mhurhangee/patent-ind-claim-en huggingface dataset:
Plant for handling cardboard reels for feeding tube-forming machines, comprising a reel pick-up station (P) configured to receive a stack of superimposed cardboard reels , a station (U) for unwinding the reels comprising at least an unwinding unit (UU) adapted to support the reels to be unwound in a position which favors their unwinding, in the unwinding station (U) being also provided splice means configured to splice a tail portion (TY) of a running out reel (1 Y) with a new reel to continuously unwind the reels progressively arranged in the unwinding station (U), and handling means (D) for moving the reels along a path comprised between the reel pick-up station (P) and the unwinding station (U), wherein it comprises a programmable control unit (CU) configured and programmed for controlling the reel pick-up means, the at least one unwinding unit and the splice means according to a continuous cycle wherein, while a reel is unwound on a relative support of said at least one unwinding unit, another reel is positioned on another support of the same unwinding unit and said supports are cyclically moved by respective mechanical moving means to occupy at least a predetermined loading position (W) and at least one different predetermined exhaustion position (Y), and wherein the splice means cyclically perform the splice of an end portion of a reel in the run-out phase with an initial portion of another reel arranged in the loading position, and characterized in that the means (D) for handling the reels comprise pneumatic means adapted to pressurize a space (S) inside the stack of reels, in which said space includes the interface between an uppermost reel of the stack and the underlying reel, and mechanical or pneumatic gripping means configured and controlled for gripping and respectively releasing the uppermost reel of the stack.
An aircraft evacuation system, comprising: an aircraft door, a door actuator , an inflatable slide or raft arranged to be released when the door opens in an emergency, and a gas distribution assembly system which provides gas to the door actuator for opening the aircraft door and to the slide or raft , the gas distribution assembly system comprising a single common gas supply and valve means for controlling distribution of gas from the common supply between the door actuator and the slide or raft based on the door opening position; wherein the valve means is configured to direct gas to flow from the gas supply to the door actuator to open the door in a first phase and to subsequently direct gas to flow from the gas supply to the slide or raft in a second phase, to inflate the slide or raft ; characterised in that the valve means directs gas to flow to the slide or raft in response to the door reaching a predetermined angle of opening. an aircraft door, a door actuator , an inflatable slide or raft arranged to be released when the door opens in an emergency, and a gas distribution assembly system which provides gas to the door actuator for opening the aircraft door and to the slide or raft , the gas distribution assembly system comprising a single common gas supply and valve means for controlling distribution of gas from the common supply between the door actuator and the slide or raft based on the door opening position; wherein the valve means is configured to direct gas to flow from the gas supply to the door actuator to open the door in a first phase and to subsequently direct gas to flow from the gas supply to the slide or raft in a second phase, to inflate the slide or raft ; characterised in that the valve means directs gas to flow to the slide or raft in response to the door reaching a predetermined angle of opening.
A method for the management of permanent presence states, the method comprising the following steps in a content server (CS): storing (S1) different permanent state documents (PSD) and a configuration document (CD), the permanent state documents having different names, the configuration document defining for each permanent state documents the name of the permanent state document, an URL of the permanent state document, and a period of validity of the permanent state document, and the configuration document being stored in correspondence with an identifier (IdP) of a presentity, receiving (S3) a fetch request for the configuration document (CD) from a presence server (PS), the fetch request containing an identifier (IdP) of the presentity, and sending the configuration document (CD) identified by means of the identifier (IdP) to the presence server (PS), receiving (S4), from the presence server (PS), a fetch request for at least one permanent state document (PSD) which is available for publication according to its period of validity, the request containing the name of the permanent state document, and sending said at least one permanent state document (PSD) identified by means of its name to the presence server (PS), wherein the exchanges between the content server (CS) and the presence server (PS) are based on the XML Configuration Access Protocol. storing (S1) different permanent state documents (PSD) and a configuration document (CD), the permanent state documents having different names, the configuration document defining for each permanent state documents the name of the permanent state document, an URL of the permanent state document, and a period of validity of the permanent state document, and the configuration document being stored in correspondence with an identifier (IdP) of a presentity, receiving (S3) a fetch request for the configuration document (CD) from a presence server (PS), the fetch request containing an identifier (IdP) of the presentity, and sending the configuration document (CD) identified by means of the identifier (IdP) to the presence server (PS), receiving (S4), from the presence server (PS), a fetch request for at least one permanent state document (PSD) which is available for publication according to its period of validity, the request containing the name of the permanent state document, and sending said at least one permanent state document (PSD) identified by means of its name to the presence server (PS), wherein the exchanges between the content server (CS) and the presence server (PS) are based on the XML Configuration Access Protocol.
