mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a rotary wing aircraft, the method comprising: receiving probe data from an airspeed probe; receiving control inputs from one or more cockpit controls and determine commanded actuator positions; the method being characterised by the following steps: determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed. receiving probe data from an airspeed probe; receiving control inputs from one or more cockpit controls and determine commanded actuator positions; the method being characterised by the following steps: determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed. determining a measured airspeed of the rotary wing aircraft based on the probe data; determining an estimated airspeed of the rotary wing aircraft based on the commanded actuator positions; determining a first fade value based on the measured airspeed; determining a second fade value based on the estimated airspeed; determining a blended airspeed based on the measured airspeed, the estimated airspeed, the first fade value, and the second fade value; and controlling the rotary wing aircraft based at least in part on the blended airspeed.
Actuating device for a brake system, comprising an electric motor which is designed to drive a drive shaft which is mounted so as to be rotatable about an axis of rotation, a housing and a master brake cylinder which is rigidly connected to the housing, wherein at least one hydraulic piston is mounted so as to be displaceable in the master brake cylinder, and wherein the drive shaft is coupled to the hydraulic piston in such a way that the hydraulic piston can be displaced by a rotation of the drive shaft, wherein the electric motor is arranged in the housing, characterized in that the rigid connection between the master brake cylinder and the housing is provided at least in part by the drive shaft.
A compound of formula: wherein: each R 1 and R 2 is, independently in each occurrence, a substituent; each R 3 is, independently in each occurrence, H or a substituent; R 4 -R 9 are, independently, H or a substituent; each R 10 is, independently in each occurrence, H or a substituent; each R 11 -R 14 is, independently in each occurrence, H or a substituent; each Y is independently O or S; Z 1 is a direct bond or Z 1, together with R 4 or R 5, forms an aromatic or heteroaromatic group Ar 1; Z 2 is a direct bond or, together with R 7 or R 8, forms an aromatic or heteroaromatic group Ar 2; Z 3 is a direct bond or, together with R 6, forms an aromatic or heteroaromatic group Ar 3; and Z 4 is a direct bond or, together with R 9, forms an aromatic or heteroaromatic group Ar 4; characterized in that at least one occurrence of at least one of R 11 -R 14 is CN. each R 1 and R 2 is, independently in each occurrence, a substituent; each R 3 is, independently in each occurrence, H or a substituent; R 4 -R 9 are, independently, H or a substituent; each R 10 is, independently in each occurrence, H or a substituent; each R 11 -R 14 is, independently in each occurrence, H or a substituent; each Y is independently O or S; Z 1 is a direct bond or Z 1, together with R 4 or R 5, forms an aromatic or heteroaromatic group Ar 1; Z 2 is a direct bond or, together with R 7 or R 8, forms an aromatic or heteroaromatic group Ar 2; Z 3 is a direct bond or, together with R 6, forms an aromatic or heteroaromatic group Ar 3; and Z 4 is a direct bond or, together with R 9, forms an aromatic or heteroaromatic group Ar 4; characterized in that at least one occurrence of at least one of R 11 -R 14 is CN.
A microfluidic device for sequencing a nucleic acid characterised by comprising: • a first zone in which the analyte is contained and progressively digested into a stream of its constituent single nucleotides, wherein the first zone comprises a means for progressively digesting the analyte; • a primary microfluidic pathway connected to the first zone adapted to allow passage of a carrier solvent containing an ordered stream of primary aqueous microdroplets at least some of which contain one of the single nucleotides; • a second zone disposed within the primary microfluidic pathway and comprising a microdroplet injector and a coalescence means for sequentially coalescing secondary aqueous microdroplets from a secondary microfluidic pathway into the primary aqueous microdroplets in the ordered stream to form secondary droplets; • a third zone disposed within the primary microfluidic pathway and comprising a microdroplet injector and coalescence means for sequentially coalescing tertiary aqueous microdroplets from a tertiary microfluidic pathway to coalesce with the secondary aqueous droplets in the ordered stream to form tertiary droplets; • a cartridge connected to the primary microfluidic pathway in which the tertiary aqueous microdroplets are stored; • a light source for interrogating the microdroplets downstream of the primary microfluidic pathway and • a photodetector for detecting fluorescence. • a first zone in which the analyte is contained and progressively digested into a stream of its constituent single nucleotides, wherein the first zone comprises a means for progressively digesting the analyte; • a primary microfluidic pathway connected to the first zone adapted to allow passage of a carrier solvent containing an ordered stream of primary aqueous microdroplets at least some of which contain one of the single nucleotides; • a second zone disposed within the primary microfluidic pathway and comprising a microdroplet injector and a coalescence means for sequentially coalescing secondary aqueous microdroplets from a secondary microfluidic pathway into the primary aqueous microdroplets in the ordered stream to form secondary droplets; • a third zone disposed within the primary microfluidic pathway and comprising a microdroplet injector and coalescence means for sequentially coalescing tertiary aqueous microdroplets from a tertiary microfluidic pathway to coalesce with the secondary aqueous droplets in the ordered stream to form tertiary droplets; • a cartridge connected to the primary microfluidic pathway in which the tertiary aqueous microdroplets are stored; • a light source for interrogating the microdroplets downstream of the primary microfluidic pathway and • a photodetector for detecting fluorescence.
