mhurhangee/ep-ind-claims huggingface dataset:
A non-pneumatic tire and wheel assembly comprising a radially inner wheel structure, a spoke ring structure having an inner ring that is mounted on a radially outer wheel structure mounting surface of the wheel structure, wherein the spoke ring structure has a plurality of spoke members (60, 62), and a radially outer tread ring mounted on the outer circumference of the spoke ring structure, wherein the spoke ring structure includes a radially outer ring having an outer surface that is joined to a radially inner surface of the tread ring by an adhesive polymer and wherein the inner ring is attached to the radially outer wheel structure mounting surface of the wheel structure via an interference fit; and wherein the non-pneumatic tire and wheel assembly further has at least one or any combination of the following features: a) the inner ring is a discontinuous inner ring having one or more gaps between inner ring segments; b) the radially inner wheel structure is axially recessed within the non-pneumatic tire and wheel assembly with respect to the maximum axial width of the spoke ring structure and/or the tread ring, c) at least one or all of the spoke members (60, 62) has/have an axially outer edge (23, 25) that is radiused or scalloped; d) each spoke member (60, 62) has a radially inner portion and a radially outer portion, wherein the radially inner portion has an axial width less than the radially outer portion. a) the inner ring is a discontinuous inner ring having one or more gaps between inner ring segments; b) the radially inner wheel structure is axially recessed within the non-pneumatic tire and wheel assembly with respect to the maximum axial width of the spoke ring structure and/or the tread ring, c) at least one or all of the spoke members (60, 62) has/have an axially outer edge (23, 25) that is radiused or scalloped; d) each spoke member (60, 62) has a radially inner portion and a radially outer portion, wherein the radially inner portion has an axial width less than the radially outer portion.
A battery pack, comprising: a first main surface; a second main surface opposed to the first main surface in a first axis direction; a first end surface provided between the first main surface and the second main surface and including a plurality of terminal windows, the plurality of terminal windows configured to expose at least a part of a plurality of terminals, and being arranged closer to the first main surface than to the second main surface; a second end surface opposed to the first end surface in a second axis direction orthogonal to the first axis direction, and including a locking portion; a first side surface provided between the first main surface and the second main surface; and a second side surface opposed to the first side surface in a third axis direction orthogonal to the first axis direction and the second axis direction, wherein the plurality of terminal windows is arranged closer to the first side surface than to the second side surface, characterised in that the locking portion is arranged closer to the second main surface than to the first main surface and in that the locking portion is arranged closer to the first side surface than to the second side surface. a first main surface; a second main surface opposed to the first main surface in a first axis direction; a first end surface provided between the first main surface and the second main surface and including a plurality of terminal windows, the plurality of terminal windows configured to expose at least a part of a plurality of terminals, and being arranged closer to the first main surface than to the second main surface; a second end surface opposed to the first end surface in a second axis direction orthogonal to the first axis direction, and including a locking portion; a first side surface provided between the first main surface and the second main surface; and a second side surface opposed to the first side surface in a third axis direction orthogonal to the first axis direction and the second axis direction, wherein the plurality of terminal windows is arranged closer to the first side surface than to the second side surface, characterised in that the locking portion is arranged closer to the second main surface than to the first main surface and in that the locking portion is arranged closer to the first side surface than to the second side surface.
A lead-free solder alloy, comprising: 0.1 to 2.0 mass% of Cu; 0.01 to 0.5 mass% of Ni; 1 to 3 mass% of Bi; 0.001 to 0.1 mass% of Ge; unavoidable impurities; and 76.0 to 99.5 mass% of Sn, which is the balance of the solder alloy. 0.1 to 2.0 mass% of Cu; 0.01 to 0.5 mass% of Ni; 1 to 3 mass% of Bi; 0.001 to 0.1 mass% of Ge; unavoidable impurities; and 76.0 to 99.5 mass% of Sn, which is the balance of the solder alloy.
