mhurhangee/patent-ind-claim-en huggingface dataset:
A phase-locked loop PLL device that comprises: a detector configured to output an error signal to indicate a phase offset between a feedback clock signal (CLK) and a reference clock signal (REF_CLK); a charge pump coupled to the detector and configured to output a charge pump signal based on the error signal; an integrator with a feedback path, an input node, a reference node, and an output node, wherein the input node is coupled to the charge pump and receives the charge pump signal; a voltage-controlled oscillator VCO coupled to the output node of the integrator via a resistor (R_OUT); and a feedforward circuit coupled directly to the detector and configured to apply an averaged version of the error signal to correct a voltage level received by the VCO; wherein the feedforward circuit couples to the reference node of the integrator and applies the averaged version of the error signal to the reference node to correct the voltage level received by the VCO; further comprising a reference signal resistor between a reference signal node and a connection point at which the feedforward circuit couples to the reference node. a detector configured to output an error signal to indicate a phase offset between a feedback clock signal (CLK) and a reference clock signal (REF_CLK); a charge pump coupled to the detector and configured to output a charge pump signal based on the error signal; an integrator with a feedback path, an input node, a reference node, and an output node, wherein the input node is coupled to the charge pump and receives the charge pump signal; a voltage-controlled oscillator VCO coupled to the output node of the integrator via a resistor (R_OUT); and a feedforward circuit coupled directly to the detector and configured to apply an averaged version of the error signal to correct a voltage level received by the VCO; wherein the feedforward circuit couples to the reference node of the integrator and applies the averaged version of the error signal to the reference node to correct the voltage level received by the VCO; further comprising a reference signal resistor between a reference signal node and a connection point at which the feedforward circuit couples to the reference node.
Remote control for generating output signals apt for controlling electronic devices (2,22,32;40,50,70), wherein said remote control includes a sound transducer , a speech recognition unit for recognizing voice commands , and a control signal generating and receiving unit for generating control signals corresponding to said voice commands , for controlling said electronic devices (2,22,32;40,50,70). wherein said remote control further includes a memory for storing information relative to available multimedia content of said electronic devices (2,22,32;40,50,70), wherein the information relative to the available multimedia content enables the remote control to access the available content depending on the received voice command and to call up the available multimedia content by generating the control signal , wherein said remote control comprises a receiving unit for retrieving information relative to said available multimedia content from said electronic devices (2,22,32;40,50,70) for storing in said memory , and wherein said remote control periodically and automatically connects to said electronic devices and downloads and updates the information relative to said available multimedia content in said memory , wherein said remote control , as a consequence of a certain voice command , locates in its memory where the available multimedia content relative to said certain voice command is stored in said electronic devices (2,22,32;40,50,70) and displays on a display unit of said remote control and/or on the display means of said one or more electronic devices (2,22,32;40,50,70) which contents are available for subsequent selection relative to said certain command , said electronic devices (2,22,32;40,50,70) comprise at least a first and a second electronic device (2,22,32;40,50,70) of different types, such as television sets, audio systems, set-top-boxes, blue-ray disk readers, and the available multimedia content corresponds to said different types of electronic devices (2,22,32;40,50,70), wherein said receiving unit retrieves information relative to said available multimedia content both from an EPG of said first electronic device (2,22,32;40,50,70) and from said available multimedia content stored in an internal memory of said second electronic device (2,22,32;40,50,70).
