mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a User Equipment, in the following also referred to as UE, to configure sidelink discontinuous reception, in the following also referred to as DRX, for sidelink groupcast communication associated with a group, comprising: obtaining or being configured with a sidelink DRX configuration for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration for each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle ; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group ; and monitoring a sidelink control channel, associated with the group, based on the sidelink DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle , characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)". obtaining or being configured with a sidelink DRX configuration for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration for each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle ; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group ; and monitoring a sidelink control channel, associated with the group, based on the sidelink DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle , characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)".
An ice protection system comprises: a first layer comprising fiberglass, a dielectric film or a pre-impregnated material; an electrothermal ice protection heating element comprising a thermoplastic sheet containing a carbon allotrope additive ; a second layer comprising fiberglass, a dielectric film or a pre-impregnated material; and a skin layer comprising a metallic material or fiberglass, wherein the ice protection system optionally comprises an adhesive layer positioned between one or more of the first layer and the electrothermal ice protection heating element , the electrothermal ice protection heating element and the second layer and the second layer and the skin layer ; wherein the first layer, the second layer and the skin layer provide support to the electrothermal ice protection heating element; wherein the electrothermal ice protection heating element is disposed between the first layer and the second layer; wherein the ice protection system has a shear strength of at least 10,342 kilopascals (1500 pounds per square inch); and wherein the electrothermal ice protection heating element has a uniform thickness between 10 micrometers (0.0005 inches) and 0.25 mm (0.010 inches). a first layer comprising fiberglass, a dielectric film or a pre-impregnated material; an electrothermal ice protection heating element comprising a thermoplastic sheet containing a carbon allotrope additive ; a second layer comprising fiberglass, a dielectric film or a pre-impregnated material; and a skin layer comprising a metallic material or fiberglass, wherein the ice protection system optionally comprises an adhesive layer positioned between one or more of the first layer and the electrothermal ice protection heating element , the electrothermal ice protection heating element and the second layer and the second layer and the skin layer ; wherein the first layer, the second layer and the skin layer provide support to the electrothermal ice protection heating element; wherein the electrothermal ice protection heating element is disposed between the first layer and the second layer; wherein the ice protection system has a shear strength of at least 10,342 kilopascals (1500 pounds per square inch); and wherein the electrothermal ice protection heating element has a uniform thickness between 10 micrometers (0.0005 inches) and 0.25 mm (0.010 inches).
A respiration estimation method comprising: a first step of estimating a breathing rate of a subject based on each of a time-series signal of first data relating to a cardiac function of the subject and a time-series signal of second data relating to an acceleration by a respiratory motion of the subject, wherein the first data includes at least one of an amplitude of an R wave, an R-R interval which is an interval between an R wave and an immediately preceding R wave, an amplitude of an S wave, and an RS amplitude which is an amplitude from a peak value of an R wave to a peak value of an S wave; a second step of measuring error coefficients respectively indicating reliabilities of the first data and the second data; a third step of obtaining weighting constants as elements of a weighting matrix based on the error coefficients; a fourth step of updating a covariance estimation error matrix of a Kalman filter so that an estimation error of the Kalman filter becomes minimum; a fifth step of updating a Kalman gain of the Kalman filter based on the weighting matrix and the covariance estimation error matrix; a sixth step of estimating a breathing rate obtained by filtering noise using the Kalman filter of which the Kalman gain is updated for each of the breathing rate estimated based on the first data and the breathing rate estimated based on the second data; and a seventh step of executing weighted averaging processing for the plurality of estimated values of the breathing rates obtained in the sixth step. a first step of estimating a breathing rate of a subject based on each of a time-series signal of first data relating to a cardiac function of the subject and a time-series signal of second data relating to an acceleration by a respiratory motion of the subject, wherein the first data includes at least one of an amplitude of an R wave, an R-R interval which is an interval between an R wave and an immediately preceding R wave, an amplitude of an S wave, and an RS amplitude which is an amplitude from a peak value of an R wave to a peak value of an S wave; a second step of measuring error coefficients respectively indicating reliabilities of the first data and the second data; a third step of obtaining weighting constants as elements of a weighting matrix based on the error coefficients; a fourth step of updating a covariance estimation error matrix of a Kalman filter so that an estimation error of the Kalman filter becomes minimum; a fifth step of updating a Kalman gain of the Kalman filter based on the weighting matrix and the covariance estimation error matrix; a sixth step of estimating a breathing rate obtained by filtering noise using the Kalman filter of which the Kalman gain is updated for each of the breathing rate estimated based on the first data and the breathing rate estimated based on the second data; and a seventh step of executing weighted averaging processing for the plurality of estimated values of the breathing rates obtained in the sixth step.
