mhurhangee/ep-ind-claims huggingface dataset:
An engineering system (100, 260) for a factory automation environment, the system comprising: a message-broker (140, 210) configured to access and update a knowledge base (125, 230) based on operation of at least one of a plurality of engineering software (112, 262, 266, 268), wherein the plurality of engineering software (112, 262, 266, 268) is configured to generate and/or operate using engineering-data associated with at least one of design, commissioning, operation and maintenance of the factory automation environment, wherein the message-broker (140, 210) is configured to convert the engineering-data into messages recognizable by the plurality of engineering software (112, 262, 266, 268) and the knowledge base (125, 230); and at least one Graphical User Interface communicatively coupled to the message-broker (140, 210) configured to enable access to the engineering-data via the message-broker (140, 210), whereby at least one engineering software (112, 262, 266, 268) is configured to initiate actions in the factory automation environment based on the messages, characterized in that the message-broker (140, 210) is communicatively coupled to one or more artificial intelligence modules configured to analyze operation of the plurality of engineering software (112, 262, 266, 268), a user input from the GUI, or a combination thereof, wherein the artificial intelligence modules are configured to map the operation of the plurality of engineering software (112, 262, 266, 268), the user input or the combination to the engineering-data in the knowledge base (125, 230), wherein the message-broker (140, 210) is configured to transmit the mapped engineering-data to the at least one engineering software (112, 262, 266, 268) to enable the at least one engineering software (112, 262, 266, 268) to initiate actions in the factory automation environment, the artificial intelligence modules comprising one of a neural network module, a reinforcement learning module, a rule-based module and a combination thereof. a message-broker (140, 210) configured to access and update a knowledge base (125, 230) based on operation of at least one of a plurality of engineering software (112, 262, 266, 268), wherein the plurality of engineering software (112, 262, 266, 268) is configured to generate and/or operate using engineering-data associated with at least one of design, commissioning, operation and maintenance of the factory automation environment, wherein the message-broker (140, 210) is configured to convert the engineering-data into messages recognizable by the plurality of engineering software (112, 262, 266, 268) and the knowledge base (125, 230); and at least one Graphical User Interface communicatively coupled to the message-broker (140, 210) configured to enable access to the engineering-data via the message-broker (140, 210), whereby at least one engineering software (112, 262, 266, 268) is configured to initiate actions in the factory automation environment based on the messages,
Air and fluid cleaning system for propelling a cleaning fluid and air onto a vehicle vision device or onto a vehicle sensor, the cleaning system comprising: - at least one fluid nozzle aiming at the vehicle vision device or at the vehicle sensor, - at least one cleaning fluid pump fluidly connected to a fluid supply conduit and to a cleaning fluid source, - at least one air nozzle aiming at the vehicle vision device or at the vehicle sensor, - at least one air jet generating means fluidly connected to the at least one air nozzle, the air and fluid cleaning system being characterised in that the air jet generating means being hydraulically connected to the fluid supply conduit and the air jet generating means being operable by the fluid pressure provided by the cleaning fluid pump such that during a first operation time interval of the cleaning system only cleaning fluid is propelled onto the vehicle vision device or onto the vehicle sensor and that during a second operation time interval of the cleaning system only an air jet burst is propelled onto the vehicle vision device or onto the vehicle sensor. - at least one fluid nozzle aiming at the vehicle vision device or at the vehicle sensor, - at least one cleaning fluid pump fluidly connected to a fluid supply conduit and to a cleaning fluid source, - at least one air nozzle aiming at the vehicle vision device or at the vehicle sensor, - at least one air jet generating means fluidly connected to the at least one air nozzle,
A method for determining the speed through water of a vessel for optimisation of vessel operation, using a sensor system, comprising: - obtaining propeller revolutions per minute and at least one of torque at propeller, propulsion power, and thrust; - obtaining speed over ground of the vessel; and - using the obtained data and hydrodynamic modeling to determine the speed through water of the vessel. - obtaining propeller revolutions per minute and at least one of torque at propeller, propulsion power, and thrust; - obtaining speed over ground of the vessel; and - using the obtained data and hydrodynamic modeling to determine the speed through water of the vessel.
