mhurhangee/patent-ind-claim-en huggingface dataset:
A method of node-centric navigation optimization, the method comprising: receiving (A200) vehicle position data from a fleet of vehicles on roadways of a geographic area ; identifying (A210) one or more affected nodes (N 1 -N 9 ) of the roadways based on the vehicle position data, wherein a weight of each node (N 1 -N 9 ) of a roadway graph is indicative of a number of vehicles (V 1 , V 2 ) at the node and a number of vehicles with the node in a forward path of a vehicle of the fleet of vehicles; updating (A230) the roadway graph representative of at least a portion of the roadways based on the one or more affected nodes of the roadways (N 1 -N 9 ), wherein the method comprises, for each of the one or more affected nodes: incrementing (A232) the weight of the affected node (N1-N9) if the affected node is a node in the forward path of a vehicle of the fleet of vehicles (V1, V2); and decrementing (A234) the weight of the affected node (N1-N9) if the affected node is a node in the wake of a vehicle of the fleet of vehicles (V1, V2); and optimizing (A240) one or more respective routes of one or more vehicles (V 1 , V 2 ) of the fleet of vehicles based on the updated roadway graph . receiving (A200) vehicle position data from a fleet of vehicles on roadways of a geographic area ; identifying (A210) one or more affected nodes (N 1 -N 9 ) of the roadways based on the vehicle position data, wherein a weight of each node (N 1 -N 9 ) of a roadway graph is indicative of a number of vehicles (V 1 , V 2 ) at the node and a number of vehicles with the node in a forward path of a vehicle of the fleet of vehicles; updating (A230) the roadway graph representative of at least a portion of the roadways based on the one or more affected nodes of the roadways (N 1 -N 9 ), wherein the method comprises, for each of the one or more affected nodes: incrementing (A232) the weight of the affected node (N1-N9) if the affected node is a node in the forward path of a vehicle of the fleet of vehicles (V1, V2); and decrementing (A234) the weight of the affected node (N1-N9) if the affected node is a node in the wake of a vehicle of the fleet of vehicles (V1, V2); and incrementing (A232) the weight of the affected node (N1-N9) if the affected node is a node in the forward path of a vehicle of the fleet of vehicles (V1, V2); and decrementing (A234) the weight of the affected node (N1-N9) if the affected node is a node in the wake of a vehicle of the fleet of vehicles (V1, V2); and optimizing (A240) one or more respective routes of one or more vehicles (V 1 , V 2 ) of the fleet of vehicles based on the updated roadway graph .
Method for estimating a position of a throttle valve for controlling an internal combustion engine, characterized in that it comprises the following steps : - a step of measuring a position of the throttle valve (Ppap_mes), - a step of reading a position instruction of the throttle valve (Ppap_cons) and - a step of prediction, over a given calculation time horizon (H), of the position of the throttle valve (Ppap_pred) as a function of the position of the throttle valve measured (Ppap_mes) and of a position gradient (Grad_pos_pap) between a current position and a previous position, the calculation of the position gradient (Grad_pos_pap) being chosen between : - the implementation of a first calculation strategy based on a calculation of the gradient of the position setpoint of the throttle valve (Grad_cons_pap), - the implementation of a second calculation strategy based on a calculation of the gradient of the measurement of the position of the throttle valve (Grad_mes_pap), and - the implementation of a combination of the first and second abovementioned calculation strategy, the choice being a function of the comparison of the value of the given calculation horizon (H) with at least one physical parameter of the throttle valve. - a step of measuring a position of the throttle valve (Ppap_mes), - a step of reading a position instruction of the throttle valve (Ppap_cons) and - a step of prediction, over a given calculation time horizon (H), of the position of the throttle valve (Ppap_pred) as a function of the position of the throttle valve measured (Ppap_mes) and of a position gradient (Grad_pos_pap) between a current position and a previous position, the calculation of the position gradient (Grad_pos_pap) being chosen between : - the implementation of a first calculation strategy based on a calculation of the gradient of the position setpoint of the throttle valve (Grad_cons_pap), - the implementation of a second calculation strategy based on a calculation of the gradient of the measurement of the position of the throttle valve (Grad_mes_pap), and - the implementation of a combination of the first and second abovementioned calculation strategy,
OSB wood-based panel with reduced emission of volatile organic compounds (VOCs) comprising - wood strands, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder, wherein the OSB wood material board has a reduced emission of aldehydes and terpenes released during the wood disintegration, wherein no additives are added to the water vapour, in particular no bleaching agents such as bisulphites or oxygen-releasing substances, and wherein the at least one binder has no VOC scavenger. - wood strands, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder,
