mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for simulating processes in factory production lines, comprising the steps of: determining (S300), by a processor , a function for internal processes, wherein the function is generated from a current production status of the one or more machines of a factory floor , a) executing (S301), by the processor , a simulation to simulate processing events of the factory production lines with regards to collected historical data, b) executing (S302), by the processor , multiple runs of a machine learning process with regards to results of the simulation to update the function according to a scoring function, wherein the scoring function is a cost function that is weighted based on quoted due date and actual delivery date as determined by the simulation, iteratively executing (S303), by the processor , the steps a) and b) until a finalized function is determined, wherein the result of each iteration of the simulation is a reward determined by taking a negative of the cost function, wherein the cost function is defined as ω J L j + ω E E j + ω T T j , wherein ω J , ω E and ω T are constants defined in advance, L j is a lead time of a job, E j is an earliness of the job and T j is a tardiness of the job, and outputting (S304) the finalized function. determining (S300), by a processor , a function for internal processes, wherein the function is generated from a current production status of the one or more machines of a factory floor , a) executing (S301), by the processor , a simulation to simulate processing events of the factory production lines with regards to collected historical data, b) executing (S302), by the processor , multiple runs of a machine learning process with regards to results of the simulation to update the function according to a scoring function, wherein a) executing (S301), by the processor , a simulation to simulate processing events of the factory production lines with regards to collected historical data, b) executing (S302), by the processor , multiple runs of a machine learning process with regards to results of the simulation to update the function according to a scoring function, wherein the scoring function is a cost function that is weighted based on quoted due date and actual delivery date as determined by the simulation, iteratively executing (S303), by the processor , the steps a) and b) until a finalized function is determined, wherein the result of each iteration of the simulation is a reward determined by taking a negative of the cost function, wherein the cost function is defined as ω J L j + ω E E j + ω T T j , wherein ω J , ω E and ω T are constants defined in advance, L j is a lead time of a job, E j is an earliness of the job and T j is a tardiness of the job, and outputting (S304) the finalized function.
A splinting apparatus comprising: a retaining pouch having a first portion containing a first precursor, a second portion containing a second precursor, and at least one sacrificial seam fluidly separating the first portion from the second portion ; and an expansion chamber enclosing the retaining pouch ; wherein the at least one sacrificial seam is breakable upon application of a force to the retaining pouch to thereby fluidly connect the first and second portions of the retaining pouch such that the first and second precursors mix together, and wherein mixing of the first and second precursors forms a curable expanded polymer foam, and characterised in that the expansion chamber has a volume that is about 110% of the volume of the expanded polymer foam. a retaining pouch having a first portion containing a first precursor, a second portion containing a second precursor, and at least one sacrificial seam fluidly separating the first portion from the second portion ; and an expansion chamber enclosing the retaining pouch ; wherein the at least one sacrificial seam is breakable upon application of a force to the retaining pouch to thereby fluidly connect the first and second portions of the retaining pouch such that the first and second precursors mix together, and wherein mixing of the first and second precursors forms a curable expanded polymer foam, and characterised in that the expansion chamber has a volume that is about 110% of the volume of the expanded polymer foam.
A heater assembly for use in an aerosol-generating system having a liquid storage portion for holding a liquid aerosol-forming substrate , the heater assembly comprising: an electric heater for heating the liquid aerosol-forming substrate to form an aerosol; and a capillary body for conveying the liquid aerosol-forming substrate from the liquid storage portion of the aerosol-generating system to the electric heater , wherein the electric heater is arranged on an outer surface of the capillary body and comprises a heating layer comprising a porous sheet of electrically conductive material, and wherein the porous sheet is embossed to define a plurality of recesses on its lower surface for retaining the liquid aerosol-forming substrate by capillary action and a plurality of corresponding raised portions on its upper surface , and wherein at least part of each of the plurality of recesses is spaced from the outer surface of the capillary body in a perpendicular direction. an electric heater for heating the liquid aerosol-forming substrate to form an aerosol; and a capillary body for conveying the liquid aerosol-forming substrate from the liquid storage portion of the aerosol-generating system to the electric heater , wherein the electric heater is arranged on an outer surface of the capillary body and comprises a heating layer comprising a porous sheet of electrically conductive material, and wherein the porous sheet is embossed to define a plurality of recesses on its lower surface for retaining the liquid aerosol-forming substrate by capillary action and a plurality of corresponding raised portions on its upper surface , and wherein at least part of each of the plurality of recesses is spaced from the outer surface of the capillary body in a perpendicular direction.