An improved air compressor of the type including a main housing , a cylinder being fitted with a piston body having a piston head , an air storage unit communicating with the cylinder , a motor fitted with a small gear at an axle thereof, and a large gear mounted to the main housing via a bearing , wherein the main housing is joined with the cylinder , the motor and the large gear are mounted to the main housing such that the small gear engages with the large gear , the large gear is provided with a counterweight being fixed with a crankpin , the piston body is pivotally mounted to the crankpin , the motor drives the crankpin to swing in a circle, which allows the piston body to conduct reciprocating motion within the cylinder so as to compress air in the inner space of the cylinder and force the compressed air to flow into the air storage unit ; characterised in that : the bearing is formed integrally with the main housing , so that when the piston body conducts reciprocating motion within the cylinder at high frequencies, the bearing is firmly fixed on the main housing without nonfunctioning or falling off.
Closure cap for a container extending along a central axis and comprising an internal skirt for fastening said cap to the container, an external skirt radially surrounding said internal skirt at least partially, and a front wall extending radially and from which said internal and external skirts extend axially, the cap being produced by moulding at least one synthetic material, the internal skirt having a variable thickness in the direction of its axial length, said thickness being at a minimum at least for a proximal portion of said skirt which extends from the front wall , the internal skirt comprising the proximal portion with a thickness E 1 that is substantially constant, a distal portion with a thickness E 2 that is substantially constant and greater than the thickness E 1 , and a connecting portion that connects the proximal portion and the distal portion and has a variable thickness E 3 along its length, characterized in that the axial length of the proximal portion of the internal skirt varies around the circumference of said internal skirt .
A drive device for a movable furniture part , in particular a drawer, having an ejection device , which has a driver and a carriage which is pre-tensioned by a force accumulator and can be coupled via a driver to a movable furniture part , wherein upon unlocking of the ejection device , the movable furniture part is accelerated from an overpressing or closed position over a first travel distance via the carriage and the driver in an opening direction and after the first travel distance, the movable furniture part is movable over a second travel distance, at which the driver is movable in relation to the carriage , characterized in that brake forces act on the driver and the movable furniture part during the second travel distance and the driver can be decoupled from the movable furniture part at the end of the second travel distance, whereby the braking or dampening means is active only after the first travel distance..
Plate bender for mandibular implants comprising a support structure , a feeding system , a fastening mechanism supporting the plate or mandibular implant in a specific position, a bending dice system , a power unit , a control unit , and an output platform, wherein the feeding system comprises an advance mechanism by synchronous pulleys operated by a feeding servo , a free roller mechanism connected to a tensor mechanism controlling the advancement of the mandibular plate and the bending accuracy, wherein said elements of the feeding system are supported on a modular structure of the feeding system.