An integrated circuit, IC, substrate (121, 221A-B, 321A-D, 421A-C) comprising: a dielectric material ; and metal crystals having a polyhedral shape dispersed in the dielectric material and bonded with a ligand that is to ablate when exposed to laser light such that the metal crystals having the ablated ligand are activated to provide a catalyst for selective electroless deposition of a metal, characterized in that the metal crystals include palladium (Pd), silver (Ag), gold (Au) or copper (Cu), and in that the polyhedral shape includes a cubic or octahedral shape. a dielectric material ; and metal crystals having a polyhedral shape dispersed in the dielectric material and bonded with a ligand that is to ablate when exposed to laser light such that the metal crystals having the ablated ligand are activated to provide a catalyst for selective electroless deposition of a metal, characterized in that the metal crystals include palladium (Pd), silver (Ag), gold (Au) or copper (Cu), and in that the polyhedral shape includes a cubic or octahedral shape.
Geared turbofan engine with a sun shaft driving a sun gear of planetary gearbox , the sun shaft having a front section (A) proximal to the gearbox and a rear section (B) distal from the gearbox , the outer diameter (D1) of the front section (A) of the sun shaft is smaller than the outer diameter (D2) of the rear section (B) of the sun shaft , wherein the outer diameter (D2) of the rear section (B) varies in the axial direction of the sun shaft , and the front section (A) of the sun shaft having between two and four undulant sections , wherein each undulant section having at least one axial part extending in axial direction of the sun shaft and two diaphragm parts on either side of the at least one axial part extending in radial direction outward, wherein each undulant section having the same inner distances (W1, W2) between the diaphragm parts , and wherein the at least one axial part of each undulant section having an inner diameter (D3) smaller than the outer diameter (D1) of the front section (A) of the sun shaft .
Hairstyling apparatus comprising a blower module for generating an air flow, a heating element for raising the temperature of the air flow generated by said blower module , a manual gripping handle and a blowing head connected to the handle , said blowing head being provided with at least a first air outlet and a second air outlet , said blowing head being mounted so as to be movable relative to the handle between a first position in which said air flow is blown by the blowing head through said first air outlet and a second position in which said air flow is blown by the blowing head through said second air outlet , said apparatus being characterised in that it comprises automatic means for adjusting the operation of the blower module and said heating element , which automatic adjustment means control the operation of said blower module and of said heating element depending on the position occupied by the blowing head relative to the handle .
A composite negative electrode active material comprising: a first carbon-based material having a particle strength in a range of 15 MPa to 40 MPa measured according to ASTM standard D695 and a Young's modulus in a range of 0.1 GPa to 0.4 GPa measured according to ASTM standard D605; and a second carbon-based material on a surface of the first carbon-based material having a particle strength in a range of 100 MPa to 150 MPa measured according to ASTM standard D695 and a Young's modulus in a range of 1.5 GPa to 4 GPa measured according to ASTM standard D605, wherein the first carbon-based material and the second carbon-based material are different in particle diameter from each other. a first carbon-based material having a particle strength in a range of 15 MPa to 40 MPa measured according to ASTM standard D695 and a Young's modulus in a range of 0.1 GPa to 0.4 GPa measured according to ASTM standard D605; and a second carbon-based material on a surface of the first carbon-based material having a particle strength in a range of 100 MPa to 150 MPa measured according to ASTM standard D695 and a Young's modulus in a range of 1.5 GPa to 4 GPa measured according to ASTM standard D605, wherein the first carbon-based material and the second carbon-based material are different in particle diameter from each other.
Target-launching machine comprising a chassis on which there is mounted a support relative to which a barrel is mounted rotatably on a rotation axis of the barrel and in one rotation direction, said barrel comprising a plurality of target-storage columns storing targets by stacking, the storage columns being immobile with respect to one another and disposed in a ring defining an internal volume of the barrel, characterised in that the internal volume of the barrel comprises at least one additional target-storage element that comprises a plurality of additional target-storage columns .
