distal tip attached to a distal end of the sheath, where a distal portion of the retractable sheath is positioned concentrically around an inflatable balloon ; and characterized in that the distal tip of the sheath is an elastomeric plastic having a tensile strength of 41 MPa to 50 MPa, a flexural modulus of between 0.04-0.10 GPa (gigapascals) and a thickness of 140μm (microns) to 191 μm (microns).
A method for producing a flexurally rigid consolidated laminated sheet, comprising the following steps: a) providing a nonwoven fiber mat comprising reinforcing fibers; b) subjecting said nonwoven fiber mat to a needling process , thereby obtaining a needled nonwoven fiber mat ; c) providing at least one thermoplastic resin sheet and at least one surface sheet , said surface sheet being formed of a non-woven cloth comprising cloth fibers, and arranging said surface sheet and said resin sheet to be substantially co-planar to said needled non-woven fiber mat, thereby obtaining a multilayered sheet , with the provision that said thermoplastic resin has a first softening temperature T1 that is lower than both a second softening temperature T2 of said cloth fibers and a third softening temperature T3 of said reinforcing fibers; d) subjecting said multilayered sheet to a heating and pressure treatment , thereby melting said thermoplastic resin sheet so as to form a fully impregnated laminated sheet ; e) subjecting said fully impregnated laminated sheet to a cooling and pressure treatment , thereby solidifying said melted thermoplastic resin, so as to form a consolidated laminated sheet with a porosity not exceeding 5% by volume. wherein at least steps c) to e) are carried out as a continuous process. a) providing a nonwoven fiber mat comprising reinforcing fibers; b) subjecting said nonwoven fiber mat to a needling process , thereby obtaining a needled nonwoven fiber mat ; c) providing at least one thermoplastic resin sheet and at least one surface sheet , said surface sheet being formed of a non-woven cloth comprising cloth fibers, and arranging said surface sheet and said resin sheet to be substantially co-planar to said needled non-woven fiber mat, thereby obtaining a multilayered sheet , with the provision that said thermoplastic resin has a first softening temperature T1 that is lower than both a second softening temperature T2 of said cloth fibers and a third softening temperature T3 of said reinforcing fibers; d) subjecting said multilayered sheet to a heating and pressure treatment , thereby melting said thermoplastic resin sheet so as to form a fully impregnated laminated sheet ; e) subjecting said fully impregnated laminated sheet to a cooling and pressure treatment , thereby solidifying said melted thermoplastic resin, so as to form a consolidated laminated sheet with a porosity not exceeding 5% by volume.
A pattern film comprising: a first base layer; and a plurality of spacer patterns formed on the first base layer, wherein the spacer pattern comprises a partition wall spacer and a ball spacer, the ball spacer is included in a form of being embedded in, partially embedded in or in contact with the at least one partition wall spacer, and a unit area ratio of the spacer pattern per unit area of the first base layer is 5% or greater and 17% or less. a first base layer; and a plurality of spacer patterns formed on the first base layer, wherein the spacer pattern comprises a partition wall spacer and a ball spacer, the ball spacer is included in a form of being embedded in, partially embedded in or in contact with the at least one partition wall spacer, and a unit area ratio of the spacer pattern per unit area of the first base layer is 5% or greater and 17% or less.
