mhurhangee/patent-ind-claim-en huggingface dataset:
Method of operating a driver model for controlling a vehicle to perform a test run for said vehicle, wherein the driver model comprises a vehicle module which determines a pedal position to be set on the vehicle, wherein a required power is determined by means of the vehicle module as a component of a total power which can be provided by a drive system of the vehicle, wherein the required power corresponds to a power required to move the vehicle at a required speed and/or a required acceleration along a predefined road course, and wherein a value of a permissible pedal position is assigned to the required power, and wherein the value of the permissible pedal position is transmitted to the driver model for controlling the vehicle, characterized in that the driver model comprises a control module by means of which a actuating value for adjusting the accelerator pedal is determined, the control value being dynamically limited by an upper limit value which is determined on the basis of the value of the permissible pedal position. the driver model comprises a vehicle module which determines a pedal position to be set on the vehicle, wherein a required power is determined by means of the vehicle module as a component of a total power which can be provided by a drive system of the vehicle, wherein the required power corresponds to a power required to move the vehicle at a required speed and/or a required acceleration along a predefined road course, and wherein a value of a permissible pedal position is assigned to the required power, and wherein the value of the permissible pedal position is transmitted to the driver model for controlling the vehicle, characterized in that the driver model comprises a control module by means of which a actuating value for adjusting the accelerator pedal is determined, the control value being dynamically limited by an upper limit value which is determined on the basis of the value of the permissible pedal position.
A bladed disc system for a turbine engine, the bladed disc system comprising a disc portion and a plurality of blade portions which are linked with a stator section and an intercavity sealing portion comprising a sealing plate to minimise the loss of combustion air flowing through the turbine stages, the disc portion being shaped such that the plurality of blade portions are able to fit within firtree slots in the disc portion, each of the blade portions comprising an aerofoil section and a root section, the aerofoil section having a portion shaped such that it extends proximate to the intercavity sealing portion, the disc portion extending from a portion that connects with a drum to an outer edge at which the blade portions are connected with the disc portion having a width transition region in which a thickness of the disc portion increases from the point at which the disc portion connects to the drum to an outer edge at which the disc portion holds the blade portions , and wherein the width transition region has a curved width transition region with a radius of curvature r, and an overhanging portion which extends into an intercavity spacing between the width transition region and the intercavity sealing portion and wherein the radius of curvature r of the width transition region has a ratio with the width of the disc at the start of the curvature w before the transition region with the value of the ratio r/w being between 0.35 and 1.1. the disc portion being shaped such that the plurality of blade portions are able to fit within firtree slots in the disc portion, each of the blade portions comprising an aerofoil section and a root section, the aerofoil section having a portion shaped such that it extends proximate to the intercavity sealing portion, the disc portion extending from a portion that connects with a drum to an outer edge at which the blade portions are connected with the disc portion having a width transition region in which a thickness of the disc portion increases from the point at which the disc portion connects to the drum to an outer edge at which the disc portion holds the blade portions , and wherein the width transition region has a curved width transition region with a radius of curvature r, and an overhanging portion which extends into an intercavity spacing between the width transition region and the intercavity sealing portion and wherein the radius of curvature r of the width transition region has a ratio with the width of the disc at the start of the curvature w before the transition region with the value of the ratio r/w being between 0.35 and 1.1.
