mhurhangee/patent-ind-claim-en huggingface dataset:
A compound of formula (I), wherein R 1 is selected from the groups consisting of i) pyridinyl substituted by R 3 , R 4 and R 5 , and ii) pyridinyl-C 1-6 -alkyl substituted by R 3 , R 4 and R 5 ; Y is selected from the groups consisting of i) -OC(O)-, and ii) -C(O)-; W is -C(O)-; R 2 is selected from the ring systems O, AO and AW; R 3 is selected from the groups consisting of i) C 1-6 -alkylcarbonylamino, and ii) tetrahydropyranyl-C 1-6 -alkoxy; R 4 is selected from the groups consisting of i) C 3-8 -cycloalkyl, and ii) halo-C 1-6 -alkyl; R 5 is H; m is selected from 1 and 2; n is 1; or pharmaceutically acceptable salts or esters thereof. R 1 is selected from the groups consisting of i) pyridinyl substituted by R 3 , R 4 and R 5 , and ii) pyridinyl-C 1-6 -alkyl substituted by R 3 , R 4 and R 5 ; i) pyridinyl substituted by R 3 , R 4 and R 5 , and ii) pyridinyl-C 1-6 -alkyl substituted by R 3 , R 4 and R 5 ; Y is selected from the groups consisting of i) -OC(O)-, and ii) -C(O)-; i) -OC(O)-, and ii) -C(O)-; W is -C(O)-; R 2 is selected from the ring systems O, AO and AW; R 3 is selected from the groups consisting of i) C 1-6 -alkylcarbonylamino, and ii) tetrahydropyranyl-C 1-6 -alkoxy; i) C 1-6 -alkylcarbonylamino, and ii) tetrahydropyranyl-C 1-6 -alkoxy; R 4 is selected from the groups consisting of i) C 3-8 -cycloalkyl, and ii) halo-C 1-6 -alkyl; i) C 3-8 -cycloalkyl, and ii) halo-C 1-6 -alkyl; R 5 is H; m is selected from 1 and 2; n is 1; or pharmaceutically acceptable salts or esters thereof.
A core module for an Automated Transaction Machine (ATM) comprising: a housing including a plurality of cassette bays ; a first document delivery system ; and a second document delivery system , the first document delivery system capable of transporting a document between the cassette and the second document delivery system via a first transport path , and the second document delivery system capable of transporting a document between the first document delivery system and an other ATM location via a second transport path; a plurality of first motors , each first motor associated with a respective one of the cassette bays for driving a picking device configured to pick at least documents from a respective cassette disposed in the respective cassette bay ; a plurality of second motors , each second motor associated with a respective one of the cassette bays for driving a push plate to position a document within a respective cassette disposed in the respective cassette bay , characterized by a plurality grounding pins, each grounding pin disposed in a respective one of the cassette bays for interaction with a respective cassette disposed within the respective cassette bay for static discharge of the respective cassette , where each grounding pin is in electrical communication with the ground through the housing . a housing including a plurality of cassette bays ; a first document delivery system ; and a second document delivery system , the first document delivery system capable of transporting a document between the cassette and the second document delivery system via a first transport path , and the second document delivery system capable of transporting a document between the first document delivery system and an other ATM location via a second transport path; a plurality of first motors , each first motor associated with a respective one of the cassette bays for driving a picking device configured to pick at least documents from a respective cassette disposed in the respective cassette bay ; a plurality of second motors , each second motor associated with a respective one of the cassette bays for driving a push plate to position a document within a respective cassette disposed in the respective cassette bay , characterized by a plurality grounding pins, each grounding pin disposed in a respective one of the cassette bays for interaction with a respective cassette disposed within the respective cassette bay for static discharge of the respective cassette , where each grounding pin is in electrical communication with the ground through the housing .
An intravaginal device comprising: a proximal base ; a shaft ; a tube ; a covering ; arms that pivot from the proximal base ; struts , each of which has a first end coupled to the shaft , which is arranged to slide in the tube , and a second end coupled to one of said arms ; and a string coupled to said shaft and arranged for pulling in a proximal direction, said arms having a stowed orientation in which said struts are folded inwards such that the second ends point towards a proximal end of said device , and said arms having a deployed orientation in which said struts point radially outwards and tautly hold said arms in an expanded position in which said arms define a distal open end, and wherein the covering surrounds said arms , and in the expanded position, fluid can flow into said distal open end and be held by said covering . a proximal base ; a shaft ; a tube ; a covering ; arms that pivot from the proximal base ; struts , each of which has a first end coupled to the shaft , which is arranged to slide in the tube , and a second end coupled to one of said arms ; and a string coupled to said shaft and arranged for pulling in a proximal direction, said arms having a stowed orientation in which said struts are folded inwards such that the second ends point towards a proximal end of said device , and said arms having a deployed orientation in which said struts point radially outwards and tautly hold said arms in an expanded position in which said arms define a distal open end, and wherein the covering surrounds said arms , and in the expanded position, fluid can flow into said distal open end and be held by said covering .