A method for data storage, comprising: providing a memory , which comprises multiple blocks of memory cells and is configured to concurrently store first data using a first storage configuration having a first access time, and second data using a second storage configuration having a second access time, longer than the first access time, such that each memory cell in each of the blocks stores at least one bit of the first data and one or more bits of the second data; accepting data items for storage in the memory ; classifying the accepted data items into a fast-access class and a normal-access class; storing the data items in the fast-access class in the memory using the first storage configuration, and storing the data items in the normal-access class in the memory using the second storage configuration; characterised by tracking a respective frequency of read accesses of each of the stored data items in a particular block of the memory; selecting , based on the tracked frequencies of read accesses, the particular block to serve as a source block for a compaction process; copying data items in the source block with tracked frequencies of read accesses above a particular threshold to a target block using the first storage configuration; and copying data items in the source blocks with tracked frequencies of read accesses below the particular threshold to the target block using the second storage configuration. providing a memory , which comprises multiple blocks of memory cells and is configured to concurrently store first data using a first storage configuration having a first access time, and second data using a second storage configuration having a second access time, longer than the first access time, such that each memory cell in each of the blocks stores at least one bit of the first data and one or more bits of the second data; accepting data items for storage in the memory ; classifying the accepted data items into a fast-access class and a normal-access class; storing the data items in the fast-access class in the memory using the first storage configuration, and storing the data items in the normal-access class in the memory using the second storage configuration; characterised by tracking a respective frequency of read accesses of each of the stored data items in a particular block of the memory; selecting , based on the tracked frequencies of read accesses, the particular block to serve as a source block for a compaction process; copying data items in the source block with tracked frequencies of read accesses above a particular threshold to a target block using the first storage configuration; and copying data items in the source blocks with tracked frequencies of read accesses below the particular threshold to the target block using the second storage configuration.
Method for controlling a three-phase converter arrangement connected to a transmission grid, which converter arrangement comprises three phase legs and an energy transfer circuit , each phase leg comprising a plurality of switching cells (11A-n, 21A-n, 31A-n) arranged in series, each switching cell (nA-n, 21A-n, 31A-n) comprises an energy storage element (12A-n, 22A-n, 32A-n) being selectively connectable to the respective phase leg , the energy transfer circuit comprising at least one energy storage element being selectively connectable to each one of the phase legs , the method comprises providing a varying respective output phase (A, B, C) voltage to the transmission grid by selecting energy storage elements (12A-n, 21A-n, 31A-n, 44) and connecting the selected energy storage elements (12A-n, 21A-n, 31A-n, 44) to the output for a number of successive control periods on the basis of a voltage reference signal, wherein the selecting being performed for each control period to provide an adjustment of the output phase (A, B, C) voltages for each control period, and the selecting for each phase (A, B, C) voltage being made among the energy storage elements (12A-n, 21A-n, 31A-n) of the corresponding phase leg and the at least one energy storage element of the energy transfer circuit , the method being characterised in further comprising selecting energy storage elements (12A-n, 21A-n, 31A-n, 44) for performing a transfer of energy in each phase leg between the energy storage elements (12A-n, 21A-n, 31A-n, 44) during the control period, the selection for performing the energy transfer being made for each phase leg among the energy storage elements (12A-n, 21A-n, 31An, 44) of that phase leg and of the energy transfer circuit , and connecting the energy storage elements (12A-n, 21A-n, 31A-n, 44) selected for providing an adjustment of the phase voltages, and the energy storage elements (12A-n, 21A-n, 31A-n, 44) selected for performing a transfer of energy, to the output .
