mhurhangee/patent-ind-claim-en huggingface dataset:
An architecture for estimating a speedup of execution of a unit of work running on a computing device, wherein the architecture comprises: - a computing unit for determining from a total execution time for executing the unit of work on the computing device at arbitrary frequency a pipelined fraction of the total execution time that changes when changing the computing device clock frequency and a non-pipelined fraction that does not change when changing the computing device clock frequency due to off-chip memory accesses, the architecture being characterized in that it further comprises: - a decision unit for estimating the speedup of execution of the unit of work by dividing the execution time for running the unit of work on the computing device at the arbitrary frequency by an estimated execution time for running the unit of work on the computing device at a scaled frequency, wherein the decision unit is configured for estimating the execution time at the scaled frequency from the determined non-pipelined fraction, and from the determined pipelined fraction taking into account that the pipelined fraction scales proportionally with the clock frequency and - means for, based on the estimated speedup, scaling up the computing device clock frequency to the scaled frequency if the speedup value is larger than a given upper threshold or for scaling down the computing device clock frequency to the scaled frequency if the speedup value is not lower than a given bottom threshold. - a computing unit for determining from a total execution time for executing the unit of work on the computing device at arbitrary frequency a pipelined fraction of the total execution time that changes when changing the computing device clock frequency and a non-pipelined fraction that does not change when changing the computing device clock frequency due to off-chip memory accesses, - a decision unit for estimating the speedup of execution of the unit of work by dividing the execution time for running the unit of work on the computing device at the arbitrary frequency by an estimated execution time for running the unit of work on the computing device at a scaled frequency, wherein the decision unit is configured for estimating the execution time at the scaled frequency from the determined non-pipelined fraction, and from the determined pipelined fraction taking into account that the pipelined fraction scales proportionally with the clock frequency and - means for, based on the estimated speedup, scaling up the computing device clock frequency to the scaled frequency if the speedup value is larger than a given upper threshold or for scaling down the computing device clock frequency to the scaled frequency if the speedup value is not lower than a given bottom threshold.
A pharmaceutical gel composition for intra-intestinal administration, comprising a dopamine replacement agent selected from levodopa, melevodopa, etilevodopa and combinations thereof, a dopamine decarboxylase inhibitor (DDI) wherein the dopamine decarboxylase inhibitor is carbidopa, and a catechol-O-methyltransferase (COMT) inhibitor selected from entacapone, tolcapone, opicapone and combinations thereof.
Lighting and/or signalling system for motor vehicles, comprising a light source , a body , a lens configured to receive light rays coming directly or indirectly from the source via an input face and to emit a first output beam performing a first regulatory lighting and/or signalling function via an output face , and a waveguide configured to receive directly or indirectly light rays coming from the source via an input face , for emitting a second output beam through an output surface and for deflecting light rays into the guide through a coupling zone so that these rays propagate within the guide by total internal reflection, said coupling zone of the waveguide being situated at least partly opposite a portion of one of the input face of the lens and the output face of the lens , the lens and the waveguide being mounted on the body , characterised in that the lens is mounted on the body which is rotatable relative to the waveguide .
A method for 2-step random access, applied to a terminal, comprising: receiving configuration information for 2-step random access ; characterized in that the method further comprises: determining a transmission resource and/or a transmission mode based on the configuration information and assistance uplink transmission information, and performing uplink transmission according to the transmission resource and/or the transmission mode ; wherein, the assistance uplink transmission information comprises a capability of the terminal, and uplink transmission related information; or, the assistance uplink transmission information comprises the capability of the terminal, and information carried by a physical downlink control channel, PDCCH; or, the assistance uplink transmission information comprises the capability of the terminal, the uplink transmission related information and the information carried by the PDCCH; or, the assistance uplink transmission information comprises the capability of the terminal only; wherein the capability of the terminal comprises one or more of the following: a capability of modulating data using a first type; a capability of generating a DMRS sequence using a zeroth type of DMRS sequence generation manner; a capability of modulating data using the first type and generating the DMRS sequence using the zeroth type of DMRS sequence generation manner; a capability of supporting a DMRS type; and a capability of a maximum output power of the terminal. receiving configuration information for 2-step random access ; characterized in that the method further comprises: determining a transmission resource and/or a transmission mode based on the configuration information and assistance uplink transmission information, and performing uplink transmission according to the transmission resource and/or the transmission mode ; wherein, the assistance uplink transmission information comprises a capability of the terminal, and uplink transmission related information; or, the assistance uplink transmission information comprises the capability of the terminal, and information carried by a physical downlink control channel, PDCCH; or, the assistance uplink transmission information comprises the capability of the terminal, the uplink transmission related information and the information carried by the PDCCH; or, the assistance uplink transmission information comprises the capability of the terminal only; wherein the capability of the terminal comprises one or more of the following: a capability of modulating data using a first type; a capability of generating a DMRS sequence using a zeroth type of DMRS sequence generation manner; a capability of modulating data using the first type and generating the DMRS sequence using the zeroth type of DMRS sequence generation manner; a capability of supporting a DMRS type; and a capability of a maximum output power of the terminal.
