mhurhangee/patent-ind-claim-en huggingface dataset:
A method for error-correction code, ECC, error handling, the method comprising: operating an ECC function on raw data , the ECC function comprises: generating ECC syndrome data by an ECC syndrome data generating module , the ECC syndrome data being derived from the raw data ; injecting a fault based on the ECC syndrome data and/or the raw data ; detecting an ECC error by an ECC checker ; determining whether the ECC error detected by the ECC checker corresponds to a malfunction of the ECC function or the fault injected based on the ECC syndrome data and/or the raw data ; the method being characterised by : delaying detecting the ECC error by the ECC checker until the raw data is not being accessed, the raw data being received based on a quality of service parameter; and adjusting the quality of service parameter to reduce delaying of the detecting the ECC error by the ECC checker , in response to the delaying the detecting the ECC error being in excess of a fault-tolerant deadline. generating ECC syndrome data by an ECC syndrome data generating module , the ECC syndrome data being derived from the raw data ; injecting a fault based on the ECC syndrome data and/or the raw data ; detecting an ECC error by an ECC checker ; determining whether the ECC error detected by the ECC checker corresponds to a malfunction of the ECC function or the fault injected based on the ECC syndrome data and/or the raw data ; the method being characterised by : delaying detecting the ECC error by the ECC checker until the raw data is not being accessed, the raw data being received based on a quality of service parameter; and adjusting the quality of service parameter to reduce delaying of the detecting the ECC error by the ECC checker , in response to the delaying the detecting the ECC error being in excess of a fault-tolerant deadline. delaying detecting the ECC error by the ECC checker until the raw data is not being accessed, the raw data being received based on a quality of service parameter; and adjusting the quality of service parameter to reduce delaying of the detecting the ECC error by the ECC checker , in response to the delaying the detecting the ECC error being in excess of a fault-tolerant deadline.
Drive circuit for driving a crystal oscillator comprising a first and a second terminal, the drive circuit comprising: - a first inductor (L D ) comprising a first terminal and a second terminal; - an electrical energy source connected to the first terminal; and - a switching circuit connected between the second terminal and the crystal oscillator , the switching circuit being configured to operate at least in an off state, in which it conveys substantially no electrical energy to the crystal oscillator , and in an on state, in which it conveys electrical energy to the crystal oscillator , said switching circuit including a first switch and a second switch , characterized in that the first inductor (L D ) is arranged to store energy in its magnetic field while the switching circuit is in the off state, and, when the switching circuit is in the on state, the switching circuit is arranged to use at least some of the energy stored in the magnetic field to deliver a surge of current from the electrical energy source to the crystal oscillator , in that the first switch is a first NMOS transistor and the second switch is a second PMOS transistor , and in that gate terminals of the first and second MOS transistors are connected to a common node connected to the second oscillator terminal , a drain of the first NMOS transistor and a source of the second PMOS transistor being connected to the second terminal of the first inductor (L D ), the drain of the second PMOS transistor being connected to the first oscillator terminal, and wherein the switching circuit is configured to be in the off state when the electrical potential at the common node is greater than a first threshold value, and in the on state when an electrical difference potential between the second terminal and the common node is above a second threshold value. - a first inductor (L D ) comprising a first terminal and a second terminal; - an electrical energy source connected to the first terminal; and - a switching circuit connected between the second terminal and the crystal oscillator , the switching circuit being configured to operate at least in an off state, in which it conveys substantially no electrical energy to the crystal oscillator , and in an on state, in which it conveys electrical energy to the crystal oscillator , said switching circuit including a first switch and a second switch ,
A cleaner capable of controlling motor power, the cleaner comprising: a head suctioning external dirt; a stick communicating with the head, being adjustable in length, and providing a passage through which dirt that is suctioned moves; a length sensor mounted on the stick and sensing a length change of the stick ; a motor providing dirt suction power to the head ; a speed measurer measuring a movement speed and a movement direction of the head ; and a controller controlling power of the motor , wherein the controller is configured to select minimum power for dirt suction of the motor on the basis of information about at least one of the length change of the stick, the movement speed of the head, and the movement direction of the head, and control the motor to have the selected minimum power. a head suctioning external dirt; a stick communicating with the head, being adjustable in length, and providing a passage through which dirt that is suctioned moves; a length sensor mounted on the stick and sensing a length change of the stick ; a motor providing dirt suction power to the head ; a speed measurer measuring a movement speed and a movement direction of the head ; and a controller controlling power of the motor , wherein the controller is configured to select minimum power for dirt suction of the motor on the basis of information about at least one of the length change of the stick, the movement speed of the head, and the movement direction of the head, and control the motor to have the selected minimum power.
