mhurhangee/ep-ind-claims huggingface dataset:
An ambulation simulating apparatus, comprising: a user feet interface; a dynamic inertia mechanism; and a kinematic connection configured to enable transmission of motion between the dynamic inertia mechanism and the user feet interface; wherein the dynamic inertia mechanism is configured to: in response to an active motion of a leg of a user on the user feet interface, rotate to store kinetic energy and provide an inertial load; and via the kinematic connection and the user interface, release the stored kinetic energy associated with the inertial load thereby counteracting acceleration or deceleration of a leg of the user during each phase of an ambulatory cycle. a user feet interface; a dynamic inertia mechanism; and a kinematic connection configured to enable transmission of motion between the dynamic inertia mechanism and the user feet interface; wherein the dynamic inertia mechanism is configured to: in response to an active motion of a leg of a user on the user feet interface, rotate to store kinetic energy and provide an inertial load; and via the kinematic connection and the user interface, release the stored kinetic energy associated with the inertial load thereby counteracting acceleration or deceleration of a leg of the user during each phase of an ambulatory cycle. in response to an active motion of a leg of a user on the user feet interface, rotate to store kinetic energy and provide an inertial load; and via the kinematic connection and the user interface, release the stored kinetic energy associated with the inertial load thereby counteracting acceleration or deceleration of a leg of the user during each phase of an ambulatory cycle.
A magnetic flowmeter for measuring flow of a flow of process fluid, comprising: a flow tube arranged to receive the flow of process fluid therethrough; a magnetic drive coil proximate to the flow tube arranged to apply a magnetic field in the flow tube in response to a drive signal; at least one electrode arranged to sense an electromotive force of the process fluid related to the applied magnetic field and flow velocity of the process fluid; a temperature sensing circuitry coupled to the magnetic drive coil configured to provide a temperature output indicative of the temperature of the drive coil based upon an electrical parameter of the drive coil, wherein the electrical parameter is the electrical inductance of the drive coil; and a flow measurement circuitry coupled to the at least one electrode configured to provide a mass flow output based upon the sensed electromotive force of the at least one electrode and said temperature output. a flow tube arranged to receive the flow of process fluid therethrough; a magnetic drive coil proximate to the flow tube arranged to apply a magnetic field in the flow tube in response to a drive signal; at least one electrode arranged to sense an electromotive force of the process fluid related to the applied magnetic field and flow velocity of the process fluid; a temperature sensing circuitry coupled to the magnetic drive coil configured to provide a temperature output indicative of the temperature of the drive coil based upon an electrical parameter of the drive coil, wherein the electrical parameter is the electrical inductance of the drive coil; and a flow measurement circuitry coupled to the at least one electrode configured to provide a mass flow output based upon the sensed electromotive force of the at least one electrode and said temperature output.
An oxygen-absorbing resin composition comprising an oxygen absorber containing iron powder and a metal halide and an olefin-based resin, characterized in that the oxygen-absorbing resin composition contains aluminum and a content of the aluminum is 50 ppm by mass or less.
A method for wireless communications by a user equipment UE, comprising: identifying, within a subframe, a first search space to monitor for a downlink control channel that occupies a first number of physical resource blocks PRBs that represents a narrowband size of a system bandwidth; and monitoring at least the first search space for the downlink control channel transmitted in the subframe; characterised in that the first number of PRBs is greater than a second number of PRBs occupied by a second search space for the downlink control channel and is also greater than a third number of PRBs occupied by a third search space for the downlink control channel. identifying, within a subframe, a first search space to monitor for a downlink control channel that occupies a first number of physical resource blocks PRBs that represents a narrowband size of a system bandwidth; and monitoring at least the first search space for the downlink control channel transmitted in the subframe; characterised in that the first number of PRBs is greater than a second number of PRBs occupied by a second search space for the downlink control channel and is also greater than a third number of PRBs occupied by a third search space for the downlink control channel.
