mhurhangee/patent-ind-claim-en huggingface dataset:
A sole for an article of footwear , the sole comprising: a sole structure configured to support the foot of the user, the sole structure including an insole, a midsole, and an outsole that defines a ground-engaging portion of the footwear, wherein the sole structure includes an outer surface, the outer surface of the sole structure including a plurality of distinctly shaped cavities , a plurality of distinctly shaped protrusions , and a plurality of distinctly shaped plastic fragments , wherein the distinctly shaped cavities , the distinctly shaped protrusions , and the distinctly shaped plastic fragments are erratically dispersed on the outer peripheral surface and the ground-engaging surface of the outer surface of the sole structure , and wherein an outer peripheral surface and ground-engaging surface of the sole structure are substantially covered with the erratically dispersed distinctly shaped cavities , distinctly shaped protrusions , and distinctly shaped and colored plastic fragments . a sole structure configured to support the foot of the user, the sole structure including an insole, a midsole, and an outsole that defines a ground-engaging portion of the footwear, wherein the sole structure includes an outer surface, the outer surface of the sole structure including a plurality of distinctly shaped cavities , a plurality of distinctly shaped protrusions , and a plurality of distinctly shaped plastic fragments , wherein the distinctly shaped cavities , the distinctly shaped protrusions , and the distinctly shaped plastic fragments are erratically dispersed on the outer peripheral surface and the ground-engaging surface of the outer surface of the sole structure , and wherein an outer peripheral surface and ground-engaging surface of the sole structure are substantially covered with the erratically dispersed distinctly shaped cavities , distinctly shaped protrusions , and distinctly shaped and colored plastic fragments .
A method comprising, at a tyre monitoring device : receiving a configuration request from a first device , the configuration request indicating that the tyre monitoring device is to operate in a configuration mode, the configuration request provided using a first wireless communication protocol; responsive to receipt of the configuration request, initiating communication using a second wireless communication protocol; establishing successful communication using the second wireless protocol; and entering the configuration mode responsive to establishing successful communication using the second wireless communication protocol; the method further comprising rejecting a configuration request when received via the second wireless communication protocol. receiving a configuration request from a first device , the configuration request indicating that the tyre monitoring device is to operate in a configuration mode, the configuration request provided using a first wireless communication protocol; responsive to receipt of the configuration request, initiating communication using a second wireless communication protocol; establishing successful communication using the second wireless protocol; and entering the configuration mode responsive to establishing successful communication using the second wireless communication protocol; the method further comprising rejecting a configuration request when received via the second wireless communication protocol.
An isolated or synthetic antitumor peptide consisting of an amino acid sequence as set forth in SEQ ID NOs: 3, 8, 9 and 14-33.
A radiation detector comprising: a scintillating material consisting of host lattice modified GOS material , wherein a portion of at least 25 % of the gadolinium (Gd) of the GOS material is replaced with at least one element selected from the group of yttrium (Y) or lanthanum (La); and a photodetector optically coupled to the host lattice modified GOS material , wherein the photodetector is a photodiode and characterized in that the host lattice modified GOS material is doped with Ce 3+ and Pr 3+ . a scintillating material consisting of host lattice modified GOS material , wherein a portion of at least 25 % of the gadolinium (Gd) of the GOS material is replaced with at least one element selected from the group of yttrium (Y) or lanthanum (La); and a photodetector optically coupled to the host lattice modified GOS material , wherein the photodetector is a photodiode and characterized in that the host lattice modified GOS material is doped with Ce 3+ and Pr 3+ .