A staple cartridge assembly for use with a surgical stapler, comprising: a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained in the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material having an outer layer or coating formed of a biocompatible polymeric material and encapsulating an inner layer formed of a flexible biocompatible polymeric mesh and disposed over one of said surgical staples ; and an effective amount of a first medicant disposed between the outer layer or coating and the inner layer , and an effective amount of a second medicant incorporated into the inner layer , wherein the polymeric material in the outer layer or coating is responsive to strain upon deformation of said one of said surgical staples such that the outer layer or coating is configured to deform and rupture, whereafter the first medicant retained between the outer layer or coating and the inner layer is released as a bolus dose and the second medicant incorporated into the inner layer commences its release. a cartridge body having a plurality of staple cavities, each staple cavity having a surgical staple disposed therein; a biocompatible adjunct material releasably retained in the cartridge body and configured to be delivered to tissue by deployment of the staples in the cartridge body, the adjunct material having an outer layer or coating formed of a biocompatible polymeric material and encapsulating an inner layer formed of a flexible biocompatible polymeric mesh and disposed over one of said surgical staples ; and an effective amount of a first medicant disposed between the outer layer or coating and the inner layer , and an effective amount of a second medicant incorporated into the inner layer , wherein the polymeric material in the outer layer or coating is responsive to strain upon deformation of said one of said surgical staples such that the outer layer or coating is configured to deform and rupture, whereafter the first medicant retained between the outer layer or coating and the inner layer is released as a bolus dose and the second medicant incorporated into the inner layer commences its release.
A method for monitoring the quality of yarn by an electronic cleaner of yarn by means of an optical detector arranged opposite a source of radiation, wherein the monitored yarn passes between the source of radiation and the optical detector , whereby the optical detector comprises a sensor with two rows of individual optical elements made by CMOS technology which are rectangular-shaped, whereby each of the optical elements comprises a photodiode and an amplifier of its output signal having a controllable amplification, whereby the outlets of the individual optical elements of one of the rows are connected by one or several analog multiplexers which are part of the sensor , to at least one analog-to-digital converter , which is part of the optical detector , and the outlets of the individual optical elements of the other of the rows are connected to the inlets of analog-to-digital converters (61, ..., 6n), which are part of the optical detector , whereby the outlets of the analog-to-digital converters (61, ..., 6n), are interconnected to the inlet of a programmable device of the optical detector, the method includes generating an output analog signal (V in ) on the photodiode of each optical element which is proportional to the degree of irradiation or shadowing of the respective optical element ; amplification of the analog signal from the photodiode of each optical element by the amplifier to the value ( V out ) at the output of each optical element ; converting the analog signal of each optical element by an analog-to-digital converter which has a defined operating range; adjusting the sensitivity of the individual optical elements to the amount of filing light by controlling the corresponding amplifier so as to maintain the value of the output signal of the individual optical element within the operating range of the connected analog-to-digital converter (6, 61,... 6n), which corresponds to the relative differences between the irradiated sensor optical element and the shadowed optical element of the sensor in performing a yarn parameter detection.
A marker for use in a magnetomechanical electronic article surveillance (EAS) system comprising: a magnetomechanical active resonator element formed by a planar strip of amorphous magnetostrictive alloy having a composition Fe a Ni b M c wherein a+b+c = 100, wherein a is in a range of 40-70 atomic percent, b is in a range of 10 to less than 25 atomic percent, and c is in a range of 10-50 atomic percent, and where M is the balance of remaining elements; wherein M comprises one or more selected from the group consisting of Si, B, C, and P; a biasing element located adjacent said resonator element; a housing configured to contain said active resonator element and said biasing element ; and wherein said magnetomechanical active resonator element is subject to batch annealing in the presence of a magnetic field that is substantially transverse to the plane of said element and at a temperature of less than 300°C at a time of greater than one hour; wherein the frequency slope of the active resonator element in Hz/A.m -1 at the operating point is smaller than the maximum slope for the frequency characteristic curve; wherein an amplitude A1 at the operating point is larger than the minimum amplitude for the amplitude characteristic curve. a magnetomechanical active resonator element formed by a planar strip of amorphous magnetostrictive alloy having a composition Fe a Ni b M c wherein a+b+c = 100, wherein a is in a range of 40-70 atomic percent, b is in a range of 10 to less than 25 atomic percent, and c is in a range of 10-50 atomic percent, and where M is the balance of remaining elements; wherein M comprises one or more selected from the group consisting of Si, B, C, and P; a biasing element located adjacent said resonator element; a housing configured to contain said active resonator element and said biasing element ; and wherein said magnetomechanical active resonator element is subject to batch annealing in the presence of a magnetic field that is substantially transverse to the plane of said element and at a temperature of less than 300°C at a time of greater than one hour; wherein the frequency slope of the active resonator element in Hz/A.m -1 at the operating point is smaller than the maximum slope for the frequency characteristic curve; wherein an amplitude A1 at the operating point is larger than the minimum amplitude for the amplitude characteristic curve.