A diagnostics system for calibrating a mass flow controller , the diagnostics system comprising: a controller communicable coupled to at least one sensor and to a valve , the controller tuned to control the valve based on a predetermined set point value and communication from the at least one sensor , the controller configured to; determine a number of set point value adjustments; and characterized that the controller is further configured to: generate a notification message indicating that the number of set point value adjustments is equal to a predetermined number of set point value adjustments, wherein the predetermined number of set point value adjustments is a function of total fluid hours.
Cover for a poultry container for holding live poultry, comprising: - two substantially parallel guides ; - plural longitudinal supports , on opposite sides moveable connected to the guides ; - a flexible cover sheet , connected to the longitudinal supports ; and wherein the parallel guides are provided with preferred holding locations for preferred positioning of the longitudinal supports onto the guides characterised in that the longitudinal supports are moveable from two opposite sides allowing the cover to open from both ends of the first and second guides . - two substantially parallel guides ; - plural longitudinal supports , on opposite sides moveable connected to the guides ; - a flexible cover sheet , connected to the longitudinal supports ; and wherein the parallel guides are provided with preferred holding locations for preferred positioning of the longitudinal supports onto the guides characterised in that the longitudinal supports are moveable from two opposite sides allowing the cover to open from both ends of the first and second guides .
An apparatus, comprising: an antenna ; a tunable capacitor coupled to the antenna ; a capacitance sensing device coupled to the antenna , and configured to detect a total load capacitance of the antenna ; and a controller , coupled to the capacitance sensing device , and configured to determine a tuning capacitance used for tuning the tunable capacitor according to a detected total load capacitance and a reference capacitance, and is characterized to control tuning of the tunable capacitor in accordance with the tuning capacitance so that the total load capacitance of the antenna falls within a reference capacitance range of the reference capacitance; wherein the controller is further configured to determine the tuning capacitance for tuning the tunable capacitor according to a look-up table, the look-up table comprising a number of total load capacitance values of the antenna and a number of tuning capacitance values for tuning the tunable capacitor, wherein each of the number of total load capacitance values is corresponding to one of the number of tuning capacitance values; wherein the controller is further configured to select a tuning capacitance value corresponding to the detected total load capacitance of the antenna from the look-up table. an antenna ; a tunable capacitor coupled to the antenna ; a capacitance sensing device coupled to the antenna , and configured to detect a total load capacitance of the antenna ; and a controller , coupled to the capacitance sensing device , and configured to determine a tuning capacitance used for tuning the tunable capacitor according to a detected total load capacitance and a reference capacitance, and is characterized to control tuning of the tunable capacitor in accordance with the tuning capacitance so that the total load capacitance of the antenna falls within a reference capacitance range of the reference capacitance; wherein the controller is further configured to determine the tuning capacitance for tuning the tunable capacitor according to a look-up table, the look-up table comprising a number of total load capacitance values of the antenna and a number of tuning capacitance values for tuning the tunable capacitor, wherein each of the number of total load capacitance values is corresponding to one of the number of tuning capacitance values; wherein the controller is further configured to select a tuning capacitance value corresponding to the detected total load capacitance of the antenna from the look-up table.