An installation structure of a water pump, comprising a pump body and an installation base , the pump body being provided with a water outlet , the installation base is provided with a rotary shaft hole ; the pump body is provided with a rotary shaft which is installed in the rotary shaft hole and is rotatable around the rotary shaft hole ; characterized in that the installation structure further comprises an anti-sliding structure arranged between the installation base and the rotary shaft or between the installation base and the pump body ; wherein either, the rotary shaft hole is axially provided with a first limit surface and a second limit surface ; the pump body and the rotary shaft are axially provided with a third limit surface and a fourth limit surface , respectively; and the first limit surface and the second limit surface are positioned between the third limit surface and the fourth limit surface ; or, the installation base is axially provided with a first limit surface , and a second limit surface ; the rotary shaft is axially provided with a third limit surface , and a fourth limit surface , and the third limit surface and the fourth limit surface are positioned between the first limit surface and the second limit surface . the installation base is provided with a rotary shaft hole ; the pump body is provided with a rotary shaft which is installed in the rotary shaft hole and is rotatable around the rotary shaft hole ; characterized in that the installation structure further comprises an anti-sliding structure arranged between the installation base and the rotary shaft or between the installation base and the pump body ; wherein either, the rotary shaft hole is axially provided with a first limit surface and a second limit surface ; the pump body and the rotary shaft are axially provided with a third limit surface and a fourth limit surface , respectively; and the first limit surface and the second limit surface are positioned between the third limit surface and the fourth limit surface ; or, the installation base is axially provided with a first limit surface , and a second limit surface ; the rotary shaft is axially provided with a third limit surface , and a fourth limit surface , and the third limit surface and the fourth limit surface are positioned between the first limit surface and the second limit surface .
Wiper motor having a housing element connected to an electrical line that has an elastically deformable spring element in an end region projecting out of the housing element , wherein the spring element , in order to form an electrically conductive connection with a counterpart element , is movable, with respect to a first, relaxed position (X) of the spring element , into a second, elastically deformed position (Z) generating a contact force (F) on the counterpart element , wherein the housing element is a gearbox cover for closing a gearbox housing of the wiper motor , the counterpart element for cooperating with the spring element being arranged in the region of a gearwheel , characterized in that a blocking element is fastened on the housing element which holds the spring element in a third, elastically deformed position (Y) in which the deformation of the spring element is less than in the second position (Z) of the spring element . wherein the housing element is a gearbox cover for closing a gearbox housing of the wiper motor , the counterpart element for cooperating with the spring element being arranged in the region of a gearwheel , characterized in that a blocking element is fastened on the housing element which holds the spring element in a third, elastically deformed position (Y) in which the deformation of the spring element is less than in the second position (Z) of the spring element .
A reinforcing bar binding machine which is configured to detachably mount a wire reel thereto, to feed a wire from the mounted wire reel, to feed the wire to a guide part provided at a tip portion of a binding machine main body , to curl the wire at the guide part , to feed the wire around reinforcing bars positioned at an inner side of the guide part so that the wire is wound around the reinforcing bars , to cut the wire with a wire cutting mechanism , and to twist the wound wire to thus bind the reinforcing bars , wherein the guide part includes a curl guide which is configured to bend the wire fed via the wire cutting mechanism , wherein the wire cutting mechanism is a cutter including a fixed blade and a moveable blade , wherein the wire cutting mechanism is provided with a holding device which is configured to hold a cut end portion-side of the wire cut and separated in conjunction with a cutting operation of the moveable blade, and wherein the holding device is a holding member which is coupled by a link mechanism and which is configured to press the cut end portion-side of the wire separated by the moveable blade against the curl guide . wherein the guide part includes a curl guide which is configured to bend the wire fed via the wire cutting mechanism , wherein the wire cutting mechanism is a cutter including a fixed blade and a moveable blade , wherein the wire cutting mechanism is provided with a holding device which is configured to hold a cut end portion-side of the wire cut and separated in conjunction with a cutting operation of the moveable blade, and wherein the holding device is a holding member which is coupled by a link mechanism and which is configured to press the cut end portion-side of the wire separated by the moveable blade against the curl guide .
