mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for rejecting an image band in a radio frequency, RF, signal, the apparatus comprising: an image rejection filter ; an oscillator configured to generate an oscillator signal (LO 1 ); a mixer coupled to the image rejection filter and the oscillator, the mixer configured to convert a received input signal to a first intermediate frequency signal (IF 1 ) based on the oscillator signal (LO 1 ); a frequency divider configured to generate a plurality of oscillator signals in quadrature with each other (LO 2-I , LO 2-Q ); and a translational filter comprising a plurality of passive mixers configured to convert the first intermediate frequency signal (IF 1 ) to a plurality of second intermediate frequency signals in quadrature with each other (IF 2-I , IF 2-Q ) based on the plurality of quadrature oscillator signals (LO 2-I , LO 2-Q ); and a plurality of frequency-dependent impedances each coupled as a load to an output of a respective one of the plurality of passive mixers, wherein: the image rejection filter and the translational filter are adapted to combine to provide a bandpass filter for selecting a desired signal in the RF signal and a band-stop filter for suppressing the image band in the RF signal. an image rejection filter ; an oscillator configured to generate an oscillator signal (LO 1 ); a mixer coupled to the image rejection filter and the oscillator, the mixer configured to convert a received input signal to a first intermediate frequency signal (IF 1 ) based on the oscillator signal (LO 1 ); a frequency divider configured to generate a plurality of oscillator signals in quadrature with each other (LO 2-I , LO 2-Q ); and a translational filter comprising a plurality of passive mixers configured to convert the first intermediate frequency signal (IF 1 ) to a plurality of second intermediate frequency signals in quadrature with each other (IF 2-I , IF 2-Q ) based on the plurality of quadrature oscillator signals (LO 2-I , LO 2-Q ); and a plurality of frequency-dependent impedances each coupled as a load to an output of a respective one of the plurality of passive mixers, wherein: the image rejection filter and the translational filter are adapted to combine to provide a bandpass filter for selecting a desired signal in the RF signal and a band-stop filter for suppressing the image band in the RF signal.
A method for managing processor elements contending for one or more common resources on a computing device having a plurality of processor elements , comprising: determining a parameter for use in assigning priorities to the plurality of processor elements requesting access to a resource based on an operating state of the computing device ; assigning a priority to a processor element for requesting access to the resource, wherein the priority is assigned based on a comparison of the parameter for the processor element to one or more similar parameters of the other processor elements; signaling the processor element requesting access to the resource to wait for the resource to become available in response to determining that the resource is not available; and signaling the processor element to access the resource in response to determining that the resource is available and that the processor element is assigned a highest priority for requesting access to the resource. determining a parameter for use in assigning priorities to the plurality of processor elements requesting access to a resource based on an operating state of the computing device ; assigning a priority to a processor element for requesting access to the resource, wherein the priority is assigned based on a comparison of the parameter for the processor element to one or more similar parameters of the other processor elements; signaling the processor element requesting access to the resource to wait for the resource to become available in response to determining that the resource is not available; and signaling the processor element to access the resource in response to determining that the resource is available and that the processor element is assigned a highest priority for requesting access to the resource.
A display apparatus for use in a vehicle, said display apparatus comprising a directional display device arranged to display an image, the directional display device having an angular output light distribution that is variable, and characterized by further comprising a control system arranged to vary the angular output light distribution of the directional display device on the basis of the output of a vehicle sensor system provided on the vehicle, wherein the vehicle sensor system comprises a darkness sensor system arranged to detect dark ambient conditions, the control system being arranged to angularly restrict the angular output light distribution of the directional display device on the basis of the output of the darkness sensor system indicating that dark ambient conditions have been detected. a directional display device arranged to display an image, the directional display device having an angular output light distribution that is variable, and characterized by further comprising a control system arranged to vary the angular output light distribution of the directional display device on the basis of the output of a vehicle sensor system provided on the vehicle, wherein the vehicle sensor system comprises a darkness sensor system arranged to detect dark ambient conditions, the control system being arranged to angularly restrict the angular output light distribution of the directional display device on the basis of the output of the darkness sensor system indicating that dark ambient conditions have been detected.