A device for imaging of a microscopic object , the device comprising: an array of light sensitive areas , each of the light sensitive areas being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source configured to generate light at a plurality of wavelengths within the wavelength range, the plurality of wavelengths comprising at least one wavelength in a visible part of the wavelength range and at least one wavelength in a short-wave infrared, SWIR, part of the wavelength range, and arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object , forming scattered light; wherein the device is configured to transmit the scattered light and non-scattered light, from the same light source , to the array of light sensitive areas , wherein the array of light sensitive areas is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light, for each wavelength in the plurality of wavelengths. an array of light sensitive areas , each of the light sensitive areas being sensitive to detect light spanning a wavelength range of at least 400-1200 nm; at least one light source configured to generate light at a plurality of wavelengths within the wavelength range, the plurality of wavelengths comprising at least one wavelength in a visible part of the wavelength range and at least one wavelength in a short-wave infrared, SWIR, part of the wavelength range, and arranged to illuminate the microscopic object with the generated light such that at least part of the light is scattered by the microscopic object , forming scattered light; wherein the device is configured to transmit the scattered light and non-scattered light, from the same light source , to the array of light sensitive areas , wherein the array of light sensitive areas is configured to detect an interference pattern formed by interference between the scattered light and the non-scattered light, for each wavelength in the plurality of wavelengths.
A method of manufacturing an article of footwear , the method comprising: positioning an upper on a last ; injecting a material through the last; and forming upper padding and a midsole with the material in a single, continuous process. positioning an upper on a last ; injecting a material through the last; and forming upper padding and a midsole with the material in a single, continuous process.
A printhead , comprising a plurality of drop generators disposed in a first array and a second array, wherein: the drop generators in the first array are spaced one dot pitch apart perpendicular to a motion of a print medium , and alternate between a high drop weight (HDW) drop generator and a low drop weight (LDW) drop generator; the drop generators in the second array are spaced one dot pitch apart perpendicular to the motion of the print medium and alternate between an LDW drop generator and an HDW drop generator; and each drop generator in the first array is in a line of the motion of the print medium with a corresponding drop generator in the second array, wherein each HDW drop generator in the first array is in a line of the motion of the print medium with an LDW drop generator in the second array, and each LDW drop generator in the first array is in a line of the motion of the print medium with an HDW drop generator in the second array; wherein the printhead is characterised in that : the LDW drop generators comprise a nozzle with a circular bore and the HDW drop generators comprise a nozzle with a non-circular bore. the drop generators in the first array are spaced one dot pitch apart perpendicular to a motion of a print medium , and alternate between a high drop weight (HDW) drop generator and a low drop weight (LDW) drop generator; the drop generators in the second array are spaced one dot pitch apart perpendicular to the motion of the print medium and alternate between an LDW drop generator and an HDW drop generator; and each drop generator in the first array is in a line of the motion of the print medium with a corresponding drop generator in the second array, wherein each HDW drop generator in the first array is in a line of the motion of the print medium with an LDW drop generator in the second array, and each LDW drop generator in the first array is in a line of the motion of the print medium with an HDW drop generator in the second array; wherein the printhead is characterised in that : the LDW drop generators comprise a nozzle with a circular bore and the HDW drop generators comprise a nozzle with a non-circular bore.