A method performed by a new controller for establishing a relay pairing for the new controller to control one or more accessories controlled by a first controller, via a relay service comprising: receiving, from the first controller, a request for consent to add the new controller to control the one or more accessories; determining whether consent is to be granted; obtaining an operator relay alias; transmitting, to an identity server of the relay service, a request for a consent token using the operator relay alias; receiving, from the identity server, the consent token; transmitting, to the first controller, a first message that includes the consent token; and receiving, from the first controller, a second message that includes one or more access tokens associated with respective relay aliases of the one or more accessories. receiving, from the first controller, a request for consent to add the new controller to control the one or more accessories; determining whether consent is to be granted; obtaining an operator relay alias; transmitting, to an identity server of the relay service, a request for a consent token using the operator relay alias; receiving, from the identity server, the consent token; transmitting, to the first controller, a first message that includes the consent token; and receiving, from the first controller, a second message that includes one or more access tokens associated with respective relay aliases of the one or more accessories.
A curved composite sandwich panel for a side wall or seat having a curved portion of a vehicle, comprising: a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer; and a second layer adjacent the resistance heater, the resistance heater being positioned between the first layer and the second layer, and the second layer being made from an electrically non-conductive material, wherein the resistance heater comprises a first ink layer printed onto the first layer and a second ink layer printed onto the first ink layer, the first ink layer being made from a first ink and the second ink layer being made from a second ink different than the first ink, wherein the first ink comprises an electrically conductive ink and the second ink comprises a switching-type positive temperature coefficient ink. a first layer made from an electrically non-conductive material; a resistance heater printed onto the first layer; and a second layer adjacent the resistance heater, the resistance heater being positioned between the first layer and the second layer, and the second layer being made from an electrically non-conductive material, wherein the resistance heater comprises a first ink layer printed onto the first layer and a second ink layer printed onto the first ink layer, the first ink layer being made from a first ink and the second ink layer being made from a second ink different than the first ink, wherein the first ink comprises an electrically conductive ink and the second ink comprises a switching-type positive temperature coefficient ink.
Sealing tape for sealing a joint, having two longitudinally running side flanks, wherein a direction transverse to the side flanks defines a functional direction of the sealing tape, wherein the sealing tape has at least one first foam strip and one second foam strip made of a flexible foam which is capable of recovery following compression, said strips not being formed in one piece with one another and being arranged one beside the other in a functional direction of the sealing tape, wherein each foam strip (114, 116) has an upper side (118, 124), an underside (120, 126) and an inner side flank (122, 128), which is directed towards the other foam strip (114, 116), and wherein the sealing tape has a first film strip, which is arranged between the first foam strip and the second foam strip such that it reduces vapour-diffusion permeability of the sealing tape in the functional direction, wherein the first film strip is adhesively bonded to the first foam strip, characterized in that a second film strip is provided, said second film strip being adhesively bonded to the second foam strip, the first film strip is adhesively bonded to the second film strip, and adhesion sites between the first film strip and the second film strip are arranged merely in a region in the vicinity of the upper side of the first foam strip and in a region in the vicinity of the underside of the first foam strip, whereas the first film strip and the second film strip are not adhesively bonded to one another in an intermediate region between the adhesion sites.
A method for detecting damage to one or more mobile blades constituting an impeller of an aircraft engine, the method comprising measurement of the engine speed, and the following steps for each blade: a) acquiring, by a plurality of distinct and spatially separated sensors, measurements relating to the blade tip passage time in line with each sensor; and b) calculating, for each sensor, a deflection at the blade tip based on the measurements of the sensor and the engine speed; characterized in that the method also comprises the following steps: c) extracting a dynamic deflection component for each of the calculated deflections; d) detecting the number of operating sensors; e) selecting (SL1, SL2) the dynamic components to be processed depending on the number of operating sensors detected in step d); f) determining, for at least one blade, a variation of the dynamic behavior of the blade for each operating sensor based on the corresponding dynamic component; and, g) for each blade for which a variation of dynamic behavior has been determined, identifying damage to the blade when the variation of dynamic behavior determined for this blade is greater than or equal to a variation threshold defining a damage threshold of the blade. a) acquiring, by a plurality of distinct and spatially separated sensors, measurements relating to the blade tip passage time in line with each sensor; and b) calculating, for each sensor, a deflection at the blade tip based on the measurements of the sensor and the engine speed; c) extracting a dynamic deflection component for each of the calculated deflections; d) detecting the number of operating sensors; e) selecting (SL1, SL2) the dynamic components to be processed depending on the number of operating sensors detected in step d); f) determining, for at least one blade, a variation of the dynamic behavior of the blade for each operating sensor based on the corresponding dynamic component; and, g) for each blade for which a variation of dynamic behavior has been determined, identifying damage to the blade when the variation of dynamic behavior determined for this blade is greater than or equal to a variation threshold defining a damage threshold of the blade.