ACOUSTIC FILTER FOR COMPRESSOR comprising: an inlet duct , an outlet duct and at least one main chamber , wherein the inlet duct comprises a refrigerant fluid inlet and a refrigerant fluid delivery end , wherein the refrigerant fluid delivery end is opposite to said refrigerant fluid inlet and it is capable of guiding the refrigerant fluid to the main chamber ; the outlet duct comprises a refrigerant fluid outlet and a refrigerant fluid collection end , wherein the refrigerant fluid collection end is opposite to said a refrigerant fluid outlet and it is capable of guiding the refrigerant fluid from the main chamber to said fluid outlet , the filter comprising a resonator chamber arranged adjacent to and separated from the main chamber by means of a wall, and being CHARACTERIZED by the fact that said resonator chamber is arranged adjacent to the inlet duct , wherein the resonator chamber and the inlet duct are fluidically connected by means of at least one resonator tube , said wall separating the resonator chamber from the main chamber being a sealing wall . an inlet duct , an outlet duct and at least one main chamber , wherein the inlet duct comprises a refrigerant fluid inlet and a refrigerant fluid delivery end , wherein the refrigerant fluid delivery end is opposite to said refrigerant fluid inlet and it is capable of guiding the refrigerant fluid to the main chamber ; the outlet duct comprises a refrigerant fluid outlet and a refrigerant fluid collection end , wherein the refrigerant fluid collection end is opposite to said a refrigerant fluid outlet and it is capable of guiding the refrigerant fluid from the main chamber to said fluid outlet , the filter comprising a resonator chamber arranged adjacent to and separated from the main chamber by means of a wall, and being CHARACTERIZED by the fact that said resonator chamber is arranged adjacent to the inlet duct , wherein the resonator chamber and the inlet duct are fluidically connected by means of at least one resonator tube , said wall separating the resonator chamber from the main chamber being a sealing wall .
A building apparatus for building an object using a curable material that is cured by being irradiated with ultraviolet rays, the building apparatus comprising: an ejection head , configured to eject the curable material; a UV light source, configured to emit ultraviolet rays to the curable material ejected from the ejection head ; and a light source driver , configured to supply electric power for driving the UV light source, wherein the UV light source is an ultraviolet LED, UV LED, and the light source driver is configured to supply the electric power that varies in a pulse-like form to the UV light source to drive the UV light source using a pulse driving scheme, wherein if an upper limit of a rated temperature of the ultraviolet LED is defined as a rated upper limit temperature, and a peak value of a pulse current flowing in the ultraviolet LED in accordance with electric power supplied from the light source driver is defined as a supply current value, the supply current value is set to such a value that the temperature of the ultraviolet LED does not exceed the rated upper limit temperature in a case of supplying electric power in the pulse-like form from the light source driver to the ultraviolet LED, and the temperature of the ultraviolet LED would exceed the rated upper limit temperature if a current of the supply current value were continuously supplied to the ultraviolet LED; and the building apparatus comprises a plurality of ejection heads , wherein the respective ejection heads are configured to eject curable material of different colors. an ejection head , configured to eject the curable material; a UV light source, configured to emit ultraviolet rays to the curable material ejected from the ejection head ; and a light source driver , configured to supply electric power for driving the UV light source, wherein the UV light source is an ultraviolet LED, UV LED, and the light source driver is configured to supply the electric power that varies in a pulse-like form to the UV light source to drive the UV light source using a pulse driving scheme, wherein if an upper limit of a rated temperature of the ultraviolet LED is defined as a rated upper limit temperature, and a peak value of a pulse current flowing in the ultraviolet LED in accordance with electric power supplied from the light source driver is defined as a supply current value, the supply current value is set to such a value that the temperature of the ultraviolet LED does not exceed the rated upper limit temperature in a case of supplying electric power in the pulse-like form from the light source driver to the ultraviolet LED, and the temperature of the ultraviolet LED would exceed the rated upper limit temperature if a current of the supply current value were continuously supplied to the ultraviolet LED; and the building apparatus comprises a plurality of ejection heads , wherein the respective ejection heads are configured to eject curable material of different colors.