Method for ensuring the availability of sufficient energy reserves in an intelligent device for performing a service requested from the device by a remote user , wherein the device has an apparatus for generating energy from the environment of the device and a rechargeable energy store connected to the apparatus , comprising the following steps of: a. determining empirical values for the amount of energy needed to perform certain services in the device , b. storing the empirical values in the device , c. requesting a certain service from the device by the user, d. determining the amount of energy available in the device for performing services, e. comparing the empirical value for the amount of energy needed to perform the requested service with the amount of energy available for performing services in the device , f. performing the service if the empirical value for the amount of energy needed to perform the requested service is less than the amount of energy available for performing services in the device , g. declining the performance of the service if the empirical value for the amount of energy needed to perform the requested service is greater than the amount of energy available for performing services in the device , characterized in that - the device is a sensor which is incorporated in a building automation system, and in that - the user is a gateway in a building automation system, an I/O device in a building automation system or a mobile communication device. a. determining empirical values for the amount of energy needed to perform certain services in the device , b. storing the empirical values in the device , c. requesting a certain service from the device by the user, d. determining the amount of energy available in the device for performing services, e. comparing the empirical value for the amount of energy needed to perform the requested service with the amount of energy available for performing services in the device , f. performing the service if the empirical value for the amount of energy needed to perform the requested service is less than the amount of energy available for performing services in the device , g. declining the performance of the service if the empirical value for the amount of energy needed to perform the requested service is greater than the amount of energy available for performing services in the device , - the device is a sensor which is incorporated in a building automation system, and in that - the user is a gateway in a building automation system, an I/O device in a building automation system or a mobile communication device.
A method, comprising: identifying a virtualized network function, VNF, related virtualized resource, VR, performance threshold for one or more VRs supporting a VNF used to implement a virtualized network element in a 3rd Generation Partnership Project, 3GPP, network; determining whether the VNF-related VR performance threshold has been crossed based on received VNF-related VR performance data; in response to a determination that the VNF-related VR performance threshold has been crossed, sending a VNF-related VR performance alarm notification to an element manager (EM, 108), characterised in that the EM sends a notification of the VNF-related VR performance alarm notification to a network manager, NM, in response to receiving the VNF-related VR performance alarm notification performing , by the NM, an alarm correlation procedure for determining whether to restart a VNF instance, wherein the alarm correlation procedure comprises checking for one or more correlations between a virtual resource performance alarm of a virtual resource and one or more other virtual resource performance alarms of other virtual resources; and determining , by the NM, whether the VNF instance is to be restarted based on the alarm correlation procedure. identifying a virtualized network function, VNF, related virtualized resource, VR, performance threshold for one or more VRs supporting a VNF used to implement a virtualized network element in a 3rd Generation Partnership Project, 3GPP, network; determining whether the VNF-related VR performance threshold has been crossed based on received VNF-related VR performance data; in response to a determination that the VNF-related VR performance threshold has been crossed, sending a VNF-related VR performance alarm notification to an element manager (EM, 108), characterised in that the EM sends a notification of the VNF-related VR performance alarm notification to a network manager, NM, in response to receiving the VNF-related VR performance alarm notification performing , by the NM, an alarm correlation procedure for determining whether to restart a VNF instance, wherein the alarm correlation procedure comprises checking for one or more correlations between a virtual resource performance alarm of a virtual resource and one or more other virtual resource performance alarms of other virtual resources; and determining , by the NM, whether the VNF instance is to be restarted based on the alarm correlation procedure.
A method for controlling a wind power installation , comprising: providing a wind speed and a direction of incident flow , which are determined by a wind measuring device of the wind power installation , providing a correction value of the direction of incident flow in dependence on the wind speed , carrying out a process of learning the correction value of the direction of incident flow in dependence on the wind speed, wherein the learning process comprises several optimizing steps and an execution of the optimizing steps depending on the optimizing steps that have already been carried out for the wind speed provided, characterized in that a time period between two optimizing steps carried out for a wind speed increases with the number of optimizing steps executed. providing a wind speed and a direction of incident flow , which are determined by a wind measuring device of the wind power installation , providing a correction value of the direction of incident flow in dependence on the wind speed , carrying out a process of learning the correction value of the direction of incident flow in dependence on the wind speed, wherein the learning process comprises several optimizing steps and an execution of the optimizing steps depending on the optimizing steps that have already been carried out for the wind speed provided, characterized in that a time period between two optimizing steps carried out for a wind speed increases with the number of optimizing steps executed.
