mhurhangee/patent-ind-claim-en huggingface dataset:
A machine readable medium on which are stored instructions, comprising instructions that when executed cause a firewall device to: create a dynamic object for use in a firewall rule, the dynamic object defining a variable set of corresponding devices; and populate the variable set of the dynamic object from data received from sources external to the firewall, wherein the instructions that when executed cause the firewall device to populate the variable set of the dynamic object comprise instructions that when executed cause the firewall device to: receive device data from a real-time data source; and populate the dynamic object with the received device data, wherein the dynamic object comprises a plurality of conditions generated based on the received device data; and evaluate the dynamic object as part of evaluating the firewall rule. create a dynamic object for use in a firewall rule, the dynamic object defining a variable set of corresponding devices; and populate the variable set of the dynamic object from data received from sources external to the firewall, receive device data from a real-time data source; and populate the dynamic object with the received device data, wherein the dynamic object comprises a plurality of conditions generated based on the received device data; and evaluate the dynamic object as part of evaluating the firewall rule.
Seal for a door having - a housing or a module housing , - a lowerable sealing bar , - a trigger for triggering a lowering movement of the sealing bar when a force acts on the trigger, - a displacing part which is connected to the trigger , and - a return mechanism (R), - wherein the return mechanism (R) has a spring means , characterised in - that the return mechanism (R) has a holder for the spring means which has a rod-shaped region which engages through the spring means and has a region which is guided in a first guiding structure of the displacing part , and - that the holder of the return mechanism (R) has a region which has fastening structures which are fastened to the housing or to the module housing . - a housing or a module housing , - a lowerable sealing bar , - a trigger for triggering a lowering movement of the sealing bar when a force acts on the trigger, - a displacing part which is connected to the trigger , and - a return mechanism (R), - wherein the return mechanism (R) has a spring means , - that the return mechanism (R) has a holder for the spring means which has a rod-shaped region which engages through the spring means and has a region which is guided in a first guiding structure of the displacing part , and - that the holder of the return mechanism (R) has a region which has fastening structures which are fastened to the housing or to the module housing .
A robot comprising: a robot arm having a distal end to which a wrist axis is rotatably provided; an arm drive unit configured to move the robot arm ; a wrist axis drive unit configured to rotate the wrist axis; and a robot control unit configured to control the arm drive unit and the wrist axis drive unit , wherein the robot control unit is configured to control the arm drive unit to move the distal end of the robot arm so as to bring a contact member attached to the wrist axis , said wrist axis being in a state in which an angular position is detectable, into contact with an instruction target , thereby determining a position of an instruction point based on a posture of the robot arm and the angular position of the wrist axis ; characterised in that : the robot control unit is configured to set a control loop gain of the wrist axis drive unit at substantially zero at a point of time when the contact member is expected to be in contact with the instruction target, based on a preset temporary positional data about the instruction target, to minimise contact reaction force generated when some external force is exerted on the wrist axis drive unit, and in that the robot control unit is configured to determine the position of the instruction point based on the posture of the robot arm and the angular position of the wrist axis at a point of time when the angular position of the wrist axis begins to move due to the contact between the contact member and the instruction target . the robot control unit is configured to set a control loop gain of the wrist axis drive unit at substantially zero at a point of time when the contact member is expected to be in contact with the instruction target, based on a preset temporary positional data about the instruction target, to minimise contact reaction force generated when some external force is exerted on the wrist axis drive unit, and in that the robot control unit is configured to determine the position of the instruction point based on the posture of the robot arm and the angular position of the wrist axis at a point of time when the angular position of the wrist axis begins to move due to the contact between the contact member and the instruction target .