A method comprising: associating a first micro network access agent (40a, 40b, 40c, 40d, 40e) with a single network element in a Long Term Evolution, LTE, network; and receiving (305, 310) packet traffic analysis information for packet traffic processed by the single network element using the first micro network access agent (40a, 40b, 40c, 40d, 40e); characterised by: transmitting, based on one or more tagged packets associated with the packet traffic analysis information and to a second micro network access agent, an instruction to perform an additional analysis of the one or more tagged packets; and receiving, from the second micro network access agent, information associated with the additional analysis performed by the second micro network access agent based on the instruction, the packet traffic analysis information and the information associated with the additional analysis of the one or more tagged packets being used to configure one or more network resources to manage service quality. associating a first micro network access agent (40a, 40b, 40c, 40d, 40e) with a single network element in a Long Term Evolution, LTE, network; and receiving (305, 310) packet traffic analysis information for packet traffic processed by the single network element using the first micro network access agent (40a, 40b, 40c, 40d, 40e); transmitting, based on one or more tagged packets associated with the packet traffic analysis information and to a second micro network access agent, an instruction to perform an additional analysis of the one or more tagged packets; and receiving, from the second micro network access agent, information associated with the additional analysis performed by the second micro network access agent based on the instruction, the packet traffic analysis information and the information associated with the additional analysis of the one or more tagged packets being used to configure one or more network resources to manage service quality. the packet traffic analysis information and the information associated with the additional analysis of the one or more tagged packets being used to configure one or more network resources to manage service quality.
A catalyst article comprising a substrate comprising an inlet side and an outlet side, a first zone and a second zone, where the first zone comprises a passive NOx adsorber comprising a platinum group metal and a base metal, both on the same molecular sieve, and an ammonia slip catalyst comprising an oxidation catalyst comprising a platinum group metal on a support, and a first SCR catalyst; where the second zone comprises a catalyst selected from the group consisting of a diesel oxidation catalyst and a diesel exotherm catalyst; where the first zone is located upstream of the second zone; and wherein the first zone comprises a. a bottom layer comprising a blend of: the oxidation catalyst and the first SCR catalyst; b. a top layer comprising a second SCR catalyst, the top layer located over the bottom layer; and wherein the bottom layer further comprises the PNA. where the first zone comprises a passive NOx adsorber comprising a platinum group metal and a base metal, both on the same molecular sieve, and an ammonia slip catalyst comprising an oxidation catalyst comprising a platinum group metal on a support, and a first SCR catalyst; a passive NOx adsorber comprising a platinum group metal and a base metal, both on the same molecular sieve, and an ammonia slip catalyst comprising an oxidation catalyst comprising a platinum group metal on a support, and a first SCR catalyst; where the second zone comprises a catalyst selected from the group consisting of a diesel oxidation catalyst and a diesel exotherm catalyst; where the first zone is located upstream of the second zone; and wherein the first zone comprises a. a bottom layer comprising a blend of: the oxidation catalyst and the first SCR catalyst; b. a top layer comprising a second SCR catalyst, the top layer located over the bottom layer; and wherein the bottom layer further comprises the PNA. a. a bottom layer comprising a blend of: the oxidation catalyst and the first SCR catalyst; b. a top layer comprising a second SCR catalyst, the top layer located over the bottom layer; and wherein the bottom layer further comprises the PNA.
Machine for wrapping already formed boxes with a covering sheet, the machine comprising a feeding station and a working station, wherein the feeding station is arranged to feed the working station with an assembly formed by a covering sheet with glue spread on an upper side thereof and by an already formed box resting on said upper side of the covering sheet, wherein the working station comprises: - a stationary structure (28, 30) defining a working area, - an upper gripping unit which is supported by the stationary structure (28, 30) so as to be vertically movable and includes a gripping device arranged to grip the box and covering sheet assembly fed by the feeding station, - first vertical driving means (64, 66, 68) associated to the upper gripping unit to control the vertical movement of the latter with respect to the stationary structure (28, 30), and - a lower working unit including a plurality of working devices (88, 90) arranged to process, in cooperation with the gripping device, the box and covering sheet assembly so as to fold side portions (S 1, S 2, S 3, S 4) of the covering sheet and cause them to adhere at least to the outer faces of side walls (SW 1, SW 2, SW 3, SW 4) of the box, characterized in that the lower working unit is supported (96, 98, 100) by the stationary structure (28, 30) of the working station so as to be vertically movable and in that the working station further comprises second vertical driving means (102, 104, 106) associated to the lower working unit to control the vertical movement of the latter relative to the stationary structure (28, 30). - a stationary structure (28, 30) defining a working area, - an upper gripping unit which is supported by the stationary structure (28, 30) so as to be vertically movable and includes a gripping device arranged to grip the box and covering sheet assembly fed by the feeding station, - first vertical driving means (64, 66, 68) associated to the upper gripping unit to control the vertical movement of the latter with respect to the stationary structure (28, 30), and - a lower working unit including a plurality of working devices (88, 90) arranged to process, in cooperation with the gripping device, the box and covering sheet assembly so as to fold side portions (S 1, S 2, S 3, S 4) of the covering sheet and cause them to adhere at least to the outer faces of side walls (SW 1, SW 2, SW 3, SW 4) of the box,
