mhurhangee/patent-ind-claim-en huggingface dataset:
A user equipment, UE, for a 3 rd generation partnership project, 3GPP,-based wireless communication system having a plurality of Bandwidth Parts, BWPs, in a cell, the UE comprising: a processor; and a communication module, wherein the processor is configured to: receive downlink control information, DCI, for scheduling a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size N BWP1 of a first BWP; and based on the RIV of the DCI, transmit or receive the physical shared channel on a contiguous resource block, RB, set within a second BWP with a size N BWP2 , wherein, when N BWP2 > N BWP1 , the RIV corresponds to a starting RB index S and a length L of the contiguous RB set within the second BWP as follows, by using a scaling factor K: - S: an element of {0, K, 2*K, ..., (N BWP1 -1)*K}, and - L: an element of {K, 2*K, 3*K, ..., N BWP1 *K}, where the scaling factor K is determined depending on (N BWP2 /N BWP1 ), within a set of values {2"} where n represents non-negative integers starting from 0. a processor; and a communication module, wherein the processor is configured to: receive downlink control information, DCI, for scheduling a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size N BWP1 of a first BWP; and based on the RIV of the DCI, transmit or receive the physical shared channel on a contiguous resource block, RB, set within a second BWP with a size N BWP2 , wherein, when N BWP2 > N BWP1 , the RIV corresponds to a starting RB index S and a length L of the contiguous RB set within the second BWP as follows, by using a scaling factor K: - S: an element of {0, K, 2*K, ..., (N BWP1 -1)*K}, and - L: an element of {K, 2*K, 3*K, ..., N BWP1 *K}, where the scaling factor K is determined depending on (N BWP2 /N BWP1 ), within a set of values {2"} where n represents non-negative integers starting from 0. receive downlink control information, DCI, for scheduling a physical shared channel, wherein the DCI includes a resource indication value, RIV, defined with reference to a size N BWP1 of a first BWP; and based on the RIV of the DCI, transmit or receive the physical shared channel on a contiguous resource block, RB, set within a second BWP with a size N BWP2 , wherein, when N BWP2 > N BWP1 , the RIV corresponds to a starting RB index S and a length L of the contiguous RB set within the second BWP as follows, by using a scaling factor K: - S: an element of {0, K, 2*K, ..., (N BWP1 -1)*K}, and - L: an element of {K, 2*K, 3*K, ..., N BWP1 *K}, where - S: an element of {0, K, 2*K, ..., (N BWP1 -1)*K}, and - L: an element of {K, 2*K, 3*K, ..., N BWP1 *K}, where the scaling factor K is determined depending on (N BWP2 /N BWP1 ), within a set of values {2"} where n represents non-negative integers starting from 0.
A submerged power generating system comprising: a power generating apparatus comprising a turbine having a rotor and at least one blade supported on the rotor, and a generator; a support structure ; and an inductive auxiliary transformer , and in which the inductive transformer comprises a primary coil in communication with the support structure , and a secondary coil ; characterised in that , the inductive auxiliary transformer is arranged in use to transmit power via an export cable to the power generation system , and the secondary coil is in communication with the power generating apparatus; and the power generating system further comprises a clamp operable to move between a closed configuration and an open configuration, by supplying power to the clamp via the inductive transformer from the shore via the export cable , to detachably connect the power generating apparatus to the support structure , and in which the inductive auxiliary transformer is arranged in use to transmit power to operate the clamp . a power generating apparatus comprising a turbine having a rotor and at least one blade supported on the rotor, and a generator; a support structure ; and an inductive auxiliary transformer , and in which the inductive transformer comprises a primary coil in communication with the support structure , and a secondary coil ; characterised in that , the inductive auxiliary transformer is arranged in use to transmit power via an export cable to the power generation system , and the secondary coil is in communication with the power generating apparatus; and the power generating system further comprises a clamp operable to move between a closed configuration and an open configuration, by supplying power to the clamp via the inductive transformer from the shore via the export cable , to detachably connect the power generating apparatus to the support structure , and in which the inductive auxiliary transformer is arranged in use to transmit power to operate the clamp .