A photoelectric converter comprising: a mount substrate ; an IC circuit which is formed in an IC substrate ; an optical element adapted to have a function of converting an electric signal output by the IC circuit to an optical signal and emitting light, or a function of converting a received optical signal to an electric signal and outputting the electric signal to the IC circuit ; a waveguide adapted to effect an optical coupling between the optical element and an external optical device; and an electric connector adapted to be provided on a surface of the mount substrate and to be capable of electrically connecting the IC circuit to an external connector, wherein: the optical element is held by the mount substrate and has a light emitting surface or a light receiving surface, the light emitting surface or the light receiving surface of the optical element being directed to the mount substrate ; the waveguide is provided in the mount substrate along said surface of the mount substrate ; a wiring substrate adapted to change an electrode pattern is interposed between the mount substrate and the electric connector ; said photoelectric converter characterized in that : the wiring substrate includes an uppermost layer on which electrodes are formed in correspondence with the wiring pattern formed on said surface of the mount substrate , a lowermost layer on which electrodes are formed in correspondence with terminals of the electric connector , and an intermediate layer electrically connecting the electrodes on the uppermost layer and the electrodes on the lowermost layer ; the wiring substrate is connected to said surface of the mount substrate with solder balls in such a manner that a gap corresponding to the solder balls is provided between the surface and the wiring substrate ; and the IC substrate and the optical element are mounted in the gap on said surface . the optical element is held by the mount substrate and has a light emitting surface or a light receiving surface, the light emitting surface or the light receiving surface of the optical element being directed to the mount substrate ; the waveguide is provided in the mount substrate along said surface of the mount substrate ; a wiring substrate adapted to change an electrode pattern is interposed between the mount substrate and the electric connector ; the wiring substrate includes an uppermost layer on which electrodes are formed in correspondence with the wiring pattern formed on said surface of the mount substrate , a lowermost layer on which electrodes are formed in correspondence with terminals of the electric connector , and an intermediate layer electrically connecting the electrodes on the uppermost layer and the electrodes on the lowermost layer ; the wiring substrate is connected to said surface of the mount substrate with solder balls in such a manner that a gap corresponding to the solder balls is provided between the surface and the wiring substrate ; and the IC substrate and the optical element are mounted in the gap on said surface .
A liquid circulation device configured to be connected to a liquid discharge head , comprising: a pressurizing pump configured to supply liquid from a tank to the liquid discharge head ; a depressurizing pump configured to collect the liquid from the liquid discharge head ; a buffer tank connected in parallel with the liquid discharge head between the pressurizing pump and the depressurizing pump , and configured to store the liquid; a sensor configured to measure pressure in the buffer tank ; and a processor configured to determine whether a pressure chamber included in the liquid discharge head is filled with the liquid based on the measured pressure, wherein the processor is configured to acquire the pressure from the sensor in time series, and determine whether the pressure chamber is filled with the liquid based on the pressure acquired in time series, characterized in that the processor is configured to determine that the pressure chamber is filled with the liquid, when detecting that the pressure reaches lower limit pressure, the pressure reaches upper limit pressure, and the pressure is stable. a pressurizing pump configured to supply liquid from a tank to the liquid discharge head ; a depressurizing pump configured to collect the liquid from the liquid discharge head ; a buffer tank connected in parallel with the liquid discharge head between the pressurizing pump and the depressurizing pump , and configured to store the liquid; a sensor configured to measure pressure in the buffer tank ; and a processor configured to determine whether a pressure chamber included in the liquid discharge head is filled with the liquid based on the measured pressure, wherein the processor is configured to acquire the pressure from the sensor in time series, and determine whether the pressure chamber is filled with the liquid based on the pressure acquired in time series, characterized in that the processor is configured to determine that the pressure chamber is filled with the liquid, when detecting that the pressure reaches lower limit pressure, the pressure reaches upper limit pressure, and the pressure is stable.