A method of separating contaminants from impaired water , comprising: contacting impaired water with a peracetate oxidant solution ; mixing said impaired water with the peracetate oxidant solution; and separating the impaired water oxidant solution mixture into solids and a water phase; wherein the peracetate oxidant solution has: a pH from about 10 to about pH 12; a molar ratio of peracetate anions to peracid ranging from about 60:1 to about 6000:1; and a molar ratio of peracetate anions to hydrogen peroxide of greater than about 16:1; and wherein the method further comprises, after the step of separating: adding a subsequent peracetate oxidant solution to the water phase to reduce bacteria population in the water phase; and wherein the subsequent peracetate oxidant solution also has: a pH from about 10 to about pH 12; a molar ratio of peracetate anions to peracid ranging from about 60:1 to about 6000:1; and a molar ratio of peracetate anions to hydrogen peroxide of greater than about 16:1. contacting impaired water with a peracetate oxidant solution ; mixing said impaired water with the peracetate oxidant solution; and separating the impaired water oxidant solution mixture into solids and a water phase; a pH from about 10 to about pH 12; a molar ratio of peracetate anions to peracid ranging from about 60:1 to about 6000:1; and a molar ratio of peracetate anions to hydrogen peroxide of greater than about 16:1; adding a subsequent peracetate oxidant solution to the water phase to reduce bacteria population in the water phase; and wherein the subsequent peracetate oxidant solution also has: a pH from about 10 to about pH 12; a molar ratio of peracetate anions to peracid ranging from about 60:1 to about 6000:1; and a molar ratio of peracetate anions to hydrogen peroxide of greater than about 16:1. a pH from about 10 to about pH 12; a molar ratio of peracetate anions to peracid ranging from about 60:1 to about 6000:1; and a molar ratio of peracetate anions to hydrogen peroxide of greater than about 16:1.
An axial field rotary energy device , comprising: a housing ; a plurality of rotors rotatably mounted to the housing, wherein the rotors comprise an axis and a plurality of magnets ; and a stator mounted to the housing coaxially with the rotors, the stator comprises a printed circuit board "PCB" having a plurality of PCB layers , each PCB layer comprising a respective plurality of coils that are co-planar and angularly and symmetrically spaced apart from each other relative to the axis, each coil is continuous and concentric in a single plane from an outermost coil portion to a concentric innermost coil portion, and the coils in adjacent PCB layers are circumferentially aligned with each other relative to the axis to define symmetric stacks of coils in an axial direction, each coil includes a first terminal at the outer edge of the coil, and a second terminal in the center of the coil, wherein each coil is not directly connected to an adjacent coil on the same PCB layer, but is directly connected to a corresponding coil on another PCB layer through a via to create a coil pair ; each coil pair is electrically coupled to another coil pair through another via . a housing ; a plurality of rotors rotatably mounted to the housing, wherein the rotors comprise an axis and a plurality of magnets ; and a stator mounted to the housing coaxially with the rotors, the stator comprises a printed circuit board "PCB" having a plurality of PCB layers , each PCB layer comprising a respective plurality of coils that are co-planar and angularly and symmetrically spaced apart from each other relative to the axis, each coil is continuous and concentric in a single plane from an outermost coil portion to a concentric innermost coil portion, and the coils in adjacent PCB layers are circumferentially aligned with each other relative to the axis to define symmetric stacks of coils in an axial direction, each coil includes a first terminal at the outer edge of the coil, and a second terminal in the center of the coil, wherein each coil is not directly connected to an adjacent coil on the same PCB layer, but is directly connected to a corresponding coil on another PCB layer through a via to create a coil pair ; each coil pair is electrically coupled to another coil pair through another via .
A method for delivering at least one content item to a terminal by means of a supplying entity, comprising the steps of: generating (S110) at least a first list of components related to said at least one content item at a first time instant and a second list of components related to said at least one content item at a second time instant following the first time instant, wherein generating (S110) includes generating the first list of components and the second list of components with a new respective component of the at least one content item as the new respective component of the at least one content item is made available; receiving (S120), at a supplying entity, a request, from the terminal, of a list of components related to said at least one content item at a third time instant following the first time instant; in response to said request, causing the supplying entity to place on hold sending of a response containing the second list of components until at least a delay time, wherein the delay time is equal to the difference between the second time instant and the third time instant. receiving (S120), at a supplying entity, a request, from the terminal, of a list of components related to said at least one content item at a third time instant following the first time instant; in response to said request, causing the supplying entity to place on hold sending of a response containing the second list of components until at least a delay time, wherein the delay time is equal to the difference between the second time instant and the third time instant.