A heat transfer system, comprising: a fluid flow path between two or more electrocaloric elements; a plurality of modules arranged in a stack , each of the modules comprising at least two adjacent electrocaloric elements, each electrocaloric element comprising an electrocaloric film , a respective first electrode on a first side of the electrocaloric film , and a second electrode on a second side of the electrocaloric film , wherein the first electrode is exposed to the fluid flow path , wherein the at least two adjacent electrocaloric elements share a single second electrode , and the second electrode is embedded between the electrocaloric films of the adjacent electrocaloric elements; a first electrical bus element in electrical contact with the first electrodes ; and a second electrical bus element in electrical contact with the second electrode ; wherein the first electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said first electrical bus , or the second electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said second electrical bus. a fluid flow path between two or more electrocaloric elements; a plurality of modules arranged in a stack , each of the modules comprising at least two adjacent electrocaloric elements, each electrocaloric element comprising an electrocaloric film , a respective first electrode on a first side of the electrocaloric film , and a second electrode on a second side of the electrocaloric film , wherein the first electrode is exposed to the fluid flow path , wherein the at least two adjacent electrocaloric elements share a single second electrode , and the second electrode is embedded between the electrocaloric films of the adjacent electrocaloric elements; a first electrical bus element in electrical contact with the first electrodes ; and a second electrical bus element in electrical contact with the second electrode ; wherein the first electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said first electrical bus , or the second electrical bus element is electrically connected to at least one other electrical bus of another electrocaloric element in the stack at the same polarity as said second electrical bus.
Glenoid positioning device comprising: - a hub with a reference through-hole and comprising three housings arranged radially; - three slide elements slidably housed within said three housings respectively, said three slide elements being configured to interact with a glenoid cavity; wherein said three slide elements are configured to be radially extended or retracted to identify a circular area of a glenoid cavity. - a hub with a reference through-hole and comprising three housings arranged radially; - three slide elements slidably housed within said three housings respectively, said three slide elements being configured to interact with a glenoid cavity;
A solid-state cooling apparatus for a galley installed in an aircraft, comprising: (a) at least one storage enclosure for containing chilled beverage and/or foods for storage; (b) a solid-state air-to-air thermoelectric device having a hot side and a cold side mountable in the galley and (c) a waste heat capture device including a hot air outlet for discharging waste heat from the hot side of the solid-state air-to-air thermoelectric device into the aircraft exterior to the galley, characterized in that the solid-state air-to-air thermoelectric device has a finned heat sink on the cold side and finned heat sinks on the hot side as well as an axial cooling fan mounted on a shroud covering the finned heat sinks for pulling air through the solid-state air-to-air thermoelectric device as well as an axial recirculation/cascade fan mounted on a partial shroud partially covering the finned heat sink for expelling cold air from the solid-state air-to-air thermoelectric device for circulating chilled air in proximity to the storage enclosure. (a) at least one storage enclosure for containing chilled beverage and/or foods for storage; (b) a solid-state air-to-air thermoelectric device having a hot side and a cold side mountable in the galley and (c) a waste heat capture device including a hot air outlet for discharging waste heat from the hot side of the solid-state air-to-air thermoelectric device into the aircraft exterior to the galley, characterized in that
Cap (100; 200, 300; 500; 600) to lubricate an internal wall of a perforation or a sleeve with internal diameter (Ds) passing through at least two structural elements, the cap comprising a tubular body (102; 502; 602) and at least one reserve for a lubricant , before insertion in the perforation or in the sleeve, the cap has a largest external diameter larger than a smallest internal diameter (Ds) of said perforation or sleeve, the cap being configured so as to distribute lubricant from the reserve for the lubricant over an internal surface of the perforation or the sleeve when said cap is inserted into the perforation or the sleeve and is radially compressed by the internal wall of said perforation or sleeve the cap being characterized in that it also comprises at least one external wall facing an exterior surface of the tubular body and such that the external wall and the tubular body define a cavity forming the reserve for the lubricant .
A flight management system for an aircraft , the flight management system comprising: one or more data processors ; and non-transitory machine-readable memory storing a navigation database including elements from which a flight plan is constructed, the elements including data associated with an approach procedure to be performed by the aircraft , and, instructions executable by the one or more data processors and configured to cause the one or more data processors to: conditioned upon the data associated with the approach procedure to be performed by the aircraft being indicative of a steep approach, automatically generate a request to arm a steep approach function of the aircraft , wherein the generation of the request is done prior to take-off of the aircraft . one or more data processors ; and non-transitory machine-readable memory storing a navigation database including elements from which a flight plan is constructed, the elements including data associated with an approach procedure to be performed by the aircraft , and, instructions executable by the one or more data processors and configured to cause the one or more data processors to: conditioned upon the data associated with the approach procedure to be performed by the aircraft being indicative of a steep approach, automatically generate a request to arm a steep approach function of the aircraft , wherein the generation of the request is done prior to take-off of the aircraft .