A hybrid construction machine in which an electric motor is operated by at least one of an electric generator that is driven by an engine and an energy storage system configured to store regenerative energy, the hybrid construction machine comprising: a motor drive configured to drive the electric motor ; and a controller ; characterized by an acceleration sensor configured to sense an acceleration pedal command; wherein the controller is configured to map the acceleration command to a speed command and to control a traveling unit through the motor drive during a low speed traveling operation of the machine, wherein the controller is configured to control acceleration/deceleration of the electric motor based on the mapped speed command, and generates the regenerative energy in response to the deceleration of the electric motor, and wherein if it is required to perform a precise acceleration/deceleration control of the electric motor during the low speed traveling operation of the construction machine, the controller is configured to set a minimum acceleration value and a maximum acceleration value which are sensed by the acceleration sensor , to perform a linear mapping of the acceleration pedal command to the speed command between the minimum acceleration and the maximum acceleration, and to control the acceleration/deceleration of the electric motor based on the mapped speed command. a motor drive configured to drive the electric motor ; and a controller ; characterized by an acceleration sensor configured to sense an acceleration pedal command; wherein the controller is configured to map the acceleration command to a speed command and to control a traveling unit through the motor drive during a low speed traveling operation of the machine, wherein the controller is configured to control acceleration/deceleration of the electric motor based on the mapped speed command, and generates the regenerative energy in response to the deceleration of the electric motor, and wherein if it is required to perform a precise acceleration/deceleration control of the electric motor during the low speed traveling operation of the construction machine, the controller is configured to set a minimum acceleration value and a maximum acceleration value which are sensed by the acceleration sensor , to perform a linear mapping of the acceleration pedal command to the speed command between the minimum acceleration and the maximum acceleration, and to control the acceleration/deceleration of the electric motor based on the mapped speed command.
A lighting apparatus comprising: multiple LED modules ; a driver for converting an external power to a driving current; a light source plate , comprising a first metal layer , an insulation layer and a second metal layer , wherein the second metal layer has a larger thickness than the first metal layer , wherein the first metal layer has a first portion and a second portion , wherein the first portion is used for electrically connecting the multiple LED modules , wherein the second portion forms an antenna radiation part, wherein the insulation layer is arranged between the first metal layer and the second metal layer ; and a wireless circuit electrically connected to the second portion of the first metal layer , wherein the second metal layer , the insulation layer and the antenna radiation part together form an antenna for receiving a wireless signal , wherein the wireless circuit is coupled to the driver for controlling the multiple LED modules according to the wireless signal ; wherein the second metal layer is an aluminum layer with a second thickness larger than ten times a first thickness of the first metal layer ; further comprising a separate heat sink unit , wherein a peripheral edge of the second metal layer engages the separate heat sink unit for moving heat of the multiple LED modules to the separate heat sink unit . multiple LED modules ; a driver for converting an external power to a driving current; a light source plate , comprising a first metal layer , an insulation layer and a second metal layer , wherein the second metal layer has a larger thickness than the first metal layer , wherein the first metal layer has a first portion and a second portion , wherein the first portion is used for electrically connecting the multiple LED modules , wherein the second portion forms an antenna radiation part, wherein the insulation layer is arranged between the first metal layer and the second metal layer ; and a wireless circuit electrically connected to the second portion of the first metal layer , wherein the second metal layer , the insulation layer and the antenna radiation part together form an antenna for receiving a wireless signal , wherein the wireless circuit is coupled to the driver for controlling the multiple LED modules according to the wireless signal ; wherein the second metal layer is an aluminum layer with a second thickness larger than ten times a first thickness of the first metal layer ; further comprising a separate heat sink unit , wherein a peripheral edge of the second metal layer engages the separate heat sink unit for moving heat of the multiple LED modules to the separate heat sink unit .