A MEMS sound transducer for generating and/or detecting sound waves including a support , which has a cavity wall , which at least partially delimits a cavity of the MEMS sound transducer , and including at least one cantilever arm element , which has a base section fixedly connected to the support and a flexible deflection section projecting beyond the cavity wall , wherein the deflection section has a base end facing the cavity wall and a free end deflectable relative to the support in the direction of a reciprocation axis (H) of the MEMS sound transducer, the base end of the deflection section has a curved first contour in a sound transducer top view and the cavity wall has a curved second contour corresponding to the first contour of the deflection section , in the sound transducer top view, characterized in that the second contour of the cavity wall has multiple curvature sections with mutually different curvatures , in the sound transducer top view. including a support , which has a cavity wall , which at least partially delimits a cavity of the MEMS sound transducer , and including at least one cantilever arm element , which has a base section fixedly connected to the support and a flexible deflection section projecting beyond the cavity wall , wherein the deflection section has a base end facing the cavity wall and a free end deflectable relative to the support in the direction of a reciprocation axis (H) of the MEMS sound transducer, the base end of the deflection section has a curved first contour in a sound transducer top view and the cavity wall has a curved second contour corresponding to the first contour of the deflection section , in the sound transducer top view, characterized in that the second contour of the cavity wall has multiple curvature sections with mutually different curvatures , in the sound transducer top view.
A magnetic latching relay capable of accurately positioning a magnetic circuit, comprising a magnetic circuit portion and a base , the magnetic circuit portion comprising a yoke , an iron core , an armature, and a bobbin , wherein the iron core is inserted into a through-hole of the bobbin , and the yoke comprises two yokes, and one side of each of the two yokes is connected to the iron core respectively at the both ends of the through-hole of the bobbin , and the armature is fitted between the other side of each of the two yokes , the magnetic circuit portion is mounted on the base , with the axis of the through-hole of the bobbin in a horizontal manner; in at least one of the two yokes , a positioning convex portion is further provided on the outward face of the side of the yoke , the magnetic latching relay being characterised in that positioning grooves are formed in at least one side wall to be engaged with the positioning convex portion (911 1)of the yoke, to realize the positioning of the magnetic circuit portions on the base in the horizontal direction perpendicular to the axis of the bobbin through hole . the iron core is inserted into a through-hole of the bobbin , and the yoke comprises two yokes, and one side of each of the two yokes is connected to the iron core respectively at the both ends of the through-hole of the bobbin , and the armature is fitted between the other side of each of the two yokes , the magnetic circuit portion is mounted on the base , with the axis of the through-hole of the bobbin in a horizontal manner; in at least one of the two yokes , a positioning convex portion is further provided on the outward face of the side of the yoke , the magnetic latching relay being characterised in that positioning grooves are formed in at least one side wall to be engaged with the positioning convex portion (911 1)of the yoke, to realize the positioning of the magnetic circuit portions on the base in the horizontal direction perpendicular to the axis of the bobbin through hole .
An embedded smart card comprising: a processor ; and a module coupled to the processor , the module configured to: receive a profile status change command from a subscription manager ; store response parameters associated with the profile status change command, wherein the response parameters correspond to parameters for addressing a transport security protocol for sending a notification to the subscription manager ; change a status of a targeted profile upon execution of the profile status change command; reset the embedded smart card upon receiving a card reset request from a device in response to changing the status of the targeted profile; and send a notification to the subscription manager using the response parameters after resetting the embedded smart card . a processor ; and a module coupled to the processor , the module configured to: receive a profile status change command from a subscription manager ; store response parameters associated with the profile status change command, wherein the response parameters correspond to parameters for addressing a transport security protocol for sending a notification to the subscription manager ; change a status of a targeted profile upon execution of the profile status change command; reset the embedded smart card upon receiving a card reset request from a device in response to changing the status of the targeted profile; and send a notification to the subscription manager using the response parameters after resetting the embedded smart card . receive a profile status change command from a subscription manager ; store response parameters associated with the profile status change command, wherein the response parameters correspond to parameters for addressing a transport security protocol for sending a notification to the subscription manager ; change a status of a targeted profile upon execution of the profile status change command; reset the embedded smart card upon receiving a card reset request from a device in response to changing the status of the targeted profile; and send a notification to the subscription manager using the response parameters after resetting the embedded smart card .
