mhurhangee/patent-ind-claim-en huggingface dataset:
A foldable electronic device module, comprising: a cover element having a thickness from 25 μm to 200 μm and a cover element elastic modulus from 20 GPa to 140 GPa, the cover element further comprising: (a) a component having a glass composition, (b) a first primary surface , and (c) a second primary surface ; a stack (90a; 90b) having a thickness from 100 μm to 600 μm, the stack (90a; 90b) further comprising: (i) a panel having first and second primary surfaces , and a panel elastic modulus between 300 MPa and 10 GPa, and (ii) an electronic device coupled to the panel ; and a first adhesive (10a; 10b) configured to join the stack (90a; 90b) to the second primary surface of the cover element , the first adhesive (10a; 10b) characterized by a shear modulus between 0.1 MPa and 100 MPa, wherein the device module (100; 100a; 100b) has a tangential stress at the second primary surface of the cover element lower than 1000 MPa in tension upon bending in use the module (100; 100a; 100b) in a two-point configuration to a bend radius from 20 mm to 2 mm such that the first primary surface is in compression and the bend radius is measured from a center point above the first primary surface of the cover element to the second primary surface of the panel . a cover element having a thickness from 25 μm to 200 μm and a cover element elastic modulus from 20 GPa to 140 GPa, the cover element further comprising: (a) a component having a glass composition, (b) a first primary surface , and (c) a second primary surface ; (a) a component having a glass composition, (b) a first primary surface , and (c) a second primary surface ; a stack (90a; 90b) having a thickness from 100 μm to 600 μm, the stack (90a; 90b) further comprising: (i) a panel having first and second primary surfaces , and a panel elastic modulus between 300 MPa and 10 GPa, and (ii) an electronic device coupled to the panel ; and (i) a panel having first and second primary surfaces , and a panel elastic modulus between 300 MPa and 10 GPa, and (ii) an electronic device coupled to the panel ; and a first adhesive (10a; 10b) configured to join the stack (90a; 90b) to the second primary surface of the cover element , the first adhesive (10a; 10b) characterized by a shear modulus between 0.1 MPa and 100 MPa, wherein the device module (100; 100a; 100b) has a tangential stress at the second primary surface of the cover element lower than 1000 MPa in tension upon bending in use the module (100; 100a; 100b) in a two-point configuration to a bend radius from 20 mm to 2 mm such that the first primary surface is in compression and the bend radius is measured from a center point above the first primary surface of the cover element to the second primary surface of the panel .
A method performed in a user equipment, comprising: determining whether the user equipment is in a discontinuous reception mode during a period of inactive data reception; and disabling, for as long as the user equipment is in the discontinuous reception mode, a time-to-trigger timer for triggering a measurement report related to a target cell at the user equipment , wherein the disabled time-to-trigger timer inhibits the measurement report related to the target cell from being sent by the user equipment to a network. determining whether the user equipment is in a discontinuous reception mode during a period of inactive data reception; and disabling, for as long as the user equipment is in the discontinuous reception mode, a time-to-trigger timer for triggering a measurement report related to a target cell at the user equipment , wherein the disabled time-to-trigger timer inhibits the measurement report related to the target cell from being sent by the user equipment to a network.
A water-degradable welding purge dam apparatus for use during purging a weld zone of a pipe assembly comprising first and second pipes having respective first and second pipe ends to be welded together at a root gap , said purge dam apparatus comprising: an air flow blocking plate assembly having an outer blocking plate , an inner blocking plate , and zero or more interior blocking plates ; wherein in use, said air flow blocking plate assembly blocking air flow therethrough during welding, the air flow blocking plate assembly comprising one or more water degradable materials to facilitate removal of said purge dam apparatus from said pipe assembly using an aqueous fluid following welding; and characterized by : at least one of said blocking plates (28A, 28B or 28C) comprising a plurality of fluid flow apertures (1-5) providing longitudinal vias through said at least one blocking plate (28A, 28B or 28C) to aid distribution of said aqueous fluid through said blocking plate assembly to provide rapid and robust purge dam degradation following welding. an air flow blocking plate assembly having an outer blocking plate , an inner blocking plate , and zero or more interior blocking plates ; wherein in use, said air flow blocking plate assembly blocking air flow therethrough during welding, the air flow blocking plate assembly comprising one or more water degradable materials to facilitate removal of said purge dam apparatus from said pipe assembly using an aqueous fluid following welding; and characterized by : at least one of said blocking plates (28A, 28B or 28C) comprising a plurality of fluid flow apertures (1-5) providing longitudinal vias through said at least one blocking plate (28A, 28B or 28C) to aid distribution of said aqueous fluid through said blocking plate assembly to provide rapid and robust purge dam degradation following welding.
