mhurhangee/patent-ind-claim-en huggingface dataset:
Compressor installation with a compressor element and a combustion engine , the compressor installation being provided with a transmission between a combustion engine with a crankshaft and said compressor element with driven shaft , whereby this transmission comprises a housing and at least one driven gear and driveshaft with a drive gear characterised in that the driveshaft of the transmission is connected to the crankshaft of the combustion engine by means of a rigid coupling, and that the distance (A) between the driveshaft and the driven shaft is greater than the sum of the radii (B, C) of the pitch circles of the drive gear and the driven gear .
A non-transitory computer-readable medium comprising instructions stored therein, the instructions for controlling an inclination of a floating wind turbine platform, the wind turbine platform comprising a generator, a set of turbine blades connected to a shaft inside a turbine nacelle, the turbine nacelle being mounted onto a tower, and at least three stabilizing columns to which the tower is mounted, each of the at least three stabilizing columns having an internal volume for containing ballast, and the instructions which when executed by a system, cause the system to perform operations comprising: receiving roll and pitch angle data in a defined frame of reference of the floating wind turbine; adjusting at least one of a blade pitch of the set of turbine blades and a torque of the generator to alter an aerodynamic torque of the floating wind turbine platform, the adjusting being based on the received roll and pitch angle data; and distributing the ballast among the at least three stabilizing columns, the distributing being based on the adjusting of the at least one of the blade pitch of the set of turbine blades and the torque of the generator, and the roll and pitch angle data. receiving roll and pitch angle data in a defined frame of reference of the floating wind turbine; adjusting at least one of a blade pitch of the set of turbine blades and a torque of the generator to alter an aerodynamic torque of the floating wind turbine platform, the adjusting being based on the received roll and pitch angle data; and distributing the ballast among the at least three stabilizing columns, the distributing being based on the adjusting of the at least one of the blade pitch of the set of turbine blades and the torque of the generator, and the roll and pitch angle data.
A method performed by a transmitter in a wireless communication system, the method comprising: identifying whether a packet data convergence protocol, PDCP, service data unit, SDU, corresponds to a service data access protocol, SDAP, control protocol data unit, PDU or a SDAP data PDU ; in case that the PDCP SDU corresponds to the SDAP control PDU : in case that an integrity protection is configured, calculating a message authentication code-integrity, MAC-I, based on the SDAP control PDU; and concatenating the MAC-I, the SDAP control PDU, and a PDCP header to obtain a PDCP PDU, wherein a ciphering is not applied to the SDAP control PDU, and a header compression is not performed for the SDAP control PDU; and in case that the PDCP SDU corresponds to the SDAP data PDU : in case that a header compression is configured, performing the header compression for the PDCP SDU; in case that the integrity protection is configured, calculating the MAC-I based on the the PDCP SDU and concatenating the MAC-I and the SDAP data PDU; performing a ciphering except for a SDAP header; and concatenating the PDCP header to obtain the PDCP PDU; delivering, to a lower layer, the PDCP PDU . identifying whether a packet data convergence protocol, PDCP, service data unit, SDU, corresponds to a service data access protocol, SDAP, control protocol data unit, PDU or a SDAP data PDU ; in case that the PDCP SDU corresponds to the SDAP control PDU : in case that an integrity protection is configured, calculating a message authentication code-integrity, MAC-I, based on the SDAP control PDU; and concatenating the MAC-I, the SDAP control PDU, and a PDCP header to obtain a PDCP PDU, wherein a ciphering is not applied to the SDAP control PDU, and a header compression is not performed for the SDAP control PDU; and in case that an integrity protection is configured, calculating a message authentication code-integrity, MAC-I, based on the SDAP control PDU; and concatenating the MAC-I, the SDAP control PDU, and a PDCP header to obtain a PDCP PDU, wherein a ciphering is not applied to the SDAP control PDU, and a header compression is not performed for the SDAP control PDU; and in case that the PDCP SDU corresponds to the SDAP data PDU : in case that a header compression is configured, performing the header compression for the PDCP SDU; in case that the integrity protection is configured, calculating the MAC-I based on the the PDCP SDU and concatenating the MAC-I and the SDAP data PDU; performing a ciphering except for a SDAP header; and concatenating the PDCP header to obtain the PDCP PDU; in case that a header compression is configured, performing the header compression for the PDCP SDU; in case that the integrity protection is configured, calculating the MAC-I based on the the PDCP SDU and concatenating the MAC-I and the SDAP data PDU; performing a ciphering except for a SDAP header; and concatenating the PDCP header to obtain the PDCP PDU; delivering, to a lower layer, the PDCP PDU .