A cabin conditioning system for air conditioning cabin space, the system comprising - an air conditioning device for reducing the cabin temperature, - a cooling medium and - a control unit for controlling the cabin conditioning system, and characterized in that the system further comprises - a first sensor arranged to send signal to the control unit if a hatch of the cabin to the outdoor is opened or closed, - a control valve for controlling the cooling medium flow to the air conditioning device, - a water heater for heating the cooling medium before entering the air conditioning device, and the first sensor is arranged to send a first signal to the control unit, when the hatch is opened, wherein the control unit is arranged to switch on the water heater for heating the cooling medium. - an air conditioning device for reducing the cabin temperature, - a cooling medium and - a control unit for controlling the cabin conditioning system, and - a first sensor arranged to send signal to the control unit if a hatch of the cabin to the outdoor is opened or closed, - a control valve for controlling the cooling medium flow to the air conditioning device, - a water heater for heating the cooling medium before entering the air conditioning device, and the first sensor is arranged to send a first signal to the control unit, when the hatch is opened, wherein the control unit is arranged to switch on the water heater for heating the cooling medium.
A wave energy converter comprising: an energy absorption unit arranged to absorb energy generated by movements of water when the wave energy converter is arranged in a pool of water, an energy accumulation unit connected to the energy absorption unit, and a power generation unit connected to the energy absorption unit, wherein the energy absorption unit, the energy accumulation unit, and the power generation unit are arranged in a floating body, wherein the energy accumulation unit is arranged to accumulate energy from the energy absorption unit when the energy absorption unit absorbs more energy than the power generation unit generates and to dissipate energy to the power generation unit when the energy absorption unit absorbs less energy than the power generation unit generates, characterised in that the energy absorption unit comprises a hydraulic pump connected to means for converting vertical motion into a rotational motion, the energy accumulation unit comprises a first combined hydraulic pump and motor operably connected to a counterweight for converting vertical motion into a rotational motion, and the power generation unit comprises a hydraulic motor connectable to an electric generator, wherein the hydraulic pump, the first combined hydraulic pump and motor, and the hydraulic motor are connected to each other by means of a hydraulic conduit. an energy absorption unit arranged to absorb energy generated by movements of water when the wave energy converter is arranged in a pool of water, an energy accumulation unit connected to the energy absorption unit, and a power generation unit connected to the energy absorption unit, wherein the energy absorption unit, the energy accumulation unit, and the power generation unit are arranged in a floating body, wherein the energy accumulation unit is arranged to accumulate energy from the energy absorption unit when the energy absorption unit absorbs more energy than the power generation unit generates and to dissipate energy to the power generation unit when the energy absorption unit absorbs less energy than the power generation unit generates, characterised in that the energy absorption unit comprises a hydraulic pump connected to means for converting vertical motion into a rotational motion, the energy accumulation unit comprises a first combined hydraulic pump and motor operably connected to a counterweight for converting vertical motion into a rotational motion, and the power generation unit comprises a hydraulic motor connectable to an electric generator, wherein the hydraulic pump, the first combined hydraulic pump and motor, and the hydraulic motor are connected to each other by means of a hydraulic conduit.
A valve arrangement comprising a valve housing, a valve inlet, a valve outlet, and a diaphragm assembly for controlling a fluid flow through the valve housing from the valve inlet to the valve outlet, the diaphragm assembly comprising a diaphragm and a diaphragm plate at least partially covering the diaphragm, the diaphragm comprising one or more equalization holes passing through the diaphragm and the diaphragm plate comprising one or more equalization openings passing through the diaphragm plate, the equalization holes being aligned with the equalization openings, characterized in that the diaphragm comprises PTFE and, in order to rotationally fix the diaphragm and the diaphragm plate with respect to each other, the diaphragm assembly comprises an engagement zone engaging the diaphragm having one or more protrusions in form of a knurling or embossments or a washer ring having a plurality of teeth as protrusions engaging the diaphragm and the diaphragm plate, wherein the washer ring is seated on the diaphragm plate, the washer ring being interposed between the diaphragm plate and the diaphragm.
