mhurhangee/ep-ind-claims huggingface dataset:
A method performed by an embedded universal integrated circuit card, eUICC, included in a terminal having an application authorized by an operator in a wireless communication system, the method comprising: receiving, from a local profile assistant, LPA, installed in the terminal, a first function call associated with a challenge of the eUICC, the first function call being received based on a first request from the application authorized by the operator; transmitting, to the LPA, the challenge generated based on the first function call; receiving, from the LPA, a second function call associated with a signature of a server, wherein the second function call includes the signature of the server generated for the challenge and is received based on a second request from the application authorized by the operator; and verifying the signature of the server. receiving, from a local profile assistant, LPA, installed in the terminal, a first function call associated with a challenge of the eUICC, the first function call being received based on a first request from the application authorized by the operator; transmitting, to the LPA, the challenge generated based on the first function call; receiving, from the LPA, a second function call associated with a signature of a server, wherein the second function call includes the signature of the server generated for the challenge and is received based on a second request from the application authorized by the operator; and verifying the signature of the server.
A curable prepreg ply comprising: a layer of resin-impregnated reinforcement fibers having a top surface and a bottom surface; two resin films applied to the top surface and the bottom surface of said layer, respectively, wherein said layer of resin-impregnated reinforcement fibers comprises reinforcement fibers impregnated with a first curable resin matrix, and said resin films comprises a second curable resin matrix, said second curable resin matrix comprises at least one thermoset resin, and a mixture of two different types of particles: (i) insoluble toughening particles, and (ii) partially soluble or swellable toughening particles, and said first curable resin matrix comprises at least one thermoset resin, but is void of said insoluble toughening particles and said partially soluble or swellable toughening particles, and wherein said insoluble toughening particles are insoluble in the second resin matrix upon curing of the prepreg ply, and said partially soluble or swellable toughening particles are partially soluble or swellable in the second resin matrix upon curing of the prepreg ply, but remain as discreet particles after curing. a layer of resin-impregnated reinforcement fibers having a top surface and a bottom surface; two resin films applied to the top surface and the bottom surface of said layer, respectively, wherein said layer of resin-impregnated reinforcement fibers comprises reinforcement fibers impregnated with a first curable resin matrix, and said resin films comprises a second curable resin matrix, said second curable resin matrix comprises at least one thermoset resin, and a mixture of two different types of particles: (i) insoluble toughening particles, and (ii) partially soluble or swellable toughening particles, and said first curable resin matrix comprises at least one thermoset resin, but is void of said insoluble toughening particles and said partially soluble or swellable toughening particles, and wherein said insoluble toughening particles are insoluble in the second resin matrix upon curing of the prepreg ply, and said partially soluble or swellable toughening particles are partially soluble or swellable in the second resin matrix upon curing of the prepreg ply, but remain as discreet particles after curing.
A thermoelectric engine for heating and cooling a surface comprising: a top circuit and bottom circuit; a thermoelectric device electrically connected between said top and bottom circuits (12, 14); said top and bottom circuits (12, 14) include a plurality of spaced apart conductors bonded to a base layer, wherein said base layer includes a plurality of elongated slots spaced apart by a bridge of base layer material for allowing said top and bottom circuits (12, 14) to flex between said conductors; wherein said thermoelectric device includes a plurality of alternating N-elements and P-elements, characterized in that the plurality of alternating N-elements and P-elements are spaced apart by a flexible insulator to allow said thermoelectric device to flex between said top and bottom circuits (12, 14). a top circuit and bottom circuit; a thermoelectric device electrically connected between said top and bottom circuits (12, 14); said top and bottom circuits (12, 14) include a plurality of spaced apart conductors bonded to a base layer, wherein said base layer includes a plurality of elongated slots spaced apart by a bridge of base layer material for allowing said top and bottom circuits (12, 14) to flex between said conductors; wherein said thermoelectric device includes a plurality of alternating N-elements and P-elements, characterized in that the plurality of alternating N-elements and P-elements are spaced apart by a flexible insulator to allow said thermoelectric device to flex between said top and bottom circuits (12, 14).