Method for preparing N-methyl-p-toluidine by reacting p-toluidine with methanol, characterized in that at least one catalyst is used which at least contains, in the following proportions, Cu: 45.5 - 68.0% by weight, preferably 47.0 - 64.1% by weight, particularly preferably 47.5 - 60.5% by weight, Zn: 12.3 - 22.5% by weight, preferably 14.3 - 21.5% by weight, particularly preferably 15.2 - 19.5% by weight, Al: 1.9 - 4.1% by weight, preferably 2.2 - 3.8% by weight, particularly preferably 2.5 - 3.6% by weight, and 7.8 - 28.2% by weight of oxygen, preferably 13.6 - 25.1% by weight, particularly preferably 16.2 - 24.5% by weight, of oxygen and optionally 0 - 10% by weight of carbon, wherein Cu, Zn, Al, oxygen and, if present, carbon comprise at least 99% by weight, preferably 99.5% by weight, of the total amount of the catalyst. Cu: 45.5 - 68.0% by weight, preferably 47.0 - 64.1% by weight, particularly preferably 47.5 - 60.5% by weight, Zn: 12.3 - 22.5% by weight, preferably 14.3 - 21.5% by weight, particularly preferably 15.2 - 19.5% by weight, Al: 1.9 - 4.1% by weight, preferably 2.2 - 3.8% by weight, particularly preferably 2.5 - 3.6% by weight, and 7.8 - 28.2% by weight of oxygen, preferably 13.6 - 25.1% by weight, particularly preferably 16.2 - 24.5% by weight, of oxygen and optionally 0 - 10% by weight of carbon, wherein Cu, Zn, Al, oxygen and, if present, carbon comprise at least 99% by weight, preferably 99.5% by weight, of the total amount of the catalyst.
A bone marrow access apparatus comprising: a bone penetrating member having an internal channel having an opening at a proximal end and an opening at a distal end ; and a valve cap engaged with the bone penetrating member , the valve cap defining an interior cavity in which at least part of the bone penetrating member is situated, wherein the valve cap comprises a valve having an opening having an open state in which the channel is not obstructed and a closed state preventing flow of material through said channel, wherein the valve is repeatedly switchable between the open and closed states, characterised in that the valve cap comprises an upper wall provided above the bone penetrating member , and the valve is provided in the upper wall ,wherein the valve cap further comprises a peripheral wall positioned outward of an outer peripheral surface of the part of the bone penetrating member , and the upper wall is connected to an upper edge region of the peripheral wall , wherein the valve cap comprises a lower rim connected to a lower edge region of the peripheral wall , wherein the lower rim extends inward from the peripheral wall to underlie part of the bone penetrating member and thereby secure the cap to the bone penetrating member , and wherein the valve cap is made of an elastomer. a bone penetrating member having an internal channel having an opening at a proximal end and an opening at a distal end ; and a valve cap engaged with the bone penetrating member , the valve cap defining an interior cavity in which at least part of the bone penetrating member is situated, wherein the valve cap comprises a valve having an opening having an open state in which the channel is not obstructed and a closed state preventing flow of material through said channel, wherein the valve is repeatedly switchable between the open and closed states, characterised in that the valve cap comprises an upper wall provided above the bone penetrating member , and the valve is provided in the upper wall ,wherein the valve cap further comprises a peripheral wall positioned outward of an outer peripheral surface of the part of the bone penetrating member , and the upper wall is connected to an upper edge region of the peripheral wall , wherein the valve cap comprises a lower rim connected to a lower edge region of the peripheral wall , wherein the lower rim extends inward from the peripheral wall to underlie part of the bone penetrating member and thereby secure the cap to the bone penetrating member , and
Hairdryer comprising - a casing provided with a handle and a main body having a main through cavity provided with at least one rear suction opening and a front outlet opening ; - at least one electric motor and a fan enclosed in said main through cavity , said fan being drivable in rotation by said electric motor to generate an air flow (F) with a settled speed inside said main through cavity ; - an inner diffuser arranged inside said main through cavity at said front outlet opening and provided with a respective through cavity having a passage section decreasing towards said front outlet opening in order to increase the speed of said air flow (F), said main body comprising at least one side opening at said front outlet opening to enable air from outside coming into said main through cavity due to drag effect generated by said air flow (F) coming out from said inner diffuser at high speed so that an air output flow rate (Q2) from said front outlet opening is increased; characterized in that it comprises an outer outlet element that can be reversibly coupled to said front outlet opening of said main body in an assembly configuration (A) and comprising an outflow tubular portion of the air flow (F) and a coupling tubular portion adapted to be inserted in said front outlet opening and long enough to close said at least one side opening in order to prevent air from entering in said main through cavity due to drag effect and to have an air output flow rate from the outflow tubular portion that is substantially equal to an air initial flow rate (Q1) generated by said fan . - a casing provided with a handle and a main body having a main through cavity provided with at least one rear suction opening and a front outlet opening ; - at least one electric motor and a fan enclosed in said main through cavity , said fan being drivable in rotation by said electric motor to generate an air flow (F) with a settled speed inside said main through cavity ; - an inner diffuser arranged inside said main through cavity at said front outlet opening and provided with a respective through cavity having a passage section decreasing towards said front outlet opening in order to increase the speed of said air flow (F), said main body comprising at least one side opening at said front outlet opening to enable air from outside coming into said main through cavity due to drag effect generated by said air flow (F) coming out from said inner diffuser at high speed so that an air output flow rate (Q2) from said front outlet opening is increased;
