mhurhangee/patent-ind-claim-en huggingface dataset:
Agricultural vehicle comprising - a loading chamber surrounded by several walls , - an inlet guiding into the loading chamber , - a conveyor , - a conveyor drive for moving the conveyor , - a wall actuator , - at least one sensor , wherein at least one wall or at least one part of one wall of the loading chamber is pivotal, wherein the wall actuator is arranged to pivot the pivotal wall or pivotal wall part, wherein the vehicle is arranged to inject crop material (CM) in the loading chamber , thereby causing that pressure (P) is applied onto the crop material (CM) in the loading chamber , wherein the vehicle is arranged - to move crop material (CM) injected into the loading chamber away from the inlet by moving the conveyor and - to store the moved crop material (CM) in the loading chamber , wherein the or every sensor is arranged to measure a value indicative of a parameter, wherein the vehicle is arranged to automatically reduce the pressure (P) which is applied onto the crop material (CM) in the loading chamber depending on signals from the or at least one sensor , the or at least one sensor is a crop material property sensor which is arranged to measure a value indicative of a property of crop material (CM) carried on board of the vehicle characterized in that the vehicle is arranged - to activate the conveyor drive thereby reducing the applied pressure (P), depending on the or at least one crop material property measured by the or at least one crop material property sensor of the vehicle . - a loading chamber surrounded by several walls , - an inlet guiding into the loading chamber , - a conveyor , - a conveyor drive for moving the conveyor , - a wall actuator , - at least one sensor , wherein at least one wall or at least one part of one wall of the loading chamber is pivotal, wherein the wall actuator is arranged to pivot the pivotal wall or pivotal wall part, wherein the vehicle is arranged to inject crop material (CM) in the loading chamber , thereby causing that pressure (P) is applied onto the crop material (CM) in the loading chamber , wherein the vehicle is arranged - to move crop material (CM) injected into the loading chamber away from the inlet by moving the conveyor and - to store the moved crop material (CM) in the loading chamber , wherein the or every sensor is arranged to measure a value indicative of a parameter, wherein the vehicle is arranged to automatically reduce the pressure (P) which is applied onto the crop material (CM) in the loading chamber depending on signals from the or at least one sensor , the or at least one sensor is a crop material property sensor which is arranged to measure a value indicative of a property of crop material (CM) carried on board of the vehicle characterized in that the vehicle is arranged - to activate the conveyor drive thereby reducing the applied pressure (P), depending on the or at least one crop material property measured by the or at least one crop material property sensor of the vehicle .
A method of treating tough inorganic fiber bundles comprising opening a plurality of the tough inorganic fiber bundles such that tough inorganic fibers can be dispersed in a liquid slurry to lay down a homogenous fiber aggregate, wherein the tough inorganic fibers comprise the fiberization product of 72 to 99 weight percent alumina and 1 to 28 weight percent silica, wherein said opening comprises mechanically altering the tough inorganic fibers and/or fiber bundles, and wherein the tough inorganic fibers have a crush settle volume of greater than 250 ml, optionally greater than 450 ml, and wherein the crush settle volume is determined in accordance with the description.
A method of enhancing corn growth, comprising a) treating corn seed with an amount of 10 2 -10 6 colony forming units (cfu) per seed of at least one phosphate solubilizing microorganism selected from the group consisting of Penicillium bilaiae strain ATCC 20851, Penicillium bilaiae strain NRRL 50169, Penicillium bilaiae strain ATCC 22348, Penicillium bilaiae strain ATCC 18309, and Penicillium bilaiae strain NRRL 50162, and b) treating the corn seed that germinates from the seed with an amount of from about 10 -5 to about 10 -14 M of at least one lipo-chitooligosaccharide (LCO) and/or at least one chitooligosaccharide (CO), wherein upon harvesting the corn plant exhibits at least one of increased plant yield measured in terms of kilograms/hectare (bushels/acre), increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to plants harvested from untreated seed. a) treating corn seed with an amount of 10 2 -10 6 colony forming units (cfu) per seed of at least one phosphate solubilizing microorganism selected from the group consisting of Penicillium bilaiae strain ATCC 20851, Penicillium bilaiae strain NRRL 50169, Penicillium bilaiae strain ATCC 22348, Penicillium bilaiae strain ATCC 18309, and Penicillium bilaiae strain NRRL 50162, and b) treating the corn seed that germinates from the seed with an amount of from about 10 -5 to about 10 -14 M of at least one lipo-chitooligosaccharide (LCO) and/or at least one chitooligosaccharide (CO), wherein upon harvesting the corn plant exhibits at least one of increased plant yield measured in terms of kilograms/hectare (bushels/acre), increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to plants harvested from untreated seed.
