mhurhangee/ep-ind-claims huggingface dataset:
A method for updating a frame buffer having a plurality of lines, comprising: writing data at a write line of a first section of the buffer that is safe to update, wherein writing data includes moving the write line such that it does not move into a second section of the buffer that must not be updated based on a read line position, and on the read and write speed of the buffer, wherein the read line position indicates a line currently being read from the buffer, wherein the read line position comprises a pixel position of the buffer, wherein writing data updates the first half of the buffer during a first reading cycle from t 0 to t 1 and updates the second half of the buffer during a second reading cycle from t 1 to t 2, wherein during the first reading cycle an initial information content and not an updated content from the entire buffer is read, and wherein during the second reading cycle, writing to the buffer ends, such that during the second reading cycle the updated information content is read from the entire buffer, wherein moving the write line such that it does not move into the second section of the buffer is done such that the write line precedes the second section of the buffer during the second reading cycle, wherein the buffer is being read at twice the rate at which it is written to. writing data at a write line of a first section of the buffer that is safe to update, wherein writing data includes moving the write line such that it does not move into a second section of the buffer that must not be updated based on a read line position, and on the read and write speed of the buffer, wherein the read line position indicates a line currently being read from the buffer, wherein the read line position comprises a pixel position of the buffer, wherein writing data updates the first half of the buffer during a first reading cycle from t 0 to t 1 and updates the second half of the buffer during a second reading cycle from t 1 to t 2, wherein during the first reading cycle an initial information content and not an updated content from the entire buffer is read, and wherein during the second reading cycle, writing to the buffer ends, such that during the second reading cycle the updated information content is read from the entire buffer, wherein moving the write line such that it does not move into the second section of the buffer is done such that the write line precedes the second section of the buffer during the second reading cycle, wherein the buffer is being read at twice the rate at which it is written to.
An interior material for a vehicle, comprising: a base material layer of semi-hard urethane foam; a first reinforcement layer formed of glass fiber and adhered via adhesive to a surface of a vehicle interior side of the base material layer; a second reinforcement layer formed of glass fiber and adhered via adhesive to a surface of a vehicle body panel side of the base material layer; a skin layer formed of breathable material and adhered via adhesive to a surface of the opposite side of the first reinforcement layer viewed from the base material layer; and a backside layer disposed on a surface of the opposite side of the second reinforcement layer viewed from the base material layer, the backside layer being adhered via adhesive to the second reinforcement layer and corresponding to an outermost layer facing the vehicle body panel, wherein the adhesive between the backside layer and the second reinforcement layer is a moisture-curable adhesive or a thermosetting resin adhesive, wherein the backside layer comprises a non-breathable synthetic resin film which is disposed at the base material layer side of the backside layer and has a thickness in a range of 0.8 to 25μm, and an aluminum deposition film deposited on a surface of the vehicle body panel side of the resin film to reflect infrared radiation, wherein the aluminum deposition film has a thickness in a range of 0.01 to 0.09μm. a base material layer of semi-hard urethane foam; a first reinforcement layer formed of glass fiber and adhered via adhesive to a surface of a vehicle interior side of the base material layer; a second reinforcement layer formed of glass fiber and adhered via adhesive to a surface of a vehicle body panel side of the base material layer; a skin layer formed of breathable material and adhered via adhesive to a surface of the opposite side of the first reinforcement layer viewed from the base material layer; and a backside layer disposed on a surface of the opposite side of the second reinforcement layer viewed from the base material layer, the backside layer being adhered via adhesive to the second reinforcement layer and corresponding to an outermost layer facing the vehicle body panel, wherein the adhesive between the backside layer and the second reinforcement layer is a moisture-curable adhesive or a thermosetting resin adhesive, wherein the backside layer comprises a non-breathable synthetic resin film which is disposed at the base material layer side of the backside layer and has a thickness in a range of 0.8 to 25μm, and an aluminum deposition film deposited on a surface of the vehicle body panel side of the resin film to reflect infrared radiation, wherein the aluminum deposition film has a thickness in a range of 0.01 to 0.09μm.