An aircraft rotor blade comprising a root portion having a through seat and designed for connection to the rotor; and a main portion extending from said root portion; said blade being produced by polymerizing an assembly comprising a main structure of composite material, and a composite material covering defining the outer surface of the blade; wherein at said root portion, said main structure comprises a contoured block; and a lamina member extending about at least part of said block, and having a first part adhering to a first peripheral portion of said block, and a second part spaced apart from and facing a second peripheral portion of the block to form said seat; said lamina member comprising a pre-preg of continuous unidirectional fibres; characterised in that said main structure further comprising a first and second hoop (35, 36) made of composite material and applied to opposite sides of said block and said lamina member; each of said first and second hoop (35, 36) comprising a main strip portion terminating at one end with an annular portion defining a through opening with an edge aligned with said lamina member to define said seat.
A game controlling apparatus comprising: a game controlling unit configured to control a game; a game player instruction receiving unit configured to receive an instruction from a game player and forward the instruction to the game controlling unit; a watching point setting unit configured to set a viewpoint for generating a watching screen for viewing the game, the watching screen being offered to a plurality of watching players different from the game player; and a watching player instruction aggregating unit configured to aggregate action execution instructions from a plurality of watching players in accordance with a predetermined algorithm, and transmits to the game controlling unit the aggregated instructions in the form of an action execution instruction representing all watching players, wherein the watching point setting unit is configured to set the viewpoint on an object in the game, wherein the watching point setting unit is configured to delete the viewpoint in accordance with the disappearance of the object and to force the watching players who were watching the game from the deleted viewpoint to change the viewpoint from the deleted viewpoint to another viewpoint, wherein the game controlling unit is configured to execute the action in accordance with the action execution instructions transmitted from the watching player instruction aggregating unit. a game controlling unit configured to control a game; a game player instruction receiving unit configured to receive an instruction from a game player and forward the instruction to the game controlling unit; a watching point setting unit configured to set a viewpoint for generating a watching screen for viewing the game, the watching screen being offered to a plurality of watching players different from the game player; and a watching player instruction aggregating unit configured to aggregate action execution instructions from a plurality of watching players in accordance with a predetermined algorithm, and transmits to the game controlling unit the aggregated instructions in the form of an action execution instruction representing all watching players, wherein the watching point setting unit is configured to set the viewpoint on an object in the game, wherein the watching point setting unit is configured to delete the viewpoint in accordance with the disappearance of the object and to force the watching players who were watching the game from the deleted viewpoint to change the viewpoint from the deleted viewpoint to another viewpoint, wherein the game controlling unit is configured to execute the action in accordance with the action execution instructions transmitted from the watching player instruction aggregating unit.
A machine (200, 300, 400, 500) for manufacturing a ribbon pouch, said pouch including a first sheet and a second sheet forming together a first edge and a second edge of the pouch, and a ribbon closing device, said machine comprising: - a device (210, 310, 410, 510) configured to bring a film onto the machine, - a conveying device (215, 315, 415, 515) configured to position at least one ribbon (136, 146) onto the film, - a folding device (240, 340, 440, 540) configured to fold the film so as to form the first sheet and the second sheet of the pouch, - welding jaws (245a-b, 345a-b, 445a-b, 545a-b) configured to weld the first sheet and the second sheet so as to close two sides of the pouch and leave a third side of the pouch open, characterised in that it further comprises: - a filler neck (250, 350, 450, 550) configured to fill the pouch through the third side of the pouch, and - in addition to first and second welding jaws configured to weld the first sheet and the second sheet so as to close two sides of the pouch, third welding jaws (255, 355, 455, 555) configured to close the pouch by sealing the third side, such that the machine is a pouch form-fill-seal machine. - a device (210, 310, 410, 510) configured to bring a film onto the machine, - a conveying device (215, 315, 415, 515) configured to position at least one ribbon (136, 146) onto the film, - a folding device (240, 340, 440, 540) configured to fold the film so as to form the first sheet and the second sheet of the pouch, - welding jaws (245a-b, 345a-b, 445a-b, 545a-b) configured to weld the first sheet and the second sheet so as to close two sides of the pouch and leave a third side of the pouch open, - a filler neck (250, 350, 450, 550) configured to fill the pouch through the third side of the pouch, and - in addition to first and second welding jaws configured to weld the first sheet and the second sheet so as to close two sides of the pouch, third welding jaws (255, 355, 455, 555) configured to close the pouch by sealing the third side, such that the machine is a pouch form-fill-seal machine.