Tank outlet connection apparatus for connecting to a tank outlet of a liquid tank of a beverage preparation apparatus, having a flow path (4; 46) passing through the tank outlet connection apparatus (2; 44), wherein a sensor arrangement (14; 62) integrated into the tank outlet connection apparatus (2; 44), which has at least one fill level sensor (18; 64), a flow rate sensor and a temperature sensor , is embodied such that it is possible for the fill level sensor (18; 64) to measure a fill level within a liquid tank connected to the tank outlet connection apparatus (2; 44), for the flow rate sensor to measure a flow rate of liquid through the tank outlet connection apparatus (2; 44) and for the temperature sensor to measure the temperature of a liquid situated in the flow path (4; 46) and/or in a liquid tank connected to the tank outlet connection apparatus (2; 44) and that all sensors (16; 18; 20, 22; 64) of the sensor arrangement (14; 62) which are integrated into the tank outlet connection apparatus (2; 44) have a shared sensor electronics unit (26; 66) and shared supply and communication ports .
A wind turbine comprising a system for monitoring at least one wind turbine component including a closed fluid circulating system with a fluid reservoir , said monitoring system comprising, means for establishing a level value of said fluid systems reservoir , and means for establishing at least one environmental value of said fluid systems reservoir or the surroundings of said system , said level value and said at least one environmental value contributing to defining said fluid systems functionality, and characterized by means for establishing a monitoring value (M) describing the fluid systems functionality on the basis of said level value and said at least one environmental value, wherein said means for establishing at least one environmental value of said fluid systems reservoir or the surroundings of said system are one or more temperature sensors , one or more vibrations sensors , one or more rotation sensors , one or more equipment state detectors , a clock or any combination thereof. means for establishing a level value of said fluid systems reservoir , and means for establishing at least one environmental value of said fluid systems reservoir or the surroundings of said system , said level value and said at least one environmental value contributing to defining said fluid systems functionality, and characterized by means for establishing a monitoring value (M) describing the fluid systems functionality on the basis of said level value and said at least one environmental value, wherein said means for establishing at least one environmental value of said fluid systems reservoir or the surroundings of said system are one or more temperature sensors , one or more vibrations sensors , one or more rotation sensors , one or more equipment state detectors , a clock or any combination thereof.
A monitoring device having sensors on a stationary device and having sensors on a mobile device, at least some of the sensors being designed for communication between the stationary device and the mobile device, and monitoring functionalities being specified in an event-controlled manner as a function of sensor signals, characterised in that sensors are assigned communication modules via which information for specifying monitoring functionalities can be transmitted, in that sensors exchange information directly via communication modules, and in that the stationary device and/or the mobile device have a control unit with an assigned communication module for exchanging information with one another and/or with sensors, in that the stationary device and/or the mobile device has a control unit with an associated communication module for exchanging information with one another and/or with sensors, monitoring signals generated in sensors being used for inter-sensor communication, and a sensor unit of a sensor being arranged in each case on the stationary device and the mobile device, between which monitoring signals are transmitted which are used for inter-sensor communication.
A sensor suitable for measuring the pressure applied by a bandage the sensor comprising an elongate strip having a sensor region , the sensor region comprising: a base plate ; a top plate ; a compressible spacer positioned between the base plate and the top plate ; the compressible spacer having a thickness of less than 3 mm; and an electronic sensing apparatus configured to detect distance between the top plate and the base plate , wherein the top plate is arranged to compress the compressible spacer and arranged such that the bandage exerts a force on the surface of the top plate perpendicular to the surface when the sensor is positioned between the bandage and a limb , and wherein the compression of the compressible spacer is proportional to the applied force created by the bandage ; wherein the electronic sensing apparatus comprises (a) a light source and an optical sensor arranged to detect light emitted from the light source ; or (b) a capacitor, wherein each conductive plate of the capacitor is coupled to the top plate and base plate respectively. a base plate ; a top plate ; a compressible spacer positioned between the base plate and the top plate ; the compressible spacer having a thickness of less than 3 mm; and an electronic sensing apparatus configured to detect distance between the top plate and the base plate , wherein the top plate is arranged to compress the compressible spacer and arranged such that the bandage exerts a force on the surface of the top plate perpendicular to the surface when the sensor is positioned between the bandage and a limb , and wherein the compression of the compressible spacer is proportional to the applied force created by the bandage ; wherein the electronic sensing apparatus comprises (a) a light source and an optical sensor arranged to detect light emitted from the light source ; or (b) a capacitor, wherein each conductive plate of the capacitor is coupled to the top plate and base plate respectively. (a) a light source and an optical sensor arranged to detect light emitted from the light source ; or (b) a capacitor, wherein each conductive plate of the capacitor is coupled to the top plate and base plate respectively.