Method of making an item of clothing for a person, characterised in that it comprises: the production of a plurality of strips of material (B1, B2, BN) which are separate from one another, each of said strips in the plurality of strips having two mutually parallel longitudinal edges (2a, 2b), said plurality of strips comprising a number N of strips, this number N being equal to or greater than 4 strips; and then - joining the strips in the said plurality of strips together in such a way as to form a set of strips which are joined together by sewn connecting seams, each sewn connecting seam connecting only two of the strips together and extending along these two strips which they connect together and between the longitudinal edges of these two strips, these sewn connecting seams and the strips (B1, B2, BN) being so arranged that the set of strips so joined together, when flattened out, is of a variable width (Lx) along the strips (B1, B2, BN), the method also being characterised in that the plurality of strips which are separate from one another are obtained by cutting a single piece of material by means of a plurality of straight, mutually parallel cuts. the production of a plurality of strips of material (B1, B2, BN) which are separate from one another, each of said strips in the plurality of strips having two mutually parallel longitudinal edges (2a, 2b), said plurality of strips comprising a number N of strips, this number N being equal to or greater than 4 strips; and then - joining the strips in the said plurality of strips together in such a way as to form a set of strips which are joined together by sewn connecting seams, each sewn connecting seam connecting only two of the strips together and extending along these two strips which they connect together and between the longitudinal edges of these two strips, these sewn connecting seams and the strips (B1, B2, BN) being so arranged that the set of strips so joined together, when flattened out, is of a variable width (Lx) along the strips (B1, B2, BN), the method also being characterised in that the plurality of strips which are separate from one another are obtained by cutting a single piece of material by means of a plurality of straight, mutually parallel cuts.
A toilet cover, comprising a top cover and a toilet seat, two sides of the bottom portion of the top cover are respectively disposed with a top cover shaft sleeve (1.1), the center of the bottom portion of the toilet seat is disposed with a sleeve (2.1); wherein the sleeve (2.1) is disposed with two quick release units, each quick release unit comprises a joint, a damper and a lock catch, a support base having an insert pin, which insert pin is insertable to each respective joint, each lock catch is inserted to a respective joint from one end of said respective joint to lock and unlock to a respective insert pin of a respective support base; each damper is disposed at the other end of a respective joint, and each damper is able to insert to a respective shaft sleeve of the top cover and retract to the sleeve from the respective shaft sleeve; each lock catch is linked to a respective damper; each shaft sleeve of the top cover is disposed with a button, the button can move along the axis of the shaft sleeve of the top cover to push the damper to move in the sleeve.
An indium phosphide substrate manufacturing method comprising: a step of preparing an indium phosphide substrate (S1 - S3); a step of washing the indium phosphide substrate with sulfuric acid and hydrogen peroxide; characterized in that the manufacturing method further comprises: a step, following said step of washing with sulfuric acid and hydrogen peroxide, of washing the indium phosphide substrate with phosphoric acid. a step of preparing an indium phosphide substrate (S1 - S3); a step of washing the indium phosphide substrate with sulfuric acid and hydrogen peroxide; characterized in that the manufacturing method further comprises: a step, following said step of washing with sulfuric acid and hydrogen peroxide, of washing the indium phosphide substrate with phosphoric acid.
An apparatus, comprising: a nacelle (400, 1100) and a chine (402, 1102) coupled to the nacelle (400, 1100), the chine oriented along a fore-aft direction (408, 1108), the chine translatable relative to the nacelle along the fore-aft direction; an actuation mechanism operatively coupled to the chine, the actuation mechanism configured to translate the chine along the fore-aft direction; and a controller operatively coupled to the actuation mechanism, the controller configured to control the actuation mechanism. a nacelle (400, 1100) and a chine (402, 1102) coupled to the nacelle (400, 1100), the chine oriented along a fore-aft direction (408, 1108), the chine translatable relative to the nacelle along the fore-aft direction; an actuation mechanism operatively coupled to the chine, the actuation mechanism configured to translate the chine along the fore-aft direction; and a controller operatively coupled to the actuation mechanism, the controller configured to control the actuation mechanism.
