mhurhangee/patent-ind-claim-en huggingface dataset:
An electrochemical device, comprising a cathode, a separator and an anode, wherein the cathode comprises: a cathode current collector ; a first cathode active material layer comprising a first cathode active material; a second cathode active material layer comprising a second cathode active material, wherein the first cathode active material layer is disposed between the cathode current collector and the second cathode active material layer , and the first cathode active material layer is disposed on a first surface, facing an anode active material layer of the anode, of the cathode current collector ; and an insulating layer , wherein the insulating layer is disposed on a second surface, that is not facing the anode active material layer of the anode, of the cathode current collector , characterized in that : an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region . a cathode current collector ; a first cathode active material layer comprising a first cathode active material; a second cathode active material layer comprising a second cathode active material, wherein the first cathode active material layer is disposed between the cathode current collector and the second cathode active material layer , and the first cathode active material layer is disposed on a first surface, facing an anode active material layer of the anode, of the cathode current collector ; and an insulating layer , wherein the insulating layer is disposed on a second surface, that is not facing the anode active material layer of the anode, of the cathode current collector , characterized in that : an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region . an electrode assembly of the electrochemical device is of a wound structure, and the second surface comprises a first uncovered foil region located outside the electrode assembly and having the first surface as its opposite surface, wherein the insulating layer is disposed at least on the first uncovered foil region .
A communication method, comprising: detecting , by an access point, an interference-type access terminal connection failure associated with mobility between a source access point and a target access point sharing a communication medium, the access point being one of the source access point and the target access point; adapting , by the access point based on the detected connection failure, a backoff threshold for use by the access point and associated with contention-based access to the communication medium, the backoff threshold being adapted so as to increase a likelihood of the source access point yielding the communication medium to the target access point; and contending , by the access point, for access to the communication medium in accordance with the adapted backoff threshold, wherein the adapting comprises switching a Listen Before Talk "LBT" mode from a first detection mechanism having a first backoff threshold to a second detection mechanism having a second backoff threshold that is lower than the first backoff threshold, and wherein the first detection mechanism corresponds to a Clear Channel Assessment "CCA" Energy Detection "CCA-ED" mechanism and the second detection mechanism corresponds to a CCA Preamble Detection "CCA-PD" mechanism. detecting , by an access point, an interference-type access terminal connection failure associated with mobility between a source access point and a target access point sharing a communication medium, the access point being one of the source access point and the target access point; adapting , by the access point based on the detected connection failure, a backoff threshold for use by the access point and associated with contention-based access to the communication medium, the backoff threshold being adapted so as to increase a likelihood of the source access point yielding the communication medium to the target access point; and contending , by the access point, for access to the communication medium in accordance with the adapted backoff threshold, the adapting comprises switching a Listen Before Talk "LBT" mode from a first detection mechanism having a first backoff threshold to a second detection mechanism having a second backoff threshold that is lower than the first backoff threshold, and wherein the first detection mechanism corresponds to a Clear Channel Assessment "CCA" Energy Detection "CCA-ED" mechanism and the second detection mechanism corresponds to a CCA Preamble Detection "CCA-PD" mechanism.
A slam-shut mechanism for operatively connecting a slam-shut control element of a fluid regulator with a controller for the slam-shut control element, the slam-shut mechanism comprising: a shaft ; a cam carried by the shaft, the cam having a cam surface adapted to be operatively connected to the slam-shut control element; a latching pin carried by the shaft; a latch ; and a lever operably connected to the latch, the lever adapted to be selectively engaged by the controller, wherein responsive to the controller engaging the lever, the latch is movable from a first position, in which the latch securely retains the latching pin, such that the cam surface is arranged to retain the slam-shut control element in a fully open position, to a second position, in which the latching pin is released from the latch, thereby allowing the slam-shut control element to move from the fully open position to a closed position. a shaft ; a cam carried by the shaft, the cam having a cam surface adapted to be operatively connected to the slam-shut control element; a latching pin carried by the shaft; a latch ; and a lever operably connected to the latch, the lever adapted to be selectively engaged by the controller, wherein responsive to the controller engaging the lever, the latch is movable from a first position, in which the latch securely retains the latching pin, such that the cam surface is arranged to retain the slam-shut control element in a fully open position, to a second position, in which the latching pin is released from the latch, thereby allowing the slam-shut control element to move from the fully open position to a closed position.