Positive electrode active substance particles for non-aqueous electrolyte secondary batteries, consisting of: lithium composite oxide particles having a layered rock salt structure which are chemically reacted with at least Li and comprise at least one element selected from the group consisting of Ni, Co and Mn, and tungsten which is present in the form of granular tungsten oxide particles which are present in contact with the surface of the respective lithium composite oxide particles, in which tungsten oxide particles W is present in an amount of 0.1 to 4.0 mol% based on a total molar amount of Ni, Co and Mn in the lithium composite oxide particles, and the tungsten oxide particles have an average secondary particle diameter of 0.3 to 3.0 μm, the average particle diameter being determined by the method described herein. lithium composite oxide particles having a layered rock salt structure which are chemically reacted with at least Li and comprise at least one element selected from the group consisting of Ni, Co and Mn, and tungsten which is present in the form of granular tungsten oxide particles which are present in contact with the surface of the respective lithium composite oxide particles, in which tungsten oxide particles W is present in an amount of 0.1 to 4.0 mol% based on a total molar amount of Ni, Co and Mn in the lithium composite oxide particles, and the tungsten oxide particles have an average secondary particle diameter of 0.3 to 3.0 μm, the average particle diameter being determined by the method described herein.
An optical coherence tomography (OCT)-augmented surgical instrument comprising: an OCT transmission medium ; an OCT focusing element ; an actuator capable of moving the surgical element in two or more directions; and a surgical component adapted to perform a surgical operation; wherein the actuator is operable to cause corrective movement of the surgical instrument in response to an OCT beam that travels through the OCT transmission medium and the OCT focusing element ; characterized in that the OCT-augmented surgical instrument further comprises a splitting element that splits the OCT beam into three OCT beams of different orientations. an OCT transmission medium ; an OCT focusing element ; an actuator capable of moving the surgical element in two or more directions; and a surgical component adapted to perform a surgical operation; wherein the actuator is operable to cause corrective movement of the surgical instrument in response to an OCT beam that travels through the OCT transmission medium and the OCT focusing element ; characterized in that the OCT-augmented surgical instrument further comprises a splitting element that splits the OCT beam into three OCT beams of different orientations.
An implantable device for fixation of spinous processes, comprising: a first plate having a first surface and defining an aperture , wherein the first plate further comprises a split ring collar positioned at least partially within the aperture ; a second plate , spaced from the first plate having a second surface facing the first surface, the second plate defining an aperture , wherein the second plate further comprises a second split ring collar positioned at least partially within the aperture ; and a single post having a first end portion configured to selectively pass through the split ring collar positioned within the aperture in the first plate and connectable to the first plate and a second end portion configured to selectively pass through the second split ring collar positioned within the aperture in the second plate and connectable to the second plate , to connect the first plate to the second plate , wherein the connections of the first plate and the second plate to the single post permit the first and second plates to move polyaxially with respect to one another and to translate along a longitudinal length of the single post ; wherein the first and second plates each comprise a set screw , the set screw configured to interface the respective split ring collar thereto the respective single post , thereby affixing the first and second plate onto the single post , and wherein the first and second split ring collars each comprise on an outer surface a protrusion element configured to engage into a circumferential groove in the apertures of the first and second plates . a first plate having a first surface and defining an aperture , wherein the first plate further comprises a split ring collar positioned at least partially within the aperture ; a second plate , spaced from the first plate having a second surface facing the first surface, the second plate defining an aperture , wherein the second plate further comprises a second split ring collar positioned at least partially within the aperture ; and a single post having a first end portion configured to selectively pass through the split ring collar positioned within the aperture in the first plate and connectable to the first plate and a second end portion configured to selectively pass through the second split ring collar positioned within the aperture in the second plate and connectable to the second plate , to connect the first plate to the second plate , wherein the connections of the first plate and the second plate to the single post permit the first and second plates to move polyaxially with respect to one another and to translate along a longitudinal length of the single post ; wherein the first and second plates each comprise a set screw , the set screw configured to interface the respective split ring collar thereto the respective single post , thereby affixing the first and second plate onto the single post , and wherein the first and second split ring collars each comprise on an outer surface a protrusion element configured to engage into a circumferential groove in the apertures of the first and second plates .