A method for performing computations near memory, the method comprising: receiving, at a storage device, first data associated with a first data set, the first data having a first format; receiving, at a processor core of the storage device, a request to perform a function on the first data, the function comprising a first operation and a second operation; performing, by a first processor-core acceleration engine of the storage device, the first operation on the first data, based on first processor-core custom instructions, to generate first result data; and performing, by a first extra-processor-core circuit of the storage device, the second operation on the first result data, based on the first processor-core custom instructions, characterised in that: the first data comprises first page data corresponding to a first database page; the first operation comprises a decoding operation for determining the first format based on the first page data or a page rule-checking operation; the first result data comprises column data extracted, by the first processor-core acceleration engine, from the first page data; and the first extra-processor-core circuit comprises a scan engine. receiving, at a storage device, first data associated with a first data set, the first data having a first format; receiving, at a processor core of the storage device, a request to perform a function on the first data, the function comprising a first operation and a second operation; performing, by a first processor-core acceleration engine of the storage device, the first operation on the first data, based on first processor-core custom instructions, to generate first result data; and performing, by a first extra-processor-core circuit of the storage device, the second operation on the first result data, based on the first processor-core custom instructions, characterised in that: the first data comprises first page data corresponding to a first database page; the first operation comprises a decoding operation for determining the first format based on the first page data or a page rule-checking operation; the first result data comprises column data extracted, by the first processor-core acceleration engine, from the first page data; and the first extra-processor-core circuit comprises a scan engine. the first data comprises first page data corresponding to a first database page; the first operation comprises a decoding operation for determining the first format based on the first page data or a page rule-checking operation; the first result data comprises column data extracted, by the first processor-core acceleration engine, from the first page data; and the first extra-processor-core circuit comprises a scan engine.
Method for shaping clay or loam, comprising of: - depositing a chunk of clay or loam (1, 202) on a horizontal carrier surface (101, 201), wherein the horizontal carrier surface (101, 201) extends parallel to a first direction; - compressing the chunk of clay or loam (1, 202) in a second direction after it has been deposited, wherein - the second direction lies perpendicularly of the first direction; - the compressing of the chunk of clay or loam (1, 202) comprises of pushing in the second direction against the chunk of clay or loam (1, 202) with a first surface of a mould (102, 200); - a second surface (108, 207) of the mould (102, 200) lying opposite the horizontal carrier surface (101, 201) is moved together with the first surface in the second direction during the compression; and - pressing creases, which are formed by the compression in a surface of the chunk of clay or loam (1, 202) facing toward the second surface (108, 207), against the second surface (108, 207) by means of the compression, wherein the first surface and the second surface (108, 207) are mutually adjacent surfaces of an object with fixed relative vertical position and relative orientation, and the distance between the second surface (108, 207) and the horizontal carrier surface (101, 201) is held constant during the compression. - depositing a chunk of clay or loam (1, 202) on a horizontal carrier surface (101, 201), wherein the horizontal carrier surface (101, 201) extends parallel to a first direction; - compressing the chunk of clay or loam (1, 202) in a second direction after it has been deposited, wherein - the second direction lies perpendicularly of the first direction; - the compressing of the chunk of clay or loam (1, 202) comprises of pushing in the second direction against the chunk of clay or loam (1, 202) with a first surface of a mould (102, 200); - a second surface (108, 207) of the mould (102, 200) lying opposite the horizontal carrier surface (101, 201) is moved together with the first surface in the second direction during the compression; and - pressing creases, which are formed by the compression in a surface of the chunk of clay or loam (1, 202) facing toward the second surface (108, 207), against the second surface (108, 207) by means of the compression,
Method for producing a p-n junction in a thin-film photovoltaic cell, said method comprising a deposition step intended to form a stack of layers, during which are successively produced: a layer of precursors of a photovoltaic material of the p-or n-type, said precursors comprising metal precursors of Cu, Zn, and Sn or of Cu, Ga and In, as well as selenium and/or sulphur, a barrier layer and a precursor layer of a semiconductor material of the n- or p-type, constituted of indium or zinc, said method being characterised in that the deposition step is followed by a single annealing step performed with a supply of S and/or Se, this annealing step leading to the formation of an absorbent layer of the p- or n-type from the layer of precursors of a photovoltaic material and a buffer layer of the n- or p- type, from the indium or zinc layer, as well as a p-n junction at the interface between said layers, the barrier layer preventing a chemical diffusion and an oxidation at the interface between the absorbent layer and the buffer layer during this annealing step, the barrier layer being adapted to make it possible for the passage of charge carriers by tunnel effect, said annealing step being performed at a temperature of between 400 °C and 650 °C, with temperature increase ramp-rates of between 1 °C/s and 15 °C/s. a layer of precursors of a photovoltaic material of the p-or n-type, said precursors comprising metal precursors of Cu, Zn, and Sn or of Cu, Ga and In, as well as selenium and/or sulphur, a barrier layer and a precursor layer of a semiconductor material of the n- or p-type, constituted of indium or zinc, said method being characterised in that the deposition step is followed by a single annealing step performed with a supply of S and/or Se, this annealing step leading to the formation of an absorbent layer of the p- or n-type from the layer of precursors of a photovoltaic material and a buffer layer of the n- or p- type, from the indium or zinc layer, as well as a p-n junction at the interface between said layers, the barrier layer preventing a chemical diffusion and an oxidation at the interface between the absorbent layer and the buffer layer during this annealing step, the barrier layer being adapted to make it possible for the passage of charge carriers by tunnel effect, said annealing step being performed at a temperature of between 400 °C and 650 °C, with temperature increase ramp-rates of between 1 °C/s and 15 °C/s.
