mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-function transducer assembly comprising: a piezoelectric transducer layer ; at least two spaced first terminals electrically attached to a first surface of the piezoelectric transducer layer and arranged for supplying an audio frequency signal to the piezoelectric transducer layer, wherein the two spaced first terminals are electrically attached to respective peripheral regions (121; 122) of the piezoelectric transducer layer to enable a speaker function that utilises the area of the piezoelectric transducer layer between the two spaced first terminals; and second terminals arranged for receiving at least one signal from the piezoelectric transducer layer wherein the second terminals are electrically attached to a region of the first surface of the piezoelectric transducer layer between the two spaced first terminals . a piezoelectric transducer layer ; at least two spaced first terminals electrically attached to a first surface of the piezoelectric transducer layer and arranged for supplying an audio frequency signal to the piezoelectric transducer layer, wherein the two spaced first terminals are electrically attached to respective peripheral regions (121; 122) of the piezoelectric transducer layer to enable a speaker function that utilises the area of the piezoelectric transducer layer between the two spaced first terminals; and second terminals arranged for receiving at least one signal from the piezoelectric transducer layer wherein the second terminals are electrically attached to a region of the first surface of the piezoelectric transducer layer between the two spaced first terminals .
A first terminal device belonging to a first public land mobile network, PLMN, the first terminal device comprising: circuitry configured to acquire resource information indicating a radio resource for use in device-to-device, D2D, communication between the first terminal device belonging to the first public land mobile network, PLMN, and a second terminal device belonging to a second PLMN; and control D2D communication between the first terminal device and the second terminal device based on the resource information; wherein the circuitry is configured to acquire the resource information via the second PLMN; and control transmitting information from the first terminal device by the D2D communication based on the resource information acquired via the second PLMN; wherein the circuitry is configured to acquire the resource information from a second base station belonging to the second PLMN; wherein the first terminal device is configured to report an inter-PLMN D2D transmission indicator to the second base station . circuitry configured to acquire resource information indicating a radio resource for use in device-to-device, D2D, communication between the first terminal device belonging to the first public land mobile network, PLMN, and a second terminal device belonging to a second PLMN; and control D2D communication between the first terminal device and the second terminal device based on the resource information; wherein the circuitry is configured to acquire the resource information via the second PLMN; and control transmitting information from the first terminal device by the D2D communication based on the resource information acquired via the second PLMN; wherein the circuitry is configured to acquire the resource information from a second base station belonging to the second PLMN; wherein the first terminal device is configured to report an inter-PLMN D2D transmission indicator to the second base station .
A computer-implemented method for converting an audio signal into a first haptic effect and a second haptic effect, the computer-implemented method comprising: determining an audio characteristic of the audio signal ; generating a first haptic signal and a second haptic signal, wherein the first haptic signal and the second haptic signal each comprise one or more haptic parameters determined based on the audio characteristic of the audio signal ; mapping the first haptic signal to a first actuator and the second haptic signal to a second actuator according to the audio characteristic; sending the first haptic signal to the first actuator and the second haptic signal to the second actuator ; playing the first haptic signal by the first actuator to generate the first haptic effect; and playing the second haptic signal by the second actuator to generate the second haptic effect. determining an audio characteristic of the audio signal ; generating a first haptic signal and a second haptic signal, wherein the first haptic signal and the second haptic signal each comprise one or more haptic parameters determined based on the audio characteristic of the audio signal ; mapping the first haptic signal to a first actuator and the second haptic signal to a second actuator according to the audio characteristic; sending the first haptic signal to the first actuator and the second haptic signal to the second actuator ; playing the first haptic signal by the first actuator to generate the first haptic effect; and playing the second haptic signal by the second actuator to generate the second haptic effect.
