mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing a long body covered with a covering layer, wherein the long body at least includes a plurality of covering targets selected from the group consisting of an electric wire and a tube, the covering layer at least includes an intermediate layer and an outermost layer, the intermediate layer employs a resin film having a density ρ1 of 0.2 g/cm 3 or more and 1.8 g/cm 3 or less and having a PV1 value, which is a surface peak-to-valley value, of 5 μm or more, the outermost layer employs a resin film having a density ρ2 of 1.2 g/cm 3 or more and 2.5 g/cm 3 or less, the method comprises at least: covering the long body with the covering layer to fix positions of the plurality of covering targets, and the following formulas and are satisfied in the case that a PV2 value, which is a surface peak-to-valley value, of the outermost layer is 5 μm or less, and the following formulas and are satisfied in the case that the PV2 value is larger than 5 μm: PV 1 − PV 2 ≥ 2 μm PV 2 − PV 1 > 0 μm ρ 2 − ρ 1 ≥ 0.1 g / cm 3 the long body at least includes a plurality of covering targets selected from the group consisting of an electric wire and a tube, the covering layer at least includes an intermediate layer and an outermost layer, the intermediate layer employs a resin film having a density ρ1 of 0.2 g/cm 3 or more and 1.8 g/cm 3 or less and having a PV1 value, which is a surface peak-to-valley value, of 5 μm or more, the outermost layer employs a resin film having a density ρ2 of 1.2 g/cm 3 or more and 2.5 g/cm 3 or less, the method comprises at least: covering the long body with the covering layer to fix positions of the plurality of covering targets, and covering the long body with the covering layer to fix positions of the plurality of covering targets, and the following formulas and are satisfied in the case that a PV2 value, which is a surface peak-to-valley value, of the outermost layer is 5 μm or less, and the following formulas and are satisfied in the case that the PV2 value is larger than 5 μm: PV 1 − PV 2 ≥ 2 μm PV 2 − PV 1 > 0 μm ρ 2 − ρ 1 ≥ 0.1 g / cm 3
A computer-implemented method to enable gesture-based interactions between a terminal and a user , the method comprising: initiating a computer program; detecting that a condition has occurred by detecting an identity of the user and determining that the user is a disabled user; activating , in response to detecting that the condition has occurred, a gesture-based operation mode of the computer program; receiving gesture data generated by a sensor , the gesture data representing a gesture performed by the user; and performing a task based on the gesture data, wherein performing the task comprises: determining the gesture based on the received gesture data; determining a command corresponding to the gesture; executing the command; and in response to a command not being determined as corresponding to the gesture, determining one or more suggested commands based on data regarding behaviors of the user and data regarding behaviors of other multiple users in using the computer program; presenting , through a user interface, the suggested commands for user selection; receiving a gesture input from the user for selecting a suggested command from the suggested commands; and executing the selected suggested command. initiating a computer program; detecting that a condition has occurred by detecting an identity of the user and determining that the user is a disabled user; activating , in response to detecting that the condition has occurred, a gesture-based operation mode of the computer program; receiving gesture data generated by a sensor , the gesture data representing a gesture performed by the user; and performing a task based on the gesture data, wherein performing the task comprises: determining the gesture based on the received gesture data; determining a command corresponding to the gesture; executing the command; and determining the gesture based on the received gesture data; determining a command corresponding to the gesture; executing the command; and in response to a command not being determined as corresponding to the gesture, determining one or more suggested commands based on data regarding behaviors of the user and data regarding behaviors of other multiple users in using the computer program; presenting , through a user interface, the suggested commands for user selection; receiving a gesture input from the user for selecting a suggested command from the suggested commands; and executing the selected suggested command. determining one or more suggested commands based on data regarding behaviors of the user and data regarding behaviors of other multiple users in using the computer program; presenting , through a user interface, the suggested commands for user selection; receiving a gesture input from the user for selecting a suggested command from the suggested commands; and executing the selected suggested command.