A variable pitch fan, comprising: - a plurality of blades ; - a supporting device for supporting the blades ; - a rotation device for rotating the supporting device around a rotation axis (X), so that the blades rotate with the supporting device to control an air flow; - an adjusting device for adjusting a pitch of the blades by tilting each blade around a respective tilt axis (Z), the adjusting device comprising a driven element fixed relative to a blade ; the adjusting device further comprises a mechanical driving element supported by the supporting device so as to rotate with the supporting device , the mechanical driving element being linearly displaceable relative to the supporting device and being coupled to the driven element so that a linear motion of the mechanical driving element is converted into a rotary motion of the driven element around the tilt axis (Z) wherein the mechanical driving element comprises a plurality of mechanical driving elements , each comprising a rack and the driven element comprises a rotatable element associated to a blade , having at least a portion of toothed surface for engaging with the rack , particularly a pinion and further comprising a transmission device for transmitting linear motion from an actuator to the mechanical driving element wherein the transmission device comprises a plurality of discrete bodies contained inside a tubular guide , the racks being fixed relative to a common control, element , said control element is housed inside a housing of the supporting device , the blades extending outside the housing , each blade being connected to a driven element by a stem passing through a hole obtained in a wall of the housing , said variable pitch fan further comprising an elastic element , particularly a spring, interposed between the housing and the control element , wherein the elastic element is configured to push the control element backwards when it is desired to invert a direction of the linear motion transmitted to the control element . - a plurality of blades ; - a supporting device for supporting the blades ; - a rotation device for rotating the supporting device around a rotation axis (X), so that the blades rotate with the supporting device to control an air flow; - an adjusting device for adjusting a pitch of the blades by tilting each blade around a respective tilt axis (Z), the adjusting device comprising a driven element fixed relative to a blade ;
Roof comprising at least an inclined surface ,a ridge beam mounted at the apex of the roof, and a rim marking a transition to another surface extending horizontally or at a different inclination, the inclined surface and the rim being covered by roof elements (12; 31, 34), the roof further comprising at least one anchor for attaching a safety rope to, a longitudinal guide secured to the roof beneath the roof elements (12; 31, 34) covering the rim, wherein the guide comprises at least one rail and the at least one anchor is slidably secured to, in or about the rail , wherein the roof elements (12; 31, 34) covering the rim are spaced apart from the roof elements covering the inclined surface so as to allow access to the anchor from outside the roof , wherein the roof elements (12; 31, 34) covering the rim are fixed to the guide , wherein the guide comprises an extrusion profile , the roof comprises ridge beam supports via which said ridge beam is mounted to said roof and the extrusion profile is fastened to the ridge beam supports ,wherein the ridge beam is made of metal and forms an integral part of the extrusion profile ,the extrusion profile being secured to the ridge beam supports by means of bolts .
Use of cocoa shell powder to increase resistance of chocolate products to fat bloom, wherein the cocoa shell powder is present in the chocolate product in an amount of 5 to 40 wt.-%.
A computer-implemented method for providing setpoint values for a feed rate for adaptive feed control on numerically controlled machine tools, the method comprising: upon machining a workpiece with a tool , - (M10) receiving a real-time data associated with a current state of at least one controlled axis (X, Y, Z), wherein the real-time data comprises measured values of a torque of a spindle , - (M20) determining actual values of at least one cutting force of the tool from the torque of the spindle , - (M30) receiving a look-ahead data associated with a predicted state of the at least one controlled axis (X, Y, Z), - (M40) simulating the machining of the workpiece based on the real-time data and on the look-ahead data , wherein simulated values of the at least one cutting force of the tool are generated, the simulated values comprising values of the at least one cutting force of the tool predicted in time increments, which are sufficient to adjust the feed rate before a force spike occurs, - (M50) determining at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z) based on the simulated values and on the actual values of the at least one cutting force of the tool , - (M60) providing the at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z). - (M10) receiving a real-time data associated with a current state of at least one controlled axis (X, Y, Z), wherein the real-time data comprises measured values of a torque of a spindle , - (M20) determining actual values of at least one cutting force of the tool from the torque of the spindle , - (M30) receiving a look-ahead data associated with a predicted state of the at least one controlled axis (X, Y, Z), - (M40) simulating the machining of the workpiece based on the real-time data and on the look-ahead data , wherein simulated values of the at least one cutting force of the tool are generated, the simulated values comprising values of the at least one cutting force of the tool predicted in time increments, which are sufficient to adjust the feed rate before a force spike occurs, - (M50) determining at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z) based on the simulated values and on the actual values of the at least one cutting force of the tool , - (M60) providing the at least one setpoint value for the feed rate of the at least one controlled axis (X, Y, Z).