An energy recuperation system for construction equipment , comprising: an actuator configured to drive an upward operation and a downward operation of a work unit ; an accumulator connected to the actuator; and a controller , characterized in that the controller is configured to determine a predicted downward mode associated with the downward operation of the work unit, to regulate an dischargeable lowest limit pressure of the accumulator to a target pressure corresponding to the predicted downward mode, and to charge the accumulator having the dischargeable lowest limit pressure regulated to the target pressure with pressurized oil discharged from the actuator during the downward operation of the work unit such that an energy recuperation is achieved. an actuator configured to drive an upward operation and a downward operation of a work unit ; an accumulator connected to the actuator; and a controller , characterized in that the controller is configured to determine a predicted downward mode associated with the downward operation of the work unit, to regulate an dischargeable lowest limit pressure of the accumulator to a target pressure corresponding to the predicted downward mode, and to charge the accumulator having the dischargeable lowest limit pressure regulated to the target pressure with pressurized oil discharged from the actuator during the downward operation of the work unit such that an energy recuperation is achieved.
System of a projection light module for a motor vehicle headlamp comprising at least one first assembly and at least two different embodiments of a second assembly, wherein the first assembly comprises a light source unit comprising semiconductor light sources, and the second assembly comprises a lens unit comprising a convergent lens, comprising a lens unit having a converging lens, the first assembly being arranged to hold the second assembly in the projection light module , and the second assembly having an element relevant to the appearance, the first assembly being arranged to without modifications, to hold either a first embodiment of the second assembly or a second embodiment of the second assembly which differs from the first embodiment with respect to its appearance, in the projection light module , and to produce a light distribution which conforms to the rules both with the first embodiment and with the second embodiment, wherein the embodiments of the second assembly differ with respect to the design of the illuminating surfaces of the convergent lens of the projection light module, characterised in that the first assembly has a diaphragm unit in addition to the light source unit and in that the two different embodiments of the second assembly have a lens holder unit in addition to the lens unit .
Hair treatment kit, comprising: - a hair cleansing composition having a pH of 4 or lower and comprising one or more surfactants selected from anionic, non-ionic and amphoteric surfactants and glyoxylic acid and/or a hydrate thereof and/or a salt thereof; and - a hair conditioning composition having a pH of 4 or lower and comprising one or more conditioning components and glyoxylic acid and/or a hydrate thereof and/or a salt thereof, wherein the cleansing composition and/or the conditioning composition preferably comprise glyoxylic acid and/or a hydrate thereof and/or a salt thereof at a concentration of 0.2% by weight or more, based on the weight of the cleansing composition and the conditioning composition, respectively. - a hair cleansing composition having a pH of 4 or lower and comprising one or more surfactants selected from anionic, non-ionic and amphoteric surfactants and glyoxylic acid and/or a hydrate thereof and/or a salt thereof; and - a hair conditioning composition having a pH of 4 or lower and comprising one or more conditioning components and glyoxylic acid and/or a hydrate thereof and/or a salt thereof,
A method of determining a distance between a radio frequency device and a target , the method comprising: the radio frequency device receiving a radio frequency signal from the target; determining a time domain channel response from the received radio frequency signal ; determining an amplitude of a largest peak in the time domain channel response ; determining an amplitude of a second, earlier, peak in the time domain channel response ; comparing the second peak amplitude to a threshold based on the largest peak amplitude; identifying the largest peak as a shortest path peak if the second peak amplitude is less than the threshold ; identifying the second peak as a shortest path peak if the second peak amplitude is greater than the threshold ; identifying a closest local minimum in the time domain channel response earlier than the shortest path peak; determining a time separation between the closest local minimum and the shortest path peak; comparing the time separation to an expected time separation based on a bandwidth of the received radio frequency signal ; calculating the distance between the radio frequency device and the target based on a time corresponding to the shortest path peak; and if the time separation is greater than the expected time separation, calculating said time corresponding to the shortest path peak as a time corresponding to the closest local minimum plus the expected time separation. the radio frequency device receiving a radio frequency signal from the target; determining a time domain channel response from the received radio frequency signal ; determining an amplitude of a largest peak in the time domain channel response ; determining an amplitude of a second, earlier, peak in the time domain channel response ; comparing the second peak amplitude to a threshold based on the largest peak amplitude; identifying the largest peak as a shortest path peak if the second peak amplitude is less than the threshold ; identifying the second peak as a shortest path peak if the second peak amplitude is greater than the threshold ; identifying a closest local minimum in the time domain channel response earlier than the shortest path peak; determining a time separation between the closest local minimum and the shortest path peak; comparing the time separation to an expected time separation based on a bandwidth of the received radio frequency signal ; calculating the distance between the radio frequency device and the target based on a time corresponding to the shortest path peak; and if the time separation is greater than the expected time separation, calculating said time corresponding to the shortest path peak as a time corresponding to the closest local minimum plus the expected time separation.