Conveying and metering device having - an endless apron belt that is movable by means of rollers on guide rails , - wherein sections of the guide rail that are opposite one another are separated from the adjacent sections and, for determining the mass of the conveyed material, are supported on weighing devices that are connected to an electronic analysis device, characterized in that the sections of the guide rail to be weighed, together with longitudinal members and transverse struts that are perpendicular to the longitudinal members , form a weighing frame , and this weighing frame is supported at each of its four corners on a separate weighing device , wherein an adjustable centering device is provided between the weighing frame and each of the weighing devices . - an endless apron belt that is movable by means of rollers on guide rails , - wherein sections of the guide rail that are opposite one another are separated from the adjacent sections and, for determining the mass of the conveyed material, are supported on weighing devices that are connected to an electronic analysis device,
A nacelle of a wind turbine comprising a machine carrier which is adapted to be installed on a tower of the wind turbine and to carry a generator and a rotor hub of the wind turbine, a working frame installed on the machine carrier and having one or more working planes , and a nacelle housing which encloses the machine carrier and the working frame for protection from weather influences, wherein the nacelle housing has a nacelle base compartment accessible from the working frame, characterised in that the nacelle base compartment is adapted to be lowerable relative to the working platform . a machine carrier which is adapted to be installed on a tower of the wind turbine and to carry a generator and a rotor hub of the wind turbine, a working frame installed on the machine carrier and having one or more working planes , and a nacelle housing which encloses the machine carrier and the working frame for protection from weather influences, wherein the nacelle housing has a nacelle base compartment accessible from the working frame, characterised in that the nacelle base compartment is adapted to be lowerable relative to the working platform .
A method of manufacturing a secondary battery, comprising: a step of preparing a slurry containing a solvent and an electrode mixture containing succinonitrile (S 1); a step of preparing an electrode by coating the slurry to a current collector and drying the slurry (S2); a step of preparing an electrode assembly by alternately laminating the electrode and a separator (S3); a lamination step of heating and pressing the electrode assembly (S4); and a step of accommodating the laminated electrode assembly in a battery case and injecting an electrolyte solution (S5), wherein the step (S2) of preparing the electrode includes: a step of solidifying liquid succinonitrile by cooling the electrode, to which the electrode slurry has been applied, to a room temperature. a step of preparing a slurry containing a solvent and an electrode mixture containing succinonitrile (S 1); a step of preparing an electrode by coating the slurry to a current collector and drying the slurry (S2); a step of preparing an electrode assembly by alternately laminating the electrode and a separator (S3); a lamination step of heating and pressing the electrode assembly (S4); and a step of accommodating the laminated electrode assembly in a battery case and injecting an electrolyte solution (S5), wherein the step (S2) of preparing the electrode includes: a step of solidifying liquid succinonitrile by cooling the electrode, to which the electrode slurry has been applied, to a room temperature.
A composition for use in the treatment of a fungal, mycotic, viral and/or bacterial infection, wherein the infection is paronychia, the composition comprising: (a) povidone iodine (PVP-I); and (b) 30 to 99.99 % by weight dimethylsulfoxide (DMSO) with respect to the total composition. (a) povidone iodine (PVP-I); and (b) 30 to 99.99 % by weight dimethylsulfoxide (DMSO) with respect to the total composition.
A signal processing device, comprising: a range information storing portion configured to store a range information indicating a signal-level range with respect to a sound volume level of an audio signal for each category representing a signal type for the audio signal, wherein the signal-level range is a recommended signal-level range of a sound volume level of an audio signal for the signal type represented by the respective category; a gain setting portion configured to set a gain used for adjusting a sound volume level of an input audio signal according to an operation by a user; a category setting portion configured to set the category representing the signal type for the input audio signal, according to an operation by a user; and a meter portion configured to display a sound volume level of the input audio signal after a level adjustment according to the gain, with an exhibition of the recommended signal-level range of a sound volume level of an audio signal for the signal type represented by the category set by the category setting portion, wherein the meter portion is configured to receive the input signal after the level adjustment, decrease a change rate of decay of the received signal to generate a meter value which changes gradually, and display the meter value as the sound volume level of the input audio signal. a range information storing portion configured to store a range information indicating a signal-level range with respect to a sound volume level of an audio signal for each category representing a signal type for the audio signal, wherein the signal-level range is a recommended signal-level range of a sound volume level of an audio signal for the signal type represented by the respective category; a gain setting portion configured to set a gain used for adjusting a sound volume level of an input audio signal according to an operation by a user; a category setting portion configured to set the category representing the signal type for the input audio signal, according to an operation by a user; and a meter portion configured to display a sound volume level of the input audio signal after a level adjustment according to the gain, with an exhibition of the recommended signal-level range of a sound volume level of an audio signal for the signal type represented by the category set by the category setting portion, wherein the meter portion is configured to receive the input signal after the level adjustment, decrease a change rate of decay of the received signal to generate a meter value which changes gradually, and display the meter value as the sound volume level of the input audio signal.
