mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selecting a route for an autonomous vehicle, AV comprising: Identifying , within a map database storing data describing a set of connected roadways each having one or more lanes, a plurality of candidate lanes for routing the AV; Retrieving , from the map database, at least one parameter of each of the plurality of candidate lanes; determining a performance metric for each of the plurality of candidate lanes, the performance metric for a given candidate lane based on the retrieved at least one parameter of the given candidate lane; and selecting a candidate lane of the plurality of candidate lanes for routing the AV based at least in part on the performance metrics for the plurality of candidate lanes, wherein the performance metric for a lane reflects an expected driving performance of the vehicle when autonomously navigating the lane, and characterised in that the determining the performance metric for a given candidate lane comprises: identifying, based on the at least one parameter for the given candidate lane, a lane group comprising the given candidate lane and at least one non-candidate lane, the at least one non-candidate lane having a parameter matching at least one of the parameters of the given candidate lane; and determining the performance metric of the lane group, the performance metric based on data describing previous trips by AVs along the non-candidate lanes in the lane group. Identifying , within a map database storing data describing a set of connected roadways each having one or more lanes, a plurality of candidate lanes for routing the AV; Retrieving , from the map database, at least one parameter of each of the plurality of candidate lanes; determining a performance metric for each of the plurality of candidate lanes, the performance metric for a given candidate lane based on the retrieved at least one parameter of the given candidate lane; and selecting a candidate lane of the plurality of candidate lanes for routing the AV based at least in part on the performance metrics for the plurality of candidate lanes, the vehicle when autonomously navigating the lane, and characterised in that the determining the performance metric for a given candidate lane comprises: identifying, based on the at least one parameter for the given candidate lane, a lane group comprising the given candidate lane and at least one non-candidate lane, the at least one non-candidate lane having a parameter matching at least one of the parameters of the given candidate lane; and determining the performance metric of the lane group, the performance metric based on data describing previous trips by AVs along the non-candidate lanes in the lane group. identifying, based on the at least one parameter for the given candidate lane, a lane group comprising the given candidate lane and at least one non-candidate lane, the at least one non-candidate lane having a parameter matching at least one of the parameters of the given candidate lane; and determining the performance metric of the lane group, the performance metric based on data describing previous trips by AVs along the non-candidate lanes in the lane group.
Cooling module for a vehicle engine, the cooling module having: - a radiator , - at least one header tank fixed to the radiator , - a fixing element for fixing the header tank to the vehicle, the cooling module being characterized in that it also has: - an intermediate component for fixing the header tank to the fixing element , the intermediate component having a retaining portion , - the header tank having a housing designed to cooperate with the retaining portion of the intermediate component in order to fix the intermediate component to the header tank in an assembled position, - and in that the intermediate component has a finger designed to cooperate with the fixing element in order to fix the intermediate component to the fixing element , and in that the finger protrudes laterally from the intermediate component. - a radiator , - at least one header tank fixed to the radiator , - a fixing element for fixing the header tank to the vehicle, - an intermediate component for fixing the header tank to the fixing element , the intermediate component having a retaining portion , - the header tank having a housing designed to cooperate with the retaining portion of the intermediate component in order to fix the intermediate component to the header tank in an assembled position, - and in that the intermediate component has a finger designed to cooperate with the fixing element in order to fix the intermediate component to the fixing element , and in that the finger protrudes laterally from the intermediate component.
A cleaning robot for cleaning the inner surfaces of the haft mold of tire curing molds comprising a basket wherein a lifting arm placed in a manner pivotal on a proximal end , the lifting arm is pivoted on a distal end of a support arm where cleaning robot fits completely into the basket when positioned as close and comprising a movable head having a nozzle coupled in a manner to establish fluid communication to a dry ice inlet and located at the distal end of the support arm and a free end which is configured movably closer to the inner surface such as at a vicinity of the inner surface along the contour of its when positioned as open characterized in that the robot comprises a horizontal rotatable joint pivoted to the support arm which is in a prolonged manner to the movement direction (B) structured in telescopic form, providing freedom of movement horizontally at the rotation axis of the movable head is orthogonal to the elongation axis of the support arm .