A method comprising: determining (S240) an initial valid path for guiding a robot from a starting position to an ending position; dividing (S250) the initial valid path into a plurality of individual segments of the initial valid path; and fitting (S260) a separate Sigmoid curve respectively to each of the plurality of individual segments of the initial valid path based on parameters of at least one of smoothness and security to produce a piecewise Sigmoid curve path, wherein the determining (S240) the initial valid path includes applying one of an A* algorithm and a Dijkstra algorithm between the starting position and the ending position. determining (S240) an initial valid path for guiding a robot from a starting position to an ending position; dividing (S250) the initial valid path into a plurality of individual segments of the initial valid path; and fitting (S260) a separate Sigmoid curve respectively to each of the plurality of individual segments of the initial valid path based on parameters of at least one of smoothness and security to produce a piecewise Sigmoid curve path,
Method for controlling a gas-insulated high-voltage electrical station , said electrical station including at least one internal sensor suitable for measuring Ultra High Frequency (UHF) electromagnetic waves, the method being characterised in that it includes steps consisting of: a) acquiring in parallel at least one first frequency spectrum of the signals received by the at least one internal sensor and at least one second frequency spectrum of the signals received by at least one external sensor at the electrical station , the at least one first spectrum and the at least one second spectrum being acquired over a UHF frequency range, b) calculating a frequency spectrum of the signal-to-noise ratio from the at least one first spectrum, and the at least one second spectrum , the at least one first spectrum, corresponding to the signal and the at least one second spectrum corresponding to the noise, c) determining in the frequency range the presence of at least one maximum of the signal-to-noise ratio, which is a signature of the presence of at least one partial discharge. a) acquiring in parallel at least one first frequency spectrum of the signals received by the at least one internal sensor and at least one second frequency spectrum of the signals received by at least one external sensor at the electrical station , the at least one first spectrum and the at least one second spectrum being acquired over a UHF frequency range, b) calculating a frequency spectrum of the signal-to-noise ratio from the at least one first spectrum, and the at least one second spectrum , the at least one first spectrum, corresponding to the signal and the at least one second spectrum corresponding to the noise, c) determining in the frequency range the presence of at least one maximum of the signal-to-noise ratio, which is a signature of the presence of at least one partial discharge.
A master battery management system, BMS, comprising: a transmission unit configured to wirelessly transmit a cell balancing start command signal and a temperature measurement command signal at least two times to a plurality of slave BMSs; a wired communication unit configured to transmit a FAN ON signal to a plurality of fans connected together after the transmission unit wirelessly transmits the cell balancing start command signal; a reception unit configured to receive an association signal from an associated slave BMS, that is a slave BMS among the plurality of slave BMSs, having a difference value between a temperature of a printed circuit board, PCB, of a corresponding slave BMS measured based on the temperature measurement command signal transmitted immediately after the cell balancing start command signal and a temperature of a PCB substrate of a corresponding slave BMS measured based on the temperature measurement command signal transmitted after the FAN ON signal transmission greater than a preset value; and a control unit configured to determine that the associated slave BMS is disposed in the same rack, and change an ID and communication channel of the associated slave BMS to a specific value. a transmission unit configured to wirelessly transmit a cell balancing start command signal and a temperature measurement command signal at least two times to a plurality of slave BMSs; a wired communication unit configured to transmit a FAN ON signal to a plurality of fans connected together after the transmission unit wirelessly transmits the cell balancing start command signal; a reception unit configured to receive an association signal from an associated slave BMS, that is a slave BMS among the plurality of slave BMSs, having a difference value between a temperature of a printed circuit board, PCB, of a corresponding slave BMS measured based on the temperature measurement command signal transmitted immediately after the cell balancing start command signal and a temperature of a PCB substrate of a corresponding slave BMS measured based on the temperature measurement command signal transmitted after the FAN ON signal transmission greater than a preset value; and a control unit configured to determine that the associated slave BMS is disposed in the same rack, and change an ID and communication channel of the associated slave BMS to a specific value.
A microscope probe configured to analyze a sample, the microscope probe comprising: a moveable probe tip comprising a metal layer affixed to a top surface of a supporting layer, a portion of the metal layer forming a metal terminal probe end , the metal terminal probe end extending past the supporting layer in a plane parallel to the top surface of a fixed substrate; wherein at least a portion of a bottom surface of the supporting layer is attached to a spacer, the spacer fixedly secured to the top surface of a fixed substrate; wherein at least a portion of the supporting layer extends past the fixed substrate; and wherein the microscope probe comprises first actuation electrodes (A2, C1, C2), which are configured to move the moveable probe tip in a plane parallel to the top surface of the fixed substrate when actuated, characterized in that the microscope probe comprises at least one second actuation electrode (E1, E2, E3), which is configured to move the moveable probe tip towards the fixed substrate in a plane perpendicular to the top surface of the fixed substrate when actuated, wherein the at least one second actuation electrode is a bottom electrode, wherein the bottom electrode runs below the moveable probe tip. a moveable probe tip comprising a metal layer affixed to a top surface of a supporting layer, a portion of the metal layer forming a metal terminal probe end , the metal terminal probe end extending past the supporting layer in a plane parallel to the top surface of a fixed substrate; wherein at least a portion of a bottom surface of the supporting layer is attached to a spacer, the spacer fixedly secured to the top surface of a fixed substrate; wherein at least a portion of the supporting layer extends past the fixed substrate; and wherein the microscope probe comprises first actuation electrodes (A2, C1, C2), which are configured to move the moveable probe tip in a plane parallel to the top surface of the fixed substrate when actuated, characterized in that the microscope probe comprises at least one second actuation electrode (E1, E2, E3), which is configured to move the moveable probe tip towards the fixed substrate in a plane perpendicular to the top surface of the fixed substrate when actuated, wherein the at least one second actuation electrode is a bottom electrode, wherein the bottom electrode runs below the moveable probe tip.