A switch device structure comprising a main body and an operation button assembled with the main body , the main body being defined with an axial reference axis (X), the main body defining a base section and a chamber in which the base seat is mounted, wherein an operation body and a wire connection module are disposed on the base seat , the operation body being reciprocally movable along the axial reference axis (X), the wire connection module including multiple contact arms classified into first contact arm and second contact arm , the first contact arm having a first contact , the second contact arm having a second contact , the base seat having a wall and at least one cavity in which an elastic unit is mounted, wherein the operation body includes a head section and a belly section connected with the head section , the head section being confined in a shaft room of the main body and permitted to reciprocally move within the shaft room , the belly section substantially being a plate body structure and the operation body having a protruding arm protruding from the belly section and extending to a lower side, characterized by the elastic unit including a base section , a fixed section and a free section respectively extending from two ends of the base section , the fixed section of the elastic unit being fixed on the base seat , whereby in response to the move of the operation body and with the fixed section serving as a fulcrum, the free section of the elastic unit can push the second contact of the second contact arm into contact with the first contact of the first contact arm to close the circuit or separate from the second contact arm to open the circuit, the belly section having a rest section and a stake transversely protruding from the belly section for arranging the elastic unit thereon, a raised section being disposed on the belly section and connected with the rest section and the stake , the base section of the elastic unit being formed with an arched structure or multiple loop structures wound on the stake of the operation body .
Assembly for spray boom of an agricultural spraying system comprising: - a first structural element (10.1), - a second structural element (10.2), one among the first structural element (10.1) and the second structural element (10.2) comprising a sheath extending about a first extension axis , the other among the first structural element (10.1) and the second structural element (10.2) comprising a shaft extending along a second extension axis , the shaft being surrounded by the sheath and pivotably mounted in the sheath about the second extension axis , - an anti-whipping device (10.3) designed to cushion a whipping of the first structural element (10.1) and of the second structural element (10.2) with respect to one another, the assembly being characterized in that the anti-whipping device (10.3) is mounted inside the sheath , between the shaft and the sheath . - a first structural element (10.1), - a second structural element (10.2), one among the first structural element (10.1) and the second structural element (10.2) comprising a sheath extending about a first extension axis , the other among the first structural element (10.1) and the second structural element (10.2) comprising a shaft extending along a second extension axis , the shaft being surrounded by the sheath and pivotably mounted in the sheath about the second extension axis , - an anti-whipping device (10.3) designed to cushion a whipping of the first structural element (10.1) and of the second structural element (10.2) with respect to one another, the assembly being characterized in that the anti-whipping device (10.3) is mounted inside the sheath , between the shaft and the sheath .
A computer-implemented method for performing non-maximum suppression, NMS, on a plurality of detection boxes identifying potential locations for one or more objects within an image , the computer-implemented method comprising: dividing the image into a plurality of tiles ; identifying , for each tile, which, if any, detection boxes overlap a portion of the tile; performing a tile-by-tile suppression process comprising, for each tile having detection boxes that overlap one another by more than a predetermined amount: comparing confidence values of detection boxes that overlap one another by more than a predetermined amount, a confidence value indicating the confidence that the detection box identifies an object, and for each comparison, marking the detection box associated with the lowest confidence value for discarding building an output list of detection boxes, the output list identifying detection boxes that have never been marked for discarding during the tile-by-tile suppression process. dividing the image into a plurality of tiles ; identifying , for each tile, which, if any, detection boxes overlap a portion of the tile; performing a tile-by-tile suppression process comprising, for each tile having detection boxes that overlap one another by more than a predetermined amount: comparing confidence values of detection boxes that overlap one another by more than a predetermined amount, a confidence value indicating the confidence that the detection box identifies an object, and for each comparison, marking the detection box associated with the lowest confidence value for discarding comparing confidence values of detection boxes that overlap one another by more than a predetermined amount, a confidence value indicating the confidence that the detection box identifies an object, and for each comparison, marking the detection box associated with the lowest confidence value for discarding building an output list of detection boxes, the output list identifying detection boxes that have never been marked for discarding during the tile-by-tile suppression process.