mhurhangee/patent-ind-claim-en huggingface dataset:
Joint for an orthopedic Quengel splint , wherein the joint comprises a joint head with a gear wheel section , a joint body and a switching element and a first blocking element and a second blocking element , wherein the first blocking element and the second blocking element each have one gear wheel section , wherein the joint body has a receiving area , wherein the joint head is rotatably arranged in the receiving area , wherein the blocking elements are arranged pivotably in the receiving area , and wherein the switching element can be brought into at least a first position and a second position, wherein in the first position of the switching element a rotational movement of the joint head in the receiving area is released in the first direction and a rotational movement in the opposite second direction is blocked by the engagement of the gear wheel section of the first blocking element and the gear wheel section of the joint head , wherein in the second position of the switching element a rotational movement of the joint head in the receiving area is released in the second direction and a rotational movement in the opposite first direction is blocked by the engagement of a gear wheel section of the second blocking element and the gear wheel section of the joint head . the joint comprises a joint head with a gear wheel section , a joint body and a switching element and a first blocking element and a second blocking element , wherein the first blocking element and the second blocking element each have one gear wheel section , wherein the joint body has a receiving area , wherein the joint head is rotatably arranged in the receiving area , wherein the blocking elements are arranged pivotably in the receiving area , and wherein the switching element can be brought into at least a first position and a second position, wherein in the first position of the switching element a rotational movement of the joint head in the receiving area is released in the first direction and a rotational movement in the opposite second direction is blocked by the engagement of the gear wheel section of the first blocking element and the gear wheel section of the joint head , wherein in the second position of the switching element a rotational movement of the joint head in the receiving area is released in the second direction and a rotational movement in the opposite first direction is blocked by the engagement of a gear wheel section of the second blocking element and the gear wheel section of the joint head .
A low primary amine (LPA) polyaspartic ester comprising a reaction product of an aliphatic diamine, preferably a cycloaliphatic diamine, and an excess of a Michael addition receptor, in the presence of a C 1 -C 10 alcohol, preferably ethanol wherein the low primary amine (LPA) polyaspartic ester has a monoaspartate content of less than 10%, preferably less than 5%, particularly preferably less than 3%, wherein the Michael addition receptor is selected from the group consisting of dimethyl maleate, diethyl maleate, dibutyl maleate, dimethyl fumarate, diethyl fumarate, dibutyl fumarate, and combinations thereof. wherein the low primary amine (LPA) polyaspartic ester has a monoaspartate content of less than 10%, preferably less than 5%, particularly preferably less than 3%, wherein the Michael addition receptor is selected from the group consisting of dimethyl maleate, diethyl maleate, dibutyl maleate, dimethyl fumarate, diethyl fumarate, dibutyl fumarate, and combinations thereof.
Component (10; 110; 210) for a jewellery and/or costume jewellery item (1; 101; 201; 301) suited to be used for making chains, small chains, necklaces, bracelets, earrings and similar items, said component (10; 110; 210) comprising a first element (20; 120; 220) and a second element (40; 140; 240) connected to each other in such a way as to form a chain section, wherein said first element (20; 120; 220) and said second element (40; 140; 240) are suited to be coupled together at the level of two contact areas (62, 64; 162, 164; 262, 264), wherein in at least one of said two contact areas (62, 64; 162, 164; 262, 264) said first element (20; 120; 220) comprises a first contact surface (22, 24; 122, 124; 222, 224) which is lowered with respect to the adjacent surfaces (22a, 22b; 24a, 24b), said first lowered contact surface (22, 24; 122, 124; 222, 224) being suited to receive a second contact surface (42, 44; 142, 144; 242, 244) of said second element (40; 140; 240), and wherein said component (10; 110; 210) comprises articulation means (12; 112; 212) for coupling said component (10; 110; 210) with another component (10; 110; 210) of said jewellery and/or costume jewellery item (1; 101; 201; 301), characterized in that at least one between said first element (20; 120; 220) and said second element (40; 140; 240) comprises at least one closed annular section on which said two contact areas (62, 64; 162, 164; 262, 264) are defined and the other element between said first element (20; 120; 220) and said second element (40; 140; 240) is an open element with free ends, suited to be inserted in said closed annular section. said component (10; 110; 210) comprising a first element (20; 120; 220) and a second element (40; 140; 240) connected to each other in such a way as to form a chain section, wherein said first element (20; 120; 220) and said second element (40; 140; 240) are suited to be coupled together at the level of two contact areas (62, 64; 162, 164; 262, 264), wherein in at least one of said two contact areas (62, 64; 162, 164; 262, 264) said first element (20; 120; 220) comprises a first contact surface (22, 24; 122, 124; 222, 224) which is lowered with respect to the adjacent surfaces (22a, 22b; 24a, 24b), said first lowered contact surface (22, 24; 122, 124; 222, 224) being suited to receive a second contact surface (42, 44; 142, 144; 242, 244) of said second element (40; 140; 240), and wherein said component (10; 110; 210) comprises articulation means (12; 112; 212) for coupling said component (10; 110; 210) with another component (10; 110; 210) of said jewellery and/or costume jewellery item (1; 101; 201; 301), characterized in that at least one between said first element (20; 120; 220) and said second element (40; 140; 240) comprises at least one closed annular section on which said two contact areas (62, 64; 162, 164; 262, 264) are defined and the other element between said first element (20; 120; 220) and said second element (40; 140; 240) is an open element with free ends, suited to be inserted in said closed annular section.