A method for isolating applications associated with multiple tenants within a computing platform, the method comprising: receiving a request from a client associated with a tenant for running an application on a computing platform, the computing platform including a plurality of hosts connected through a network, each host being associated with a network address and configured to run applications associated with multiple tenants; identifying one or more hosts of the plurality of hosts based at least in part on the request; generating one or more broadcast domains including the identified one or more hosts, the one or more broadcast domains being isolated in the network at a data link layer; assigning to the one or more broadcast domains a unique tenant identification number corresponding to the tenant; launching the application on at least one host of the identified one or more hosts; and in response to launching the application on the at least one host: assigning the unique tenant identification number to the launched application; adding the unique tenant identification number to the network address of the at least one host; and sending the network address of the at least one host to the client associated with the tenant; wherein the method is performed using one or more processors. receiving a request from a client associated with a tenant for running an application on a computing platform, the computing platform including a plurality of hosts connected through a network, each host being associated with a network address and configured to run applications associated with multiple tenants; identifying one or more hosts of the plurality of hosts based at least in part on the request; generating one or more broadcast domains including the identified one or more hosts, the one or more broadcast domains being isolated in the network at a data link layer; assigning to the one or more broadcast domains a unique tenant identification number corresponding to the tenant; launching the application on at least one host of the identified one or more hosts; and in response to launching the application on the at least one host: assigning the unique tenant identification number to the launched application; adding the unique tenant identification number to the network address of the at least one host; and sending the network address of the at least one host to the client associated with the tenant; assigning the unique tenant identification number to the launched application; adding the unique tenant identification number to the network address of the at least one host; and sending the network address of the at least one host to the client associated with the tenant; wherein the method is performed using one or more processors.
A retainer (108; 508) for retaining a clip to a rotor (102; 502): the retainer (108; 508) having a first end (122; 522) and a second end defining a length between the first end (122; 522) and the second end , the retainer (108; 508) being partially positionable within an opening in the rotor (102; 502) such that at least one of the first end (122; 522) and the second end protrudes axially from the opening at a greater radial location of the rotor (102; 502) than a flange of the clip , the retainer (108; 508) being configured to radially retain the clip to the rotor (102; 502), the length of the retainer (108; 508) being between 105% and 200% of a width of the rotor (102; 502) at the opening, wherein the first end (122; 522) is configured to engage a first side of the clip and the second end configured to engage a second side of the clip , wherein the first side and the second side are configured to be located on opposite sides of the rotor (102; 502); and characterised in that an aperture is disposed in the retainer (108; 508) extending in a radial direction when the retainer (108; 508) is in an installed position, wherein the aperture is configured to receive a fastener to fasten the retainer (108; 508) to the rotor (102; 502). the retainer (108; 508) having a first end (122; 522) and a second end defining a length between the first end (122; 522) and the second end , the retainer (108; 508) being partially positionable within an opening in the rotor (102; 502) such that at least one of the first end (122; 522) and the second end protrudes axially from the opening at a greater radial location of the rotor (102; 502) than a flange of the clip , the retainer (108; 508) being configured to radially retain the clip to the rotor (102; 502), the length of the retainer (108; 508) being between 105% and 200% of a width of the rotor (102; 502) at the opening, wherein the first end (122; 522) is configured to engage a first side of the clip and the second end configured to engage a second side of the clip , wherein the first side and the second side are configured to be located on opposite sides of the rotor (102; 502); and characterised in that an aperture is disposed in the retainer (108; 508) extending in a radial direction when the retainer (108; 508) is in an installed position, wherein the aperture is configured to receive a fastener to fasten the retainer (108; 508) to the rotor (102; 502).
Ambulatory infusion device , wherein the ambulatory infusion device is an extracorporeal device, including: a) a control unit , wherein the control unit includes a noise generator module , an evaluation module and a switching module ; b) an electroacoustic transducer (1 2); wherein the control unit is configured • to operate the electroacoustic transducer as noise emitter, wherein the switching module operatively connects the electroacoustic transducer with the noise generator module ; • and to operate the electroacoustic transducer alternatively as noise receiver, wherein the switching module operatively connects the electroacoustic transducer with the evaluation module , wherein the evaluation module is configured to determine from a received noise that is received by the electroacoustic transducer a state of the ambulatory infusion device . a) a control unit , wherein the control unit includes a noise generator module , an evaluation module and a switching module ; b) an electroacoustic transducer (1 2); wherein the control unit is configured • to operate the electroacoustic transducer as noise emitter, wherein the switching module operatively connects the electroacoustic transducer with the noise generator module ; • and to operate the electroacoustic transducer alternatively as noise receiver, wherein the switching module operatively connects the electroacoustic transducer with the evaluation module , wherein the evaluation module is configured to determine from a received noise that is received by the electroacoustic transducer a state of the ambulatory infusion device . • to operate the electroacoustic transducer as noise emitter, wherein the switching module operatively connects the electroacoustic transducer with the noise generator module ; • and to operate the electroacoustic transducer alternatively as noise receiver, wherein the switching module operatively connects the electroacoustic transducer with the evaluation module , wherein the evaluation module is configured to determine from a received noise that is received by the electroacoustic transducer a state of the ambulatory infusion device .