A transgenic animal model for arthritis obtained from a non-human transgenic fertilized egg comprising an expression construct comprising (a) a nucleotide sequence encoding HIF-2α (hypoxia-inducible factor 2α); and (b) a transcription-regulating sequence operatively linked to the nucleotide, wherein the transcription-regulating sequence comprises a type II collagenase promoter, a type II collagenase enhancer, and an intron sequence between the promoter and the nucleotide sequence encoding HIF-2α, wherein the transgenic fertilized egg has been deposited at the Korea Research Institute of Bioscience and Biotechnology (KRIBB) on May 20, 2010 under accession number KCTC 11701BP, wherein the HIF-2α in the transgenic animal for arthritis increases the expression of cartilage degeneration-inducing factor.
Knife arrangement for use in for example a slicer apparatus for slicing meat, and in particular fish meat, wherein the knife arrangement comprises two reciprocating knives (40, 40'), each knife (40, 40') has a blade with a sharp edge and an opposite edge, and blade material between said edges, characterised in that adjacent a first end of each knife (40, 40') an engagement member is arranged, which engagement member protrudes perpendicular to the plane of the blade (40, 40') and where in use the engagement members are arranged in the same end of the knives and wherein the blades of the two knives (40, 40') are arranged adjacent each other, with their sharp edges oriented in the same direction, and where the engagement member on either blade protrudes in opposite directions relative to the blade's plane, but substantially parallel to a common axis.
An apparatus comprising: protocol logic to support a plurality of interconnect protocols; and a physical interface (625, 630) to couple to another component over a data channel, the physical interface (625, 630) comprising: a first set of pins to couple to a set of data signal wires (DATA) of the data channel, wherein data is to be sent on the set of data signal wires (DATA) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, wherein the valid signal is to be sent on the valid wires in alignment with the data sent on the set of data signal wires, and a beginning of the valid signal is to be sent a time period prior to a beginning of the data. protocol logic to support a plurality of interconnect protocols; and a physical interface (625, 630) to couple to another component over a data channel, the physical interface (625, 630) comprising: a first set of pins to couple to a set of data signal wires (DATA) of the data channel, wherein data is to be sent on the set of data signal wires (DATA) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, a first set of pins to couple to a set of data signal wires (DATA) of the data channel, wherein data is to be sent on the set of data signal wires (DATA) characterized in that the physical interface further comprising; a second set of pins to couple to a set of valid wires (VALID0, VALID 1) of the data channel, wherein a valid signal is to be sent on the set of valid wires (VALID0, VALID1) to indicate that data is sent on the set of data signal wires; and a third set of pins to couple to a set of protocol identifier wires (STREAM) of the data channel, wherein a protocol identifier value is to be sent on the set of protocol identifier wires (STREAM) to identify that the data is according to a particular one of the plurality of interconnect protocols, wherein the valid signal is to be sent on the valid wires in alignment with the data sent on the set of data signal wires, and a beginning of the valid signal is to be sent a time period prior to a beginning of the data.