Sliding door fitting having a running rail formed from at least two rail parts , on which at least two tracks for rollers and/or sliding elements of a running part are formed for moving a sliding door , wherein between the at least two rail parts a butt connector is arranged, wherein a parting plane of the at least two rail parts in the region of the butt connector extends at an angle of at least 10° perpendicular to the longitudinal direction of the running rail , characterized in that the two rail parts have a recess in the joint area which is arranged below one of the at least two tracks , through which a support part of the butt connector passes, so that the one track of the at least two tracks is supported by the inserted support part
A method of configuring and deploying a rotary steerable system , the method comprising: determining a maximum dogleg severity required for drilling a wellbore along a planned wellbore path; selecting an initial combination of parameters for a flexible collar , the parameters including an outer diameter, an inner diameter, a length and a modulus of elasticity; selecting an initial material for the flexible collar based on the modulus of elasticity selected; selecting an initial placement of the flexible collar within the rotary steerable system ; determining an initial dogleg severity capability of the rotary steerable system having the selected initial placement, material, and combination of parameters for the flexible collar ; predetermining a dogleg severity tolerance for the initial dogleg severity capability; comparing the initial dogleg severity capability to the dogleg severity tolerance; selecting an adjusted placement, material and combination of parameters determined to yield an adjusted dogleg severity capability that is more proximate the maximum dogleg severity required than the initial dogleg severity capability in response to determining that the initial dogleg severity capability is outside the dogleg severity tolerance; constructing the rotary steerable system based on the adjusted placement, material and combination of parameters; and deploying the rotary steerable system into the wellbore to achieve the maximum dogleg severity required along the planned wellbore path. determining a maximum dogleg severity required for drilling a wellbore along a planned wellbore path; selecting an initial combination of parameters for a flexible collar , the parameters including an outer diameter, an inner diameter, a length and a modulus of elasticity; selecting an initial material for the flexible collar based on the modulus of elasticity selected; selecting an initial placement of the flexible collar within the rotary steerable system ; determining an initial dogleg severity capability of the rotary steerable system having the selected initial placement, material, and combination of parameters for the flexible collar ; predetermining a dogleg severity tolerance for the initial dogleg severity capability; comparing the initial dogleg severity capability to the dogleg severity tolerance; selecting an adjusted placement, material and combination of parameters determined to yield an adjusted dogleg severity capability that is more proximate the maximum dogleg severity required than the initial dogleg severity capability in response to determining that the initial dogleg severity capability is outside the dogleg severity tolerance; constructing the rotary steerable system based on the adjusted placement, material and combination of parameters; and deploying the rotary steerable system into the wellbore to achieve the maximum dogleg severity required along the planned wellbore path.
A multilayer structure, comprising: a crystal sapphire substrate; and a crystalline film comprising α-Ga 2 O 3 as a major component, formed directly on the crystal substrate by epitaxy, characterized in that the crystalline film has an off-angle from 0.2° to 12.0°, and the sapphire substrate has an off-angle from 0.2° to 12.0°. a crystal sapphire substrate; and a crystalline film comprising α-Ga 2 O 3 as a major component, formed directly on the crystal substrate by epitaxy, characterized in that the crystalline film has an off-angle from 0.2° to 12.0°, and the sapphire substrate has an off-angle from 0.2° to 12.0°.
A carrier for holding a plurality of containers (CA1, CA2, CA3, CA4, CB1, CB2, CB3, CB4), the carrier comprising: a plurality of panels including at least one central panel, at least one attachment panel foldably connected to the at least one central panel and configured to receive a portion of one or more containers of the plurality of containers (CA1, CA2, CA3, CA4, CB1, CB2, CB3, CB4), at least one side panel foldably connected to the at least one attachment panel, and at least one top panel foldably connected to the at least one side panel, the at least one central panel includes a plurality of openings and is for being positioned between and attached to adjacent containers of the plurality of containers (CA1, CA2, CA3, CA4, CB1, CB2, CB3, CB4), the at least one top panel has an outer free edge arranged to expose a portion of the at least one attachment panel. a plurality of panels including at least one central panel, at least one attachment panel foldably connected to the at least one central panel and configured to receive a portion of one or more containers of the plurality of containers (CA1, CA2, CA3, CA4, CB1, CB2, CB3, CB4), at least one side panel foldably connected to the at least one attachment panel, and at least one top panel foldably connected to the at least one side panel, the at least one central panel includes a plurality of openings and is for being positioned between and attached to adjacent containers of the plurality of containers (CA1, CA2, CA3, CA4, CB1, CB2, CB3, CB4), the at least one top panel has an outer free edge arranged to expose a portion of the at least one attachment panel.
A method of producing piperylene from a hydrocarbon mixture that is derived from a petroleum fraction having a carbon number of 5, wherein the hydrocarbon mixture has a piperylene proportional content of not less than 60 mass% and not more than 80 mass% and a cyclic hydrocarbon proportional content of not less than 20 mass% and not more than 40 mass%, and the method comprises a membrane separation step of performing membrane separation of the hydrocarbon mixture using a zeolite membrane to obtain a separated product in which piperylene is enriched. the hydrocarbon mixture has a piperylene proportional content of not less than 60 mass% and not more than 80 mass% and a cyclic hydrocarbon proportional content of not less than 20 mass% and not more than 40 mass%, and the method comprises a membrane separation step of performing membrane separation of the hydrocarbon mixture using a zeolite membrane to obtain a separated product in which piperylene is enriched.