A bicomponent fiber, comprising: a first region formed of a condensation polymer; and a second region formed from a polypropylene blend of: (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2 , as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend. a first region formed of a condensation polymer; and a second region formed from a polypropylene blend of: (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2 , as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend. (i) a propylene-based polymer having a density of 0.895 g/cm 3 to 0.920 g/cm 3 and a melt index, I 2 , as determined by ASTM D1238 at 230 °C and 2.16 kg of 0.5 to 150 g/10 minutes; (ii) a maleic anhydride-grafted polypropylene; and (iii) an inorganic Brønsted-Lowry acid having an acid strength pKa value at 25 °C of 1 to 6.5, wherein the polypropylene blend has a 0.03 to 0.3 weight percent of grafted maleic anhydride based on the total weight of the polypropylene blend.
An aluminum alloy wire rod having a composition comprising Mg: 0.10 mass% to 1.00 mass%, Si: 0.10 mass% to 1.00 mass%, Fe:0.01 mass% to 1.40 mass%, Ti:0 mass% to 0.100 mass%, B: 0 mass% to 0.030 mass%, Cu: 0 mass% to 1.00 mass%, Ag: 0 mass% to 0.50 mass%, Au: 0 mass% to 0.50 mass%, Mn: 0 mass% to 1.00 mass%, Cr: 0 mass% to 1.00 mass%, Zr: 0 mass% to 0.50 mass%, Hf: 0 mass% to 0.50 mass%, V: 0 mass% to 0.50 mass%, Sc: 0 mass% to 0.50 mass%, Sn: 0 mass% to 0.50 mass%, Co: 0 mass% to 0.50 mass%, Ni: 0 mass% to 0.50 mass%, and the balance: Al and inevitable impurities, wherein a ratio of (standard deviation of crystal grain size of the aluminum alloy wire rod)/(average crystal grain size of the aluminum alloy wire rod) is less than or equal to 0.57, and a ratio of (diameter of the aluminum alloy wire rod)/(average crystal grain size of the aluminum alloy wire rod) is greater than or equal to 10, wherein the measurement of the standard deviation of the crystal grain size and the average crystal grain size is performed on a cross section cut out parallel to a lengthwise direction of the wire rod and is measured in a straight line in an angle of 45° with the lengthwise direction of the wire rod in conformity with JIS H 0501-1986 for 50 crystal grains.
A jar comprising an external body jar and an internal body jar which are formed separately and assembled together and together provide an increased thickness sidewall, each of the body jars is formed from PET and each of the body jars has a maximum wall thickness of less than 5mm, wherein the jar further comprises an inner cup which is removable and which is formed from polypropylene.
A method for determining a calibration parameter of a vehicle , in particular a driverless transport vehicle, the vehicle having at least a first and a second sensor , and the calibration parameter determining a position of at least one which enables sensors relative to a coordinate origin of the vehicle, the method comprising the following steps: - detecting structures by means of the at least two sensors ; - determining whether the detected structures match at least partially; - calculating a relative position of at least the first sensor to the second sensor based on the detected matching patterns, and thereafter - determining the calibration parameter using at least the calculated relative position from the first sensor to the second sensor characterized by the calculating a motion of the vehicle based on the detected structures , wherein determining the calibration parameter considers these calculated motion of the vehicle . - detecting structures by means of the at least two sensors ; - determining whether the detected structures match at least partially; - calculating a relative position of at least the first sensor to the second sensor based on the detected matching patterns, and thereafter - determining the calibration parameter using at least the calculated relative position from the first sensor to the second sensor
A processor comprising: a plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) each to independently execute instructions; a clock distribution circuit including a clock signal generator to generate a clock signal and a plurality of branches (220a-c) each to provide the clock signal to one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102), wherein the clock distribution circuit is coupled to receive a first operating voltage from a first voltage rail (P2) and the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) are coupled to receive at least one second operating voltage from one or more second voltage rails (P1), wherein the first operating voltage and the at least one second operating voltage are independent; and a power controller including a clock control logic to dynamically modify the first operating voltage, wherein the first operating voltage is dynamically lowered to a lower voltage level than a level of the at least one second operating voltage when at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is placed into a low power mode in which the at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is powered off, and a portion of the clock distribution circuit is disabled, triggering a lighter load for the clock signal. a plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) each to independently execute instructions; a clock distribution circuit including a clock signal generator to generate a clock signal and a plurality of branches (220a-c) each to provide the clock signal to one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102), wherein the clock distribution circuit is coupled to receive a first operating voltage from a first voltage rail (P2) and the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) are coupled to receive at least one second operating voltage from one or more second voltage rails (P1), wherein the first operating voltage and the at least one second operating voltage are independent; and a power controller including a clock control logic to dynamically modify the first operating voltage, wherein the first operating voltage is dynamically lowered to a lower voltage level than a level of the at least one second operating voltage when at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is placed into a low power mode in which the at least one of the plurality of functional units (120, 250, 410, 510, 520, 674, 684 1101, 1102) is powered off, and a portion of the clock distribution circuit is disabled, triggering a lighter load for the clock signal.