A method for supporting remote control of a container crane , the container crane being configured to move containers from one location to another, the method being performed in a container crane control system , and comprising the steps of: receiving work order information, each work order specifying a location of a container to be picked up and a destination of the container to be placed; obtaining a first video stream of images of a pick-up location; identifying the container to be picked up in the images of the first video stream; modifying the first video stream images, which comprises highlighting the container to be picked up; and presenting the modified video stream of images on a display. receiving work order information, each work order specifying a location of a container to be picked up and a destination of the container to be placed; obtaining a first video stream of images of a pick-up location; identifying the container to be picked up in the images of the first video stream; modifying the first video stream images, which comprises highlighting the container to be picked up; and presenting the modified video stream of images on a display.
An inverter that outputs voltage for driving an electric motor , the inverter comprising: a first restart voltage reference generator configured to receive three phase currents output from the electric motor and a frequency of the inverter and a rating current of the motor to output a first restart voltage and a first restart phase angle; a second restart voltage reference generator configured to receive an inverter output voltage output from the inverter to output a second restart voltage and a second restart phase angle; and a switch unit configured to receive the first restart voltage, the first restart phase angle, the second restart voltage and the second restart phase angle to output a restart voltage and a phase angle according to a restart flag, characterized in that : the inverter is configured to calculate a maximum load torque generated by the electric motor in the restart zone and a load torque in the restart zone and to compare the maximum load torque with the load torque, the switch unit is configured to apply the first restart voltage and the first phase angle to the inverter when the maximum load torque is smaller than the load torque, and the switch unit is configured to apply the second restart voltage and the second phase angle to the inverter when the maximum load torque is larger than the load torque. a first restart voltage reference generator configured to receive three phase currents output from the electric motor and a frequency of the inverter and a rating current of the motor to output a first restart voltage and a first restart phase angle; a second restart voltage reference generator configured to receive an inverter output voltage output from the inverter to output a second restart voltage and a second restart phase angle; and a switch unit configured to receive the first restart voltage, the first restart phase angle, the second restart voltage and the second restart phase angle to output a restart voltage and a phase angle according to a restart flag, characterized in that : the inverter is configured to calculate a maximum load torque generated by the electric motor in the restart zone and a load torque in the restart zone and to compare the maximum load torque with the load torque, the switch unit is configured to apply the first restart voltage and the first phase angle to the inverter when the maximum load torque is smaller than the load torque, and the switch unit is configured to apply the second restart voltage and the second phase angle to the inverter when the maximum load torque is larger than the load torque. the inverter is configured to calculate a maximum load torque generated by the electric motor in the restart zone and a load torque in the restart zone and to compare the maximum load torque with the load torque, the switch unit is configured to apply the first restart voltage and the first phase angle to the inverter when the maximum load torque is smaller than the load torque, and the switch unit is configured to apply the second restart voltage and the second phase angle to the inverter when the maximum load torque is larger than the load torque.
A polyethylene composition comprising the product of the combination of: a) at least one copolymer comprising units derived from at least 85 wt% ethylene and a C 3 to C 40 α-olefin, the at least one copolymer having a density from 0.905 g/cm 3 to 0.930 g/cm 3 and a melt index (I 2.16 ) from 0.20 g/10 min to 10.0 g/10 min; and b) from 0.10 wt% to 10 wt% of a cyclic-diene terpolymer (CDTP), by weight of the composition; the CDTP comprising units derived from 0.01 wt% to 10.0 wt% cyclic-diene units, from 0.01 wt% to 20 wt% of C 3 to C 10 α-olefin units, and ethylene units. a) at least one copolymer comprising units derived from at least 85 wt% ethylene and a C 3 to C 40 α-olefin, the at least one copolymer having a density from 0.905 g/cm 3 to 0.930 g/cm 3 and a melt index (I 2.16 ) from 0.20 g/10 min to 10.0 g/10 min; and b) from 0.10 wt% to 10 wt% of a cyclic-diene terpolymer (CDTP), by weight of the composition; the CDTP comprising units derived from 0.01 wt% to 10.0 wt% cyclic-diene units, from 0.01 wt% to 20 wt% of C 3 to C 10 α-olefin units, and ethylene units.