A method for producing urea granules having low moisture absorption capacity, with a urea granulator, having a granule flow inlet side and oppositely a granule flow outlet side, forming an axis alongside which urea granules from a urea solution and a urea / ammonium salt-stream are formed, whereby ∘ the urea solution and the urea / ammonium salt-stream are sprayed as a mixture or separately via a feed system unit via various nozzles into the urea granulator onto a seed material characterized in that ∘ the highest amount of the urea / ammonium salt-stream is sprayed into the urea granulator art the granule flow inlet side and the amount of the urea / ammonium salt-stream is decreased alongside the axis of the urea granulator from the granule flow inlet side to the granule flow outlet side, whereby the urea / ammonia salt-stream comprises a urea: ammonium salt ratio between 4 and 20, a water content of 0 - 10 % by weight and optionally up to 1 - 5 % by weight additives, and ∘ the highest amount of the urea solution is sprayed into the urea granulator at the granule flow outlet side and the amount of the urea solution is decreased alongside the axis of the urea granulator from the granule flow outlet side to the granule flow inlet side. ∘ the urea solution and the urea / ammonium salt-stream are sprayed as a mixture or separately via a feed system unit via various nozzles into the urea granulator onto a seed material characterized in that ∘ the highest amount of the urea / ammonium salt-stream is sprayed into the urea granulator art the granule flow inlet side and the amount of the urea / ammonium salt-stream is decreased alongside the axis of the urea granulator from the granule flow inlet side to the granule flow outlet side, whereby the urea / ammonia salt-stream comprises a urea: ammonium salt ratio between 4 and 20, a water content of 0 - 10 % by weight and optionally up to 1 - 5 % by weight additives, and ∘ the highest amount of the urea solution is sprayed into the urea granulator at the granule flow outlet side and the amount of the urea solution is decreased alongside the axis of the urea granulator from the granule flow outlet side to the granule flow inlet side.
A method for determining a condition in a fetus of a patient using a maternal blood sample, the method comprising: enriching said sample from said patient for fetal cells; obtaining genomic DNA (gDNA) from said enriched cells; amplifying the gDNA obtained from the enriched cells, wherein said amplifying comprises: randomly fragmenting the gDNA to form gDNA fragments; ligating adapters to both ends of the gDNA fragments; randomly immobilizing the gDNA fragments to an inside surface of a flow cell; initiating solid phase bridge amplification of the immobilized gDNA fragments and repeating the bridge amplification to generate several million clusters of immobilized double-stranded DNA (dsDNA); detecting said condition by high throughput sequencing of the bridge amplified dsDNA, wherein said high-throughput sequencing comprises sequencing-by-synthesis, comprising: adding labeled reversible terminators, primers, and DNA polymerase enzyme to the flow cell; removing unincorporated labeled terminators; visualizing labeled nucleotides in the flow cell; analyzing and identifying a first incorporated base at each cluster; removing the 3' terminus and fluorescence from each incorporated base; and repeating sequencing steps as necessary to sequence the entire gDNA fragment; wherein said condition is fetal aneuploidy. enriching said sample from said patient for fetal cells; obtaining genomic DNA (gDNA) from said enriched cells; amplifying the gDNA obtained from the enriched cells, wherein said amplifying comprises: randomly fragmenting the gDNA to form gDNA fragments; ligating adapters to both ends of the gDNA fragments; randomly immobilizing the gDNA fragments to an inside surface of a flow cell; randomly fragmenting the gDNA to form gDNA fragments; ligating adapters to both ends of the gDNA fragments; randomly immobilizing the gDNA fragments to an inside surface of a flow cell; initiating solid phase bridge amplification of the immobilized gDNA fragments and repeating the bridge amplification to generate several million clusters of immobilized double-stranded DNA (dsDNA); detecting said condition by high throughput sequencing of the bridge amplified dsDNA, wherein said high-throughput sequencing comprises sequencing-by-synthesis, comprising: adding labeled reversible terminators, primers, and DNA polymerase enzyme to the flow cell; removing unincorporated labeled terminators; visualizing labeled nucleotides in the flow cell; analyzing and identifying a first incorporated base at each cluster; removing the 3' terminus and fluorescence from each incorporated base; and repeating sequencing steps as necessary to sequence the entire gDNA fragment; adding labeled reversible terminators, primers, and DNA polymerase enzyme to the flow cell; removing unincorporated labeled terminators; visualizing labeled nucleotides in the flow cell; analyzing and identifying a first incorporated base at each cluster; removing the 3' terminus and fluorescence from each incorporated base; and repeating sequencing steps as necessary to sequence the entire gDNA fragment; wherein said condition is fetal aneuploidy.