A method for wireless communications, comprising: receiving a semi-persistent scheduling, SPS, configuration message from a base station, the SPS configuration message comprising at least one SPS parameter for downlink SPS communications over a shared radio frequency spectrum band; identifying , based at least in part on the SPS configuration, one or more subframes or slots allocated for the downlink SPS communications; and performing the downlink SPS communications during the one or more subframes or slots and according to the SPS configuration, wherein performing the downlink SPS communications is characterised by : determining that a message was not received on a channel of the shared radio frequency spectrum during a first subframe or slot according to the SPS configuration; identifying , based at least in part on the determination, a second subframe or slot that replaces the first subframe or slot for transmission of the message and a configured window within an SPS period; and receiving a grantless transmission of the message on the channel during the second subframe or slot. receiving a semi-persistent scheduling, SPS, configuration message from a base station, the SPS configuration message comprising at least one SPS parameter for downlink SPS communications over a shared radio frequency spectrum band; identifying , based at least in part on the SPS configuration, one or more subframes or slots allocated for the downlink SPS communications; and performing the downlink SPS communications during the one or more subframes or slots and according to the SPS configuration, wherein performing the downlink SPS communications is characterised by : determining that a message was not received on a channel of the shared radio frequency spectrum during a first subframe or slot according to the SPS configuration; identifying , based at least in part on the determination, a second subframe or slot that replaces the first subframe or slot for transmission of the message and a configured window within an SPS period; and receiving a grantless transmission of the message on the channel during the second subframe or slot. determining that a message was not received on a channel of the shared radio frequency spectrum during a first subframe or slot according to the SPS configuration; identifying , based at least in part on the determination, a second subframe or slot that replaces the first subframe or slot for transmission of the message and a configured window within an SPS period; and receiving a grantless transmission of the message on the channel during the second subframe or slot.
Beta-voltaic battery comprising a housing and a cover, semiconductor converters based on p-n or p-i-n structures made of silicon, A3B5 compounds, solid solutions of aluminum, gallium, nitrogen or phosphorus (or all of them), made with profiled doping, insulating and radioisotope elements and conductive contacts that can be configured to make one or several packs connected in parallel and (or) in series to achieve the required output power, wherein the semiconductor converters are made with an area of space charge over the entire width of the semiconductor converter stacked to form at least one pack assembled from the semiconductor converters , with opposite-polar surfaces of which facing each other, current-carrying radioisotope elements are placed between opposite-polar surfaces, the packs are separated by insulating elements , characterized in that grooves are evenly spaced along the perimeter of the insulating elements , wherin the number of the grooves is equal to or more than twice the number of packs in the battery ; the opposite grooves are provided with conductive contacts , one of which is brought to the lower surface of the insulating element in the region of the groove , and the second one is brought to the upper surface , while the conductive contacts of the insulating elements being designed in such a way that these can be electrically connected to both the conductive contacts of the extreme semiconductor converters of each pack and a controller .
Collapsible support frame for a hammock , comprising a frame body formed from a longitudinal member and three struts provided at each of the two ends of the longitudinal member , two of which serve as foot struts and the third strut serves as a supporting arm with an attachment point for the hammock , wherein the three struts at the two ends of the longitudinal member as well as the foot struts at the opposite ends of the longitudinal member are connected to one another, in each case, by tension means engaging at the strut ends and the struts can be folded out from an idle position, in which they are folded in against the longitudinal member , into a working position in which they are splayed out from the longitudinal member , characterized in that the attachment point for the hammock on the two supporting arms is provided on one arm of a double-armed pivot lever , with the tension means for the two foot struts engaging on the other arm of said pivot lever.
Inorganic pyrophosphate (PPi) for use in preventing and/or treating diseases or disorders characterized by tissue calcification, particularly soft tissue calcification, or diseases or disorders characterized by low plasma PPi levels, wherein said inorganic pyrophosphate is administered in oral form.