A rail check device for generating check data for a defect of a rail (RR) for a vehicle, the rail check device comprises plural sensor sections (21; 21a-d) each of which includes: a first oscillation coil , a second oscillation coil and a receiving coil arranged on a plane opposite a rail (RR) that is a checked object (M), and main axes of the first and second oscillation coils and the receiving coil are arranged in parallel with respect to each other, wherein the first and second oscillation coils are configured to generate magnetic fields having magnetic field lines, wherein the magnetic field lines of the magnetic field generated by the first oscillation coil are directed opposite to the magnetic field lines of the magnetic field generated by the second oscillation coil , and the receiving coil which is disposed at a center between the first oscillation coil and the second oscillation coil or in the vicinity of the center and is configured to output a magnetic field waveform as the check data based on the magnetic fields received from the first oscillation coil and the second oscillation coil , wherein the plural sensor sections (21, 21a-d) include at least a first sensor section arranged in parallel with a rail longitudinal direction, a second sensor section arranged orthogonal to the rail longitudinal direction and a third sensor section arranged in a diagonal direction relative to the rail (RR). a first oscillation coil , a second oscillation coil and a receiving coil arranged on a plane opposite a rail (RR) that is a checked object (M), and main axes of the first and second oscillation coils and the receiving coil are arranged in parallel with respect to each other, wherein the first and second oscillation coils are configured to generate magnetic fields having magnetic field lines, wherein the magnetic field lines of the magnetic field generated by the first oscillation coil are directed opposite to the magnetic field lines of the magnetic field generated by the second oscillation coil , and the receiving coil which is disposed at a center between the first oscillation coil and the second oscillation coil or in the vicinity of the center and is configured to output a magnetic field waveform as the check data based on the magnetic fields received from the first oscillation coil and the second oscillation coil , wherein the plural sensor sections (21, 21a-d) include at least a first sensor section arranged in parallel with a rail longitudinal direction, a second sensor section arranged orthogonal to the rail longitudinal direction and a third sensor section arranged in a diagonal direction relative to the rail (RR).
Composition for producing an electrically conductive layer by a slot die process, comprising 2 - 30 % by weight of a protective colloid mixture which is soluble or dispersible in water, 1 - 15% by weight of a conductive carbon modification, 5 - 50 % by weight of metal-coated particles, 50 - 90 % by weight of a water-containing solvent, wherein the dynamic viscosity of the conductive composition is less than 400 mPa·s, characterized in that the composition comprises 0.1-10% by weight of an ethylene-vinyl acetate copolymer. 2 - 30 % by weight of a protective colloid mixture which is soluble or dispersible in water, 1 - 15% by weight of a conductive carbon modification, 5 - 50 % by weight of metal-coated particles, 50 - 90 % by weight of a water-containing solvent, wherein the dynamic viscosity of the conductive composition is less than 400 mPa·s, characterized in that the composition comprises 0.1-10% by weight of an ethylene-vinyl acetate copolymer.
An electrochemical cell, comprising: a semi-solid cathode including a suspension of an active material and a conductive material in a non-aqueous liquid electrolyte, the semi-solid cathode includes 60% to 75% by volume of an active material, 1% to 6% by volume of a conductive material, and 20% to 40% by volume of a non-aqueous liquid electrolyte, having a capacity of 150 mAh/g to 200 mAh/g and the semi-solid cathode thickness being in the range of 250 μm to 2,000 μm; a semi-solid anode including 50% to 75% by volume of the carbonaceous active material, 0.5% to 2% by volume of a conductive material, and 20% to 40% by volume of a non-aqueous liquid electrolyte, and 1% to 10% by volume of a high energy capacity anode material, the semi-solid anode having a capacity in the range of 700 mAh/g to 1,200 mAh/g and a thickness in the range of 30 μm to 600 μm, the thickness of the cathode is at least three times the thickness of the anode; and a separator disposed between the semi-solid anode and the semi-solid cathode. a semi-solid cathode including a suspension of an active material and a conductive material in a non-aqueous liquid electrolyte, the semi-solid cathode includes 60% to 75% by volume of an active material, 1% to 6% by volume of a conductive material, and 20% to 40% by volume of a non-aqueous liquid electrolyte, having a capacity of 150 mAh/g to 200 mAh/g and the semi-solid cathode thickness being in the range of 250 μm to 2,000 μm; a semi-solid anode including 50% to 75% by volume of the carbonaceous active material, 0.5% to 2% by volume of a conductive material, and 20% to 40% by volume of a non-aqueous liquid electrolyte, and 1% to 10% by volume of a high energy capacity anode material, the semi-solid anode having a capacity in the range of 700 mAh/g to 1,200 mAh/g and a thickness in the range of 30 μm to 600 μm, the thickness of the cathode is at least three times the thickness of the anode; and a separator disposed between the semi-solid anode and the semi-solid cathode.