A developing device comprising: a developer bearing member that bears a developer on a surface thereof; a supplying member that contacts the surface of the developer bearing member and supplies the developer to the surface of the developer bearing member ; and a regulating member that contacts the surface of the developer bearing member and regulates the developer borne on the surface of the developer bearing member , wherein the developer includes a toner ; characterized in that the toner has a Martens hardness of at least 200 MPa and not more than 1100 MPa when measured under a condition of a maximum load of 2.0 × 10 -4 N as explained in the description; and wherein a contact pressure of the regulating member against the surface of the developer bearing member is denoted by N (gf/mm) and a contact pressure of the supplying member against the surface of the developer bearing member is denoted by D (gf/mm) and is measured according to the description, the following expressions are satisfied: D + 2 × N − 6 ≥ 0 , 1.5 ≤ N ≤ 4.5 , and 2.0 ≤ D ≤ 4.5 . a developer bearing member that bears a developer on a surface thereof; a supplying member that contacts the surface of the developer bearing member and supplies the developer to the surface of the developer bearing member ; and a regulating member that contacts the surface of the developer bearing member and regulates the developer borne on the surface of the developer bearing member , wherein the developer includes a toner ; characterized in that the toner has a Martens hardness of at least 200 MPa and not more than 1100 MPa when measured under a condition of a maximum load of 2.0 × 10 -4 N as explained in the description; and wherein a contact pressure of the regulating member against the surface of the developer bearing member is denoted by N (gf/mm) and a contact pressure of the supplying member against the surface of the developer bearing member is denoted by D (gf/mm) and is measured according to the description, the following expressions are satisfied: D + 2 × N − 6 ≥ 0 , 1.5 ≤ N ≤ 4.5 , and 2.0 ≤ D ≤ 4.5 .
A power supply device configured for receiving AC power, and to convert received AC power into DC power for transmitting and/or receiving a transmission signal over a signal line (S), comprising: a power generation unit including a rectifier diode (Dl), wherein the rectifier diode (Dl) is configured for rectifying the AC power to provide a rectified voltage, and a smoothing capacitor (C1), wherein the power generation unit is configured to charge the smoothing capacitor (C1) by the rectified voltage, wherein the power generation unit is configured to be connectable to the signal line (S) for supplying the rectified and smoothed power as transmission power through the signal line (S); a power cycle detection unit comprising a photo coupler (IC1) that is directly connected to and in series with the rectifying element (Dl) and the smoothing capacitor (C1), and wherein at a time of charging the smoothing capacitor (C1), the primary-side light emitting diode of the photo coupler (IC1) emits light which is received by a secondary-side phototransistor of the photo coupler (IC1); and a calculation unit that is configured to analyze a detection signal of the power cycle detection unit , in order to calculate a voltage frequency, a cycle, or a power voltage phase of the AC power on the basis of the detection signal. a power generation unit including a rectifier diode (Dl), wherein the rectifier diode (Dl) is configured for rectifying the AC power to provide a rectified voltage, and a smoothing capacitor (C1), wherein the power generation unit is configured to charge the smoothing capacitor (C1) by the rectified voltage, wherein the power generation unit is configured to be connectable to the signal line (S) for supplying the rectified and smoothed power as transmission power through the signal line (S); a power cycle detection unit comprising a photo coupler (IC1) that is directly connected to and in series with the rectifying element (Dl) and the smoothing capacitor (C1), and wherein at a time of charging the smoothing capacitor (C1), the primary-side light emitting diode of the photo coupler (IC1) emits light which is received by a secondary-side phototransistor of the photo coupler (IC1); and a calculation unit that is configured to analyze a detection signal of the power cycle detection unit , in order to calculate a voltage frequency, a cycle, or a power voltage phase of the AC power on the basis of the detection signal.