Multicomponent composition comprising - an epoxy component comprising at least one reactive epoxy resin, - a hardener component comprising at least one hardener for the epoxy resin, - a cement component comprising cement and at least one filler, and - 0.1% to 5% by weight, based on the total weight of the multicomponent composition, of at least one polymeric binder which is solid at 23°C, wherein the at least one polymeric binder has a melting or softening temperature of more than 23°C. - an epoxy component comprising at least one reactive epoxy resin, - a hardener component comprising at least one hardener for the epoxy resin, - a cement component comprising cement and at least one filler, and - 0.1% to 5% by weight, based on the total weight of the multicomponent composition, of at least one polymeric binder which is solid at 23°C, wherein the at least one polymeric binder has a melting or softening temperature of more than 23°C.
A system comprising: a surface configured to display a plurality of images related to a game; a vehicle configured to accommodate a rider and comprising interface circuitry configured to receive an input from the rider related to a vehicle path on the surface , wherein the vehicle operates according to the input to move on the surface on the vehicle path; wherein the vehicle includes a vehicle controller configured to control movement of the vehicle on the surface according to the input from the vehicle rider; and a game controller configured to: determine that the vehicle has moved over a first image of the plurality of images while on the vehicle path based on a signal from the vehicle , the surface , an external sensor , or a combination thereof; provide instructions to display circuitry associated with the surface to change the first image when the vehicle has moved over the first image while on the vehicle path; and update a score associated with the vehicle when the vehicle has moved over the first image while on the vehicle path. a surface configured to display a plurality of images related to a game; a vehicle configured to accommodate a rider and comprising interface circuitry configured to receive an input from the rider related to a vehicle path on the surface , wherein the vehicle operates according to the input to move on the surface on the vehicle path; wherein the vehicle includes a vehicle controller configured to control movement of the vehicle on the surface according to the input from the vehicle rider; and a game controller configured to: determine that the vehicle has moved over a first image of the plurality of images while on the vehicle path based on a signal from the vehicle , the surface , an external sensor , or a combination thereof; provide instructions to display circuitry associated with the surface to change the first image when the vehicle has moved over the first image while on the vehicle path; and update a score associated with the vehicle when the vehicle has moved over the first image while on the vehicle path. determine that the vehicle has moved over a first image of the plurality of images while on the vehicle path based on a signal from the vehicle , the surface , an external sensor , or a combination thereof; provide instructions to display circuitry associated with the surface to change the first image when the vehicle has moved over the first image while on the vehicle path; and update a score associated with the vehicle when the vehicle has moved over the first image while on the vehicle path.
A method for transmitting a positioning reference signal, characterized by comprising: mapping (S401), by a base station, according to configuration information of a positioning reference signal, PRS, a PRS sequence to a time-frequency resource for sending the PRS; wherein: the configuration information of the PRS comprises PRS frequency domain resource indication information; characterized by the PRS frequency domain resource indication information comprising a start of a downlink resource grid, a start of a PRS bandwidth, the PRS bandwidth, PRS amplitude scaling and PRS resource element, RE, frequency shift indication information; the PRS RE frequency shift indication information comprises a sequence number of symbols adopted by the PRS, a PRS sequence identity and a PRS RE density configuration parameter; and the PRS RE density configuration parameter is configured to indicate a quantity of REs for sending the PRS in PRS resource blocks, RB; sending (S402), by the base station, the configuration information of the PRS to a terminal; and sending (S403), by the base station, a mapped PRS on the time-frequency resource for sending the PRS. the configuration information of the PRS comprises PRS frequency domain resource indication information; characterized by the PRS frequency domain resource indication information comprising a start of a downlink resource grid, a start of a PRS bandwidth, the PRS bandwidth, PRS amplitude scaling and PRS resource element, RE, frequency shift indication information; the PRS RE frequency shift indication information comprises a sequence number of symbols adopted by the PRS, a PRS sequence identity and a PRS RE density configuration parameter; and the PRS RE density configuration parameter is configured to indicate a quantity of REs for sending the PRS in PRS resource blocks, RB; sending (S402), by the base station, the configuration information of the PRS to a terminal; and sending (S403), by the base station, a mapped PRS on the time-frequency resource for sending the PRS.