A wireless energy transfer system comprising: an energy transmitter comprising a transmitter-impedance matching network, the transmitter configured to perform operations comprising: performing a first comparison between a characteristic of a power of the transmitter and a target power; and adjusting, based on the first comparison, a reactance of the transmitter-IMN to adjust the power of the transmitter; and an energy receiver comprising a receiver-IMN, the receiver-IMN configured to perform operations comprising; determining an efficiency of the wireless energy transfer system at a second time based on power data from the transmitter; performing a second comparison between the efficiency at the second time and an efficiency of the wireless energy transfer system at a first time, the first time being prior to the second time; and adjusting, based on the second comparison, a reactance of the receiver-IMN. an energy transmitter comprising a transmitter-impedance matching network, the transmitter configured to perform operations comprising: performing a first comparison between a characteristic of a power of the transmitter and a target power; and adjusting, based on the first comparison, a reactance of the transmitter-IMN to adjust the power of the transmitter; and performing a first comparison between a characteristic of a power of the transmitter and a target power; and adjusting, based on the first comparison, a reactance of the transmitter-IMN to adjust the power of the transmitter; and an energy receiver comprising a receiver-IMN, the receiver-IMN configured to perform operations comprising; determining an efficiency of the wireless energy transfer system at a second time based on power data from the transmitter; performing a second comparison between the efficiency at the second time and an efficiency of the wireless energy transfer system at a first time, the first time being prior to the second time; and adjusting, based on the second comparison, a reactance of the receiver-IMN. determining an efficiency of the wireless energy transfer system at a second time based on power data from the transmitter; performing a second comparison between the efficiency at the second time and an efficiency of the wireless energy transfer system at a first time, the first time being prior to the second time; and adjusting, based on the second comparison, a reactance of the receiver-IMN.
A method for use in an ongoing vehicle-to-everything, V2X, session, the method comprising: communicating between a source wireless transmit/receive unit, WTRU, and a peer WTRU using an existing source WTRU layer 2, L2, identifier, ID, an existing peer WTRU L2 ID, and an existing session ID for an existing session having an existing security context; on a condition that a trigger event occurs: generating (1302A, 1302B), by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting, by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving, from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting, by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context. communicating between a source wireless transmit/receive unit, WTRU, and a peer WTRU using an existing source WTRU layer 2, L2, identifier, ID, an existing peer WTRU L2 ID, and an existing session ID for an existing session having an existing security context; on a condition that a trigger event occurs: generating (1302A, 1302B), by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting, by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving, from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting, by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context. generating (1302A, 1302B), by the source WTRU, a new source WTRU L2 ID and a new most significant byte of a new session ID; transmitting, by the source WTRU to the peer WTRU, the new source WTRU L2 ID and the new most significant byte of the new session ID; receiving, from the peer WTRU, a new peer L2 ID and a new least significant byte of the new session ID; transmitting, by the source WTRU to the peer WTRU, an acknowledgement of the new peer WTRU L2 ID and the new least significant byte of the new session ID; and communicating with the peer WTRU using the new source WTRU L2 ID, the new peer WTRU L2 ID, and the new session ID that comprises the new most significant byte and the new least significant byte, wherein the communication with the peer WTRU occurs in the existing session using the existing security context.
Container processing machine comprising a conveyor element that turns about a vertical machine axis and has a plurality of processing stations for processing containers and a single transfer star wheel, by means of which the containers that are to be processed are delivered to the conveyor element and the already processed containers are removed from the conveyor element, wherein the transfer star wheel comprises cut-out openings (4.1) arranged on the circumferential side, into which the containers are at least partially accommodated for delivery and removal, characterised in that the transfer of the container that is to be processed takes place at a processing station of the conveyor element by the raising of the container to be treated from a transfer position (ÜP) into a processing position by a lifting device provided at the conveyor element, and that the conveyor element and the transfer star wheel are configured such as to be driven independently of one another.
