mhurhangee/patent-ind-claim-en huggingface dataset:
A method of authentication for an enclave entity with a second entity, the method comprising: receiving, by one or more processors of a host computing device of the enclave entity, a request and an assertion of identity for the second entity, the assertion including identity information for the second entity, wherein the identity information includes an identity description that classifies the identity of the assertion into an identity type supported by the enclave entity and identifies an authority responsible for handling identities of that identity type; using, by the one or more processors, an assertion verifier of the enclave entity to determine whether the assertion is valid; when the assertion is valid, extracting, by the one or more processors, the identity information; authenticating the second entity using, by the one or more processors, an access control list for the enclave entity to determine whether the identity information meets expectations of the access control list; and when the identity information meets the expectations of the access control list, completing, by the one or more processors, the request. receiving, by one or more processors of a host computing device of the enclave entity, a request and an assertion of identity for the second entity, the assertion including identity information for the second entity, wherein the identity information includes an identity description that classifies the identity of the assertion into an identity type supported by the enclave entity and identifies an authority responsible for handling identities of that identity type; using, by the one or more processors, an assertion verifier of the enclave entity to determine whether the assertion is valid; when the assertion is valid, extracting, by the one or more processors, the identity information; authenticating the second entity using, by the one or more processors, an access control list for the enclave entity to determine whether the identity information meets expectations of the access control list; and when the identity information meets the expectations of the access control list, completing, by the one or more processors, the request.
A method for monitoring a reservoir , comprising: making a first set of electromagnetic and/or galvanic measurements at locations along the Earth's surface; making a first measurement from at least one sensor disposed proximate the reservoir in a wellbore ; determining an initial Earth model from the first set of electromagnetic and/or galvanic measurements and the first sensor measurements, the initial Earth model including spatial distribution of a fluid contact within the reservoir , by inversion processing the measurements from the at least one sensor and the first set of measurements; repeating the sensor measurements and electromagnetic and/or galvanic measurements at selected times; and repeating determining the spatial distribution of the fluid contact from the repeated measurements. making a first set of electromagnetic and/or galvanic measurements at locations along the Earth's surface; making a first measurement from at least one sensor disposed proximate the reservoir in a wellbore ; determining an initial Earth model from the first set of electromagnetic and/or galvanic measurements and the first sensor measurements, the initial Earth model including spatial distribution of a fluid contact within the reservoir , by inversion processing the measurements from the at least one sensor and the first set of measurements; repeating the sensor measurements and electromagnetic and/or galvanic measurements at selected times; and repeating determining the spatial distribution of the fluid contact from the repeated measurements.
A data transmission method, comprising: grouping (S102) N second-type nodes to form a third-type node, N being a positive integer more than or equal to 2; and transmitting (S104) data in a network comprising the second-type nodes, the third-type node and a first-type node, wherein transmitting (S104) data in a network comprising the second-type nodes, the third-type node and a first-type node comprises: performing, by one or more second-type nodes among the N second-type nodes, data transmission with one or more first-type nodes through the third-type node which is in wireless communication with the one or more first-type nodes, wherein the data transmission comprises data sending and/or data receiving, the second-type node comprises a terminal, and grouping (S102) the N second-type nodes to form the third-type node comprises: grouping the N second-type nodes to form the third-type node with a multicarrier capability, wherein the N second-type nodes have capabilities of M 1 , M 2 , ... ..., M N carriers respectively, the third-type node has a capability of less than or equal to M=M 1 +M 2 +... ... +M N carriers, M 1 , M 2 , ... ... , M N are positive integers more than or equal to 1, and M is a positive integer more than or equal to 2. grouping (S102) N second-type nodes to form a third-type node, N being a positive integer more than or equal to 2; and transmitting (S104) data in a network comprising the second-type nodes, the third-type node and a first-type node, wherein transmitting (S104) data in a network comprising the second-type nodes, the third-type node and a first-type node comprises: performing, by one or more second-type nodes among the N second-type nodes, data transmission with one or more first-type nodes through the third-type node which is in wireless communication with the one or more first-type nodes, wherein the data transmission comprises data sending and/or data receiving, the second-type node comprises a terminal, and grouping (S102) the N second-type nodes to form the third-type node comprises: grouping the N second-type nodes to form the third-type node with a multicarrier capability, wherein the N second-type nodes have capabilities of M 1 , M 2 , ... ..., M N carriers respectively, the third-type node has a capability of less than or equal to M=M 1 +M 2 +... ... +M N carriers, M 1 , M 2 , ... ... , M N are positive integers more than or equal to 1, and M is a positive integer more than or equal to 2.