A method for manufacturing an aerogel blanket, the method comprising: 1) introducing a catalyzed sol and a substrate for a blanket into a reaction vessel to impregnate the catalyzed sol into the substrate for a blanket; and 2) rotating the substrate for a blanket into which the catalyzed sol is impregnated to perform gelation. 1) introducing a catalyzed sol and a substrate for a blanket into a reaction vessel to impregnate the catalyzed sol into the substrate for a blanket; and 2) rotating the substrate for a blanket into which the catalyzed sol is impregnated to perform gelation.
A system comprising: error measurement and control circuitry configured to receive a first signal comprising a beat tone and a carrier envelope offset corresponding to an optical frequency comb and a second signal comprising the carrier envelope offset and provide a fast repetition rate control, a slow repetition rate control, a fast carrier envelope control, and a slow carrier envelope control for locking an optical frequency comb, wherein the error measurement and control circuit includes: comb error measurement circuitry configured to receive the first and second signal, and to provide a beat tone error and a carrier envelope offset error; repetition rate control circuitry configured to receive the beat tone error signal and to provide a fast repetition rate control and a slow repetition rate control for locking the beat tone of the optical frequency comb; and carrier envelope offset control circuitry configured to receive a carrier envelope offset error and to provide a fast envelope offset control and a slow envelope offset control for locking the carrier envelope offset of the optical frequency comb. comb error measurement circuitry configured to receive the first and second signal, and to provide a beat tone error and a carrier envelope offset error; repetition rate control circuitry configured to receive the beat tone error signal and to provide a fast repetition rate control and a slow repetition rate control for locking the beat tone of the optical frequency comb; and carrier envelope offset control circuitry configured to receive a carrier envelope offset error and to provide a fast envelope offset control and a slow envelope offset control for locking the carrier envelope offset of the optical frequency comb.
A method for detecting pancreatic exocrine dysfunction, the method comprising measuring in vitro the amount of APOA2-ATQ protein (Apolipoprotein A2-ATQ) or APOA2-AT protein (Apolipoprotein A2-AT) present in body fluid of a test subject, and determining the presence or absence of pancreatic exocrine dysfunction on the basis of the measured amount, wherein, when the amount of the APOA2-ATQ protein in the test subject is smaller than that in normal subjects, the test subject is evaluated to have a pancreas affected by disturbance of pancreatic juice flow, wherein, when the amount of the APOA2-ATQ protein in the test subject is equal to or more than that in the normal subjects and the amount of the APOA2-AT protein in the test subject is smaller than that in the normal subjects, the test subject is evaluated to have a pancreas affected by insufficient production of pancreatic juice.
A method of processing instructions and data, comprising: specifying a predetermined range of memory addresses for a set of instructions and data of a program per program; analyzing an instruction or data to determine whether an error correction countermeasure should be used in association with the instruction or data; and disabling the use of the error correction countermeasure based on the determination so that if the error correction countermeasure is disabled, then the error of the instruction or data will not be corrected by the error correction countermeasure; wherein the determination of whether the error correction countermeasure should be used comprises checking whether a memory address specified by the instruction or data of a program is within the predetermined range of memory addresses. specifying a predetermined range of memory addresses for a set of instructions and data of a program per program; analyzing an instruction or data to determine whether an error correction countermeasure should be used in association with the instruction or data; and disabling the use of the error correction countermeasure based on the determination so that if the error correction countermeasure is disabled, then the error of the instruction or data will not be corrected by the error correction countermeasure; wherein the determination of whether the error correction countermeasure should be used comprises checking whether a memory address specified by the instruction or data of a program is within the predetermined range of memory addresses.
A method of forming a 3-D printed hydraulically bonded casting shell, the method comprising: forming at least one core casting shell by intermittently applying in a step-wise manner, a layer of a powder component comprising in part at least 25 percent by weight of a calcium aluminate cement in a predetermined area, and a volume of a liquid component comprising at least 50 percent by weight of a distilled water over the top of the powder component in a predetermined location; and hardening the at least one core casting shell to form an at least one solid core casting shell comprising a plurality of hydraulic bonds at a location of overlap between the powder component and liquid component, wherein the solid core casting shell has an exterior surface that corresponds to a shape of a void in an object to be cast; and wherein the 3-D printed shell is formed from refractory materials of varying hydraulic bond strength. forming at least one core casting shell by intermittently applying in a step-wise manner, a layer of a powder component comprising in part at least 25 percent by weight of a calcium aluminate cement in a predetermined area, and a volume of a liquid component comprising at least 50 percent by weight of a distilled water over the top of the powder component in a predetermined location; and hardening the at least one core casting shell to form an at least one solid core casting shell comprising a plurality of hydraulic bonds at a location of overlap between the powder component and liquid component, wherein the solid core casting shell has an exterior surface that corresponds to a shape of a void in an object to be cast; and wherein the 3-D printed shell is formed from refractory materials of varying hydraulic bond strength.