A method of monitoring an air flow in a zone of an HVAC system , the zone comprising a supply port and a return port , a first flow sensor configured to measure a supply flow (φ 1 ) through the supply port, and a second flow sensor configured to measure a return flow (φ 2 ) through the return port , the method comprising: recording by a control system the supply flow (φ 1 ) measured by the first flow sensor and the return flow (φ 2 ) measured by the second flow sensor ; determining by the control system an infiltration and exfiltration component (φ inf/exf ), using the supply flow (φ 1 ) and the return flow (φ 1 ) recorded by the control system ; and determining by the control system an operational sensor state of at least one of the first flow sensor and the second flow sensor , using the supply flow (φ 1 ), the return flow (φ 2 ), and the infiltration and exfiltration component (φ inf/exf ), wherein determining the operational sensor state comprises the control system detecting a deviation of a temporal course of the supply flow (φ 1 ), recorded by the control system , and a temporal course of the return flow (φ2), having removed the infiltration and exfiltration component (φ inf/exf ) by the control system , the deviation being indicative of a malfunctioning of at least one of the first flow sensor and the second flow sensor . recording by a control system the supply flow (φ 1 ) measured by the first flow sensor and the return flow (φ 2 ) measured by the second flow sensor ; determining by the control system an infiltration and exfiltration component (φ inf/exf ), using the supply flow (φ 1 ) and the return flow (φ 1 ) recorded by the control system ; and determining by the control system an operational sensor state of at least one of the first flow sensor and the second flow sensor , using the supply flow (φ 1 ), the return flow (φ 2 ), and the infiltration and exfiltration component (φ inf/exf ), wherein determining the operational sensor state comprises the control system detecting a deviation of a temporal course of the supply flow (φ 1 ), recorded by the control system , and a temporal course of the return flow (φ2), having removed the infiltration and exfiltration component (φ inf/exf ) by the control system , the deviation being indicative of a malfunctioning of at least one of the first flow sensor and the second flow sensor .
A navigation system for tracking an object, said navigation system comprising: an optical sensor ; a tracker for mounting to the object, said tracker including three markers and a non-optical sensor , wherein said optical sensor is configured to receive optical signals sequentially from said markers and said non-optical sensor is configured to generate non-optical signals; and a computing system configured to: determine a position of a first of said markers at a first time based on a first optical signal from said first marker ; characterised in that the computer system is further configured to: determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor ; and correlate said determined positions of said first , second, and third (50b; 50c) markers to the object to track a position of the object. an optical sensor ; a tracker for mounting to the object, said tracker including three markers and a non-optical sensor , wherein said optical sensor is configured to receive optical signals sequentially from said markers and said non-optical sensor is configured to generate non-optical signals; and a computing system configured to: determine a position of a first of said markers at a first time based on a first optical signal from said first marker ; characterised in that the computer system is further configured to: determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor ; and correlate said determined positions of said first , second, and third (50b; 50c) markers to the object to track a position of the object. determine a position of each of a second and a third (50b; 50c) of said markers at said first time based on said first optical signal and a non-optical signal from said non-optical sensor ; and correlate said determined positions of said first , second, and third (50b; 50c) markers to the object to track a position of the object.
A method for performing measurement by a User Equipment, UE, in a mobile communication system including the UE having a Discontinuous Reception, DRX, mode for discontinuously receiving data, a serving cell where the UE is located, and a neighboring cell located near the serving cell, the method comprising: measuring signal strength of the serving cell based on a first period for the DRX mode if a previously measured signal strength of the serving cell is greater than a particular threshold; measuring signal strength of the serving cell and the neighboring cell based on a second period that is more frequent than the first period if the previously measured signal strength of the serving cell is less than or equal to the particular threshold. measuring signal strength of the serving cell based on a first period for the DRX mode if a previously measured signal strength of the serving cell is greater than a particular threshold; measuring signal strength of the serving cell and the neighboring cell based on a second period that is more frequent than the first period if the previously measured signal strength of the serving cell is less than or equal to the particular threshold.