A solar cell module comprising: an upper substrate ; a lower substrate opposite the upper substrate ; a plurality of solar cells positioned between the upper substrate and the lower substrate , wherein the plurality of solar cells are connected to one another through a wiring member to form strings ; a passivation layer positioned between the upper substrate and the plurality of solar cells and between the lower substrate and the plurality of solar cells and configured to package the plurality of solar cells ; a frame configured to surround an outer perimeter of the plurality of solar cells ; a connection terminal configured to connect two adjacent strings in the plurality of solar cells ; and a cover member configured to cover the connection terminal , characterized in that the wiring member has a circular cross-section and the connection terminal has a rectangular band shape, and the cover member has the same color as the lower substrate and is formed of the same material as the lower substrate and the surface of the cover member is an inclined surface including uneven portions, wherein the inclined surface is configured as a falling inclined surface toward the adjacent solar cell. an upper substrate ; a lower substrate opposite the upper substrate ; a plurality of solar cells positioned between the upper substrate and the lower substrate , wherein the plurality of solar cells are connected to one another through a wiring member to form strings ; a passivation layer positioned between the upper substrate and the plurality of solar cells and between the lower substrate and the plurality of solar cells and configured to package the plurality of solar cells ; a frame configured to surround an outer perimeter of the plurality of solar cells ; a connection terminal configured to connect two adjacent strings in the plurality of solar cells ; and a cover member configured to cover the connection terminal , characterized in that the wiring member has a circular cross-section and the connection terminal has a rectangular band shape, and the cover member has the same color as the lower substrate and is formed of the same material as the lower substrate and the surface of the cover member is an inclined surface including uneven portions, wherein the inclined surface is configured as a falling inclined surface toward the adjacent solar cell.
Abrasive blasting process in which an abrasive blasting medium is blasted in a blasting process onto a workpiece wherein the blasting medium comprises at least one granular medium for mechanically treating surfaces, wherein the blasting medium used is collected up and after a recycling process is supplied again to the blasting process, characterised in that the abrasive blasting medium comprises a granular additive for degreasing and cleaning the surface to be blasted and/or the abrasive blasting medium, wherein the granules of an additive are pulverised at least in part during the blasting process, wherein the pulverised proportion of the additive is separated during the recycling process from the circuit of the blasting medium.
A method of forming a finished film comprising: extruding a molten polyethylene comprising a diene terpolymer modifier through a die opening to form a film, wherein the diene-terpolymer modifier is a terpolymer comprising ethylene-derived units, C 3 to C 10 α-olefin derived units, and diene-derived units; causing the film to progress in a direction away from the die opening; cooling the film at a distance from the die opening using a cooling device, the distance adjusted to effect the properties of the film, wherein the distance is at least 8 cm as measured from the top or outer edge of the die to the base of the cooling device; and isolating a finished film therefrom; wherein the resulting finished film meets the following relationship: ETMD + 0.103 f H · χΔ > 7.9 g / μ m 200 g / mil ; and SCMD − 2.62 f H · χΔ > 145 MPa 21,000 psi ; wherein "ETMD" is MD Elmendorf tear g/μm (g/mil); "SCMD" is the MD 1% Secant MPa (psi); f H is the Herman Orientation Function (lamella); χ is percent crystallinity; and Δ is inter-lamellar spacing (Å). extruding a molten polyethylene comprising a diene terpolymer modifier through a die opening to form a film, wherein the diene-terpolymer modifier is a terpolymer comprising ethylene-derived units, C 3 to C 10 α-olefin derived units, and diene-derived units; causing the film to progress in a direction away from the die opening; cooling the film at a distance from the die opening using a cooling device, the distance adjusted to effect the properties of the film, wherein the distance is at least 8 cm as measured from the top or outer edge of the die to the base of the cooling device; and isolating a finished film therefrom; wherein the resulting finished film meets the following relationship: ETMD + 0.103 f H · χΔ > 7.9 g / μ m 200 g / mil ; and SCMD − 2.62 f H · χΔ > 145 MPa 21,000 psi ; wherein "ETMD" is MD Elmendorf tear g/μm (g/mil); "SCMD" is the MD 1% Secant MPa (psi); f H is the Herman Orientation Function (lamella); χ is percent crystallinity; and Δ is inter-lamellar spacing (Å).