A brake hydraulic pressure control apparatus for controlling a hydraulic pressure in plural systems of hydraulic circuits , the brake hydraulic pressure control apparatus comprising: a pressure supply unit that includes a motor and a pump element ; and a hydraulic block that includes an oil channel connected to the pressure supply unit and control valves regulating a hydraulic pressure in each of the plural systems of the hydraulic circuits , wherein the pressure supply unit includes: the motor having a stator and a rotor ; a swash plate arranged to be tilted with respect to an axial direction of a rotation axis of the rotor ; and the pump element having plural pump sections driven by rotation of the motor , the brake hydraulic pressure control apparatus being characterised in that : at least a part of the pump element is arranged in the rotor . a pressure supply unit that includes a motor and a pump element ; and a hydraulic block that includes an oil channel connected to the pressure supply unit and control valves regulating a hydraulic pressure in each of the plural systems of the hydraulic circuits , wherein the pressure supply unit includes: the motor having a stator and a rotor ; a swash plate arranged to be tilted with respect to an axial direction of a rotation axis of the rotor ; and the pump element having plural pump sections driven by rotation of the motor , the brake hydraulic pressure control apparatus being characterised in that : at least a part of the pump element is arranged in the rotor . the motor having a stator and a rotor ; a swash plate arranged to be tilted with respect to an axial direction of a rotation axis of the rotor ; and the pump element having plural pump sections driven by rotation of the motor , the brake hydraulic pressure control apparatus being characterised in that : at least a part of the pump element is arranged in the rotor .
A measurement system for examining a sample, the measurement system comprising: an internally reflective element having a contact surface configured to contact the sample; a stage positioned adjacent to the internally reflective element , wherein at least one of the stage and the internally reflective element are configured to apply a force to the sample when the sample is positioned on the stage and the contact surface is in contact with the sample; an optical assembly comprising a light source and a light detector , wherein the optical assembly is configured to scan the sample by directing source light from the light source towards the contact surface and detecting source light optically interacting with the contact surface by the light detector; a chassis configured to support the optical assembly and the internally reflective element ; and a sensor mounted to the chassis , the sensor configured to detect the force applied to the sample by the at least one of the internally reflective element and the stage ; wherein the force is a sample force; characterised in that the sensor is in contact with the optical assembly such that the sample force is detected based on a deflection force that is applied to the sensor from the optical assembly as a result of the sample force applied to the sample. an internally reflective element having a contact surface configured to contact the sample; a stage positioned adjacent to the internally reflective element , wherein at least one of the stage and the internally reflective element are configured to apply a force to the sample when the sample is positioned on the stage and the contact surface is in contact with the sample; an optical assembly comprising a light source and a light detector , wherein the optical assembly is configured to scan the sample by directing source light from the light source towards the contact surface and detecting source light optically interacting with the contact surface by the light detector; a chassis configured to support the optical assembly and the internally reflective element ; and a sensor mounted to the chassis , the sensor configured to detect the force applied to the sample by the at least one of the internally reflective element and the stage ; wherein the force is a sample force; characterised in that the sensor is in contact with the optical assembly such that the sample force is detected based on a deflection force that is applied to the sensor from the optical assembly as a result of the sample force applied to the sample.
Ceramic sensor element comprising a supporting foot and a ceramic support , wherein the ceramic support is formed as a cantilever membrane suspended at one end, on which sensitive layers and contact areas are provided, wherein the thickness of the membrane lies in the range between 10 and 50 μm and the sensitive layers and the contact areas have been applied to the ceramic support , wherein meandering conductor structures and the contact areas are arranged on the ceramic support and wherein the ceramic support has a heatsink structure (1.1) on its underside, wherein the supporting foot is securely connectable to a supporting component, wherein the supporting foot is arranged between the ceramic support and the supporting component and wherein the supporting foot is formed in one piece with the ceramic support .
A yarn comprising a base member configured by enveloping an expanded graphite sheet member with a PTFE film which is armor-wound, in a state where said PTFE film and said expanded graphite sheet member are aligned with each other in longitudinal direction, said armor-wound PTFE film being defined as said PTFE film twisted and wound around said expanded graphite sheet member in a state where its one and other width-direction ends are overlapped with each other; and the yarn being formed by further twisting the base member .