A curable composition comprising: a polyalkylene oxide having a hydrolyzable silyl group; and feldspars having an average particle diameter of 0.01 to 100 μm as measured according to the description. a polyalkylene oxide having a hydrolyzable silyl group; and feldspars having an average particle diameter of 0.01 to 100 μm as measured according to the description.
A medical tubular device comprising a body structure having an elongate hollow structure extending from a first end to a second end of the medical tubular device and having a luminal surface and an external surface, wherein said body structure having a continuous matrix of a host polymer matrix and comprises an interpenetrating polymer network (IPN) comprising the host polymer matrix and at least one hydrogel guest polymer domain of a guest polymer comprising a plurality of interconnected paths of the guest polymer, which is interpenetrating the host polymer matrix, wherein said host polymer matrix is a covalently cross-linked elastomer matrix, wherein said at least one hydrogel polymer domain comprises a luminal surface guest polymer domain comprising at least a part of the luminal surface, wherein a plurality of the paths of the guest polymer coincide and form at least a part of said luminal surface and wherein said luminal surface comprises zwitterionic moieties, said zwitterionic moieties being covalently bonded to said guest polymer.
An Ethernet switch, comprising a network switching module , a microcontroller unit (MCU) module , and a dial code module ; the MCU module being connected to the network switching module , and the dial code module being connected to the MCU module ; the dial code module is configured for providing two configuration inputs for a normal mode and a long-distance mode for user equipment; the MCU module is configured for monitoring a configuration input state of the dial code module in real time (S11), wherein when detecting that the dial code module is in the configuration input for the normal mode, the MCU module configures a network port of the network switching module to be in a self-negotiation mode (S12); and when detecting that the dial code module is in the configuration input state for the long-distance mode, the MCU module configures the network switching module to negotiate a network link bandwidth of10 Mbps and a full-duplex mode between the network switching module and the user equipment and controls an amplitude of an output voltage of a network signal of the network switching module to increase (S13); and wherein the MCU module is further configured for determining a maximum value for the amplitude of the output voltage according to parameters of a network switching chip in the network switching module , and increasing the amplitude of the output voltage based on the determined maximum value for achieving the long-distance data transmission. the dial code module is configured for providing two configuration inputs for a normal mode and a long-distance mode for user equipment; the MCU module is configured for monitoring a configuration input state of the dial code module in real time (S11), wherein when detecting that the dial code module is in the configuration input for the normal mode, the MCU module configures a network port of the network switching module to be in a self-negotiation mode (S12); and when detecting that the dial code module is in the configuration input state for the long-distance mode, the MCU module configures the network switching module to negotiate a network link bandwidth of10 Mbps and a full-duplex mode between the network switching module and the user equipment and controls an amplitude of an output voltage of a network signal of the network switching module to increase (S13); and wherein the MCU module is further configured for determining a maximum value for the amplitude of the output voltage according to parameters of a network switching chip in the network switching module , and increasing the amplitude of the output voltage based on the determined maximum value for achieving the long-distance data transmission.
A fabric care composition comprising a quaternary ammonium ester compound and a bispyridinium alkane antimicrobial active.