Machine for preparing an infusion beverage, comprising: • a machine body ; • a filter holder removably constrained to the machine body , comprising a seat for at least one ingredient , preferably powdered, for preparing a beverage; • a piston constrained to the machine body ; wherein said machine comprises a motor (M, M') adapted to relatively move said filter holder and said piston between one another, so that to couple said piston with said seat for, during use, defining an infusion chamber and compressing said at least one ingredient in said seat , wherein said machine further comprises a control unit configured so that to receive from an operator, directly or indirectly, a desired pressure value to be applied to said at least one ingredient , and to relatively move said piston and said filter holder between one another until said pressure value is reached, characterised in that said control unit is configured to move said piston and said filter holder between one another depending on, in addition to the desired pressure received from an operator, environmental or infusion parameters, comprising at least one between: • the temperature outside of the machine • the humidity outside of the machine • the particle size of the at least one ingredient. • a machine body ; • a filter holder removably constrained to the machine body , comprising a seat for at least one ingredient , preferably powdered, for preparing a beverage; • a piston constrained to the machine body ; • the temperature outside of the machine • the humidity outside of the machine • the particle size of the at least one ingredient.
A method for communication, comprising: monitoring communication resources in a communication system; determining a set of candidate resources to use for subsequent transmission of information within a time window such that the time window is minimized based on a communication latency parameter that considers at least one or more of communication channel congestion and a priority of the intended transmission; determining a set of lowest energy resources from the set of candidate resources; selecting a low energy resource from the set of lowest energy resources; and transmitting data on the selected low energy resource. monitoring communication resources in a communication system; determining a set of candidate resources to use for subsequent transmission of information within a time window such that the time window is minimized based on a communication latency parameter that considers at least one or more of communication channel congestion and a priority of the intended transmission; determining a set of lowest energy resources from the set of candidate resources; selecting a low energy resource from the set of lowest energy resources; and transmitting data on the selected low energy resource.
A single-phase electronically commutated motor with a motor rotor and with a laminated stator body comprising at least one set (23 1 -23 6 ) of ferromagnetic lamination sheets positively connected to each other by axial punch protrusions wherein the lamination sheet set (23 1 -23 6 ) defines a plurality of pole teeth (24 1 -24 6 ) with pole shoes , the pole teeth (24 1 -24 6 ) being provided with a plurality of stator coils , wherein the rotor-facing pole shoe edge is shaped asymmetrically with respect to a radial pole tooth centerline (M), so that the rotor-facing pole shoe edge defines a non-constant air gap between the stator pole shoe and the motor rotor with respect to a circumferential direction of the motor rotor , wherein for each stator pole tooth (24 1 -24 6 ) one axial punch protrusion of the axial punch protrusions is radially arranged close to the rotor-facing pole shoe edge so that the distance between the punch protrusion edge and the rotor-facing pole shoe edge (D1) is less than the distance between the punch protrusion edge and any other lamination sheet edge (D2). wherein the lamination sheet set (23 1 -23 6 ) defines a plurality of pole teeth (24 1 -24 6 ) with pole shoes , the pole teeth (24 1 -24 6 ) being provided with a plurality of stator coils , wherein the rotor-facing pole shoe edge is shaped asymmetrically with respect to a radial pole tooth centerline (M), so that the rotor-facing pole shoe edge defines a non-constant air gap between the stator pole shoe and the motor rotor with respect to a circumferential direction of the motor rotor , wherein for each stator pole tooth (24 1 -24 6 ) one axial punch protrusion of the axial punch protrusions is radially arranged close to the rotor-facing pole shoe edge so that the distance between the punch protrusion edge and the rotor-facing pole shoe edge (D1) is less than the distance between the punch protrusion edge and any other lamination sheet edge (D2).