A support body and a blank , in particular a blank consisting of ceramic such as zirconium oxide or a glass ceramic, said support body comprises a receiving opening for the blank, the receiving opening being surrounded by an inner circumferential surface , said surface is bordered by an upper and a lower edge , said blank is fixed in position within the support body by means of an adhesive agent, wherein the support body possesses a hollow cylindrical geometry and circumferentially surrounds the blank, wherein the inner circumferential surface possesses a structure in form of several depressions that extend to at least one of the upper and lower edge and optionally at least one elevation to accommodate the adhesive agent; wherein the wall being bordered by the inner circumferential surface , wherein the depressions extend to the at least one of the upper and lower edge .
A system , comprising: a processor , which is configured to: receive electrical signals indicative of measured positions of (i) one or more chest position sensors (28a-28c) attached externally to a chest of a patient, and (ii) one or more back position sensors (28d-28f) attached externally to a back of the patient; compare between (i) a first shift between the measured positions (60a-60c) and respective predefined positions (58a-58c) of the one or more chest position sensors (28a-28c), and (ii) a second shift between the measured positions (60d-60f) and respective predefined positions (58d-58f) of the one or more back position sensors (28d-28f); and, in response to detecting a discrepancy between the first and second shifts: determine whether the source of the discrepancy is a field interference; and produce an alert of the discrepancy; and an output device , which is configured to output the alert to a user. a processor , which is configured to: receive electrical signals indicative of measured positions of (i) one or more chest position sensors (28a-28c) attached externally to a chest of a patient, and (ii) one or more back position sensors (28d-28f) attached externally to a back of the patient; compare between (i) a first shift between the measured positions (60a-60c) and respective predefined positions (58a-58c) of the one or more chest position sensors (28a-28c), and (ii) a second shift between the measured positions (60d-60f) and respective predefined positions (58d-58f) of the one or more back position sensors (28d-28f); and, in response to detecting a discrepancy between the first and second shifts: determine whether the source of the discrepancy is a field interference; and produce an alert of the discrepancy; and receive electrical signals indicative of measured positions of (i) one or more chest position sensors (28a-28c) attached externally to a chest of a patient, and (ii) one or more back position sensors (28d-28f) attached externally to a back of the patient; compare between (i) a first shift between the measured positions (60a-60c) and respective predefined positions (58a-58c) of the one or more chest position sensors (28a-28c), and (ii) a second shift between the measured positions (60d-60f) and respective predefined positions (58d-58f) of the one or more back position sensors (28d-28f); and, in response to detecting a discrepancy between the first and second shifts: determine whether the source of the discrepancy is a field interference; and produce an alert of the discrepancy; and determine whether the source of the discrepancy is a field interference; and produce an alert of the discrepancy; and an output device , which is configured to output the alert to a user.
A programmable device for processing data set, comprising: a plurality of accumulator circuits, each of which comprises a pipeline adder and a buffer unit for storing the calculation results of the pipeline adder; characterised in that it further comprises: a multiplexer, configured to sequentially receive data in the data set, dynamically determine a correspondence between a plurality of features contained in the data and the plurality of accumulator circuits, and send feature values of the plurality of features in the received data to a corresponding accumulator circuit according to the correspondence, respectively.
A sphincter-type intestinal valve for regulating intestinal transit, comprising: a biocompatible tubular intestinal casing having an adjustable electromagnetic valve arranged on said casing; a mechanical intestinal valve arranged at a free end of said biocompatible tubular intestinal casing; a check valve arranged at a free end of said mechanical intestinal valve, which is coupled with a free end of the intestinal mechanical valve, and in which the free end of the check valve is in contact with the outside; and a sealed rotary occluder which seals the free end of the check valve. a biocompatible tubular intestinal casing having an adjustable electromagnetic valve arranged on said casing; a mechanical intestinal valve arranged at a free end of said biocompatible tubular intestinal casing; a check valve arranged at a free end of said mechanical intestinal valve, which is coupled with a free end of the intestinal mechanical valve, and in which the free end of the check valve is in contact with the outside; and a sealed rotary occluder which seals the free end of the check valve.