A hospital bed , comprising: a sleep deck having an upper portion , a middle portion , and a lower portion that each define a support surface and an underbody that defines a notch , wherein an opening is defined by and extending through the upper portion and wherein a space is defined between at least the upper portion and the middle portion ; a mattress disposed on the support surface of the sleep deck ; an outer mattress shell encasing the mattress , the outer mattress shell further including a fold defined by a weld extending through the outer mattress shell ; and a mattress retention assembly operably coupled to the outer mattress shell , the mattress retention assembly including at least one of: a first magnet and a second magnet that are selectively coupling the mattress and the outer mattress shell to the sleep deck ; a portion of the mattress retention assembly disposed along the support surface of the sleep deck and coupled to the outer mattress shell ; an affixing member disposed on the outer mattress shell ; and a retention ridge extending through the space defined by the sleep deck . a sleep deck having an upper portion , a middle portion , and a lower portion that each define a support surface and an underbody that defines a notch , wherein an opening is defined by and extending through the upper portion and wherein a space is defined between at least the upper portion and the middle portion ; a mattress disposed on the support surface of the sleep deck ; an outer mattress shell encasing the mattress , the outer mattress shell further including a fold defined by a weld extending through the outer mattress shell ; and a mattress retention assembly operably coupled to the outer mattress shell , the mattress retention assembly including at least one of: a first magnet and a second magnet that are selectively coupling the mattress and the outer mattress shell to the sleep deck ; a portion of the mattress retention assembly disposed along the support surface of the sleep deck and coupled to the outer mattress shell ; an affixing member disposed on the outer mattress shell ; and a retention ridge extending through the space defined by the sleep deck . a first magnet and a second magnet that are selectively coupling the mattress and the outer mattress shell to the sleep deck ; a portion of the mattress retention assembly disposed along the support surface of the sleep deck and coupled to the outer mattress shell ; an affixing member disposed on the outer mattress shell ; and a retention ridge extending through the space defined by the sleep deck .
A heat exchanger comprising: a heat exchange part in which a heating medium channel (P1), through which a heating medium flows, and a combustion gas channel (P2), through which a combustion gas combusted in a burner flows, are alternately formed adjacent to each other in a space between a plurality of stacked plates (100a-1,100b-1,100a-2,100b-2,100a-3,100b-3,100a-4,100b-4,100a-5,100b-5,100a-6,100b-6,100a-7,100b-7,100a-8,100b-8,100a-9,100b-9,100a-10,100b-10,100a-11,100b-11,100a-12,100b-12), wherein edges of a pair of plates (100a-1 and 100b-1, 100a-2 and 100b-2, 100a-3 and 100b-3, 100a-4 and 100b-4, 100a-5 and 100b-5, 100a-6 and 100b-6, 100a-7 and 100b-7, 100a-8 and 100b-8, 100a-9 and 100b-9, 100a-10 and 100b-10, 100a-11 and 100b-11, 100a-12 and 100b-12) forming the heating medium channel (P1) are weld-coupled to form a first welding portion (W1), and edges of a pair of plates (100b-1 and 100a-2, 100b-2 and 100a-3, 100b-3 and 100a-4, 100b-4 and 100a-5, 100b-5 and 100a-6, 100b-6 and 100a-7, 100b-7 and 100a-8, 100b-8 and 100a-9, 100b-9 and 100a-10, 100b-10 and 100a-11, 100b-11 and 100a-12) forming the combustion gas channel (P2) are weld-coupled to form a second welding portion (W2), characterized in that a guide part is formed to guide a molten solution of a welding material of the first welding portion (W1) to be movable to the second welding portion (W2). a heat exchange part in which a heating medium channel (P1), through which a heating medium flows, and a combustion gas channel (P2), through which a combustion gas combusted in a burner flows, are alternately formed adjacent to each other in a space between a plurality of stacked plates (100a-1,100b-1,100a-2,100b-2,100a-3,100b-3,100a-4,100b-4,100a-5,100b-5,100a-6,100b-6,100a-7,100b-7,100a-8,100b-8,100a-9,100b-9,100a-10,100b-10,100a-11,100b-11,100a-12,100b-12), wherein edges of a pair of plates (100a-1 and 100b-1, 100a-2 and 100b-2, 100a-3 and 100b-3, 100a-4 and 100b-4, 100a-5 and 100b-5, 100a-6 and 100b-6, 100a-7 and 100b-7, 100a-8 and 100b-8, 100a-9 and 100b-9, 100a-10 and 100b-10, 100a-11 and 100b-11, 100a-12 and 100b-12) forming the heating medium channel (P1) are weld-coupled to form a first welding portion (W1), and edges of a pair of plates (100b-1 and 100a-2, 100b-2 and 100a-3, 100b-3 and 100a-4, 100b-4 and 100a-5, 100b-5 and 100a-6, 100b-6 and 100a-7, 100b-7 and 100a-8, 100b-8 and 100a-9, 100b-9 and 100a-10, 100b-10 and 100a-11, 100b-11 and 100a-12) forming the combustion gas channel (P2) are weld-coupled to form a second welding portion (W2), characterized in that a guide part is formed to guide a molten solution of a welding material of the first welding portion (W1) to be movable to the second welding portion (W2).