A phosphor comprising a crystal phase with a chemical composition (Lu x Y 1-x ) y M 3-y-z Ce z β p γ q , where M denotes one or more elements selected from the group consisting of La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, β contains Si, which constitutes 90% or more by mole of β, y contains N, which constitutes 90% or more by mole of y, and x, y, z, p, and q satisfy 0 < x ≤ 1, 1.5 ≤ y ≤ 3 - z, 0 < z ≤ 0.6, 5.5 ≤p≤6.5, and 10.5 ≤ q ≤ 11.5, wherein the phosphor has an emission spectrum peak at a wavelength in a range of not less than 600 nm and not more than 680 nm. where M denotes one or more elements selected from the group consisting of La, Sc, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, and Yb, β contains Si, which constitutes 90% or more by mole of β, y contains N, which constitutes 90% or more by mole of y, and x, y, z, p, and q satisfy 0 < x ≤ 1, 1.5 ≤ y ≤ 3 - z, 0 < z ≤ 0.6, 5.5 ≤p≤6.5, and 10.5 ≤ q ≤ 11.5, wherein the phosphor has an emission spectrum peak at a wavelength in a range of not less than 600 nm and not more than 680 nm.
Cupboard door system composed of at least one door sliding in an upper rail and a lower rail, which system is characterised in that the door is formed by the assembly of at least two panel elements (11-13), a main element and at least one auxiliary element (11-13), and side trims in at least two portions which are assembled with each other in continuation of a handle , these segments being fitted to the two edges of the assembled panels (11-13).
An aircraft with an aircraft fuselage structure that is pressurized and an aircraft cabin door , wherein at least one fuselage stop fitting is mounted to an associated aircraft fuselage structure for the aircraft cabin door , wherein the aircraft comprises a load transfer interface for the aircraft cabin door that comprises an outer skin and at least one beam that is connected to the outer skin , wherein the outer skin and the at least one beam define a vehicle door plane, the load transfer interface comprising at least one door stop fitting that is provided to transfer pressure loads from the aircraft cabin door to an associated vehicle structural frame , the aircraft cabin door comprises at least two beams arranged in parallel and two separate door stop fittings provided for each of the beams , the door stop fittings being provided for rotation in an associated rotation plane, wherein the associated rotation plane is at least approximately parallel to the vehicle door plane, the at least one door stop fitting comprises a rotating arm that defines a rotation axis of the at least one door stop fitting , the rotation axis being at least approximately perpendicular to the vehicle door plane; each of the door stop fittings being mounted in a non-rotatable manner to an associated actuating lever , the actuating lever being connected by at least one associated lateral linkage to at least another of the door stop fittings associated with another of the beams , the associated lateral linkages being each connected to actuating levers and thus to separated door stop fittings arranged with rotation axis being at least approximately in parallel, the associated lateral linkage providing mechanical linkages actuatable via an associated handle , so that the rotation of the associated handle results in movement of the lateral linkages into movement directions , which force the different door stop fittings arranged in parallel to rotate; the rotating arm is mounted to the at least one beam by means of at least one bearing that is adapted to allow rotation of the rotating arm around the rotation axis ; the at least one bearing comprises a first bearing that is mounted to the at least one beam by means of an associated lug bracket , the associated lug bracket retaining the first bearing at the at least one beam ; and at least one bearing is a slide bearing; the rotating arm being connected to at least one actuating lever that is provided for rotating the rotating arm between associated open and close positions; and the rotating arm being provided with an adjustment member that is adapted for adjusting a longitudinal extension of the rotating arm .
A method for analysing secondary ion mass spectrum data representing respective secondary ion counts for a range of masses at a given mass resolution, said mass spectrum data having been obtained by Secondary Ion Mass Spectrometry, SIMS, of at least one voxel of a sample, wherein the method comprises the steps of: a) using data processing means, detecting peaks in said mass spectrum data and storing the corresponding mass for each detected peak in a first memory element; b) using data processing means, associating each detected peak with ion species and/or cluster ions having a corresponding mass, the correspondences between masses and ion species/cluster ions being pre-recorded in a second memory element, and storing the result in a third memory element; characterised in that the association step for each peak is performed by order of increasing mass, and wherein said association step comprises, for a peak at a given mass that corresponds to a plurality of cluster ions, associating said peak with a selection of these cluster ions, wherein cluster ions comprising constituent ions that have been associated with peaks at lower masses are selected. a) using data processing means, detecting peaks in said mass spectrum data and storing the corresponding mass for each detected peak in a first memory element; b) using data processing means, associating each detected peak with ion species and/or cluster ions having a corresponding mass, the correspondences between masses and ion species/cluster ions being pre-recorded in a second memory element, and storing the result in a third memory element; the association step for each peak is performed by order of increasing mass, and wherein said association step comprises, for a peak at a given mass that corresponds to a plurality of cluster ions, associating said peak with a selection of these cluster ions, wherein cluster ions comprising constituent ions that have been associated with peaks at lower masses are selected.