A vehicle crash box (100a, 100b; 400; 600; 800) for attaching a bumper beam to a vehicle , wherein the vehicle crash box is attachable to the vehicle , wherein the vehicle crash box comprises a tubular member having a longitudinal extension extending in a longitudinal direction , wherein the tubular member comprises one or more longitudinal walls (108a-d) having a longitudinal extension (110a-d) extending in the longitudinal direction , wherein the vehicle crash box comprises one or more flanges integrally formed with one or more longitudinal walls (108a-d) of the one or more longitudinal walls (108a-d) of the tubular member in that the one or more flanges and the one or more longitudinal walls (108a-d) are formed from a single piece by way of hot press forming or cold working, and wherein the flange forms one or more oblong openings (116a-c) for one or more welds for the attachment of the flange to the bumper beam . wherein the vehicle crash box is attachable to the vehicle , wherein the vehicle crash box comprises a tubular member having a longitudinal extension extending in a longitudinal direction , wherein the tubular member comprises one or more longitudinal walls (108a-d) having a longitudinal extension (110a-d) extending in the longitudinal direction , wherein the vehicle crash box comprises one or more flanges integrally formed with one or more longitudinal walls (108a-d) of the one or more longitudinal walls (108a-d) of the tubular member in that the one or more flanges and the one or more longitudinal walls (108a-d) are formed from a single piece by way of hot press forming or cold working, and wherein the flange forms one or more oblong openings (116a-c) for one or more welds for the attachment of the flange to the bumper beam .
A method, comprising: determining , by a base station operating in a 3 rd Generation Partnership Project, 3GPP, wireless network, a plurality of slots to be allocated for a user equipment; mapping , in one slot of the plurality of slots, based on a type of a slot, one or more control data blocks, which comprise uplink control information, to at least one of: a short physical uplink control channel and a long physical uplink control channel, wherein the type of the slot is one of: an uplink-only slot; a bi-directional, uplink slot; and a bi-directional, downlink slot; wherein the short physical uplink control channel and the long physical uplink control channel are in a same slot of the plurality of slots when the type of the slot is one of the uplink only slot and the bi-directional, uplink slot, and wherein the number of symbols of the short physical uplink control channel is smaller than the number of symbols of the long physical uplink control channel; allocating , to the user equipment, the plurality of slots; and receiving , from the user equipment, uplink control information on the one or more control data blocks. determining , by a base station operating in a 3 rd Generation Partnership Project, 3GPP, wireless network, a plurality of slots to be allocated for a user equipment; mapping , in one slot of the plurality of slots, based on a type of a slot, one or more control data blocks, which comprise uplink control information, to at least one of: a short physical uplink control channel and a long physical uplink control channel, wherein the type of the slot is one of: an uplink-only slot; a bi-directional, uplink slot; and a bi-directional, downlink slot; wherein the short physical uplink control channel and the long physical uplink control channel are in a same slot of the plurality of slots when the type of the slot is one of the uplink only slot and the bi-directional, uplink slot, and wherein the number of symbols of the short physical uplink control channel is smaller than the number of symbols of the long physical uplink control channel; allocating , to the user equipment, the plurality of slots; and receiving , from the user equipment, uplink control information on the one or more control data blocks.
A method of millimeter-wave wireless communication at a user equipment, UE, comprising: receiving a discovery signal transmitted from a connection point, CP, via a directional beam, wherein the discovery signal comprises first information related to the CP, the first information comprising beam sweep configuration information and a cell identifier, ID, associated with the CP, wherein the beam sweep configuration information comprises a sequence of a plurality of beam directions for an uplink association signal; transmitting the association signal to the CP based on the beam sweep configuration information; and monitoring for a resource grant from the CP based on the transmitted association signal. receiving a discovery signal transmitted from a connection point, CP, via a directional beam, wherein the discovery signal comprises first information related to the CP, the first information comprising beam sweep configuration information and a cell identifier, ID, associated with the CP, wherein the beam sweep configuration information comprises a sequence of a plurality of beam directions for an uplink association signal; transmitting the association signal to the CP based on the beam sweep configuration information; and monitoring for a resource grant from the CP based on the transmitted association signal.