A fast charging method for a series battery pack, comprising: obtaining charge parameters of battery units in a series battery pack; determining, based on the charge parameters, whether there is a differentiated battery unit in the series battery pack, wherein the differentiated battery unit is a battery unit whose charge parameter is different from a charge parameter of the rest battery units in the series battery pack; and if there is a differentiated battery unit in the series battery pack, changing the battery units in the series battery pack to a parallel connection, and performing parallel charging on the battery units. obtaining charge parameters of battery units in a series battery pack; determining, based on the charge parameters, whether there is a differentiated battery unit in the series battery pack, wherein the differentiated battery unit is a battery unit whose charge parameter is different from a charge parameter of the rest battery units in the series battery pack; and if there is a differentiated battery unit in the series battery pack, changing the battery units in the series battery pack to a parallel connection, and performing parallel charging on the battery units.
A computer implemented method of identifying vulnerabilities of an application, the method comprising: identifying , by a hardware processor , at least one function in executable code of the application according to at least one rule for modification of functions, the at least one rule containing at least a prototype of the function and a calling convention for the function; adding an interception code to the executable code of the application upon launching of the application, wherein the interception code is configured to intercept calls to functions made by the application and to establish control over a process associated with the application, and wherein the interception code modifies functionality of the application by calling a function in the interception code with an Application Binary Interface (ABI) that matches an intercepted function; executing , by the hardware processor , the application with the added interception code; collecting , by the interception code, data relating to function calls performed by the application during execution; analyzing the collected data based on criteria for safe execution of applications, wherein the criteria comprises a range of permissible values of arguments of intercepted function calls; and identifying inconsistencies between the analyzed data and the criteria for safe execution of applications, wherein the inconsistencies indicate vulnerabilities in the application. identifying , by a hardware processor , at least one function in executable code of the application according to at least one rule for modification of functions, the at least one rule containing at least a prototype of the function and a calling convention for the function; adding an interception code to the executable code of the application upon launching of the application, wherein the interception code is configured to intercept calls to functions made by the application and to establish control over a process associated with the application, and wherein the interception code modifies functionality of the application by calling a function in the interception code with an Application Binary Interface (ABI) that matches an intercepted function; executing , by the hardware processor , the application with the added interception code; collecting , by the interception code, data relating to function calls performed by the application during execution; analyzing the collected data based on criteria for safe execution of applications, wherein the criteria comprises a range of permissible values of arguments of intercepted function calls; and identifying inconsistencies between the analyzed data and the criteria for safe execution of applications, wherein the inconsistencies indicate vulnerabilities in the application.