A sealing membrane assembly comprising: a flange (40, 40') having a body (42, 42') with a through passage; a first sealing membrane defining a first flexible panel having an outer perimeter, the first flexible panel having a first axial sealed opening extending therethrough, the first axial sealed opening extending at an acute angle relative to a plane extending sideways across the flange; and a second sealing membrane defining a second flexible panel having an outer perimeter, the second flexible panel having a second axial sealed opening extending therethrough, the second axial sealed opening extending at an obtuse angle relative to the plane extending sideways across the flange; wherein the first and second sealing membranes are secured relative to the flange such that the first and second axial sealed openings crisscross one another and the first and second sealing membranes seal the through passage except through the first and second sealed openings, and wherein each of the first and second sealed openings includes a respective reinforced band encircling the sealed opening, each reinforced band radially inward from the respective panel outer perimeter and having a configuration which corresponds to the configuration of the sealed opening. a flange (40, 40') having a body (42, 42') with a through passage; a first sealing membrane defining a first flexible panel having an outer perimeter, the first flexible panel having a first axial sealed opening extending therethrough, the first axial sealed opening extending at an acute angle relative to a plane extending sideways across the flange; and a second sealing membrane defining a second flexible panel having an outer perimeter, the second flexible panel having a second axial sealed opening extending therethrough, the second axial sealed opening extending at an obtuse angle relative to the plane extending sideways across the flange; wherein the first and second sealing membranes are secured relative to the flange such that the first and second axial sealed openings crisscross one another and the first and second sealing membranes seal the through passage except through the first and second sealed openings, and wherein each of the first and second sealed openings includes a respective reinforced band encircling the sealed opening, each reinforced band radially inward from the respective panel outer perimeter and having a configuration which corresponds to the configuration of the sealed opening.
Smoke generator for applying phytosanitary product and/or food additives in fruits and vegetables that comprises a smoke generator container and a product to be applied, the smoke generator container comprising a recipient, in the inside of which is the product to be applied and an ignition system of the container, characterized in that the product to be applied comprises the following components: - an active ingredient, having a proportion by weight between 5% and 30%, which comprises one or various of these products: Imazalil, o-phenylphenol, thiophanate-methyl, thiabendazole, prochloraz, fosetyl-AI, chlorpropham, pyrethrins, pyrimethanil, fenhexamid, quaternary ammonium, biguanidine, sorbic acid, potassium sorbate, essential oils, ascorbic acid, citric acid and citrates; - a phyllosilicate matrix having a proportion by weight between 25% and 80%, that comprises one or various of these products: antigorite, chrysotile, kaolinite, vermiculite, talc, pyrophyllite, biotite, muscovite, lepidolite, daisy, glauconite and chlorite; - a polysaccharide, having a proportion by weight between 5% and 25%; and - potassium chlorate, having a proportion by weight between 5% and 20%; and in that the ignition system of the container comprises an electrical resistor from which exit fireproof cables, susceptible for connecting to a power source. - an active ingredient, having a proportion by weight between 5% and 30%, which comprises one or various of these products: Imazalil, o-phenylphenol, thiophanate-methyl, thiabendazole, prochloraz, fosetyl-AI, chlorpropham, pyrethrins, pyrimethanil, fenhexamid, quaternary ammonium, biguanidine, sorbic acid, potassium sorbate, essential oils, ascorbic acid, citric acid and citrates; - a phyllosilicate matrix having a proportion by weight between 25% and 80%, that comprises one or various of these products: antigorite, chrysotile, kaolinite, vermiculite, talc, pyrophyllite, biotite, muscovite, lepidolite, daisy, glauconite and chlorite; - a polysaccharide, having a proportion by weight between 5% and 25%; and - potassium chlorate, having a proportion by weight between 5% and 20%;
A bearing housing of a washing machine comprising: a bearing housing body; and a shaft support part formed at the center of the bearing housing body, wherein the shaft support part includes at least one rib groove formed at a position corresponding to a bush fixing rib formed on a mold set (320, 330) to manufacture the bearing housing, the bush fixing rib fixing a bearing bush inserted in the mold set in process of injection molding for the bearing housing, wherein the at least one rib groove is formed on an outer circumferential surface of the shaft support part. a bearing housing body; and a shaft support part formed at the center of the bearing housing body, wherein the shaft support part includes at least one rib groove formed at a position corresponding to a bush fixing rib formed on a mold set (320, 330) to manufacture the bearing housing, the bush fixing rib fixing a bearing bush inserted in the mold set in process of injection molding for the bearing housing, wherein the at least one rib groove is formed on an outer circumferential surface of the shaft support part.