A turbomolecular pump rotor comprising a first pump structure and a second pump structure , wherein each pump structure is suitable and provided to form a pump stage with a stator-side pump structure ; wherein a first rotor part comprises the first pump structure and the second pump structure and the turbomolecular pump rotor has a third pump structure ; wherein the first pump structure and the second pump structure are arranged in the form of rotor vane rings at the first rotor part , characterized in that the first pump structure and the second pump structure form a single-piece body with the first rotor part ; and in that the first rotor part has a support section at which at least two support rings having a respective rotor vane ring are arranged and form the third pump structure . wherein a first rotor part comprises the first pump structure and the second pump structure and the turbomolecular pump rotor has a third pump structure ; wherein the first pump structure and the second pump structure are arranged in the form of rotor vane rings at the first rotor part , characterized in that the first pump structure and the second pump structure form a single-piece body with the first rotor part ; and in that the first rotor part has a support section at which at least two support rings having a respective rotor vane ring are arranged and form the third pump structure .
A multispectral optical probe , comprising: a first optical bandpass filter that operates to pass Cerenkov radiation (CE) in a first range of wavelengths; a first silicon photomultiplier (SiPM) photodetector configured to receive radiation passed through the first optical bandpass filter and, in response thereto, generate a first optical response signal; a second optical bandpass filter arranged adjacent to the first optical bandpass filter and operates to pass Cerenkov radiation in a second range of wavelengths, where the first range of wavelengths differ from the second range of wavelengths; and a second silicon SiPM photodetector configured to receive radiation passed through the second optical bandpass filter and, in response thereto, generate a second optical response signal; wherein the first SiPM photodetector and the second SiPM photodetector are mounted onto a flexible substrate and the first optical bandpass filter is arranged over the top of the first SiPM photodetector and the second optical bandpass filter is arranged over the top of the second SiPM photodetector. a first optical bandpass filter that operates to pass Cerenkov radiation (CE) in a first range of wavelengths; a first silicon photomultiplier (SiPM) photodetector configured to receive radiation passed through the first optical bandpass filter and, in response thereto, generate a first optical response signal; a second optical bandpass filter arranged adjacent to the first optical bandpass filter and operates to pass Cerenkov radiation in a second range of wavelengths, where the first range of wavelengths differ from the second range of wavelengths; and a second silicon SiPM photodetector configured to receive radiation passed through the second optical bandpass filter and, in response thereto, generate a second optical response signal; wherein the first SiPM photodetector and the second SiPM photodetector are mounted onto a flexible substrate and the first optical bandpass filter is arranged over the top of the first SiPM photodetector and the second optical bandpass filter is arranged over the top of the second SiPM photodetector.
A video encoder for an image block, the video encoder is configured to encode all color components of the video signal data, wherein the encoder is configured to use a luminance coding algorithm and common interpolation filters for B and P frames for all of the color components of the video signal data, and wherein said encoder is configured to encode all of the color components of the video signal data without applying a residual color transform thereto, and wherein color components of the video signal data input to the encoder are color components of YUV, YCrCb or YCOCG, characterized in that the video encoder is configured to encode each color component of the video signal data using a respective one of three separate spatial predictors.
A system for assessing a patient's balancing ability and fine motor skills in order to facilitate ascertaining the patient's current medical status, the system comprising: a balance plate for measuring Center of Gravity (or COG) dynamic weight distribution data of the patient whilst standing, said balance plate including at least one load cell and a plate configured to facilitate correct positioning of the patient's feet on the plate ; at least one sensor for measuring the fine motor skills data of the patient, including a handgrip sensor for measuring grip strength data of the patient and/or an eye tracking sensor for measuring eye movement data of the patient; a local processor in operative communication with said balance plate and said handgrip sensor, said local processor being configured to generate data pertaining to the patient's fine motor skills based on said fine motor skills data and generate balance data based on dynamic weight distribution data from the COG measurement for combined analysis in order to assess physiological condition; and an electronic database configured to receive the COG dynamic weight distribution data and the grip strength data from said local processor , said electronic database being accessible over a communications network . a balance plate for measuring Center of Gravity (or COG) dynamic weight distribution data of the patient whilst standing, said balance plate including at least one load cell and a plate configured to facilitate correct positioning of the patient's feet on the plate ; at least one sensor for measuring the fine motor skills data of the patient, including a handgrip sensor for measuring grip strength data of the patient and/or an eye tracking sensor for measuring eye movement data of the patient; a local processor in operative communication with said balance plate and said handgrip sensor, said local processor being configured to generate data pertaining to the patient's fine motor skills based on said fine motor skills data and generate balance data based on dynamic weight distribution data from the COG measurement for combined analysis in order to assess physiological condition; and an electronic database configured to receive the COG dynamic weight distribution data and the grip strength data from said local processor , said electronic database being accessible over a communications network .