A positive electrode active material powder for lithium-ion batteries, comprising lithium transition metal-based oxide particles, said particles comprising a core and a surface layer, said surface layer being on top of said core, said particle comprising the elements: Li, M' and oxygen, wherein M' has a formula: M'=Ni z Mn y Co x A k, wherein A is a dopant, 0.80≤z≤0.90, 0.05≤y≤0.20, 0.05≤x≤0.20, x+y+z+k=1, and 0≤k≤0.01, said positive electrode active material powder having a median particle size D50 ranging from 5μm to 15μm and a surface layer thickness ranging from 10nm to 200nm, said surface layer comprising sulfate ion in a content superior or equal to 6.78 · z - 4.83 wt% and inferior or equal to 6.78 · z - 4.33 wt% with respect to the total weight of the positive electrode active material, wherein the thickness of the surface layer corresponds to a minimal distance D defined as: D in nm = L S 1 − L S 2, wherein L S1 is a first point location at the center of a particle, L S2 is a second point location in a line defined between said first point location and a geometric center of said particle, wherein a content of S measured by TEM-EDS at the second point location L S2 is superior or equal to 0at% and inferior or equal to 5.0% of a content of S measured at the first point location, said second content of S (S 2) being defined as: S 2 in at % = S 3 ± 0.1 at %, S 3 being a content of S (in at%) at a third point location ( LS 3) in said line, said third point being located at any location between the geometric center of said particle and the second point location L S2, wherein the median particle size D50 is measured according to the method in the description under the heading 'D) PSD measurement'. Li, M' and oxygen, wherein M' has a formula: M'=Ni z Mn y Co x A k, wherein A is a dopant, 0.80≤z≤0.90, 0.05≤y≤0.20, 0.05≤x≤0.20, x+y+z+k=1, and 0≤k≤0.01, said positive electrode active material powder having a median particle size D50 ranging from 5μm to 15μm and a surface layer thickness ranging from 10nm to 200nm, said surface layer comprising sulfate ion in a content superior or equal to 6.78 · z - 4.83 wt% and inferior or equal to 6.78 · z - 4.33 wt% with respect to the total weight of the positive electrode active material, wherein the thickness of the surface layer corresponds to a minimal distance D defined as: D in nm = L S 1 − L S 2, wherein L S1 is a first point location at the center of a particle, L S2 is a second point location in a line defined between said first point location and a geometric center of said particle, wherein a content of S measured by TEM-EDS at the second point location L S2 is superior or equal to 0at% and inferior or equal to 5.0% of a content of S measured at the first point location, said second content of S (S 2) being defined as: S 2 in at % = S 3 ± 0.1 at %, S 3 being a content of S (in at%) at a third point location ( LS 3) in said line, said third point being located at any location between the geometric center of said particle and the second point location L S2, wherein the median particle size D50 is measured according to the method in the description under the heading 'D) PSD measurement'.
Method for the augmented display of at least one additional information (Z1 to Zx) superimposed on an image (Bd, Br), wherein the image (Bd, Br) is a digital image (Bd) of a real vehicle environment lying ahead or an image (Br) of a real vehicle environment lying in the field of view of a user, wherein the image (Bd, Br) forms a background (H, H(Br)) of an output unit, wherein several items of additional information (Z1 to Zx) to be displayed are combined into at least one group (G1 to G3) and output as a group information superimposed on the image (Bd, Br), wherein real objects (O1 to Ox) belong to the items of additional information (Z1 to Zx), characterised in that items of additional information (Z1 to Z4) to be displayed, the associated real objects (O1 to O4) of which lie ahead in the vehicle environment and are currently not displayed in the image (Bd, Br) but are to be displayed in the future, are combined in a first group and output as first group information together with currently to be displayed items of additional information, the associated real objects (O5 to O8) of which currently lie in the vehicle environment and are currently displayed in the image (Bd, Br).
An ophthalmic lens comprising a composite substrate comprising: - A matrix obtained by polymerization of at least one allyl or non-allyl monomer or oligomer in presence of a catalyst for initiating the polymerization of said monomer or oligomer, and - Nanoparticles containing at least one light absorbing additive, said nanoparticles being dispersed in said matrix wherein: - The nanoparticles encapsulate a light-absorbing additive, - The light-absorbing additive is not a photochromic dye. - A matrix obtained by polymerization of at least one allyl or non-allyl monomer or oligomer in presence of a catalyst for initiating the polymerization of said monomer or oligomer, and - Nanoparticles containing at least one light absorbing additive, said nanoparticles being dispersed in said matrix wherein: - The nanoparticles encapsulate a light-absorbing additive, - The light-absorbing additive is not a photochromic dye.