A composition, which is a lubricating oil composition suitable for an internal combustion engine and comprises: - a lubricating base oil comprising at least one mineral base oil or at least one synthetic base oil or any combination thereof, the lubricating base oil having a kinematic viscosity at 100°C, measured according to ASTM D445, of 4.0-4.5 mm 2 /s and a NOACK evaporation loss at 250°C, measured according to ASTM D5800, of ≤ 15 mass%; - 1000 to < 2000 mass ppm, in terms of calcium on the basis of the total mass of the composition, of a calcium borate-containing metallic detergent (A); and - optionally < 1.0 mass%, based on the total mass of the composition, of a viscosity index improver (C) comprising, based on the total mass of the component (C), ≥ 95 mass% of a poly(meth)acrylate viscosity index improver (C1) having a weight average molecular weight of ≥ 100,000. - a lubricating base oil comprising at least one mineral base oil or at least one synthetic base oil or any combination thereof, the lubricating base oil having a kinematic viscosity at 100°C, measured according to ASTM D445, of 4.0-4.5 mm 2 /s and a NOACK evaporation loss at 250°C, measured according to ASTM D5800, of ≤ 15 mass%; - 1000 to < 2000 mass ppm, in terms of calcium on the basis of the total mass of the composition, of a calcium borate-containing metallic detergent (A); and - optionally < 1.0 mass%, based on the total mass of the composition, of a viscosity index improver (C) comprising, based on the total mass of the component (C), ≥ 95 mass% of a poly(meth)acrylate viscosity index improver (C1) having a weight average molecular weight of ≥ 100,000.
Flat structure component , in particular an underfloor protection element , for a motor vehicle , in particular an electric vehicle, with a flat configured core element made of a first thermoplastic material, at least one lower and one upper cover layer made of a second fibre-reinforced thermoplastic material, wherein the cover layers are formed and bonded in a material fit to the core element , which is produced from an injection moulding compound located between the cover layers or a flow moulding compound located between the cover layers , characterized in that the structure component has at least one peripheral region , which is formed only from a first plastic material and is configured as being of one piece with the core element located between the cover layers , and that several passage openings are provided in the peripheral region , which are arranged such as to accommodate a connecting element, which is provided in order to secure the structure component to a vehicle body . a flat configured core element made of a first thermoplastic material, at least one lower and one upper cover layer made of a second fibre-reinforced thermoplastic material, wherein the cover layers are formed and bonded in a material fit to the core element , which is produced from an injection moulding compound located between the cover layers or a flow moulding compound located between the cover layers , characterized in that the structure component has at least one peripheral region , which is formed only from a first plastic material and is configured as being of one piece with the core element located between the cover layers , and that several passage openings are provided in the peripheral region , which are arranged such as to accommodate a connecting element, which is provided in order to secure the structure component to a vehicle body .
A rotary piston pump , in particular claw pump, comprising a housing which has a housing inlet on a housing upper side , wherein the housing inlet is connected to a gas channel that is integrated into the housing and extends transversely to a rotational axis (x) of the piston , which gas channel creates a flow connection to a gas outlet of a filter part arranged in a filter receptacle , wherein furthermore, in the installed state, the filter part is accessible from a side perpendicular to the housing top side , for maintenance purposes, for example, characterized in that a modular design is provided, which, on the one hand, allows using the integrated filter part for cleaning the gas before it flows into a pump chamber , wherein the filter receptacle is connected to a gas inlet which is formed separately from the housing inlet , and, on the other hand, allows a combination of the housing inlet , which is exposed after removal of a lid part , with a suction attachment , wherein in this configuration, the housing inlet directly forms the gas inlet.