A process for the preparation of antimicrobial polyurea-based core-shell microcapsules comprising the following steps: a) dissolving at least one polyisocyanate in a perfume to form an oil phase; b) dispersing the oil phase into an aqueous solution comprising an anionic emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion a polyamine, a silver salt and a reducing agent provided that the reducing agent is added after the silver salt; to form microcapsules with polyurea-based walls comprising silver particles in or on the walls. a) dissolving at least one polyisocyanate in a perfume to form an oil phase; b) dispersing the oil phase into an aqueous solution comprising an anionic emulsifier to form an oil-in-water emulsion; c) adding to the oil-in-water emulsion a polyamine, a silver salt and a reducing agent provided that the reducing agent is added after the silver salt; to form microcapsules with polyurea-based walls comprising silver particles in or on the walls.
A system for automating the loading and extraction of a carriage on a receiver mounted in an ambulance, wherein the system comprises a carriage and a receiver , the carriage comprising front and rear legs which are movable between two positions, respectively an unfolded position and a folded position, means for unlocking the legs in the unfolded position, and at least one leg motor ensuring the unlocking of the unlocking means , the receiver comprising means for anchoring a front part of the carriage , means for automated translation of the carriage on the receiver and means for detecting a position of the carriage on the receiver , the system incorporates at least one supervising device (67-68) configured to communicate between the carriage and the receiver to automate the loading of the carriage in accordance with the following steps: - detection of the anchoring of the front part of the carriage with the anchoring means of the receiver; - activation of the leg motor to unlock the locking means of the front leg of the carriage ; - pulling of the carriage onto the receiver until it reaches a rear unlocking position; - activation of the leg motor to unlock the locking means of the rear leg of the carriage ; and - pulling of the carriage onto the receiver until it reaches a high position. the receiver comprising means for anchoring a front part of the carriage , means for automated translation of the carriage on the receiver and means for detecting a position of the carriage on the receiver , the system incorporates at least one supervising device (67-68) configured to communicate between the carriage and the receiver to automate the loading of the carriage in accordance with the following steps: - detection of the anchoring of the front part of the carriage with the anchoring means of the receiver; - activation of the leg motor to unlock the locking means of the front leg of the carriage ; - pulling of the carriage onto the receiver until it reaches a rear unlocking position; - activation of the leg motor to unlock the locking means of the rear leg of the carriage ; and - pulling of the carriage onto the receiver until it reaches a high position. - detection of the anchoring of the front part of the carriage with the anchoring means of the receiver; - activation of the leg motor to unlock the locking means of the front leg of the carriage ; - pulling of the carriage onto the receiver until it reaches a rear unlocking position; - activation of the leg motor to unlock the locking means of the rear leg of the carriage ; and - pulling of the carriage onto the receiver until it reaches a high position.
A system comprising: a core holder ; resonators formed on the core holder and configured for spatial distribution across a dimension of a target held by the core holder in use, the target being a core of a reservoir formation comprised of porous rock, the resonators each being configured to transmit signals into the target and to receive signals through the target , the resonators each comprising a resonator port ; at least one common feedline capacitively coupling the resonators , the at least one common feedline comprising one or more common ports ; and a data processing system to generate, based on the signals transmitted and received, a saturation profile of the target , and where the data processing system is configured to access each resonator through the resonator port and the one or more common ports . a core holder ; resonators formed on the core holder and configured for spatial distribution across a dimension of a target held by the core holder in use, the target being a core of a reservoir formation comprised of porous rock, the resonators each being configured to transmit signals into the target and to receive signals through the target , the resonators each comprising a resonator port ; at least one common feedline capacitively coupling the resonators , the at least one common feedline comprising one or more common ports ; and a data processing system to generate, based on the signals transmitted and received, a saturation profile of the target , and where the data processing system is configured to access each resonator through the resonator port and the one or more common ports .