A computer-implemented method for storing data, the method comprising: receiving a computer file ; identifying a type of the received computer file ; separating the received computer file into a plurality of data objects , wherein separating the received computer file into the plurality of data objects is based upon the type of the computer file ; analyzing a database and each of the plurality of data objects of the computer file to determine both: which data objects of the computer file were not previously stored in the database , and which data objects of the computer file are already stored in the database ; generating for the computer file relational links that include a reference to the data objects that are already stored in the database instead of storing the data objects that are already stored in the database ; and storing in the database (160-180) both: the data objects that were not previously stored in the database , and the generated relational links , wherein if data objects are already stored in the database , such data objects are not stored for a second time; wherein the data objects comprise one or more of the following: a text, an image, a video, an audio, a multimedia object, a program code, a numerical value, and a data structure. receiving a computer file ; identifying a type of the received computer file ; separating the received computer file into a plurality of data objects , wherein separating the received computer file into the plurality of data objects is based upon the type of the computer file ; analyzing a database and each of the plurality of data objects of the computer file to determine both: which data objects of the computer file were not previously stored in the database , and which data objects of the computer file are already stored in the database ; which data objects of the computer file were not previously stored in the database , and which data objects of the computer file are already stored in the database ; generating for the computer file relational links that include a reference to the data objects that are already stored in the database instead of storing the data objects that are already stored in the database ; and storing in the database (160-180) both: the data objects that were not previously stored in the database , and the generated relational links , wherein if data objects are already stored in the database , such data objects are not stored for a second time; the data objects that were not previously stored in the database , and the generated relational links , wherein if data objects are already stored in the database , such data objects are not stored for a second time; wherein the data objects comprise one or more of the following: a text, an image, a video, an audio, a multimedia object, a program code, a numerical value, and a data structure.
A shear bar , for a forage harvester or another agricultural or silvicultural machine, having a carrier that comprises a cutting region ; a plurality of cutting elements being set alongside one another in the cutting region ; the cutting elements comprising a partial edge and at least some of the partial edges forming a cutting edge that is embodied to form, with a knife bar, a cutting engagement for the material to be shredded; the cutting edge forming a transition between a cutting surface (32.1) that is constituted by the cutting elements and extends transversely to the cutting direction, and an exposed surface (32.2) that extends substantially in a cutting direction and indirectly or directly adjoins the cutting edge , characterized in that an infeed element , which is embodied as a sintered part made of hard material having an infeed bevel (34.6) profiled on in the sintering process, is provided on or in the row of cutting elements ; the infeed bevel (34.6) being carried over indirectly or directly into the cutting edge ; and the infeed bevel (34.6) being arranged at a tilt with respect to the cutting edge in such a way that it is arranged with a setback with respect to the exposed surface (32.2) and toward the cutting surface (32.1).
A hold-open assembly for a door, comprising a hazard detector for sending a trigger signal and an electrochemical energy accumulator for supplying electric current to at least one component of the hold-open assembly , a housing for accommodating the hazard detector and/or the electrochemical energy accumulator , wherein a hold-open device of the hold-open assembly is provided for holding at least one door leaf of a door in an open position, wherein the hold-open assembly comprises a control unit , wherein the control unit releases the hold-open device in the event of a fire, so that the door leaf closes, wherein the hold-open assembly comprises a slide rail with a slide element , wherein, while closing the door, the slide element travels in the slide rail, wherein the hold-open device retains the slide element and the control releases the hold-open device and thus the slide element, wherein the slide element is connectable to the door leaf via an arm, wherein the housing of the hold-open device accommodates the control unit and the slide rail , wherein the housing includes at least one screen , an upper cover and a lower cover , wherein the screen is configured removable from at least one of the covers , characterized in that the energy accumulator is disposed in front of the slide rail , in that the screen forms at least one component of a front side of the housing and in that the lower cover includes a breakthrough , through which the slide element is connectable to the door. a hazard detector for sending a trigger signal and an electrochemical energy accumulator for supplying electric current to at least one component of the hold-open assembly , a housing for accommodating the hazard detector and/or the electrochemical energy accumulator , wherein a hold-open device of the hold-open assembly is provided for holding at least one door leaf of a door in an open position, wherein the hold-open assembly comprises a control unit , wherein the control unit releases the hold-open device in the event of a fire, so that the door leaf closes, wherein the hold-open assembly comprises a slide rail with a slide element , wherein, while closing the door, the slide element travels in the slide rail, wherein the hold-open device retains the slide element and the control releases the hold-open device and thus the slide element, wherein the slide element is connectable to the door leaf via an arm, wherein the housing of the hold-open device accommodates the control unit and the slide rail , wherein the housing includes at least one screen , an upper cover and a lower cover , wherein the screen is configured removable from at least one of the covers , characterized in that the energy accumulator is disposed in front of the slide rail , in that the screen forms at least one component of a front side of the housing and in that the lower cover includes a breakthrough , through which the slide element is connectable to the door.