A method for providing a Law Enforcement Agency, LEA, with retention or interception data related to a target user, comprising the steps of, at a data retention source node or at an interception control element of a telecommunications network: - inspecting traffic packets involving the target user; - generating a plurality of usage data records based on the inspected traffic packets, each usage data record comprising information relating to a service class and to a respective communications stack layer; - for each communications session involving a plurality of different communications stack layers, providing said plurality of usage data records with a same correlation identity number, which is a unique Communications Identity Number, CIN, that is identical for all the usage data records of the communications session that relate to a plurality or all of the communications stack layers, for correlating the data at said different communications stack layers; - sending said usage data records comprising the correlation identity number to the LEA. - inspecting traffic packets involving the target user; - generating a plurality of usage data records based on the inspected traffic packets, each usage data record comprising information relating to a service class and to a respective communications stack layer; - for each communications session involving a plurality of different communications stack layers, providing said plurality of usage data records with a same correlation identity number, which is a unique Communications Identity Number, CIN, that is identical for all the usage data records of the communications session that relate to a plurality or all of the communications stack layers, for correlating the data at said different communications stack layers; - sending said usage data records comprising the correlation identity number to the LEA.
Image processing system, comprising: an input interface configured to receive an input image based on projection data (π) collected in a limited angle scan along different projection directions by an imaging apparatus; a directional analyzer configured to compute a direction component for at least part of the voxels in the input image and produce a directional image in which computed directional components at respective positions in the input inage are encoded; a directional discriminator configured to check, for each considered voxel, whether its computed directional component is along at least one of the projection directions or not, thereby discriminating border regions; and a confidence map constructor configured to construct a confidence map based on the discriminated border regions. an input interface configured to receive an input image based on projection data (π) collected in a limited angle scan along different projection directions by an imaging apparatus; a directional analyzer configured to compute a direction component for at least part of the voxels in the input image and produce a directional image in which computed directional components at respective positions in the input inage are encoded; a directional discriminator configured to check, for each considered voxel, whether its computed directional component is along at least one of the projection directions or not, thereby discriminating border regions; and a confidence map constructor configured to construct a confidence map based on the discriminated border regions.
A computer-implemented method, comprising: accessing a kernel source written in a shading language; selecting a compiler from a plurality of compilers based on the shading language; generating a kernel instruction set architecture and an associated runtime binding based on the kernel source and the selected compiler, wherein the associated runtime binding indicates a manner of passing values for arguments to the kernel instruction set architecture using identified registers, an identified memory address, a number of threads to dispatch, and state programming to execute the kernel instruction set architecture; and executing a user mode driver, UMD, (1450, 1600) to adapt state information of a graphics processing unit, GPU, to configure the GPU based on the runtime binding, wherein the state information comprises one or more of: resource binding mode, resource type information, single instruction multiple data, SIMD, mode, number of threads to dispatch and how to break a thread size, and/or variables. accessing a kernel source written in a shading language; selecting a compiler from a plurality of compilers based on the shading language; generating a kernel instruction set architecture and an associated runtime binding based on the kernel source and the selected compiler, wherein the associated runtime binding indicates a manner of passing values for arguments to the kernel instruction set architecture using identified registers, an identified memory address, a number of threads to dispatch, and state programming to execute the kernel instruction set architecture; and executing a user mode driver, UMD, (1450, 1600) to adapt state information of a graphics processing unit, GPU, to configure the GPU based on the runtime binding, wherein the state information comprises one or more of: resource binding mode, resource type information, single instruction multiple data, SIMD, mode, number of threads to dispatch and how to break a thread size, and/or variables.
A thermoplastic polyurethane comprising the reaction product of an aliphatic polyisocyanate, an alkylene substituted spirocyclic compound comprising an alkylene substituted saturated spirocyclic-diol, an alkylene substituted saturated spirocyclic-diamine, or a combination thereof, and a polycaprolactone polyester polyol, wherein the alkylene substituted spirocyclic compound contains two rings containing from 5 to 7 atoms per ring, and where each ring is substituted with an alkylene group that contains from 1 to 4 carbon atoms, terminated by a hydroxy group or an amine where the amine is a primary or secondary amine.
A method for coating a ceramic matrix composite part with an environmental barrier (5; 51; 53), the method comprising the following steps: a) applying, to the surface (S; S1) of the part, a coating composition comprising a first powder of a rare earth silicate and a second powder comprising boron, the coating composition having a ratio R = [mass of the second powder]/[mass of the first powder] of between 0.1% and 5%, and b) sintering the first and second powders in order to obtain the environmental barrier on the part. a) applying, to the surface (S; S1) of the part, a coating composition comprising a first powder of a rare earth silicate and a second powder comprising boron, the coating composition having a ratio R = [mass of the second powder]/[mass of the first powder] of between 0.1% and 5%, and b) sintering the first and second powders in order to obtain the environmental barrier on the part.