A method for transmitting control information in a mobile communication system performed by a user equipment, UE, the method comprising: identifying first resources allocated for transmission of first uplink control information; identifying second resources allocated for transmission of second uplink control information; and when a transmission time of the first resources overlaps with a transmission time of the second resources, transmitting , to a base station, the first uplink control information using the second resources. identifying first resources allocated for transmission of first uplink control information; identifying second resources allocated for transmission of second uplink control information; and when a transmission time of the first resources overlaps with a transmission time of the second resources, transmitting , to a base station, the first uplink control information using the second resources.
A rocker arm assembly operable in a combustion engine drive mode and an engine braking mode, and configured to selectively open first and second exhaust valves, the assembly comprising: a rocker shaft ; an exhaust valve rocker arm configured to receive and rotate about the rocker shaft; a rotating stepped engine brake capsule coupled to the exhaust valve rocker arm and having a castellation mechanism , wherein the rotating stepped engine brake capsule is movable between a locked, engine brake active position and an unlocked, engine brake inactive position; a plunger assembly coupled to the exhaust valve rocker arm and operatively associated with the rotating stepped engine brake capsule; and an intermediate member configured to selectively engage the plunger assembly to move the rotating stepped engine brake capsule between the locked and unlocked positions; characterized in that the intermediate member is an intermediate arm configured to rotate about the rocker shaft . a rocker shaft ; an exhaust valve rocker arm configured to receive and rotate about the rocker shaft; a rotating stepped engine brake capsule coupled to the exhaust valve rocker arm and having a castellation mechanism , wherein the rotating stepped engine brake capsule is movable between a locked, engine brake active position and an unlocked, engine brake inactive position; a plunger assembly coupled to the exhaust valve rocker arm and operatively associated with the rotating stepped engine brake capsule; and an intermediate member configured to selectively engage the plunger assembly to move the rotating stepped engine brake capsule between the locked and unlocked positions; characterized in that the intermediate member is an intermediate arm configured to rotate about the rocker shaft .
A snowboard comprising a board with a tip comprising a central sole surface and a lateral sole surface , a sliding surface and steel edges along the outer edge of the board, the board is arranged for mounting two bindings on the board's surface, the board is provided with inwardly curved edge portions, the board having greater width at both ends at transition lines E, V to the tip(s) than at a middle (I), and the sliding surface towards the transition lines E,V of the snowboard has a three-dimensional sliding surface which is substantially tripartite, with a right lateral sliding surface , a central sliding surface and a left lateral sliding surface towards the transition lines E,V to the tip(s) and the lateral sliding surfaces extend over a length which altogether at both ends of the board forms at least 10% of the sliding surface's total length, which is taken relative to a plane defined by the sliding surface when it is pressed down against the ground, such as when the snowboard is lying flat and without camber, characterized in that the steel edges at the tip's lateral sole surface , viewed in cross section, has an increasing uplift relative to the tip's central sole surface from the transition line E situated between the central sliding surface and the tip's central sole surface , to a cross section line C in the tip located in front of the transition line E, where the uplift of the steel edges in the cross section line C, measured in mm, is at least 20% greater than in transition line E.
An electronically controlled motor-driven device comprising: an electric motor ; and an electronic controller in controlling communication with the electric motor ; the electronic controller being configured to: monitor the motor-driven device during normal operation to detect if an alert condition occurs and when the controller determines that the alert condition of the motor-driven device exists, cause the electric motor to vibrate so as to emit a vibrational output that can be audibly perceived by a nearby operator as a perceptible indication of the alert condition; characterized in that the electronic controller is further configured to cause at least some of the vibrational output to be generated at a frequency that is equal to a resonant frequency of a structural component of the motor-driven device . an electric motor ; and an electronic controller in controlling communication with the electric motor ; the electronic controller being configured to: monitor the motor-driven device during normal operation to detect if an alert condition occurs and when the controller determines that the alert condition of the motor-driven device exists, cause the electric motor to vibrate so as to emit a vibrational output that can be audibly perceived by a nearby operator as a perceptible indication of the alert condition; characterized in that the electronic controller is further configured to cause at least some of the vibrational output to be generated at a frequency that is equal to a resonant frequency of a structural component of the motor-driven device . monitor the motor-driven device during normal operation to detect if an alert condition occurs and when the controller determines that the alert condition of the motor-driven device exists, cause the electric motor to vibrate so as to emit a vibrational output that can be audibly perceived by a nearby operator as a perceptible indication of the alert condition; characterized in that the electronic controller is further configured to cause at least some of the vibrational output to be generated at a frequency that is equal to a resonant frequency of a structural component of the motor-driven device .