A method for automatic execution of protection coordination in a power system network that includes one or more power sources and multiple fault protection devices , wherein a plurality of the fault protection devices are remotely controllable and have multiple preconfigured settings, the method comprising: identifying radial source-to-load paths and fault protection devices in said source-to-load paths, for a portion of the power system network to be coordinated, based on stored topology data for said portion; retrieving protection device settings data for identified fault protection devices, including the multiple preconfigured settings for remotely controllable fault protection devices in said portion of the power system network; calculating predicted fault currents for each of a plurality of possible electrical faults in said portion of the power system network, based on the stored topology data; performing a selectivity check of multiple combinations of settings for each pair of fault protection devices that are adjacent to one another in each of the identified radial source-to-load paths, for each of one or more of the predicted fault currents, taking into account multiple combinations of preconfigured settings for remotely controllable fault protection devices; selecting one of the multiple combinations of settings for the remotely controllable fault protection devices, based on the selectivity check, to minimize selectivity violations among the pairs; sending a change-setting command to remotely controllable fault protection devices for which settings have changed, based on the selected combination of settings. identifying radial source-to-load paths and fault protection devices in said source-to-load paths, for a portion of the power system network to be coordinated, based on stored topology data for said portion; retrieving protection device settings data for identified fault protection devices, including the multiple preconfigured settings for remotely controllable fault protection devices in said portion of the power system network; calculating predicted fault currents for each of a plurality of possible electrical faults in said portion of the power system network, based on the stored topology data; performing a selectivity check of multiple combinations of settings for each pair of fault protection devices that are adjacent to one another in each of the identified radial source-to-load paths, for each of one or more of the predicted fault currents, taking into account multiple combinations of preconfigured settings for remotely controllable fault protection devices; selecting one of the multiple combinations of settings for the remotely controllable fault protection devices, based on the selectivity check, to minimize selectivity violations among the pairs; sending a change-setting command to remotely controllable fault protection devices for which settings have changed, based on the selected combination of settings.
A method of producing an armor component having a final thickness ranging between 0.5 inch and 3 inches (between 12.7 and 76.2 mm), comprising : a) casting a 7XXX series aluminum alloy to obtain an ingot, wherein said alloy comprises or consists essentially of - 8.4 wt.% ≤ Zn ≤ 10.5 wt.% ; - 1.3 wt.% ≤ Mg ≤ 2 wt.% ; - 1.2 wt.% ≤ Cu ≤ 2 wt.% ; - 0.04 wt.% ≤ Zr ≤ 0.08 wt.%; - the remainder aluminum, incidental elements, and impurities; b) homogenizing said ingot; c) hot working said homogenized ingot to obtain a plate having a first thickness T1 ; d) cold working the plate having the first thickness to obtain a plate having a second thickness T2, wherein T2 = T1 - (x 1 ∗ T2)/100 and 0.5 ≤ x 1 ≤ 15; e) solution heat treating ; f) quenching; and g) aging. a) casting a 7XXX series aluminum alloy to obtain an ingot, wherein said alloy comprises or consists essentially of - 8.4 wt.% ≤ Zn ≤ 10.5 wt.% ; - 1.3 wt.% ≤ Mg ≤ 2 wt.% ; - 1.2 wt.% ≤ Cu ≤ 2 wt.% ; - 0.04 wt.% ≤ Zr ≤ 0.08 wt.%; - the remainder aluminum, incidental elements, and impurities; - 8.4 wt.% ≤ Zn ≤ 10.5 wt.% ; - 1.3 wt.% ≤ Mg ≤ 2 wt.% ; - 1.2 wt.% ≤ Cu ≤ 2 wt.% ; - 0.04 wt.% ≤ Zr ≤ 0.08 wt.%; - the remainder aluminum, incidental elements, and impurities; b) homogenizing said ingot; c) hot working said homogenized ingot to obtain a plate having a first thickness T1 ; d) cold working the plate having the first thickness to obtain a plate having a second thickness T2, wherein T2 = T1 - (x 1 ∗ T2)/100 and 0.5 ≤ x 1 ≤ 15; e) solution heat treating ; f) quenching; and g) aging.
Two-component polyurethane dispersion adhesives comprising (I) at least one aqueous dispersion comprising an amorphous polyurethane-polyurea polymer and (II) at least one hydrophilically modified polyisocyanate having silane and thioallophanate structures as a crosslinker component. (I) at least one aqueous dispersion comprising an amorphous polyurethane-polyurea polymer and (II) at least one hydrophilically modified polyisocyanate having silane and thioallophanate structures as a crosslinker component.