Method for controlling vehicle functions (F1 to Fn) for increasing a wellbeing and/or for increasing an alertness of at least one vehicle user in a vehicle , wherein a number of vehicle functions (F1 to Fn) is activated following the selection of at least one specific user menu, characterised in that , following the selection of a user menu, in each case a control function assigned to the user menu is preset from the number of vehicle functions (F1 to Fn) and the chronological and content-related processes of the other vehicle functions (F1 to Fn) assigned to the user menu are adjusted with respect to the control function.
A method for producing an electrode for lithium ion secondary batteries, the method comprising: a step of forming a binder coat layer 16 through application of a binder liquid containing a binder and a solvent, onto an elongate collector 12, along a longitudinal direction of the collector 12, with the binder coat layer 16 being formed so as to have large coat amount regions 18A in which a coating amount of the binder liquid per unit surface area is large and a small coat amount region 18B in which a coating amount of the binder liquid per unit surface area is small, in a width direction of the collector 12 perpendicular to the longitudinal direction of the latter, wherein the coating amount A in the large coat amount regions 18A and the coating amount B in the small coat amount region 18B satisfy the relationship A≥1.25B, and the large coat amount regions 18A being provided at least at both side edge portions 16E of the binder coat layer 16 in the width direction; wherein the large coat amount regions 18A comprise strip-like coated sections along a plurality of imaginary lines L1 extending obliquely with respect to the width direction of the collector 12 at given spacings from each other along the plurality of lines L1, thus resembling dashed lines; a step of supplying granulated particles 32 containing active material particles 34 and a binder 36, onto the binder coat layer 16; and a step of forming an active material layer 14 through pressing of aggregates of the granulated particles having been supplied onto the binder coat layer 16. a step of forming a binder coat layer 16 through application of a binder liquid containing a binder and a solvent, onto an elongate collector 12, along a longitudinal direction of the collector 12, with the binder coat layer 16 being formed so as to have large coat amount regions 18A in which a coating amount of the binder liquid per unit surface area is large and a small coat amount region 18B in which a coating amount of the binder liquid per unit surface area is small, in a width direction of the collector 12 perpendicular to the longitudinal direction of the latter, wherein the coating amount A in the large coat amount regions 18A and the coating amount B in the small coat amount region 18B satisfy the relationship A≥1.25B, and the large coat amount regions 18A being provided at least at both side edge portions 16E of the binder coat layer 16 in the width direction; wherein the large coat amount regions 18A comprise strip-like coated sections along a plurality of imaginary lines L1 extending obliquely with respect to the width direction of the collector 12 at given spacings from each other along the plurality of lines L1, thus resembling dashed lines; a step of supplying granulated particles 32 containing active material particles 34 and a binder 36, onto the binder coat layer 16; and a step of forming an active material layer 14 through pressing of aggregates of the granulated particles having been supplied onto the binder coat layer 16.
A method of fabricating a solar cell, the method comprising: forming a dielectric spacer on a region of a surface of a solar cell structure that is over an interface between adjacent P-type and N-type doped regions, wherein the solar cell structure comprises the N-type doped region adjacent to the P-type doped region; forming a metal layer on the dielectric spacer , the N-type doped region, and the P-type doped region, wherein the metal layer electrically connects the N-type doped region to the P-type doped region; placing a metal foil on the metal layer ; and after placing the metal foil on the metal layer , patterning the metal foil , wherein patterning the metal foil includes removing portions of the metal foil and the metal layer that are over the dielectric spacer , characterized in that the metal foil is placed on the metal layer of the solar cell structure and another metal layer of another solar cell structure. forming a dielectric spacer on a region of a surface of a solar cell structure that is over an interface between adjacent P-type and N-type doped regions, wherein the solar cell structure comprises the N-type doped region adjacent to the P-type doped region; forming a metal layer on the dielectric spacer , the N-type doped region, and the P-type doped region, wherein the metal layer electrically connects the N-type doped region to the P-type doped region; placing a metal foil on the metal layer ; and after placing the metal foil on the metal layer , patterning the metal foil , wherein patterning the metal foil includes removing portions of the metal foil and the metal layer that are over the dielectric spacer , characterized in that the metal foil is placed on the metal layer of the solar cell structure and another metal layer of another solar cell structure.