A method of determining a rotor position in an electric motor, the method comprising the steps of: superimposing a first and a second alternating signal onto a driving waveform so as to generate a first oscillating current and a second oscillating current in stator coils of said electric motor; and characterised by determining said rotor position based on comparing a difference value between amplitudes of the first oscillating current and amplitudes of the second oscillating current and generating a commutation command when said difference value reaches a maximum or a minimum. superimposing a first and a second alternating signal onto a driving waveform so as to generate a first oscillating current and a second oscillating current in stator coils of said electric motor; and characterised by determining said rotor position based on comparing a difference value between amplitudes of the first oscillating current and amplitudes of the second oscillating current and generating a commutation command when said difference value reaches a maximum or a minimum.
A compound having the formula or a pharmaceutically acceptable salt or a solvate thereof.
One-component moisture-curing adhesive composition comprising a) at least one polyurethane polymer containing isocyanate groups, b) at least one silane adhesion promoter, c) at least one amine catalyst, and d) at least one chelate complexing agent, characterized in that the composition comprises at least one metal catalyst and in that the chelate complexing agent comprises at least one aromatic ring. a) at least one polyurethane polymer containing isocyanate groups, b) at least one silane adhesion promoter, c) at least one amine catalyst, and d) at least one chelate complexing agent,
A transducer plate adapted to be mounted in a multi-leaf spring arrangement so that a deflection of an adjacent leaf spring can be measured, said transducer plate comprises the following features: a) at least two oppositely arranged clamping ridges which are spaced from each other by a bending section , b) at least two stiffening webs oppositely arranged to each other and each bridging a distance between the opposed clamping ridges wherein the at least two stiffening webs are b1) spaced from each other by the bending section , and b2) mechanically decoupled from the bending section by an intermediate separation segment formed as a recess or an opening, and the transducer plate comprises further c) a measuring sector centrally arranged in the bending section between the clamping ridges and the stiffening webs , respectively, wherein a wire strain gauge can be disposed on the measuring sector for deflection evaluation, characterized in that d) the at least two clamping ridges have two fastening openings , respectively, for mounting the transducer plate in a multi-leaf arrangement . a) at least two oppositely arranged clamping ridges which are spaced from each other by a bending section , b) at least two stiffening webs oppositely arranged to each other and each bridging a distance between the opposed clamping ridges wherein the at least two stiffening webs are b1) spaced from each other by the bending section , and b2) mechanically decoupled from the bending section by an intermediate separation segment formed as a recess or an opening, and the transducer plate comprises further b1) spaced from each other by the bending section , and b2) mechanically decoupled from the bending section by an intermediate separation segment formed as a recess or an opening, and the transducer plate comprises further c) a measuring sector centrally arranged in the bending section between the clamping ridges and the stiffening webs , respectively, wherein a wire strain gauge can be disposed on the measuring sector for deflection evaluation, characterized in that d) the at least two clamping ridges have two fastening openings , respectively, for mounting the transducer plate in a multi-leaf arrangement .
Method for mounting a floor of a body structure of a motor vehicle comprising a separator crossmember and at least one reinforcing element for said separator crossmember arranged at an end of said separator crossmember , the reinforcing element being provided with first, second and third components , the first and second components being assembled to one another while defining a dispersion-compensating fastening region comprising the third component configured to cooperate with a connection element of a rear seat of said vehicle, the method comprising a step of placing said at least one reinforcing element between the separator crossmember and a rear floor of the floor of the body structure and a step of fastening said at least one reinforcing element to said separator crossmember and to said rear floor .
A data synchronization method, comprising: when there is tensor data to be synchronized, by a first processor, sending a processing instruction to a second processor; after receiving the processing instruction, by the second processor, decoding the processing instruction to obtain the decoded processing instruction; when the decoded processing instruction is a descriptor synchronization instruction, by the second processor, obtaining synchronization information of the descriptor in the processing instruction, where the descriptor is used to indicate a shape of tensor data to be synchronized, and the synchronization information of the descriptor includes at least one of an identifier of the descriptor and content of the descriptor, and by the second processor, achieving the synchronization of the tensor data according to the identifier of the descriptor and/or the content of the descriptor in the synchronization information. when there is tensor data to be synchronized, by a first processor, sending a processing instruction to a second processor; after receiving the processing instruction, by the second processor, decoding the processing instruction to obtain the decoded processing instruction; when the decoded processing instruction is a descriptor synchronization instruction, by the second processor, obtaining synchronization information of the descriptor in the processing instruction, where the descriptor is used to indicate a shape of tensor data to be synchronized, and the synchronization information of the descriptor includes at least one of an identifier of the descriptor and content of the descriptor, and by the second processor, achieving the synchronization of the tensor data according to the identifier of the descriptor and/or the content of the descriptor in the synchronization information.