An apparatus for operating on tissue, the apparatus comprising: (a) an end effector ; (b) a shaft assembly , wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises: (i) a distal end, wherein the end effector is positioned at the distal end of the shaft assembly, (ii) a proximal end, and (iii) a first rotatable member , wherein the first rotatable member is fixedly secured to the shaft assembly; and (c) an interface assembly associated with the proximal end of the shaft assembly, wherein the interface assembly comprises: (i) a base characterized in that the base comprises a first section and a second section , and wherein the first section and the second section are operable to pivot toward and away from each other about one or more pivot axes, wherein the one or more pivot axes are perpendicular to the longitudinal axis of the shaft assembly, and wherein the first section of the base comprises a second rotatable member , wherein the first rotatable member and the second rotatable member are operable to rotate one or both of the shaft assembly or the end effector about the longitudinal axis of the shaft assembly. (a) an end effector ; (b) a shaft assembly , wherein the shaft assembly defines a longitudinal axis, wherein the shaft assembly comprises: (i) a distal end, wherein the end effector is positioned at the distal end of the shaft assembly, (ii) a proximal end, and (iii) a first rotatable member , wherein the first rotatable member is fixedly secured to the shaft assembly; and (i) a distal end, wherein the end effector is positioned at the distal end of the shaft assembly, (ii) a proximal end, and (iii) a first rotatable member , (c) an interface assembly associated with the proximal end of the shaft assembly, wherein the interface assembly comprises: (i) a base characterized in that the base comprises a first section and a second section , and wherein the first section and the second section are operable to pivot toward and away from each other about one or more pivot axes, wherein the one or more pivot axes are perpendicular to the longitudinal axis of the shaft assembly, and wherein the first section of the base comprises a second rotatable member , wherein the first rotatable member and the second rotatable member are operable to rotate one or both of the shaft assembly or the end effector about the longitudinal axis of the shaft assembly. (i) a base characterized in that the base comprises a first section and a second section , and wherein the first section and the second section are operable to pivot toward and away from each other about one or more pivot axes, wherein the one or more pivot axes are perpendicular to the longitudinal axis of the shaft assembly, and wherein the first section of the base comprises a second rotatable member , wherein the first rotatable member and the second rotatable member are operable to rotate one or both of the shaft assembly or the end effector about the longitudinal axis of the shaft assembly.
A method , implemented by a user equipment, UE , in a wireless communication system , the method comprising: receiving , from an access node , a slot format indicator, SFI, for a slot in which each symbol is independently configurable as one of multiple possible symbol types, the types including an uplink symbol, a downlink symbol, and a different symbol being neither an uplink symbol nor a downlink symbol, wherein the SFI specifies a number of downlink symbols in the slot and a number of uplink symbols in the slot , and indicates whether or not the slot includes an unspecified number of different symbols; determining the type of each of the symbols in the slot based on the number of uplink symbols and the number of downlink symbols; characterized by receiving further control signaling from the access node ; wherein the further control signaling is indicative of a block size in a number of slots and a repetition factor of the block; and wherein the block size multiplied by the repetition factor identifies a first plurality of slots to which the SFI applies. receiving , from an access node , a slot format indicator, SFI, for a slot in which each symbol is independently configurable as one of multiple possible symbol types, the types including an uplink symbol, a downlink symbol, and a different symbol being neither an uplink symbol nor a downlink symbol, wherein the SFI specifies a number of downlink symbols in the slot and a number of uplink symbols in the slot , and indicates whether or not the slot includes an unspecified number of different symbols; determining the type of each of the symbols in the slot based on the number of uplink symbols and the number of downlink symbols; characterized by receiving further control signaling from the access node ; wherein the further control signaling is indicative of a block size in a number of slots and a repetition factor of the block; and wherein the block size multiplied by the repetition factor identifies a first plurality of slots to which the SFI applies. wherein the further control signaling is indicative of a block size in a number of slots and a repetition factor of the block; and wherein the block size multiplied by the repetition factor identifies a first plurality of slots to which the SFI applies.