A mobility management method, comprising: allocating (S201, S501), by a first base station to which a first cell belongs, a source identifier to a user equipment, UE, in a connected state in the first cell, wherein the source identifier comprises a UE identifier used to identify the UE in the first base station; sending, by the first base station, a control instruction to the UE to instruct the UE to enter a low-overhead state, wherein the low-overhead state is a state in which a connection context is stored in the UE and the UE camps on a cell according to a cell reselection criterion in a moving process; storing (S204, S504), by the first base station, the connection context of the UE in the connected state; and characterised by receiving, by the first base station, information about a paging parameter from a core network, wherein the paging parameter comprises a paging index of the UE or a DRX cycle of the UE; sending, by the first base station, a paging message to a second base station when downlink data for the UE reaches the first base station, wherein the second base station and the first base station belong to a same paging region, and the paging message comprises the paging parameter and the source identifier. allocating (S201, S501), by a first base station to which a first cell belongs, a source identifier to a user equipment, UE, in a connected state in the first cell, wherein the source identifier comprises a UE identifier used to identify the UE in the first base station; sending, by the first base station, a control instruction to the UE to instruct the UE to enter a low-overhead state, wherein the low-overhead state is a state in which a connection context is stored in the UE and the UE camps on a cell according to a cell reselection criterion in a moving process; storing (S204, S504), by the first base station, the connection context of the UE in the connected state; and characterised by receiving, by the first base station, information about a paging parameter from a core network, wherein the paging parameter comprises a paging index of the UE or a DRX cycle of the UE; sending, by the first base station, a paging message to a second base station when downlink data for the UE reaches the first base station, wherein the second base station and the first base station belong to a same paging region, and the paging message comprises the paging parameter and the source identifier.
A memory device for a printing device component, the memory device comprising: compressed coefficients that, when decompressed by a printing device, form difference entries, wherein each difference entry of the difference entries represents a difference of a value of a corresponding entry of a halftone table and a value of a corresponding entry of a reference table; and healing parameter values specifying a healing process to apply to a reconstructed halftone table produced using said coefficients once decompressed, wherein the healing process specified by the healing parameter values enforces monotonicity in an increase in pulse width modulation values for controlling a pixel, wherein the compressed coefficients and the healing parameter values are accessible by the printing device to reconstruct a halftone table used in halftone printing by the printing device. compressed coefficients that, when decompressed by a printing device, form difference entries, wherein each difference entry of the difference entries represents a difference of a value of a corresponding entry of a halftone table and a value of a corresponding entry of a reference table; and healing parameter values specifying a healing process to apply to a reconstructed halftone table produced using said coefficients once decompressed, wherein the healing process specified by the healing parameter values enforces monotonicity in an increase in pulse width modulation values for controlling a pixel, wherein the compressed coefficients and the healing parameter values are accessible by the printing device to reconstruct a halftone table used in halftone printing by the printing device.