An array substrate, comprising a plurality of sub-pixels each having a light-emitting layer, wherein the sub-pixels comprises a plurality of first type sub-pixels arranged in a first matrix (M, S) having rows and columns perpendicular to each other and a plurality of second type sub-pixels arranged in a second matrix (N, P) having rows and columns perpendicular to each other, row and column directions of the first type sub-pixels being respectively parallel to row and column directions of the second sub-pixels, wherein each column (N) of the second matrix is arranged between two adjacent columns (M) of the first matrix and each row (P) of the second matrix other than the last row of the second matrix is arranged between two adjacent rows (S) of the first matrix, such that each second type sub-pixel other than a second type sub-pixel in the last row of the second matrix is directly adjacent to four first type sub-pixels; and each second type sub-pixel in a row of the second matrix other than the last row of the second matrix and one first type sub-pixel among the four first type sub-pixels directly adjacent thereto have the same color, characterized in that for at least one set of two first type sub-pixels of the plurality of first type sub-pixels, the two first type sub-pixels have the same color and occupy adjacent rows of the first matrix and adjacent columns of the first matrix, and no second type sub-pixel is provided between the two first type sub-pixels.
Wrapping arrangement for an item to be wrapped with extensible plastic film, comprising a driving ring which drives into rotation a support carriage of a spool (B) of extensible plastic film (P), on a circular path which wraps an item to be wrapped, a pair of holding units of the film being furthermore provided, on two opposite sides of a plane on which said circular path develops, equipped with a gripping device, said pair of holding units being arranged on a same operating line transversal to the longitudinal development of the film, characterized in that each holding unit is provided with cutting devices apt to be brought mutually closer along said operating line, said gripping devices and cutting devices being mounted longitudinally movable in opposite directions and mounted on guides, and to be moved backward and forward, by respective first movement actuators , and wherein further second gripping actuators are provided for mutually opening and closing pairs of jaws of said gripping devices and wherein said first and second actuators are mounted so that said gripping devices can mutually move forward and backward both with said jaws closed and with said jaws open.
A method for leaching lithium ion battery scrap comprising leaching the scrap of the lithium ion battery containing nickel and/or cobalt in an acidic solution, the method comprising a metal leaching step of leaching nickel and/or cobalt by adding, together with the scrap, at least one of simple substances of manganese, compounds of manganese and a solution containing metal ions of manganese which are not contained in the scrap, to the acidic solution so that the metal ions of manganese are present in the acidic solution, and then contacting nickel and/or cobalt contained in the scrap with the metal ions of manganese in the acidic solution containing the metal ions of manganese, wherein in the metal leaching step, nickel and/or cobalt is leached based on an oxidation-reduction reaction of nickel and/or cobalt with the metal ions of manganese, and wherein, in the metal leaching step, the metal ions of manganese present in the acidic solution are precipitated as oxides by oxidation.
A method for controlling motorized human-powered vehicle, the method comprising: receiving, from a mobile-device associated with a user of the vehicle, a user selection of one of a plurality of operational modes for controlling performance of the vehicle; in response to receiving the user selection, setting, using a control unit of the vehicle, a set of operational parameters for a control algorithm , wherein the set of operational parameters includes at least one gain for the control algorithm ; and controlling, using the control unit , a motor of the motorized human- powered vehicle based in part on the control algorithm in response to a physical user input that propels the vehicle, the method being characterized in that the plurality of operational modes includes an exercise mode that is associated with a user entering a targeted amount of calories to be burned . receiving, from a mobile-device associated with a user of the vehicle, a user selection of one of a plurality of operational modes for controlling performance of the vehicle; in response to receiving the user selection, setting, using a control unit of the vehicle, a set of operational parameters for a control algorithm , wherein the set of operational parameters includes at least one gain for the control algorithm ; and controlling, using the control unit , a motor of the motorized human- powered vehicle based in part on the control algorithm in response to a physical user input that propels the vehicle, the method being characterized in that the plurality of operational modes includes an exercise mode that is associated with a user entering a targeted amount of calories to be burned .