A system for preparing a medical fluid, preferably for preparing a dialysis solution, the system comprising a concentrate container (10; 20; 30; 40; 50; 60; 70) comprising at least two concentrate compartments (12, 14; 22, 24; 33, 34), wherein at least one of the concentrate compartments has a medical fluid outlet (16; 26; 36; 46), and at least one of the concentrate compartments has a diluent inlet (18; 28; 38; 48); a fluid container fluidly connected to a medical fluid removal line; at least one fluid transfer line fluidly connecting the at least one medical fluid outlet of the concentrate container and the fluid container; wherein the concentrate container is rigid; and wherein the fluid container is flexible.
A method for selecting a face material for a printable label, the method comprising: - first preselecting step comprising selecting of the face materials based on requirements of an end-use area of the printable label; characterized in that the method further comprises: - second preselecting step comprising selecting the face materials of the first preselecting step having surface energy level at least 38 dynes/cm; - printing steps including a first printing step comprising printing of the face materials of the second preselecting step using a contact based printing method providing a human-readable information and a second printing step comprising printing the preselected face materials of the second preselecting step using a non-contact based printing method providing a machine-readable information; - first evaluating step comprising measuring a halftone resolution of the printed human-readable information; - second evaluating step comprising measuring a final data area module size of the printed machine-readable information; and - final selecting step comprising selecting of the face material, which comprises the printed human-readable information exhibiting the halftone resolution at least 30 L/cm and the printed machine-readable information exhibiting the final data area module size less than 1.0 mm. - first preselecting step comprising selecting of the face materials based on requirements of an end-use area of the printable label; - second preselecting step comprising selecting the face materials of the first preselecting step having surface energy level at least 38 dynes/cm; - printing steps including a first printing step comprising printing of the face materials of the second preselecting step using a contact based printing method providing a human-readable information and a second printing step comprising printing the preselected face materials of the second preselecting step using a non-contact based printing method providing a machine-readable information; - first evaluating step comprising measuring a halftone resolution of the printed human-readable information; - second evaluating step comprising measuring a final data area module size of the printed machine-readable information; and - final selecting step comprising selecting of the face material, which comprises the printed human-readable information exhibiting the halftone resolution at least 30 L/cm and the printed machine-readable information exhibiting the final data area module size less than 1.0 mm.
A method for extending communication coverage in a network between a network entity and a wireless device, the method comprising: determining that the wireless device qualifies for coverage extension, the determining including that deriving appropriate transmission parameters for the wireless device results in a most robust modulation and coding scheme, MCS, in terms of block error rate, BLER,; determining achievable transmission performance parameters for the wireless device; if the determined achievable transmission performance parameters do not meet a set of pre-established transmission criteria, increasing the downlink transmission power to the wireless device; re-evaluating the transmission parameters based on the increasing of the downlink transmission power to the wireless device; determining additional resources needed to meet an increase in total power budget due to increasing the downlink transmission power to the wireless device; and determining if the additional resources exceed a predetermined amount of headroom, wherein if the additional resources exceed the predetermined amount of headroom: creating additional headroom to increase the downlink transmission power to the wireless device. determining that the wireless device qualifies for coverage extension, the determining including that deriving appropriate transmission parameters for the wireless device results in a most robust modulation and coding scheme, MCS, in terms of block error rate, BLER,; determining achievable transmission performance parameters for the wireless device; if the determined achievable transmission performance parameters do not meet a set of pre-established transmission criteria, increasing the downlink transmission power to the wireless device; re-evaluating the transmission parameters based on the increasing of the downlink transmission power to the wireless device; determining additional resources needed to meet an increase in total power budget due to increasing the downlink transmission power to the wireless device; and determining if the additional resources exceed a predetermined amount of headroom, wherein if the additional resources exceed the predetermined amount of headroom: creating additional headroom to increase the downlink transmission power to the wireless device.