Structural assembly for an aircraft or spacecraft, in particular fuselage structural assembly, having: a frame ; a metallic skin ; and a continuous fibre composite layer (4; 4') which is formed in a regularly structured manner in a longitudinal direction running transversely in relation to the frame and which is arranged between the frame and the metallic skin , the fibre composite layer (4; 4') having in cross section a periodically recurring form, in particular a corrugated sheet structure or a trapezoidal sheet structure. a frame ; a metallic skin ; and a continuous fibre composite layer (4; 4') which is formed in a regularly structured manner in a longitudinal direction running transversely in relation to the frame and which is arranged between the frame and the metallic skin , the fibre composite layer (4; 4') having in cross section a periodically recurring form, in particular a corrugated sheet structure or a trapezoidal sheet structure.
A pump monitoring system, comprising a pump with a pump body and a pump head releasably mounted on the pump body , an RFID transponder on the pump head , and an RFID reader in communication with a processor on the pump body , wherein the RFID transponder is operable to receive and store information relating to operation of the pump head and the RFID reader is operable to read information from the RFID transponder and to transmit further information to the RFID transponder , and the processor is operable to interpret the information read from the RFID transponder and to control operation of the pump in response to the information, wherein the information stored on the RFID transponder comprises a value representing the amount of wear the pump head has been subjected to, characterized in that the wear value is the product of the duration of pump head operation and the speed of pump head operation.
Method for the production of a three-dimensionally deformable velour carpet for a floor paneling, a luggage compartment paneling or a loading floor paneling of a motor vehicle with a structurally needled, deformation-resistant surface with a grammage of the carpet in the range from 180 g/m 2 to 700 g/m 2 , which is characterized in that a velour carpet is produced from a basis nonwoven with a defined setting of the penetration depth of the needles and a defined setting of their penetration density, in which a brush belt is used which has, in segments or over part of the surface, sections of different brushes and/or brush arrangements or brushes of different bristle height, two or several needle types of different length are arranged in segments over the width of a needle board, and this velour carpet is provided with one or several underlayers and shaped. a velour carpet is produced from a basis nonwoven with a defined setting of the penetration depth of the needles and a defined setting of their penetration density, in which a brush belt is used which has, in segments or over part of the surface, sections of different brushes and/or brush arrangements or brushes of different bristle height, two or several needle types of different length are arranged in segments over the width of a needle board, and this velour carpet is provided with one or several underlayers and shaped.
A monoclonal antibody or antigen-binding portion thereof that binds specifically to a Staphylococcus aureus glucosaminidase and comprises a V H domain of SEQ ID NO: 2 and a V L domain of SEQ ID NO: 3.
A mobile communication system for a mobile platform to facilitate communication between base stations and one or more mobile devices that are in use in the mobile platform , comprising: at least one receive antenna configured for receiving communication signals; processing circuitry configured for processing the received communication signals; at least one transmit antenna configured for transmitting the processed signals; the processing circuitry configured for utilizing at least one configurable setting in the processing of the received communication signals, each configurable setting being adaptable for varying the operation of processing the received communication signals as the mobile communication system moves through an environment; the processing circuitry configured to receive, over time, at least one input representing a current geographical location of the mobile communication system ; the processing circuitry further configured to determine whether the mobile communication system is entering a first geographical zone based on the at least one input representing the current geographical location of the mobile communication system and a path of the mobile communication system; the processing circuitry further configured to automatically adapt a gain of the mobile communication system as the mobile communication system enters the first geographical zone, wherein the adaptation of the gain is based on known signal characteristics stored in a database in the mobile communication system and associated with received communication signals measured at multiple mobile communication systems while in the first geographical zone. at least one receive antenna configured for receiving communication signals; processing circuitry configured for processing the received communication signals; at least one transmit antenna configured for transmitting the processed signals; the processing circuitry configured for utilizing at least one configurable setting in the processing of the received communication signals, each configurable setting being adaptable for varying the operation of processing the received communication signals as the mobile communication system moves through an environment; the processing circuitry configured to receive, over time, at least one input representing a current geographical location of the mobile communication system ; the processing circuitry further configured to determine whether the mobile communication system is entering a first geographical zone based on the at least one input representing the current geographical location of the mobile communication system and a path of the mobile communication system; the processing circuitry further configured to automatically adapt a gain of the mobile communication system as the mobile communication system enters the first geographical zone, wherein the adaptation of the gain is based on known signal characteristics stored in a database in the mobile communication system and associated with received communication signals measured at multiple mobile communication systems while in the first geographical zone.