A method for forming a light emitting diode (LED) in a deposition chamber , the method comprising: epitaxially growing a III-nitride p-type layer doped with Mg, wherein the III-nitride p-type layer is a tunnel junction III-nitride p-type layer; epitaxially growing a non p-type layer over the III-nitride p-type layer , wherein the non p-type layer is a III-nitride tunnel junction n-type layer; characterized in that the non p-type layer is grown under illumination; wherein a portion of the non p-type layer is grown under said illumination with light having a photon energy higher than the III-nitride p-type layer's band gap energy during an initial growth period of the non p-type layer to inhibit formation of Mg-H complexes within the III-nitride p-type layer resulting from hydrogen present in the deposition chamber ; and in that the method comprises annealing the tunnel junction III-nitride p-type layer prior to the epitaxially growing a portion of the III-nitride tunnel junction n-type layer under illumination. epitaxially growing a III-nitride p-type layer doped with Mg, wherein the III-nitride p-type layer is a tunnel junction III-nitride p-type layer; epitaxially growing a non p-type layer over the III-nitride p-type layer , wherein the non p-type layer is a III-nitride tunnel junction n-type layer; characterized in that the non p-type layer is grown under illumination; wherein a portion of the non p-type layer is grown under said illumination with light having a photon energy higher than the III-nitride p-type layer's band gap energy during an initial growth period of the non p-type layer to inhibit formation of Mg-H complexes within the III-nitride p-type layer resulting from hydrogen present in the deposition chamber ; and in that the method comprises annealing the tunnel junction III-nitride p-type layer prior to the epitaxially growing a portion of the III-nitride tunnel junction n-type layer under illumination.
A method for reading video data stored in a plurality of data files in a Network Attached Storage (NAS) device, the method being implemented by a storage server in a video cloud storage system, the video cloud storage system comprising the storage server and the NAS device and further comprising an index server storing a correspondence between disk block numbers of block devices and file names of the data files in the NAS, wherein the NAS device is mounted to a block interface of the storage server and the storage server is connected to the index server, to the NAS device, and to a client device respectively; and wherein the method comprises: receiving a reading request sent by the client device, wherein the reading request carries a disk block number of one of the block devices; sending a NAS device filename acquisition request to the index server, wherein the acquisition request carries the disk block number; receiving a filename of a data file in the NAS device which is fed back by the index server based on the correspondence; reading, from the NAS device, video data in the data file having the received filename; and returning the video data to the client device. receiving a reading request sent by the client device, wherein the reading request carries a disk block number of one of the block devices; sending a NAS device filename acquisition request to the index server, wherein the acquisition request carries the disk block number; receiving a filename of a data file in the NAS device which is fed back by the index server based on the correspondence; reading, from the NAS device, video data in the data file having the received filename; and returning the video data to the client device.
A scatterer measuring apparatus , comprising: an irradiator configured to radiate phase-aligned light at a predetermined light intensity suitable for radiating the light to a predetermined site of a living body (D) from outside the living body toward an interior of the living body; wherein the apparatus further comprises: a light intensity detector configured to detect a two-dimensional light intensity distribution of light emitted from the living body; and a controller configured to calculate a blood flow rate based on a temporal change in the two-dimensional light intensity distribution and to calculate scatterer concentration in the living body based on the blood flow rate, wherein the irradiator includes optical means for expanding the phase-aligned light. an irradiator configured to radiate phase-aligned light at a predetermined light intensity suitable for radiating the light to a predetermined site of a living body (D) from outside the living body toward an interior of the living body; wherein the apparatus further comprises: a light intensity detector configured to detect a two-dimensional light intensity distribution of light emitted from the living body; and a controller configured to calculate a blood flow rate based on a temporal change in the two-dimensional light intensity distribution and to calculate scatterer concentration in the living body based on the blood flow rate, wherein the irradiator includes optical means for expanding the phase-aligned light. a light intensity detector configured to detect a two-dimensional light intensity distribution of light emitted from the living body; and a controller configured to calculate a blood flow rate based on a temporal change in the two-dimensional light intensity distribution and to calculate scatterer concentration in the living body based on the blood flow rate, wherein the irradiator includes optical means for expanding the phase-aligned light.