An accelerometer system comprising: a proof mass ; a pole piece , wherein the pole piece is connected to the proof mass; a coil disposed around the pole piece, wherein the coil is connected to the proof mass, wherein the coil is rectangular in shape, and wherein a cross-section of the pole piece is rectangular such that the pole piece fits through a rectangular-shaped opening of the coil; a non-moving member , wherein within a magnetic flux loop, a magnetic flux travels from the pole piece through the coil to the non-moving member, wherein the pole piece and non-moving member are configured such that the magnetic field in a first area extending away from a first side of first pole piece is uniform in magnitude, the magnetic field in a second area extending away from a second side of first pole piece is uniform in magnitude, the magnetic field in a third area extending away from a third side of first pole piece is uniform in magnitude, and the magnetic field in a fourth area extending away from a fourth side of first pole piece is uniform in magnitude; and circuitry configured to: deliver an electrical signal to the coil in order to maintain the proof mass at a null position ; determine an electrical current value corresponding to the electrical signal ; and identify, based on the electrical current value , an acceleration of the accelerometer system. a proof mass ; a pole piece , wherein the pole piece is connected to the proof mass; a coil disposed around the pole piece, wherein the coil is connected to the proof mass, wherein the coil is rectangular in shape, and wherein a cross-section of the pole piece is rectangular such that the pole piece fits through a rectangular-shaped opening of the coil; a non-moving member , wherein within a magnetic flux loop, a magnetic flux travels from the pole piece through the coil to the non-moving member, wherein the pole piece and non-moving member are configured such that the magnetic field in a first area extending away from a first side of first pole piece is uniform in magnitude, the magnetic field in a second area extending away from a second side of first pole piece is uniform in magnitude, the magnetic field in a third area extending away from a third side of first pole piece is uniform in magnitude, and the magnetic field in a fourth area extending away from a fourth side of first pole piece is uniform in magnitude; and circuitry configured to: deliver an electrical signal to the coil in order to maintain the proof mass at a null position ; determine an electrical current value corresponding to the electrical signal ; and identify, based on the electrical current value , an acceleration of the accelerometer system. deliver an electrical signal to the coil in order to maintain the proof mass at a null position ; determine an electrical current value corresponding to the electrical signal ; and identify, based on the electrical current value , an acceleration of the accelerometer system.
A coupler device for interfacing between a driveshaft (12-2-1) of a biopsy driver and a drive portion (14-1) of an intraosseous device , comprising: a drive body having a longitudinal axis and a distal drive receptacle (18-1), the drive body being rotatable around the longitudinal axis, the distal drive receptacle (18-1) is configured to drivably couple to the drive portion of the intraosseous device ; a distal latch member coupled to the drive body ; and a distal coupler portion coupled to the drive body and configured to operate the distal latch member , the distal coupler portion being associated with the distal drive receptacle (18-1), the distal latch member configured to latch the drive body to the intraosseous device when the distal coupler portion is in a distal coupler latch position , characterised by the distal coupler portion having a distal housing portion that is movable in either of a distal direction or a proximal direction, the distal coupler portion configured to have a distal release position and a proximal release position , wherein the distal housing portion is configured to move in the distal direction to move the distal coupler portion to the distal release position to operate the distal latch member . a drive body having a longitudinal axis and a distal drive receptacle (18-1), the drive body being rotatable around the longitudinal axis, the distal drive receptacle (18-1) is configured to drivably couple to the drive portion of the intraosseous device ; a distal latch member coupled to the drive body ; and a distal coupler portion coupled to the drive body and configured to operate the distal latch member , the distal coupler portion being associated with the distal drive receptacle (18-1), the distal latch member configured to latch the drive body to the intraosseous device when the distal coupler portion is in a distal coupler latch position , characterised by the distal coupler portion having a distal housing portion that is movable in either of a distal direction or a proximal direction, the distal coupler portion configured to have a distal release position and a proximal release position , wherein the distal housing portion is configured to move in the distal direction to move the distal coupler portion to the distal release position to operate the distal latch member .
Selection method, for selecting a low-power wide-area network (N j ) from a plurality of low-power wide-area networks (N 1 , N n ), said method being implemented by an end device or connected object declared to the networks (N 1 , N n ) and comprising a table (TP) capable of storing at least two profiles (PROF 100 , N1 , PROF 100 , Nj ), each of said profiles (PROF 100 , Nj ) corresponding to one (N j ) of said networks (N 1 , N n ), said method comprising: - a step (E30) of selecting a profile (PROF 100 , Nj ) from said table (TP); and - a step (E40) of connecting to the network (N j ) corresponding to said profile (PROF 100 , Nj ) using said profile (PROF 100, Nj ). - a step (E30) of selecting a profile (PROF 100 , Nj ) from said table (TP); and - a step (E40) of connecting to the network (N j ) corresponding to said profile (PROF 100 , Nj ) using said profile (PROF 100, Nj ).