An apparatus comprising: a handpiece having a needle, said handpiece configured to ultrasonically vibrate said needle; a power source for providing pulsed electrical power to the handpiece; an input device for enabling an operator to select an amplitude of electrical pulses; a fluid system configured to provide fluid from the handpiece; and a controller configured to control power supplied to the handpiece during a surgical procedure conducted in a surgical environment, characterized in that said controller controls power supplied by applying power during at least one modulated pulsed energy period, said modulated pulsed energy period comprising a relatively high energy pulse sufficient to induce transient cavitation within the surgical environment, followed by a relatively low energy nonzero amplitude pulse having magnitude less than the relatively high energy pulse. a handpiece having a needle, said handpiece configured to ultrasonically vibrate said needle; a power source for providing pulsed electrical power to the handpiece; an input device for enabling an operator to select an amplitude of electrical pulses; a fluid system configured to provide fluid from the handpiece; and a controller configured to control power supplied to the handpiece during a surgical procedure conducted in a surgical environment, characterized in that said controller controls power supplied by applying power during at least one modulated pulsed energy period, said modulated pulsed energy period comprising a relatively high energy pulse sufficient to induce transient cavitation within the surgical environment, followed by a relatively low energy nonzero amplitude pulse having magnitude less than the relatively high energy pulse.
A system for locating modules of a unified plant model at runtime comprising: a requestor module configured to submit a request for locating a further module at runtime to a message engine; an audit log; a set of data brokers configured to maintain the audit log for the system and to log in the audit log audit messages generated by a plurality of modules in the system; and the message engine (110; 204; 300; 408; 502; 504; 506; 508; 833; 1110; 1295) configured to: in response to the request, dynamically search for modules, comprising the further module, at runtime by employing the set of data brokers, wherein the set of data brokers is configured to supply the message engine (110; 204; 300; 408; 502; 504; 506; 508; 833; 1110; 1295) with an ability to search for and find an audit message generated by the further module in the system; determine a location for a data source being a source of data from the further module by employing attributes associated with the further module; provide the location for the data source to the requestor module; and normalize messaging of various protocols and formats within the unified plant model to provide a consistent interface among the plurality of modules. a requestor module configured to submit a request for locating a further module at runtime to a message engine; an audit log; a set of data brokers configured to maintain the audit log for the system and to log in the audit log audit messages generated by a plurality of modules in the system; and the message engine (110; 204; 300; 408; 502; 504; 506; 508; 833; 1110; 1295) configured to: in response to the request, dynamically search for modules, comprising the further module, at runtime by employing the set of data brokers, wherein the set of data brokers is configured to supply the message engine (110; 204; 300; 408; 502; 504; 506; 508; 833; 1110; 1295) with an ability to search for and find an audit message generated by the further module in the system; determine a location for a data source being a source of data from the further module by employing attributes associated with the further module; provide the location for the data source to the requestor module; and normalize messaging of various protocols and formats within the unified plant model to provide a consistent interface among the plurality of modules. in response to the request, dynamically search for modules, comprising the further module, at runtime by employing the set of data brokers, wherein the set of data brokers is configured to supply the message engine (110; 204; 300; 408; 502; 504; 506; 508; 833; 1110; 1295) with an ability to search for and find an audit message generated by the further module in the system; determine a location for a data source being a source of data from the further module by employing attributes associated with the further module; provide the location for the data source to the requestor module; and normalize messaging of various protocols and formats within the unified plant model to provide a consistent interface among the plurality of modules.
Ventilation arrangement for a switchgear with at least one first exhaust duct (4, 5) for spontaneous ventilation of the switchgear and a further exhaust duct in which a fan for the forced ventilation of the switchgear is arranged, wherein a closure flap arrangement is designed such that during spontaneous ventilation the at least one first exhaust duct (4, 5) is opened and during forced ventilation the at least one first exhaust duct (4, 5) is closed, characterised in that the at least one first exhaust duct (4, 5) and the further exhaust duct are arranged next to one another, wherein the closure flap arrangement has at least one closure flap (15, 20) which is rotatably arranged at a partition (17, 22) between the at least one first exhaust duct (4, 5) and the further exhaust duct on a pivot bearing (16, 21) and has a first leg (18, 23) which extends from the pivot bearing (16, 21) into the first exhaust duct (4, 5), and a second leg (19, 24) which extends from the pivot bearing (16, 21) into the further exhaust duct, wherein the first leg (18, 23) and the second leg (19, 24) are arranged essentially in an L-shape to one another.