A method for the preparation of an edible product or a pharmaceutical composition, said method comprising incorporating 0.5-10% by weight of a polysaccharide having a backbone comprising alternating rhamnogalacturonan-I cores and alpha -linked polygalacturonic acid or alpha -linked oligogalacturonic acid cores or having a backbone consisting of a rhamnogalacturonan-I core; wherein the polysaccharide has a molecular weight of at least 70 kD; and wherein the polysaccharide is obtained from plants of the species Camellia sinensis and wherein the molar ratio of galacturonyl acid residues to rhamnosyl residues in the backbone of the polysaccharide ranges from 2.5:1 to 1:1; wherein the molar ratio of galacturonyl acid residues to rhamnosyl residues in the backbone of the polysaccharide is determined using the NMR method described in the Examples.
Arrangement for increasing the adhesion coefficient at a rail vehicle, - having a rail-vehicle wheel, having a cleaning device and having a rail which is travelled on by the rail vehicle, - in which the wheel of the rail vehicle is coupled to the cleaning device such that the cleaning device acts on the wheel according to requirement, - in which the cleaning device is arranged and designed in such a way that moisture adhering to a wheel running surface is at least reduced before the wheel running surface makes contact with the rail, - so that an adhesion coefficient in the region of contact of the wheel running surface with the rail is increased, - in which the cleaning device has at least one compressed-air outlet through which compressed air is directed to the wheel running surface, and - in which the compressed-air outlet is arranged at the height of the wheel axis. - having a rail-vehicle wheel, having a cleaning device and having a rail which is travelled on by the rail vehicle, - in which the wheel of the rail vehicle is coupled to the cleaning device such that the cleaning device acts on the wheel according to requirement, - in which the cleaning device is arranged and designed in such a way that moisture adhering to a wheel running surface is at least reduced before the wheel running surface makes contact with the rail, - so that an adhesion coefficient in the region of contact of the wheel running surface with the rail is increased, - in which the cleaning device has at least one compressed-air outlet through which compressed air is directed to the wheel running surface, and - in which the compressed-air outlet is arranged at the height of the wheel axis.
An apparatus for preventing bowing of an electronic display comprising: an electronic display ; a housing ; wherein the electronic display is located in the housing; a cover panel , wherein the electronic display is located behind said cover panel ; a backlight located behind said electronic display ; a closed loop pathway for circulating gas comprising: a first gas pathway located between said cover panel and the electronic display ; a backlight cavity located between the electronic display and the backlight ; and a second gas pathway located behind the backlight ; characterised in that an open loop pathway for ambient air is located behind said backlight ; and at least one closed loop fan placed along the closed loop pathway for operably controlling a speed and amount of the circulating gas passed through the closed loop; wherein the closed loop pathway is configured such that a pressure of the circulating gas in the backlight cavity is lower than a pressure of the circulating gas in the first gas pathway such that the electronic display is prevented from bowing while said at least one closed loop fan is activated. an electronic display ; a housing ; wherein the electronic display is located in the housing; a cover panel , wherein the electronic display is located behind said cover panel ; a backlight located behind said electronic display ; a closed loop pathway for circulating gas comprising: a first gas pathway located between said cover panel and the electronic display ; a backlight cavity located between the electronic display and the backlight ; and a second gas pathway located behind the backlight ; a first gas pathway located between said cover panel and the electronic display ; a backlight cavity located between the electronic display and the backlight ; and a second gas pathway located behind the backlight ; characterised in that an open loop pathway for ambient air is located behind said backlight ; and at least one closed loop fan placed along the closed loop pathway for operably controlling a speed and amount of the circulating gas passed through the closed loop; wherein the closed loop pathway is configured such that a pressure of the circulating gas in the backlight cavity is lower than a pressure of the circulating gas in the first gas pathway such that the electronic display is prevented from bowing while said at least one closed loop fan is activated.