A storage device comprising: a non-volatile memory including a plurality of memory blocks (BLK1-BLKz) each including a plurality of word lines (WL1, WL2); characterised by a memory controller configured to determine a word line strength (STR) of each of the plurality of word lines, adjust a state count of each of the plurality of word lines based on the word line strengths, and adjust a program parameter of each of the plurality of word lines to decrease a program time variation (ΔtPGM) between the plurality of word lines, wherein the memory controller is configured to adjust the state count of each of the plurality of word lines so that a state count allocated to a first word line, which has a first word line strength, is more than a state count allocated to a second word line, which has a second word line strength that is lower than the first word line strength, and wherein the strength of each word line is calculated on the basis of a program parameter and state metrics. a non-volatile memory including a plurality of memory blocks (BLK1-BLKz) each including a plurality of word lines (WL1, WL2); characterised by a memory controller configured to determine a word line strength (STR) of each of the plurality of word lines, adjust a state count of each of the plurality of word lines based on the word line strengths, and adjust a program parameter of each of the plurality of word lines to decrease a program time variation (ΔtPGM) between the plurality of word lines, wherein the memory controller is configured to adjust the state count of each of the plurality of word lines so that a state count allocated to a first word line, which has a first word line strength, is more than a state count allocated to a second word line, which has a second word line strength that is lower than the first word line strength, and wherein the strength of each word line is calculated on the basis of a program parameter and state metrics.
A system for determining a health status of a positive temperature coefficient resistor (PTCR) heater assembly , the system comprising: a PTCR heater assembly , wherein an input voltage is provided to the PTCR heater assembly to provide heating; and a health monitoring system comprising: a first sensor configured to sense the input voltage at the PTCR heater assembly ; and a second sensor configured to sense a current through the PTCR heater assembly ; wherein the health monitoring system outputs the health status for PTCR heater assembly diagnostics and/or prognostics, characterized in that the health monitoring system is configured to determine a baseline characteristic and an observed characteristic each relating to an inrush peak of the PTCR heater assembly and based on the input voltage and the current; and in that the health monitoring system compares the observed characteristic to the baseline characteristic to assess a health status of the PTCR heater assembly . a PTCR heater assembly , wherein an input voltage is provided to the PTCR heater assembly to provide heating; and a health monitoring system comprising: a first sensor configured to sense the input voltage at the PTCR heater assembly ; and a second sensor configured to sense a current through the PTCR heater assembly ; a first sensor configured to sense the input voltage at the PTCR heater assembly ; and a second sensor configured to sense a current through the PTCR heater assembly ; wherein the health monitoring system outputs the health status for PTCR heater assembly diagnostics and/or prognostics, characteristic and an observed characteristic each relating to an inrush peak of the PTCR heater assembly and based on the input voltage and the current; and in that the health monitoring system compares the observed characteristic to the baseline characteristic to assess a health status of the PTCR heater assembly .
A base plate for an ostomy appliance , the base plate comprising: - a top layer defining a base plate plane; - a first adhesive layer adapted to adhere the base plate to peristomal skin of a user; - an electrode assembly ; and - a monitor interface configured to electronically connect with the electrode assembly , characterised in that the monitor interface comprises a coupling part configured to form a releasably mechanically and/or electronically coupling between the base plate and a monitor device ; wherein the coupling part is configured to engage and/or disengage with the monitor device allowing the monitor device to be coupled to the base plate by a motion in a direction corresponding to an acute angle of 45 degrees or less relative to the base plate plane. - a top layer defining a base plate plane; - a first adhesive layer adapted to adhere the base plate to peristomal skin of a user; - an electrode assembly ; and - a monitor interface configured to electronically connect with the electrode assembly , characterised in that the monitor interface comprises a coupling part configured to form a releasably mechanically and/or electronically coupling between the base plate and a monitor device ; wherein the coupling part is configured to engage and/or disengage with the monitor device allowing the monitor device to be coupled to the base plate by a motion in a direction corresponding to an acute angle of 45 degrees or less relative to the base plate plane.