A method, comprising: configuring, by a network element, a user equipment to perform measurements on a secondary cell group, according to activity in the secondary cell group and to perform measurements on a master cell group, according to activity in the secondary cell group, wherein the configuring comprises requiring the user equipment to perform increased measurements on the master cell group when a discontinuous reception inactivity timer is running on the secondary cell group. configuring, by a network element, a user equipment to perform measurements on a secondary cell group, according to activity in the secondary cell group and to perform measurements on a master cell group, according to activity in the secondary cell group, wherein the configuring comprises requiring the user equipment to perform increased measurements on the master cell group when a discontinuous reception inactivity timer is running on the secondary cell group.
Door lock mechanism for use in a cluster mailbox, especially a cabinet for letters, containing the following elements built-in within a housing: - linear electromechanical actuator, - "L"-shaped double-arm lever rotated by 180° on its horizontal shorter arm in such a way that its vertical longer arm assumes the position below the shorter arm, and - the double-arm lever with a rotating bearing on a pin in the corner area of both arms (8, 10), the horizontal shorter arm of the lever is ended with a hooked bolt protruding from a face plate of the housing and at the end of the longer vertical arm there is a pusher mounted towards an orifice in the face plate; moreover, - the double-arm lever is loaded with a torsion spring with its one end mounted on the pin and with its second end fixed to the longer arm from the side of the pusher, whereas - the electromagnetic actuator is mounted in such a way that a piston rod presses the longer arm on the side opposite to the side of the pusher, and that - the length of arms (8, 10) of the double-arm lever, the depth (g) of the bolt and the length of the pusher are chosen in such a way that when the piston rod of the electromagnetic actuator is being pushed out, the front surface of the pusher touches the door only when the bolt is lifted to the height that is equal to or larger than its depth (g). - linear electromechanical actuator, - "L"-shaped double-arm lever rotated by 180° on its horizontal shorter arm in such a way that its vertical longer arm assumes the position below the shorter arm, and - the double-arm lever with a rotating bearing on a pin in the corner area of both arms (8, 10), the horizontal shorter arm of the lever is ended with a hooked bolt protruding from a face plate of the housing and at the end of the longer vertical arm there is a pusher mounted towards an orifice in the face plate; moreover, - the double-arm lever is loaded with a torsion spring with its one end mounted on the pin and with its second end fixed to the longer arm from the side of the pusher, whereas - the electromagnetic actuator is mounted in such a way that a piston rod presses the longer arm on the side opposite to the side of the pusher, and that - the length of arms (8, 10) of the double-arm lever, the depth (g) of the bolt and the length of the pusher are chosen in such a way that when the piston rod of the electromagnetic actuator is being pushed out, the front surface of the pusher touches the door only when the bolt is lifted to the height that is equal to or larger than its depth (g).
At least one non-transitory computer-readable medium comprising one or more instructions that when executed by at least one processor, cause the at least one processor to: receive registration data from a local network device, wherein the registration data of the local network device comprises an SSID or BSSID for the local network of the local network device; store the registration data from the local network device; receive registration data from an electronic device, wherein the registration data of the electronic device comprises an SSID or BSSID for the local network of the electronic device; transmit, to the local network device, a temporal pairing code; receive, from the electronic device, a request to pair the local network device and the electronic device, wherein the request includes the TPC, and wherein the local network device exposes itself to the network; determine whether the local network device and the electronic device are present in the same local network at the same time by determining whether: (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device; and (b) the TPC is not expired; and based on a determination that the local network device and the electronic device are present in the same local network at the same time because the SSIDs or BSSIDs match and that the TPC is not expired, allow the pairing. receive registration data from a local network device, wherein the registration data of the local network device comprises an SSID or BSSID for the local network of the local network device; store the registration data from the local network device; receive registration data from an electronic device, wherein the registration data of the electronic device comprises an SSID or BSSID for the local network of the electronic device; transmit, to the local network device, a temporal pairing code; receive, from the electronic device, a request to pair the local network device and the electronic device, wherein the request includes the TPC, and wherein the local network device exposes itself to the network; determine whether the local network device and the electronic device are present in the same local network at the same time by determining whether: (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device; and (b) the TPC is not expired; and (a) the SSID or BSSID of the electronic device matches the SSID or BSSID respectively of the local network device; and (b) the TPC is not expired; and based on a determination that the local network device and the electronic device are present in the same local network at the same time because the SSIDs or BSSIDs match and that the TPC is not expired, allow the pairing.