A method of controlling, by a controller , a network of wireless access points, APs, , including: determining , by the controller , whether a client device is in an AP-overlap area by comparing AP-to-client signal-strength values to one another and testing a result or results of the comparison against a threshold; detecting , by the controller , that the client device associated with the network is stationary in the AP-overlap area , by: determining a series of signal strength vectors for the client device based on probe reports collected from the APs over time; determining distances between a first signal strength vector and the other signal strength vectors in the series; and determining whether any of the distances exceed a specified threshold; in response to the detection that the client device is stationary in the AP-overlap area , assigning , by the controller , one of the APs to be a preferred AP for the client device ; and causing , by the controller , each of the APs to avoid connecting with any client devices that have been assigned another AP as a preferred AP. determining , by the controller , whether a client device is in an AP-overlap area by comparing AP-to-client signal-strength values to one another and testing a result or results of the comparison against a threshold; detecting , by the controller , that the client device associated with the network is stationary in the AP-overlap area , by: determining a series of signal strength vectors for the client device based on probe reports collected from the APs over time; determining distances between a first signal strength vector and the other signal strength vectors in the series; and determining whether any of the distances exceed a specified threshold; determining a series of signal strength vectors for the client device based on probe reports collected from the APs over time; determining distances between a first signal strength vector and the other signal strength vectors in the series; and determining whether any of the distances exceed a specified threshold; in response to the detection that the client device is stationary in the AP-overlap area , assigning , by the controller , one of the APs to be a preferred AP for the client device ; and causing , by the controller , each of the APs to avoid connecting with any client devices that have been assigned another AP as a preferred AP.
Motor vehicle side door comprising: - a casing having an inner wall and an outer wall that extend facing one another; - a trim attached to said casing facing said inner wall , said trim having a portion in relief defining, on the one hand, a free space between said trim and said inner wall and, on the other hand, a bearing flank forming an armrest; - a housing engaged inside said free space through said bearing flank , said housing having a peripheral border as one with said bearing flank in order to hold said housing in a fixed position; - a bracket having a fastening part as one with said inner wall and a cantilevered part extending in said free space (32, said housing bearing on said cantilevered part ; characterized in that the cantilevered part comprises two arms that face one another and are as one with the fastening part and a receiving plate as one with the two arms , the receiving plate being designed to detach from the arms when the casing is pushed in and said inner wall and said housing are driven in movement towards one another, so as to release said housing from said inner wall , whereby said peripheral border of said housing remains as one with said bearing flank. - a casing having an inner wall and an outer wall that extend facing one another; - a trim attached to said casing facing said inner wall , said trim having a portion in relief defining, on the one hand, a free space between said trim and said inner wall and, on the other hand, a bearing flank forming an armrest; - a housing engaged inside said free space through said bearing flank , said housing having a peripheral border as one with said bearing flank in order to hold said housing in a fixed position; - a bracket having a fastening part as one with said inner wall and a cantilevered part extending in said free space (32, said housing bearing on said cantilevered part ;
A method of radio resource control, RRC, connection resumption, implemented in a mobile device for use with a Radio Access Network, RAN, comprising: the mobile device sending an indicator to the RAN in respect of an RRC connection with the RAN, wherein the indicator indicates that the mobile device is configured to support RRC connection suspension; the mobile device receiving a command message from a RAN node of the RAN to suspend an RRC connection between the mobile device and the RAN node ; the mobile device , in response to receiving the command message, suspending the RRC connection, wherein suspending the RRC connection comprises: the mobile device storing RRC connection data related to the RRC connection, the mobile device releasing radio resources associated with the RRC connection, wherein the mobile device is able to receive paging from the RAN while the RRC connection is suspended; and the mobile device sending an RRC connection resume message comprising a request to resume the suspended RRC connection to the RAN , wherein the RRC connection resume message includes: an identifier of the RAN node where the RRC connection was suspended; and a Short MAC-I derived using parameters relating to the RAN node where the RRC connection was suspended. the mobile device sending an indicator to the RAN in respect of an RRC connection with the RAN, wherein the indicator indicates that the mobile device is configured to support RRC connection suspension; the mobile device receiving a command message from a RAN node of the RAN to suspend an RRC connection between the mobile device and the RAN node ; the mobile device , in response to receiving the command message, suspending the RRC connection, wherein suspending the RRC connection comprises: the mobile device storing RRC connection data related to the RRC connection, the mobile device releasing radio resources associated with the RRC connection, wherein the mobile device is able to receive paging from the RAN while the RRC connection is suspended; and the mobile device sending an RRC connection resume message comprising a request to resume the suspended RRC connection to the RAN , wherein the RRC connection resume message includes: an identifier of the RAN node where the RRC connection was suspended; and a Short MAC-I derived using parameters relating to the RAN node where the RRC connection was suspended. an identifier of the RAN node where the RRC connection was suspended; and a Short MAC-I derived using parameters relating to the RAN node where the RRC connection was suspended.