Method for detecting aberrant values of an incident wind field in a space located upstream of a lidar sensor, characterized in that the method comprises: a) A step of acquiring and modelling measurements rws(k) with the lidar sensor of an incident wind field; b) A step of estimating a median mr(k) and the mean absolute deviation dr(k) in real time of modelled measurements rws ( k ) of the incident wind field; and c) A step of detecting aberrant values in real time using the estimated median mr ( k ) and the mean absolute deviation dr ( k ), said detecting step being carried out with a formula of the type: | rws ( k ) - mr ( k )| ≤ σdr ( k ) where σ is a positive scalar. a) A step of acquiring and modelling measurements rws(k) with the lidar sensor of an incident wind field; b) A step of estimating a median mr(k) and the mean absolute deviation dr(k) in real time of modelled measurements rws ( k ) of the incident wind field; and c) A step of detecting aberrant values in real time using the estimated median mr ( k ) and the mean absolute deviation dr ( k ), said detecting step being carried out with a formula of the type: | rws ( k ) - mr ( k )| ≤ σdr ( k ) where σ is a positive scalar.
A method of controlling a wind turbine, the wind turbine comprising a wind direction sensor, a yawing system, wind turbine blades attached to a rotor hub, and a control system for pitching the blades relative to the rotor hub and for turning the wind turbine rotor relative to the wind, the method comprising: - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a pitch angle parameter representing a pitch angle of at least one of the wind turbine blades; - determining over time a statistical representation of the pitch angle parameter as a function of the relative wind direction based on the obtained data sets; - estimating from the statistical representation a wind direction offset corresponding to the relative wind direction where the pitch angle parameter is a maximum; - adjusting the relative wind direction as a function of the wind direction offset; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter. - obtaining at time intervals a data set comprising a direction of the wind relative to the wind turbine as measured by the wind direction sensor and a pitch angle parameter representing a pitch angle of at least one of the wind turbine blades; - determining over time a statistical representation of the pitch angle parameter as a function of the relative wind direction based on the obtained data sets; - estimating from the statistical representation a wind direction offset corresponding to the relative wind direction where the pitch angle parameter is a maximum; - adjusting the relative wind direction as a function of the wind direction offset; - determining a control parameter of the wind turbine as a function of the adjusted relative wind direction; and - controlling the wind turbine according to the control parameter.
A method, performed in a first wireless node comprising a communication module that is disabled, for initiating communication with a second wireless node, the method comprising: - providing (S1) access to a sensor, - receiving (S2), from the sensor, a sensor output indicating that wireless communication is required, - enabling (S3), in response to receiving (S2) the sensor output, the communication module in the first wireless node, wherein the enabling (S3) is a first enablement of the communication module since the first wireless node was put into use, and wherein no data related to connection properties is stored prior to the first enablement of the communication module, - performing (S4) a search for the second wireless node, and - initiating (S5), in response to the first wireless node detecting the second wireless node, an initial communication with the second wireless node using the enabled communication module. - providing (S1) access to a sensor, - receiving (S2), from the sensor, a sensor output indicating that wireless communication is required, - enabling (S3), in response to receiving (S2) the sensor output, the communication module in the first wireless node, wherein the enabling (S3) is a first enablement of the communication module since the first wireless node was put into use, and wherein no data related to connection properties is stored prior to the first enablement of the communication module, - performing (S4) a search for the second wireless node, and - initiating (S5), in response to the first wireless node detecting the second wireless node, an initial communication with the second wireless node using the enabled communication module.