An apparatus for performing peritoneal dialysis, the apparatus comprising means for delivering dialysis fluid to the peritoneal cavity of a patient, a measurement device for measuring the fluid pressure of the delivered dialysis fluid or the fluid pressure in the peritoneal cavity and a control unit operably connected to said means and the measurement device, wherein the control unit is configured to effect an inflow or outflow phase encompassing a series of fill-and-measurement or drain-and-measurement steps, each step comprising delivering a predetermined quantity of dialysis fluid to the peritoneal cavity or draining a predetermined quantity of dialysis fluid from the peritoneal cavity and subsequently measuring and recording a pressure value, to establish a function of intraperitoneal pressure by added volume and to use the slope and curvature of the function to generate and output at least one therapy-related prediction or recommendation, characterized in that the control unit is configured to obtain an average dwell behaviour in terms of the temporal variation of the interpertioneal volume by superimposition of dwell curves of consecutive cycles.
A method comprising: for each of multiple resource allocations by a network node , partitioning (A) an allocation table into a first, fixed length partition and into at least one second, variable length partition , the allocation table representing a structure of a signaling channel; and transmitting (B) the allocation table partitions from the network node to a population of users using a transport format for the first partition that is known a priori by the population of users , characterized in that the transmitting of the allocation table partitions using the transport format comprises mapping the first partition to a portion of a frequency bandwidth of the signaling channel, said portion comprising a fixed number of sets of sub-carriers. for each of multiple resource allocations by a network node , partitioning (A) an allocation table into a first, fixed length partition and into at least one second, variable length partition , the allocation table representing a structure of a signaling channel; and transmitting (B) the allocation table partitions from the network node to a population of users using a transport format for the first partition that is known a priori by the population of users , characterized in that the transmitting of the allocation table partitions using the transport format comprises mapping the first partition to a portion of a frequency bandwidth of the signaling channel, said portion comprising a fixed number of sets of sub-carriers.
An anthropomorphic test device comprising: a base member having a base inner surface and an opposing base outer surface and a base peripheral edge connecting said base inner surface to said base outer surface with said base inner surface defining a first cavity ; and an anatomical component mounted to said base member , said anatomical component having a component inner surface and an opposing component outer surface and a component peripheral edge connecting said component inner surface to said component outer surface , with said component inner surface defining a second cavity ; characterized by at least one base connector coupled to said base inner surface and at least partially disposed within said first cavity ; at least one component connector coupled to said anatomical component , wherein said component connector engages said base connector such that said base and component outer surfaces are aligned and wherein the engagement of said component connector to said base connector prevents rotation of said base member relative to said anatomical component when said anatomical component is mounted to said base member ; a first structural member disposed within said first cavity of said base member ; and a second structural member disposed within said second cavity of said anatomical component with said second structural member having a first end and an opposing second end , wherein said first end of said second structural member is coupled to said first structural member when said anatomical component is mounted to said base member . a base member having a base inner surface and an opposing base outer surface and a base peripheral edge connecting said base inner surface to said base outer surface with said base inner surface defining a first cavity ; and an anatomical component mounted to said base member , said anatomical component having a component inner surface and an opposing component outer surface and a component peripheral edge connecting said component inner surface to said component outer surface , with said component inner surface defining a second cavity ; characterized by at least one base connector coupled to said base inner surface and at least partially disposed within said first cavity ; at least one component connector coupled to said anatomical component , wherein said component connector engages said base connector such that said base and component outer surfaces are aligned and wherein the engagement of said component connector to said base connector prevents rotation of said base member relative to said anatomical component when said anatomical component is mounted to said base member ; a first structural member disposed within said first cavity of said base member ; and a second structural member disposed within said second cavity of said anatomical component with said second structural member having a first end and an opposing second end , wherein said first end of said second structural member is coupled to said first structural member when said anatomical component is mounted to said base member .
An injectable solution for use in a method of therapy of a bone defect including the administration of a single dose injection to the bone defect, the solution comprising 0.28 mg/mL of recombinant human bone morphogenetic protein-2 (rhBMP-2) in an aqueous carrier, wherein the injectable solution is configured to be administered as a single dose injection to the bone defect, wherein the aqueous carrier comprises sterile water for injection, and wherein the injectable solution is free from a matrix material. wherein the injectable solution is configured to be administered as a single dose injection to the bone defect, wherein the aqueous carrier comprises sterile water for injection, and wherein the injectable solution is free from a matrix material.