A method (400, 700) performed by a source device (110, 300) comprising: acquiring (412, 702), by a plurality of sensors (112, 305, 307, 309), a plurality of data streams; appending timing information for each of the data streams; forming (416, 706) data packets of the plurality of data streams with the timing information; transmitting (418, 708) the data packets to a target device configured to synchronize the plurality of data streams using the timing information; and characterized in that the method comprises: prioritizing one or more of the plurality of data streams based on an order of reliability received from the target device. acquiring (412, 702), by a plurality of sensors (112, 305, 307, 309), a plurality of data streams; appending timing information for each of the data streams; forming (416, 706) data packets of the plurality of data streams with the timing information; transmitting (418, 708) the data packets to a target device configured to synchronize the plurality of data streams using the timing information; and
A system comprising one or more computing devices for implementing an architecture for activation of virtual network service, comprising: at least one processor coupled to at least one memory containing a machine readable medium comprising machine executable code having stored thereon instructions, the processor configured to execute the machine executable code to cause the processor to: parse (201, 205) a request received from a client machine into one or more child templates; apply a predefined configuration on one or more vendor network systems of a virtual network service, using orchestrators, wherein the predefined configuration, the vendor network system and the virtual network service are extracted from one or more of the child templates; perform at least a two phase diagnostic check of a state of one or more load limits of components and of a performance service level of one or more devices of the vendor network system based on parameter values submitted with the request; perform a healing function on the vendor network system based on the two phase diagnostic check; perform a verification of the virtual network service; and activate the virtual network service based on the verification and the diagnosis. parse (201, 205) a request received from a client machine into one or more child templates; apply a predefined configuration on one or more vendor network systems of a virtual network service, using orchestrators, wherein the predefined configuration, the vendor network system and the virtual network service are extracted from one or more of the child templates; perform at least a two phase diagnostic check of a state of one or more load limits of components and of a performance service level of one or more devices of the vendor network system based on parameter values submitted with the request; perform a healing function on the vendor network system based on the two phase diagnostic check; perform a verification of the virtual network service; and activate the virtual network service based on the verification and the diagnosis.
An apparatus, comprising: a composite balloon including: a fiber tube including a fiber layer (112A, 112B); a polymeric balloon layer over the fiber layer (112A, 112B), and an adhesive or a solvent weld bonding the balloon layer to the fiber layer (112A, 112B). a fiber tube including a fiber layer (112A, 112B); a polymeric balloon layer over the fiber layer (112A, 112B), and an adhesive or a solvent weld bonding the balloon layer to the fiber layer (112A, 112B).
A method for generating inputs to a physical system with varying dynamic properties, the method comprising repeating a plurality of times at different time instants, the steps of: • obtaining an input signal for said physical system at a time instant t; • obtaining said dynamic properties of said physical system at said time instant t; • providing an impulse train based on said dynamic properties at said time instant t, said impulse train comprising a number of impulses and usable for shaping an input to cancel out vibratory modes, wherein providing the impulse train comprises estimating eigenfrequencies and damping ratios and solving a set of constraint equations to obtain impulse magnitudes and delays of the impulses of the impulse train to be applied backwards in time; • storing an input value of said input signal at said time instant t in an input buffer, where said input buffer comprises past input values of said input signal • providing, at said time instant t, a modified input signal for said physical system based on said past input values of said input signal and said impulse train, wherein providing said modified input signal comprises convolving at least a part of said input buffer with said impulse train; • using said modified input signal as input for said physical system. • obtaining an input signal for said physical system at a time instant t; • obtaining said dynamic properties of said physical system at said time instant t; • providing an impulse train based on said dynamic properties at said time instant t, said impulse train comprising a number of impulses and usable for shaping an input to cancel out vibratory modes, wherein providing the impulse train comprises estimating eigenfrequencies and damping ratios and solving a set of constraint equations to obtain impulse magnitudes and delays of the impulses of the impulse train to be applied backwards in time; • storing an input value of said input signal at said time instant t in an input buffer, where said input buffer comprises past input values of said input signal • providing, at said time instant t, a modified input signal for said physical system based on said past input values of said input signal and said impulse train, wherein providing said modified input signal comprises convolving at least a part of said input buffer with said impulse train; • using said modified input signal as input for said physical system.