A propulsion unit for a marine vessel , - adapted to receive power from at least one power supply unit , - wherein the propulsion unit comprises a stationary part adapted to be mounted to a hull of the marine vessel, and a movable part comprising one or more thrust generating devices adapted to transform the received power into a thrust by acting on water carrying the marine vessel, characterized in that the propulsion unit is adapted to receive exhaust gases from at least two internal combustion engines , wherein the movable part is adapted to release the exhaust gases into the water, in that the propulsion unit comprises two unit inlets each adapted to receive exhaust gases from a respective of two engines , in that the stationary part comprises two stationary exhaust conduits each extending from a respective of the unit inlets to the movable part , in that the stationary part comprises two stationary outlets adapted to deliver the exhaust gases to the movable part , the exhaust gases being kept separate through the stationary part, and in that the movable part comprises two movable inlets each adapted to receive exhaust gases from a respective of the stationary outlets . - adapted to receive power from at least one power supply unit , - wherein the propulsion unit comprises a stationary part adapted to be mounted to a hull of the marine vessel, and a movable part comprising one or more thrust generating devices adapted to transform the received power into a thrust by acting on water carrying the marine vessel,
A valve comprising: a housing base defining a lower cavity and comprising a pinch structure within the lower cavity, a gas inlet providing external access to the lower cavity, a base fluid inlet , and a base fluid outlet ; a housing cover defining an upper cavity ; a diaphragm disposed between the housing base and the housing cover and fluidically separating the lower cavity from the upper cavity; a pinch plate disposed in the lower cavity and comprising a pinch point disposed opposite the pinch structure; and a pinch tube in fluidic communication between the base fluid inlet and the base fluid outlet in the lower cavity, the pinch tube extending between the pinch structure and the pinch point; characterized in that the housing cover defining the upper cavity further comprises a cover fluid inlet and a cover fluid outlet in fluidic communication with the cover fluid inlet the cover fluid inlet in fluidic communication with the base fluid outlet between the upper cavity and the lower cavity, the cover fluid outlet providing external access from the upper cavity. a housing base defining a lower cavity and comprising a pinch structure within the lower cavity, a gas inlet providing external access to the lower cavity, a base fluid inlet , and a base fluid outlet ; a housing cover defining an upper cavity ; a diaphragm disposed between the housing base and the housing cover and fluidically separating the lower cavity from the upper cavity; a pinch plate disposed in the lower cavity and comprising a pinch point disposed opposite the pinch structure; and a pinch tube in fluidic communication between the base fluid inlet and the base fluid outlet in the lower cavity, the pinch tube extending between the pinch structure and the pinch point; characterized in that the housing cover defining the upper cavity further comprises a cover fluid inlet and a cover fluid outlet in fluidic communication with the cover fluid inlet the cover fluid inlet in fluidic communication with the base fluid outlet between the upper cavity and the lower cavity, the cover fluid outlet providing external access from the upper cavity.
A method for marking a steel strip with material properties of the steel strip , comprising the following steps: - measuring material properties of the steel strip at a plurality of discrete strip positions , - applying a plurality of markers at the discrete strip positions , each marker from the plurality of markers containing a material identifier relating to the measured material properties at the respective strip position of the marker , characterized in that a plurality of markers are applied at the discrete strip positions to the strip edge . - measuring material properties of the steel strip at a plurality of discrete strip positions , - applying a plurality of markers at the discrete strip positions , each marker from the plurality of markers containing a material identifier relating to the measured material properties at the respective strip position of the marker , characterized in that a plurality of markers are applied at the discrete strip positions to the strip edge .
A method of critical point drying a composite material, comprising the steps of: a. providing a composite material comprising: i. a support member, comprising a plurality of pores extending through the support member; and ii. a macroporous cross-linked gel, wherein the macroporous cross-linked gel comprises a polymer formed from a reaction of one or more polymerizable monomers with one or more cross-linkers; the macroporous cross-linked gel is located in the pores of the support member; and said macropores of the macroporous cross-linked gel are smaller than the pores of the support member; wherein the composite material is wetted with an aqueous solution; b. exchanging the aqueous solution with a polar organic solvent, such that the composite material is wetted with the polar organic solvent; c. contacting the composite material with a supercritical fluid at a temperature and a pressure above the critical point of the supercritical fluid, wherein the gaseous and liquid phases are indistinguishable; and the polar organic solvent is miscible with the supercritical fluid; and d. reducing the pressure; thereby critical point drying the composite material. a. providing a composite material comprising: i. a support member, comprising a plurality of pores extending through the support member; and ii. a macroporous cross-linked gel, wherein the macroporous cross-linked gel comprises a polymer formed from a reaction of one or more polymerizable monomers with one or more cross-linkers; the macroporous cross-linked gel is located in the pores of the support member; and said macropores of the macroporous cross-linked gel are smaller than the pores of the support member; wherein the composite material is wetted with an aqueous solution; i. a support member, comprising a plurality of pores extending through the support member; and ii. a macroporous cross-linked gel, wherein the macroporous cross-linked gel comprises a polymer formed from a reaction of one or more polymerizable monomers with one or more cross-linkers; the macroporous cross-linked gel is located in the pores of the support member; and said macropores of the macroporous cross-linked gel are smaller than the pores of the support member; b. exchanging the aqueous solution with a polar organic solvent, such that the composite material is wetted with the polar organic solvent; c. contacting the composite material with a supercritical fluid at a temperature and a pressure above the critical point of the supercritical fluid, wherein the gaseous and liquid phases are indistinguishable; and the polar organic solvent is miscible with the supercritical fluid; and d. reducing the pressure;