Header cover, in particular for heat exchangers of automotive vehicles, said header cover comprising a vault and a fluid input and/or output nozzle opening out into the header cover through a side of said vault, the header cover being configured for conveying a fluid to or from a plurality of tubes of circulation of a heat exchanger core, the vault of the header cover being configured to open out on said heat exchanger core, the header cover being characterized in that it comprises a plurality of deflectors superimposed on one side of the vault, opposite to the opening of the nozzle, in an axis defining an angle with a plane defined by an opening of the vault on the heat exchanger core, characterised in that the vault of the header cover further comprises a rounded hump, higher than the apex of the vault, said rounded hump comprising two opposite sides (16a, 16b) and defining a volume at the location of the nozzle, wherein the deflectors of the plurality of deflectors spread between said opposite sides (16a, 16b) of the rounded hump.
A method of diagnosing a cause of degradation of a lithium secondary battery, comprising: manufacturing a lithium secondary battery including a positive electrode including a layered positive electrode active material and a negative electrode; obtaining, from X-ray diffraction data obtained during first charging of the lithium secondary battery, a first graph showing the change of the c-axis d-spacing value of the layered positive electrode active material according to the number of moles of lithium ions deintercalated from the layered positive electrode active material during the charging; obtaining, from X-ray diffraction data obtained during second charging of the lithium secondary battery, a second graph showing the change of the c-axis d-spacing value of the layered positive electrode active material according to the number of moles of lithium ions deintercalated from the layered positive electrode active material during the charging; and classifying a cause of degradation of the secondary battery by comparing the first graph and the second graph. manufacturing a lithium secondary battery including a positive electrode including a layered positive electrode active material and a negative electrode; obtaining, from X-ray diffraction data obtained during first charging of the lithium secondary battery, a first graph showing the change of the c-axis d-spacing value of the layered positive electrode active material according to the number of moles of lithium ions deintercalated from the layered positive electrode active material during the charging; obtaining, from X-ray diffraction data obtained during second charging of the lithium secondary battery, a second graph showing the change of the c-axis d-spacing value of the layered positive electrode active material according to the number of moles of lithium ions deintercalated from the layered positive electrode active material during the charging; and classifying a cause of degradation of the secondary battery by comparing the first graph and the second graph.
A paging method, applied in a User Equipment, UE, comprising: receiving a paging message from a base station on a first non-anchor carrier of a multi-carrier cell, wherein the paging message carries at least one of downlink data arrival indication information and system message change indication information; and performing at least one of initiating a random access and receiving a changed system message according to the paging message; wherein the multi-carrier cell comprises an anchor carrier and a plurality of non-anchor carriers; wherein on condition that the paging message carries the downlink data arrival indication information, the performing at least one of the initiating the random access and receiving the changed system message according to the paging message comprises: determining whether the first non-anchor carrier is configured with a corresponding random access resource; when the first non-anchor carrier is configured with the corresponding random access resource, initiating random access from the first non-anchor carrier; and when the first non-anchor carrier is not configured with the random access resource, jumping to other non-anchor carrier or the anchor carrier and initiating the random access; wherein after the initiating the random access according to the paging message, the method further comprises: receiving, by the UE, corresponding downlink data. receiving a paging message from a base station on a first non-anchor carrier of a multi-carrier cell, wherein the paging message carries at least one of downlink data arrival indication information and system message change indication information; and performing at least one of initiating a random access and receiving a changed system message according to the paging message; wherein the multi-carrier cell comprises an anchor carrier and a plurality of non-anchor carriers; wherein on condition that the paging message carries the downlink data arrival indication information, the performing at least one of the initiating the random access and receiving the changed system message according to the paging message comprises: determining whether the first non-anchor carrier is configured with a corresponding random access resource; when the first non-anchor carrier is configured with the corresponding random access resource, initiating random access from the first non-anchor carrier; and when the first non-anchor carrier is not configured with the random access resource, jumping to other non-anchor carrier or the anchor carrier and initiating the random access; determining whether the first non-anchor carrier is configured with a corresponding random access resource; when the first non-anchor carrier is configured with the corresponding random access resource, initiating random access from the first non-anchor carrier; and when the first non-anchor carrier is not configured with the random access resource, jumping to other non-anchor carrier or the anchor carrier and initiating the random access; wherein after the initiating the random access according to the paging message, the method further comprises: receiving, by the UE, corresponding downlink data.