A telescopic roller conveyor, the telescopic roller conveyor comprising: a) an inner profile , and b) an outer profile , wherein 1. the inner profile is adapted to slide inside the outer profile , such that a telescopic functionality is achieved, and 2. the inner and outer profiles each have a first side comprising: • at least one first recess adapted to partly contain at least one roller organ , and • at least one second recess adapted to receive an axle connected to the roller organ , and • wherein the axle is adapted to lock the inner and outer profiles to each other in the length axis of the profiles (101;102), when the axle is placed in the at least one second recess . a) an inner profile , and b) an outer profile , wherein 1. the inner profile is adapted to slide inside the outer profile , such that a telescopic functionality is achieved, and 2. the inner and outer profiles each have a first side comprising: • at least one first recess adapted to partly contain at least one roller organ , and • at least one second recess adapted to receive an axle connected to the roller organ , and • wherein the axle is adapted to lock the inner and outer profiles to each other in the length axis of the profiles (101;102), when the axle is placed in the at least one second recess . 1. the inner profile is adapted to slide inside the outer profile , such that a telescopic functionality is achieved, and 2. the inner and outer profiles each have a first side comprising: • at least one first recess adapted to partly contain at least one roller organ , and • at least one second recess adapted to receive an axle connected to the roller organ , and • wherein the axle is adapted to lock the inner and outer profiles to each other in the length axis of the profiles (101;102), when the axle is placed in the at least one second recess . • at least one first recess adapted to partly contain at least one roller organ , and • at least one second recess adapted to receive an axle connected to the roller organ , and • wherein the axle is adapted to lock the inner and outer profiles to each other in the length axis of the profiles (101;102), when the axle is placed in the at least one second recess .
A positive electrode active material, comprising: a first compound which is represented by Formula 1 below, and enables lithium intercalation/deintercalation; and a second compound represented by Formula 2 below: [Formula 1] Li w Ni 1-(x+y+z) Co x M1 y M2 z O 2+α here, M1 is at least one selected from Mn and Al, M2 is at least one selected from Mn, P, Sr, Ba, B, Ti, Zr, Al, Hf, Ta, Mg, V, Zn, Si, Y, Sn, Ge, Nb, W and Cu, M1 and M2 are different elements, 0.5≤w≤1.5, 0≤x≤0.50, 0≤y≤0.20, 0≤z≤0.20, and 0≤α≤0.02, and [Formula 2] Li a Co b M3 c (P β O γ ) d here, M3 is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤a≤10, 0≤b≤8, 0≤c≤8, 0<d≤13, 0<β≤4, and 0<γ≤ 10, and wherein the proportion of a compound having a crystal structure belonging to a space group Fd-3m, R3c or R-3m in the second compound is 13 mol% or less. a first compound which is represented by Formula 1 below, and enables lithium intercalation/deintercalation; and a second compound represented by Formula 2 below: [Formula 1] Li w Ni 1-(x+y+z) Co x M1 y M2 z O 2+α here, M1 is at least one selected from Mn and Al, M2 is at least one selected from Mn, P, Sr, Ba, B, Ti, Zr, Al, Hf, Ta, Mg, V, Zn, Si, Y, Sn, Ge, Nb, W and Cu, M1 and M2 are different elements, 0.5≤w≤1.5, 0≤x≤0.50, 0≤y≤0.20, 0≤z≤0.20, and 0≤α≤0.02, and [Formula 2] Li a Co b M3 c (P β O γ ) d here, M3 is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤a≤10, 0≤b≤8, 0≤c≤8, 0<d≤13, 0<β≤4, and 0<γ≤ 10, and wherein the proportion of a compound having a crystal structure belonging to a space group Fd-3m, R3c or R-3m in the second compound is 13 mol% or less.
A method of determining the approximate risk of cardiovascular disease (CVD) for a subject, comprising: (a) detecting, in a sample from the subject, the level of each of the HDL-associated proteins in Biomarker Panel 18, wherein said Biomarker Panel comprises apolipoprotein (Apo) A1, ApoC1, ApoC2, ApoC3, and ApoC4 or fragments thereof; and (b) determining the approximate risk of CVD for the subject by employing a first algorithm to generate a CVD risk score, wherein said first algorithm performs operations comprising: i) multiplying each HDL-associated protein level by a predetermined coefficient to generate multiplied values, and ii) adding the multiplied values together, plus a panel-specific constant value, thereby generating the CVD risk score. (a) detecting, in a sample from the subject, the level of each of the HDL-associated proteins in Biomarker Panel 18, wherein said Biomarker Panel comprises apolipoprotein (Apo) A1, ApoC1, ApoC2, ApoC3, and ApoC4 or fragments thereof; and (b) determining the approximate risk of CVD for the subject by employing a first algorithm to generate a CVD risk score, wherein said first algorithm performs operations comprising: i) multiplying each HDL-associated protein level by a predetermined coefficient to generate multiplied values, and ii) adding the multiplied values together, plus a panel-specific constant value, thereby generating the CVD risk score.