A solid base catalyst comprising: (a) an organic base (b) an inorganic base; and (c) a carrier, wherein the organic base is polymerized with the carrier to produce a carrier-containing organic base, and the inorganic base serves to regenerate the organic base catalyst. (a) an organic base (b) an inorganic base; and (c) a carrier,
A method for operating a person lifting device , the method comprising: detecting, with a first coupling detector , an identification of a first accessory coupling attached to a first lifting hook of a sling bar of the person lifting device; determining, automatically with an electronic control unit communicatively coupled to the first coupling detector, a type of the first accessory coupling based on the identification of the first accessory coupling; detecting, with the first coupling detector, an identification of a second accessory coupling attached to the first lifting hook of the sling bar of the person lifting device; determining, automatically with the electronic control unit communicatively coupled to the first coupling detector, a type of the second accessory coupling based on the identification of the second accessory coupling; comparing, with the electronic control unit communicatively coupled to the first coupling detector, the type of the first accessory coupling and the type of the second accessory coupling; and communicating, automatically with the electronic control unit, a warning signal when the type of the first accessory coupling and the type of the second accessory coupling are different. detecting, with a first coupling detector , an identification of a first accessory coupling attached to a first lifting hook of a sling bar of the person lifting device; determining, automatically with an electronic control unit communicatively coupled to the first coupling detector, a type of the first accessory coupling based on the identification of the first accessory coupling; detecting, with the first coupling detector, an identification of a second accessory coupling attached to the first lifting hook of the sling bar of the person lifting device; determining, automatically with the electronic control unit communicatively coupled to the first coupling detector, a type of the second accessory coupling based on the identification of the second accessory coupling; comparing, with the electronic control unit communicatively coupled to the first coupling detector, the type of the first accessory coupling and the type of the second accessory coupling; and communicating, automatically with the electronic control unit, a warning signal when the type of the first accessory coupling and the type of the second accessory coupling are different.
A continuous fiber reinforced composite comprising: a thermoplastic resin; fibers which are at least one selected from the group consisting of glass fibers, basalt fibers, carbon fibers, aramid fibers, and a combination thereof; and metal wires; characterised in that the wires comprise carbon nanotube (CNT) wires or tire cords and an average diameter of the wires ranges from 300 μ m to 500 μ m. a thermoplastic resin; fibers which are at least one selected from the group consisting of glass fibers, basalt fibers, carbon fibers, aramid fibers, and a combination thereof; and metal wires; characterised in that the wires comprise carbon nanotube (CNT) wires or tire cords and an average diameter of the wires ranges from 300 μ m to 500 μ m.
A device comprising: a power storage device ; an electrical load ; a first circuit configured to generate, during a first time period and using electrical energy received from a power source external to the device, a first power signal to charge the power storage device ; and characterised in that the device further comprises: a second circuit configured to: determine a charging current at which to charge the power storage device ; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load ; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current. a power storage device ; an electrical load ; a first circuit configured to generate, during a first time period and using electrical energy received from a power source external to the device, a first power signal to charge the power storage device ; and characterised in that the device further comprises: a second circuit configured to: determine a charging current at which to charge the power storage device ; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load ; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current. determine a charging current at which to charge the power storage device ; determine a total amount of current flowing to the power storage device that includes current sourced by the second circuit less current sinked by the electrical load ; and generate, during a second time period that is non-overlapping with the first time period, using electrical energy received from the power source and based on the determined total amount of current, a second power signal to charge the power storage device at the determined charging current.