A process for manufacturing an aqueous hydrogen peroxide solution comprising the following steps: - hydrogenating a working solution which comprises an alkylanthraquinone and/or tetrahydroalkylanthraquinone and a mixture of a non-polar organic solvent and a polar organic solvent wherein the concentration of non-polar organic solvent in said mixture is equal to or higher than 30wt%; - oxidizing the hydrogenated working solution to produce hydrogen peroxide; and - isolating the hydrogen peroxide, wherein the polar organic solvent is a substituted cyclohexane carbonitrile. - hydrogenating a working solution which comprises an alkylanthraquinone and/or tetrahydroalkylanthraquinone and a mixture of a non-polar organic solvent and a polar organic solvent wherein the concentration of non-polar organic solvent in said mixture is equal to or higher than 30wt%; - oxidizing the hydrogenated working solution to produce hydrogen peroxide; and - isolating the hydrogen peroxide,
An apparatus comprising a processor configured to: determine a mass parameter indicative of a mass of an aircraft brake assembly , the mass parameter determined using an estimated amount of energy absorbed by the brake assembly in a given period of time and a corresponding estimated change in temperature of the brake assembly .
A vibration signal generation program to be executed by a computer included in an apparatus for generating a vibration signal for vibrating a vibration apparatus , the vibration signal generation program causing the computer to function as: data acquisition means (31, S82) for acquiring first data obtained by encoding amplitude modulation information indicating a change in an amplitude and second data obtained by encoding frequency modulation information indicating a change in a frequency; decoding means (31, S83) for decoding the acquired first and second data; and vibration signal generation means (31, S86) for generating a vibration signal using the decoded amplitude modulation information and an amplitude of the previously generated vibration signal and using the decoded frequency modulation information and a frequency of the previously generated vibration signal. data acquisition means (31, S82) for acquiring first data obtained by encoding amplitude modulation information indicating a change in an amplitude and second data obtained by encoding frequency modulation information indicating a change in a frequency; decoding means (31, S83) for decoding the acquired first and second data; and vibration signal generation means (31, S86) for generating a vibration signal using the decoded amplitude modulation information and an amplitude of the previously generated vibration signal and using the decoded frequency modulation information and a frequency of the previously generated vibration signal.
A portable device for disinfecting water by ultrafiltration, comprises: - a filtering assembly with at least one ultrafiltration membrane inside a casing , said at least one ultrafiltration membrane is located in said casing in a position in which it receives the water flow to be filtered by gravity or pressure; - a pump , powered with electrical energy, configured for driving a water flow to be filtered to said at least one ultrafiltration membrane ; and - an electric supply connection for powering said pump from a power supply, characterized in that : - the power supply is provided by a battery included in a portable communication device , the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump is connected by means of a cable to a USB or micro USB port of the portable communication device . - a filtering assembly with at least one ultrafiltration membrane inside a casing , said at least one ultrafiltration membrane is located in said casing in a position in which it receives the water flow to be filtered by gravity or pressure; - a pump , powered with electrical energy, configured for driving a water flow to be filtered to said at least one ultrafiltration membrane ; and - an electric supply connection for powering said pump from a power supply, characterized in that : - the power supply is provided by a battery included in a portable communication device , the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump is connected by means of a cable to a USB or micro USB port of the portable communication device . - the power supply is provided by a battery included in a portable communication device , the latter comprising a smartphone or a tablet; - a current consumed by the pump is below 1.2 A, with a supply voltage of between 3 and 24 V; and - the electric supply connection for powering the pump is connected by means of a cable to a USB or micro USB port of the portable communication device .
A flame retarder to be contained in a resin composition to confer flame retardant properties on said resin composition, wherein the flame retarder includes an aromatic polymer containing monomer units having aromatic skeletons ranging between 1 mol% and 100 mol%, and wherein sulfonic acid groups and/or sulfonate groups are introduced in an amount ranging between 0.01 mol% and 8 mol% into the aromatic polymer.