A spunbonded nonwoven fabric comprising thermoplastic fibers, wherein the thermoplastic fiber is a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, an apparent single fiber fineness of the conjugate fiber as viewed from the surface of the spunbonded nonwoven fabric is 0.5 dtex or more and 10 dtex or less, when the apparent single fiber fineness of the conjugate fiber is 0.5 dtex or more and less than 2 dtex, an apparent density is 0.50 to 0.70 g/cm 3 , and air permeability satisfies [formula 1] described below, and when the apparent single fiber fineness of the conjugate fiber is 2 dtex or more and 10 dtex or less, the apparent density is 0.50 to 0.80 g/cm 3 , and the air permeability satisfies [formula 2] described below, . 3.8 × 10 4 × [basis weight (g/m 2 )] -2 ≤ [air permeablity (cc/cm 2 ·sec)] ≤ 6.0 × 10 4 × [basis weight (g/m 2 )) -2 , and . 2.2 × 10 4 × [basis weight (g/m 2 )] -2 ≤ [air permeablity (cc/cm 2 ·sec)] ≤ 4.6 × 10 4 × [basis weight (g/m 2 )) -2 , wherein the apparent single fiber fineness of the conjugate fiber, the apparent density of the spunbonded nonwoven fabric and the air permeability of the spunbond nonwoven fabric are measured according to the methods disclosed in the description, and wherein the spunbonded nonwoven fabric is produced by a production method comprising the following steps (a) to (d) sequentially in this order: (a) spinning, from a spinneret, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web, (c) thermally bonding the obtained nonwoven web with a pair of upper and lower flat rolls at a temperature lower by 65 to 95°C than the melting point of the low-melting polymer, and (d) subsequently thermally bonding with the pair of upper and lower flat rolls at a temperature lower by 5 to 60°C than the melting point of the low-melting polymer. (a) spinning, from a spinneret, a conjugate fiber in which a low-melting polymer having a melting point lower by 10 to 140°C than that of a high-melting polymer is provided around the high-melting polymer, (b) stretching the spun conjugate fibers by suction flow using a high-speed suction gas and collecting the fibers on a moving net conveyor to form the collected fibers into a nonwoven web, (c) thermally bonding the obtained nonwoven web with a pair of upper and lower flat rolls at a temperature lower by 65 to 95°C than the melting point of the low-melting polymer, and (d) subsequently thermally bonding with the pair of upper and lower flat rolls at a temperature lower by 5 to 60°C than the melting point of the low-melting polymer.
A method of detecting spurious pixels of a pixel array of an imaging device sensitive to infrared radiation, the method comprising: receiving, by a processing device of the imaging device, an input image ( RAW ) captured by the pixel array ; calculating a score for a plurality of target pixels comprising at least some of the pixels of the input image, the score for each target pixel being generated based on k connected neighboring pixels of the input image selected within a window of H by H pixels around the target pixel, H being an odd integer of 3 or more, and k being an integer of between 2 and 5, each of the pixels of the set formed by the k pixels and the target pixel sharing at least one border or a corner with another pixel of said set, and the values of the k pixels being at respective distances from the value of the target pixel, the k pixels being selected based on the distances of the k pixels and the score for each target pixel being calculated based on the distances of the k selected pixels; and detecting that at least one of the target pixels is a spurious pixel based on the calculated scores. receiving, by a processing device of the imaging device, an input image ( RAW ) captured by the pixel array ; calculating a score for a plurality of target pixels comprising at least some of the pixels of the input image, the score for each target pixel being generated based on k connected neighboring pixels of the input image selected within a window of H by H pixels around the target pixel, H being an odd integer of 3 or more, and k being an integer of between 2 and 5, each of the pixels of the set formed by the k pixels and the target pixel sharing at least one border or a corner with another pixel of said set, and the values of the k pixels being at respective distances from the value of the target pixel, the k pixels being selected based on the distances of the k pixels and the score for each target pixel being calculated based on the distances of the k selected pixels; and detecting that at least one of the target pixels is a spurious pixel based on the calculated scores.
A working machine comprising: a tool support to which a working tool can be detachably attached; a rotatable motor ; a transmission mechanism disposed between the motor and the tool support ; a case in which the transmission mechanism is stored; and a holding tool that is attached so as to protrude from an outer surface of the case and is gripped by a worker wherein the case has an attaching hole to which the holding tool is attached, the attaching hole penetrates the case in plan view intersecting with an axis (A1) that is a rotation center of the tool support , a first opening portion and a second opening portion are formed on both sides of the attaching hole in a center line (A2) direction, characterised in that the holding tool includes a shaft portion to be inserted into the attaching hole , and a tip end of the shaft portion inserted into the attaching hole through the first opening portion is located between a center (B1) in the center line (A2) direction and the second opening portion . a tool support to which a working tool can be detachably attached; a rotatable motor ; a transmission mechanism disposed between the motor and the tool support ; a case in which the transmission mechanism is stored; and a holding tool that is attached so as to protrude from an outer surface of the case and is gripped by a worker wherein the case has an attaching hole to which the holding tool is attached, the attaching hole penetrates the case in plan view intersecting with an axis (A1) that is a rotation center of the tool support , a first opening portion and a second opening portion are formed on both sides of the attaching hole in a center line (A2) direction, characterised in that the holding tool includes a shaft portion to be inserted into the attaching hole , and a tip end of the shaft portion inserted into the attaching hole through the first opening portion is located between a center (B1) in the center line (A2) direction and the second opening portion .