A method for examining a plurality of distributed objects using an overview image of the area in which the objects are distributed, wherein • the overview image is converted into a binary image by classifying the intensity values of the pixels of the overview image as to whether they lie on this side or on the other side of a predetermined threshold ; • the binary image is cleaned of structures that are smaller than the objects , so that a cleaned image results; and • the cleaned image is morphologically closed , so that a binary object mask results and indicates which locations of the area belong to objects and which locations belong to no object, and • biological cells, preferably eukaryotic cells, distributed on a substrate are chosen as objects , wherein • at least one location in the area at which, according to the binary object mask , a cell is located is irradiated in an automated manner with a light beam , preferably with a laser beam, and the response of the cell to the irradiation is evaluated , and wherein • cells on several substrates (10-12) are irradiated with the light beam , characterized in that • the threshold is fixed such that the agreement of at least one statistical moment of the binary image with the corresponding statistical moment of the overview image is maximized; and • the responses of the cells to the irradiation are aggregated across multiple substrates, • wherein the aggregating comprises evaluating , with a multivariate analysis, from the whole of the responses , which properties (21-22) of the cells change in a statistically significant manner from one substrate (10-12) to the other. • the overview image is converted into a binary image by classifying the intensity values of the pixels of the overview image as to whether they lie on this side or on the other side of a predetermined threshold ; • the binary image is cleaned of structures that are smaller than the objects , so that a cleaned image results; and • the cleaned image is morphologically closed , so that a binary object mask results and indicates which locations of the area belong to objects and which locations belong to no object, and • biological cells, preferably eukaryotic cells, distributed on a substrate are chosen as objects , wherein • at least one location in the area at which, according to the binary object mask , a cell is located is irradiated in an automated manner with a light beam , preferably with a laser beam, and the response of the cell to the irradiation is evaluated , and wherein • cells on several substrates (10-12) are irradiated with the light beam , characterized in that • the threshold is fixed such that the agreement of at least one statistical moment of the binary image with the corresponding statistical moment of the overview image is maximized; and • the responses of the cells to the irradiation are aggregated across multiple substrates, • wherein the aggregating comprises evaluating , with a multivariate analysis, from the whole of the responses , which properties (21-22) of the cells change in a statistically significant manner from one substrate (10-12) to the other.
A method comprising: determining, by a control system of an autonomous vehicle , that the autonomous vehicle has dropped off or picked up one or more passengers; subsequently sending, by the control system, a request for a remote operator to verify a number of passengers in the autonomous vehicle, the request including sensor data from one or more sensors of the autonomous vehicle and/or a representation of an environment of the autonomous vehicle determined based on the sensor data; receiving, by the control system, a response to the request, wherein the response comprises a verification by the remote operator of the number of passengers in the autonomous vehicle; and causing, by the control system, the autonomous vehicle to perform an autonomous operation based on the response. determining, by a control system of an autonomous vehicle , that the autonomous vehicle has dropped off or picked up one or more passengers; subsequently sending, by the control system, a request for a remote operator to verify a number of passengers in the autonomous vehicle, the request including sensor data from one or more sensors of the autonomous vehicle and/or a representation of an environment of the autonomous vehicle determined based on the sensor data; receiving, by the control system, a response to the request, wherein the response comprises a verification by the remote operator of the number of passengers in the autonomous vehicle; and causing, by the control system, the autonomous vehicle to perform an autonomous operation based on the response.
A method performed by a User Equipment, UE, for wireless communications, the method comprising: receiving a first Physical Downlink Control Channel, PDCCH, on a first cell, the first PDCCH comprising first scheduling information of a first Physical Downlink Shared Channel, PDSCH , of a second cell cross-carrier scheduled by the first cell; receiving a Control Resource Set, CORESET, configuration from a base station via Radio Resource Control, RRC, signaling, the CORESET configuration being associated with a search space set for cross-carrier scheduling the second cell, the CORESET configuration comprising more than one Transmission Configuration Indicator, TCI, state configured for the second cell; and receiving the first PDSCH on the second cell only when a first time offset between the first PDCCH and the first PDSCH is larger than or equal to a predefined threshold. receiving a first Physical Downlink Control Channel, PDCCH, on a first cell, the first PDCCH comprising first scheduling information of a first Physical Downlink Shared Channel, PDSCH , of a second cell cross-carrier scheduled by the first cell; receiving a Control Resource Set, CORESET, configuration from a base station via Radio Resource Control, RRC, signaling, the CORESET configuration being associated with a search space set for cross-carrier scheduling the second cell, the CORESET configuration comprising more than one Transmission Configuration Indicator, TCI, state configured for the second cell; and receiving the first PDSCH on the second cell only when a first time offset between the first PDCCH and the first PDSCH is larger than or equal to a predefined threshold.