A computer-implemented method comprising: performing calibration adjustments for a touch sensor that is associated with at least one control of a handheld controller by adjusting, in response to a criterion being satisfied, a high-level proximity value , measured by the touch sensor, indicative of an object contacting the at least one control ; determining a first digitized force sensing resistor, FSR, value based at least in part on force data provided by a FSR that is associated with the at least one control; determining that the first digitized FSR value exceeds a threshold value ; pausing the performing of the calibration adjustments for the touch sensor in response to the determining that the first digitized FSR value exceeds the threshold value; determining a second digitized FSR value based at least in part on the force data provided by the FSR; determining that the second digitized FSR value is less than or equal to the threshold value; and resuming the performing of the calibration adjustments for the touch sensor in response to the determining that the second digitized FSR value is less than or equal to the threshold value. performing calibration adjustments for a touch sensor that is associated with at least one control of a handheld controller by adjusting, in response to a criterion being satisfied, a high-level proximity value , measured by the touch sensor, indicative of an object contacting the at least one control ; determining a first digitized force sensing resistor, FSR, value based at least in part on force data provided by a FSR that is associated with the at least one control; determining that the first digitized FSR value exceeds a threshold value ; pausing the performing of the calibration adjustments for the touch sensor in response to the determining that the first digitized FSR value exceeds the threshold value; determining a second digitized FSR value based at least in part on the force data provided by the FSR; determining that the second digitized FSR value is less than or equal to the threshold value; and resuming the performing of the calibration adjustments for the touch sensor in response to the determining that the second digitized FSR value is less than or equal to the threshold value.
A protective cover for protecting a sensor for determining the thickness of a plastic film , wherein the protective cover comprises a sensor section for receiving and positioning the sensor under a contact surface of the protective cover , and the contact surface is provided on the protective cover in such a way that, in the operating state, the thickness of the plastic film can be determined by means of the sensor through at least a part of the contact surface , characterized in that the contact surface comprises an electrically insulating measuring surface and an electrically conductive deflecting surface , the measuring surface covering at least a part of the sensor section .
An apparatus for fragmenting a stone, the apparatus comprising: an endoscope comprising a working channel , where the working channel is configured to have a retrieval basket inserted therethrough; a laser fiber ; a sheath comprising at least two lumens , where a first one of the lumen is connected to the endoscope with a shaft of the endoscope extending through the first lumen , where a second one of the lumen is spaced from the shaft of the endoscope providing a channel proximate an exterior side of the shaft , where the second lumen has the laser fiber inserted therethrough; and a detection feedback system configured to deliver a low energy check pulse from the laser fiber and detect a response based upon the low energy check pulse, and configured to at least partially control delivery of a high energy laser pulse from the laser fiber to cause the stone to fragment. an endoscope comprising a working channel , where the working channel is configured to have a retrieval basket inserted therethrough; a laser fiber ; a sheath comprising at least two lumens , where a first one of the lumen is connected to the endoscope with a shaft of the endoscope extending through the first lumen , where a second one of the lumen is spaced from the shaft of the endoscope providing a channel proximate an exterior side of the shaft , where the second lumen has the laser fiber inserted therethrough; and a detection feedback system configured to deliver a low energy check pulse from the laser fiber and detect a response based upon the low energy check pulse, and configured to at least partially control delivery of a high energy laser pulse from the laser fiber to cause the stone to fragment.
A communication method comprising: transmitting (1210; 1410), by a network device to a user equipment, UE , broadcast signaling carrying a first set of configuration parameters to be used by the UE to monitor a first search space for a first downlink control information, DCI, message; and transmitting (1210; 1410), by the network device , to the UE radio resource control, RRC, signaling carrying a second set of configuration parameters to be used by the UE to monitor a second search space for a second DCI message, wherein the second set of configuration parameters is different from the first set of configuration parameters, each of the first set and second set of configuration parameters comprises at least a search space type, a candidate number for one or more aggregation levels and a control resource set, and the first DCI and the second DCI are associated with a same UE identifier. transmitting (1210; 1410), by a network device to a user equipment, UE , broadcast signaling carrying a first set of configuration parameters to be used by the UE to monitor a first search space for a first downlink control information, DCI, message; and transmitting (1210; 1410), by the network device , to the UE radio resource control, RRC, signaling carrying a second set of configuration parameters to be used by the UE to monitor a second search space for a second DCI message, wherein the second set of configuration parameters is different from the first set of configuration parameters, each of the first set and second set of configuration parameters comprises at least a search space type, a candidate number for one or more aggregation levels and a control resource set, and the first DCI and the second DCI are associated with a same UE identifier.