A system for the regulation of a water flow passing through a hydroelectric turbine , said water flow having: - a main sliding direction d ; - a speed v u upstream of said system ; - a speed v t at said hydroelectric turbine ; - a speed v d downstream of said hydroelectric turbine ; - a height h u of the free surface upstream of said system ; said system comprising: - a working canal placed in said water flow and comprising at least one side wall , said working canal arranged, in use, to house said hydroelectric turbine ; - at least one movable wall located upstream of said hydroelectric turbine and configured to switch between a neutral configuration, wherein v t ≅ v u , and at least one flow acceleration configuration, wherein v t > v u ; said system characterized in that it comprises furthermore: - at least one sensor arranged to measure: - said speed v u or a parameter p from which it is possible to calculate said speed v u ; - said height h u ; - a control unit arranged to: - receive said speed v u or said parameter p and said height h u ; - operate said or each movable wall switching between said neutral configuration and said flow acceleration configuration in order to suitably vary said speed v u and said height h u . - a main sliding direction d ; - a speed v u upstream of said system ; - a speed v t at said hydroelectric turbine ; - a speed v d downstream of said hydroelectric turbine ; - a height h u of the free surface upstream of said system ; - a working canal placed in said water flow and comprising at least one side wall , said working canal arranged, in use, to house said hydroelectric turbine ; - at least one movable wall located upstream of said hydroelectric turbine and configured to switch between a neutral configuration, wherein v t ≅ v u , and at least one flow acceleration configuration, wherein v t > v u ; - at least one sensor arranged to measure: - said speed v u or a parameter p from which it is possible to calculate said speed v u ; - said height h u ; - said speed v u or a parameter p from which it is possible to calculate said speed v u ; - said height h u ; - a control unit arranged to: - receive said speed v u or said parameter p and said height h u ; - operate said or each movable wall switching between said neutral configuration and said flow acceleration configuration in order to suitably vary said speed v u and said height h u . - receive said speed v u or said parameter p and said height h u ; - operate said or each movable wall switching between said neutral configuration and said flow acceleration configuration in order to suitably vary said speed v u and said height h u .
A vertical falling film heat transfer tube for falling film evaporation of spent liquor, the heat transfer tube having: - a heating medium surface arranged to be heated by a heating medium; and - a falling film surface opposite and facing away from said heating medium surface , which falling film surface is arranged to have spent liquor containing lignin and other dissolved components from cellulosic material and/or inorganics from the cellulosic material and chemicals used passing over it as a falling film while evaporating solvent from the falling film and thus increasing the dry matter content; said heat transfer tube being made from a sheet metal material, e.g. an iron based high alloy stainless steel material with an alloy content above 16.00% for Chromium and above 1% for Nickel, preferably corresponding to corrosion resistant steel qualities at least like AISI 316 or AISI 304 characterized in that the falling film surface of the heat transfer tube is equipped with a multitude of wire bumps (WB), each wire bump being spaced apart along the longitudinal axis (CC) of the heat transfer tube from a neighbouring wire bump by 3-300 mm; said wire bumps (WB) having a height (h) in the range 0,3-5.0 mm; said wire bumps (WB) having a width (w) in the range 0,3-5,0 mm; and said wire bumps (WB) having an inclination angle (α) versus a plane orthogonal to a longitudinal axis (CC) of the heat transfer tube in a range of 0-70 degrees. - a heating medium surface arranged to be heated by a heating medium; and - a falling film surface opposite and facing away from said heating medium surface , which falling film surface is arranged to have spent liquor containing lignin and other dissolved components from cellulosic material and/or inorganics from the cellulosic material and chemicals used passing over it as a falling film while evaporating solvent from the falling film and thus increasing the dry matter content; said heat transfer tube being made from a sheet metal material, e.g. an iron based high alloy stainless steel material with an alloy content above 16.00% for Chromium and above 1% for Nickel, preferably corresponding to corrosion resistant steel qualities at least like AISI 316 or AISI 304 characterized in that the falling film surface of the heat transfer tube is equipped with a multitude of wire bumps (WB), each wire bump being spaced apart along the longitudinal axis (CC) of the heat transfer tube from a neighbouring wire bump by 3-300 mm; said wire bumps (WB) having a height (h) in the range 0,3-5.0 mm; said wire bumps (WB) having a width (w) in the range 0,3-5,0 mm; and said wire bumps (WB) having an inclination angle (α) versus a plane orthogonal to a longitudinal axis (CC) of the heat transfer tube in a range of 0-70 degrees.
A transportation unit comprising: a plurality of roadway wheels including a first wheel , characterized in that it further comprises: a plurality of continuously variable transmissions (CVTs) including a first CVT and a second CVT , the plurality of CVTs receiving rotational input from the first wheel , and a generator that is rotationally driven by rotational output from the plurality of CVTs, and wherein each of the plurality of CVTs is engaged over one of a corresponding plurality of discrete wheel rotational speeds of the first wheel . a plurality of continuously variable transmissions (CVTs) including a first CVT and a second CVT , the plurality of CVTs receiving rotational input from the first wheel , and a generator that is rotationally driven by rotational output from the plurality of CVTs, and wherein each of the plurality of CVTs is engaged over one of a corresponding plurality of discrete wheel rotational speeds of the first wheel .