An autonomous operation unit for a vessel , comprising: a voyage planning module configured to generate route plan data for the vessel based on received information related to a route planned for the vessel; a monitoring module configured to monitor the surroundings of the vessel to detect objects not included in the generated route plan data, and to generate corresponding obstacles data; and a collision avoidance module configured to receive the generated route plan data and obstacles data; to determine if any obstacles require a change in any of current route parameters of the vessel, and if yes, to change the current route parameters of the vessel accordingly; and to generate routing instructions; characterized in that : the voyage planning module is further configured to generate the route plan data by utilizing at least a sampling based search algorithm, wherein the generated route plan data comprises parametric curves; and the collision avoidance module is further configured to utilize at least one of neuro-fuzzy (H∞), virtual field force (VFF), heuristic search (A*, D*), probabilistic and evolutional (GAMMA, HPA*), or velocity obstacle (VO) computer algorithms. a voyage planning module configured to generate route plan data for the vessel based on received information related to a route planned for the vessel; a monitoring module configured to monitor the surroundings of the vessel to detect objects not included in the generated route plan data, and to generate corresponding obstacles data; and a collision avoidance module configured to receive the generated route plan data and obstacles data; to determine if any obstacles require a change in any of current route parameters of the vessel, and if yes, to change the current route parameters of the vessel accordingly; and to generate routing instructions; characterized in that : the voyage planning module is further configured to generate the route plan data by utilizing at least a sampling based search algorithm, wherein the generated route plan data comprises parametric curves; and the collision avoidance module is further configured to utilize at least one of neuro-fuzzy (H∞), virtual field force (VFF), heuristic search (A*, D*), probabilistic and evolutional (GAMMA, HPA*), or velocity obstacle (VO) computer algorithms. the voyage planning module is further configured to generate the route plan data by utilizing at least a sampling based search algorithm, wherein the generated route plan data comprises parametric curves; and the collision avoidance module is further configured to utilize at least one of neuro-fuzzy (H∞), virtual field force (VFF), heuristic search (A*, D*), probabilistic and evolutional (GAMMA, HPA*), or velocity obstacle (VO) computer algorithms.
A monopulse radar system comprising: an antenna array comprising a plurality of sub-arrays (101 - 124) operatively arranged in a first direction, each of the sub-arrays (101-124) comprising a plurality of antenna elements grouped as a first group and a second group adjacent to each other in a second direction substantially perpendicular to the first direction; and a plurality of transmit/receive, T/R, modules respectively coupled to the plurality of antenna elements , and characterized in that the plurality of T/R modules are configured to enable the radar system to perform monopulse processing by enabling the antenna elements of the first groups and disabling the antenna elements of the second groups of a plurality of first sub-arrays from among the plurality of sub-arrays (101-124) to form a first monopulse antenna , and enabling the antenna elements of the second groups and disabling the antenna elements of the first groups of a plurality of second sub-arrays, different from the first sub-arrays, from among the plurality of sub-arrays (101-124) to form a second monopulse antenna , wherein the antenna elements are enabled or disabled by controlling weights assigned to corresponding T/R modules , respectively. an antenna array comprising a plurality of sub-arrays (101 - 124) operatively arranged in a first direction, each of the sub-arrays (101-124) comprising a plurality of antenna elements grouped as a first group and a second group adjacent to each other in a second direction substantially perpendicular to the first direction; and a plurality of transmit/receive, T/R, modules respectively coupled to the plurality of antenna elements , and characterized in that the plurality of T/R modules are configured to enable the radar system to perform monopulse processing by enabling the antenna elements of the first groups and disabling the antenna elements of the second groups of a plurality of first sub-arrays from among the plurality of sub-arrays (101-124) to form a first monopulse antenna , and enabling the antenna elements of the second groups and disabling the antenna elements of the first groups of a plurality of second sub-arrays, different from the first sub-arrays, from among the plurality of sub-arrays (101-124) to form a second monopulse antenna , wherein the antenna elements are enabled or disabled by controlling weights assigned to corresponding T/R modules , respectively.