A thin-film optoelectronic module device , comprising: a substrate that has an edge that extends in a first direction (X), an active region (A) and an edge region (B) that is disposed between the edge and the active region (A); a semiconductive photovoltaic layer ; and a conductive back-contact layer that is disposed between the substrate and the semiconductive photovoltaic layer , wherein the conductive back-contact layer is disposed within at least a portion of the active region (A) and the edge region (B), and the conductive back-contact layer comprises: a plurality of isolating back-contact grooves that are aligned in a second direction (Y) and are disposed within the active region (A), wherein the second direction (Y) is at an angle to the first direction (X); and one or more scribe lines that are formed in the first direction (X) by use of a laser before depositing the semiconductive photovoltaic layer on the conductive back-contact layer, wherein the one or more scribe lines are disposed within the edge region (B). a substrate that has an edge that extends in a first direction (X), an active region (A) and an edge region (B) that is disposed between the edge and the active region (A); a semiconductive photovoltaic layer ; and a conductive back-contact layer that is disposed between the substrate and the semiconductive photovoltaic layer , wherein the conductive back-contact layer is disposed within at least a portion of the active region (A) and the edge region (B), and the conductive back-contact layer comprises: a plurality of isolating back-contact grooves that are aligned in a second direction (Y) and are disposed within the active region (A), wherein the second direction (Y) is at an angle to the first direction (X); and one or more scribe lines that are formed in the first direction (X) by use of a laser before depositing the semiconductive photovoltaic layer on the conductive back-contact layer, wherein the one or more scribe lines are disposed within the edge region (B). a plurality of isolating back-contact grooves that are aligned in a second direction (Y) and are disposed within the active region (A), wherein the second direction (Y) is at an angle to the first direction (X); and one or more scribe lines that are formed in the first direction (X) by use of a laser before depositing the semiconductive photovoltaic layer on the conductive back-contact layer, wherein the one or more scribe lines are disposed within the edge region (B).
A fuel cell system comprising: a hydrogen generation system connected to an electrical generation system by a hydrogen line , wherein the electrical generation system comprises a fuel cell , and a gas buffer that stores hydrogen generated by the hydrogen generation system when the hydrogen generated exceeds an amount consumable by the fuel cell to generate electricity, wherein the gas buffer is located away from the hydrogen line , wherein the hydrogen generation system comprises a solid fuel that reacts with an aqueous liquid to generate hydrogen, characterised in that the solid fuel comprises: milled hybrid particles comprising magnesium powder, iron powder and silicon powder, with a nominal particle size of 110 microns, and sodium chloride and potassium chloride; wherein the magnesium powder has a particle size between 152 microns and 422 microns, before milling; wherein the iron powder has a D10 greater than or equal to 4 microns, a D50 between 10 and 25 microns and a D90 less than or equal to 45 microns, before milling; and wherein the silicon powder has a particle size less than 44 microns, before milling. a hydrogen generation system connected to an electrical generation system by a hydrogen line , wherein the electrical generation system comprises a fuel cell , and a gas buffer that stores hydrogen generated by the hydrogen generation system when the hydrogen generated exceeds an amount consumable by the fuel cell to generate electricity, wherein the gas buffer is located away from the hydrogen line , wherein the hydrogen generation system comprises a solid fuel that reacts with an aqueous liquid to generate hydrogen, characterised in that the solid fuel comprises: milled hybrid particles comprising magnesium powder, iron powder and silicon powder, with a nominal particle size of 110 microns, and sodium chloride and potassium chloride; wherein the magnesium powder has a particle size between 152 microns and 422 microns, before milling; wherein the iron powder has a D10 greater than or equal to 4 microns, a D50 between 10 and 25 microns and a D90 less than or equal to 45 microns, before milling; and wherein the silicon powder has a particle size less than 44 microns, before milling. milled hybrid particles comprising magnesium powder, iron powder and silicon powder, with a nominal particle size of 110 microns, and sodium chloride and potassium chloride; wherein the magnesium powder has a particle size between 152 microns and 422 microns, before milling; wherein the iron powder has a D10 greater than or equal to 4 microns, a D50 between 10 and 25 microns and a D90 less than or equal to 45 microns, before milling; and wherein the silicon powder has a particle size less than 44 microns, before milling.