mhurhangee/ep-ind-claims huggingface dataset:
A negative pressure treatment system, the system comprising: an apparatus for providing negative pressure at a wound site comprising: a vacuum source for supplying negative pressure wherein the vacuum source comprises a pump; a first chamber and a second chamber wherein said first chamber and said second chamber are configured to contain negative pressure supplied from the vacuum source; a valve element for connecting the first chamber and the second chamber, wherein said valve element is configured to move between an open configuration and a closed configuration in response to a pressure differential; and wherein the valve element is arranged to selectively provide a fluid communication path between the vacuum source and the wound site to thereby provide a desired negative pressure at the wound site wherein the level of negative pressure applied is regulated by the valve element and does not exceed a threshold negative pressure; wherein said apparatus is configured to communicate negative pressure to a wound chamber comprising a cavity region disposed below a wound dressing disposed over the wound site wherein said wound dressing comprises a cover and a superabsorber material in the dressing to collect wound exudate from the wound site. a vacuum source for supplying negative pressure wherein the vacuum source comprises a pump; a first chamber and a second chamber wherein said first chamber and said second chamber are configured to contain negative pressure supplied from the vacuum source; a valve element for connecting the first chamber and the second chamber, wherein said valve element is configured to move between an open configuration and a closed configuration in response to a pressure differential; and wherein the valve element is arranged to selectively provide a fluid communication path between the vacuum source and the wound site to thereby provide a desired negative pressure at the wound site wherein the level of negative pressure applied is regulated by the valve element and does not exceed a threshold negative pressure; wherein said apparatus is configured to communicate negative pressure to a wound chamber comprising a cavity region disposed below a wound dressing disposed over the wound site wherein said wound dressing comprises a cover and a superabsorber material in the dressing to collect wound exudate from the wound site.
An aerial fiber optic cable (1a; 1b; 1c) comprising an optical fiber unit, one or more strength members (11a; 11b; 11c) and a sheath (12a; 12b; 12c), wherein said optical fiber unit comprises a number of optical fibers, an inner layer, which is radially outer to the optical fibers and embeds the optical fibers, and an outer layer which is radially outer to the inner layer, the outer layer comprising particulate material which is partially embedded into the outer layer, said one or more strength members (11a; 11b; 11c) are arranged in a radial outer position with respect to said optical fiber unit, said sheath (12a; 12b; 12c) is extruded over said optical fiber unit and said one or more strength members (11a; 11b; 11c), and characterised in that the particulate material provides the outer layer with a rough external surface, and said external surface is in direct contact with at least one of the strength members (11a; 11b; 11c) or the sheath (12a; 12b; 12c) and provides a grab surface for at least one of the strength members (11a; 11b; 11c) or the sheath (12a; 12b; 12c). said optical fiber unit comprises a number of optical fibers, an inner layer, which is radially outer to the optical fibers and embeds the optical fibers, and an outer layer which is radially outer to the inner layer, the outer layer comprising particulate material which is partially embedded into the outer layer, said one or more strength members (11a; 11b; 11c) are arranged in a radial outer position with respect to said optical fiber unit, said sheath (12a; 12b; 12c) is extruded over said optical fiber unit and said one or more strength members (11a; 11b; 11c), and characterised in that the particulate material provides the outer layer with a rough external surface, and said external surface is in direct contact with at least one of the strength members (11a; 11b; 11c) or the sheath (12a; 12b; 12c) and provides a grab surface for at least one of the strength members (11a; 11b; 11c) or the sheath (12a; 12b; 12c).
A pre-processor for operation in conjunction with a communications receiver capable of receiving a signal including data and transforming the signal into an estimate of the original data, the pre-processor comprising: an input operable to receive an input signal that is transmitted via a communication channel; a channel estimator operable to estimate at least one feature of the communication channel based on the input signal and a feedback signal; a signal modifier operable to modify the input signal dependent on the at least one estimated feature, wherein the channel estimator and the signal modifier operate without feedback from the communications receiver, the signal modifier comprising a forward error correction, FEC, unit for deriving the feedback signal provided to the channel estimator, the modifying including FEC decoding and re-encoding by the FEC unit; and an output for providing the modified signal to the communications receiver. an input operable to receive an input signal that is transmitted via a communication channel; a channel estimator operable to estimate at least one feature of the communication channel based on the input signal and a feedback signal; a signal modifier operable to modify the input signal dependent on the at least one estimated feature, wherein the channel estimator and the signal modifier operate without feedback from the communications receiver, the signal modifier comprising a forward error correction, FEC, unit for deriving the feedback signal provided to the channel estimator, the modifying including FEC decoding and re-encoding by the FEC unit; and an output for providing the modified signal to the communications receiver.
An analog front-end for interconnecting a network communicative device to a two-conductor based network, comprising: input and output leads (6, 8) for connection to the network communicative device; network leads for connection to the two-conductor based network; a coupling circuit having first, second and third terminal sets (17, 19, 21), a first coupling channel between the first and second terminal sets (17, 19), and a second coupling channel between the first and third terminal sets (17, 21), the first and second coupling channels (17, 19) providing isolation, impedance matching and energy transfer between corresponding ones of the terminal sets (17, 19, 21); an amplifier having an input connected to the input leads, and an output connected to the second terminal set of the coupling circuit; a common mode filter circuit for filtering noise generated by the common mode, the common mode filter circuit comprising a low frequency common mode filter for filtering low frequency signals in the common mode connected to a high frequency common mode filter for filtering high frequency signals in the common mode, the common mode circuit being coupled between the first terminal set of the coupling circuit and the network leads (6, 8); an attenuator consisting of passive devices, the attenuator having an input connected to the third terminal set of the coupling circuit, and an output connected directly to the output leads; and a power supply circuit for operative power supply of electronic components of the analog front-end. input and output leads (6, 8) for connection to the network communicative device; network leads for connection to the two-conductor based network; a coupling circuit having first, second and third terminal sets (17, 19, 21), a first coupling channel between the first and second terminal sets (17, 19), and a second coupling channel between the first and third terminal sets (17, 21), the first and second coupling channels (17, 19) providing isolation, impedance matching and energy transfer between corresponding ones of the terminal sets (17, 19, 21); an amplifier having an input connected to the input leads, and an output connected to the second terminal set of the coupling circuit; a common mode filter circuit for filtering noise generated by the common mode, the common mode filter circuit comprising a low frequency common mode filter for filtering low frequency signals in the common mode connected to a high frequency common mode filter for filtering high frequency signals in the common mode, the common mode circuit being coupled between the first terminal set of the coupling circuit and the network leads (6, 8); an attenuator consisting of passive devices, the attenuator having an input connected to the third terminal set of the coupling circuit, and an output connected directly to the output leads; and a power supply circuit for operative power supply of electronic components of the analog front-end.
A protection system for an electrical variable speed doubly fed induction machine having a stator and a rotor, characterized in that it comprises instrument transformers (CTR1, CTR2, CTS1, CTS2, VTR1, VTR2) capable of measuring low frequency signals from the rotor and/or the stator having a frequency in the range of 0.1 Hz to 6 Hz, and a protection relay having at least one protection module configured: - to detect a fault when rotor or stator measurement values received from the instrument transformers exceed a first threshold and to end detection of the fault when said measurement values cross a second threshold, - to issue a protection start signal (Start) and a protection trip signal (Trip) each being either in a reset state or in a set state, - when a fault is detected, to set the protection start signal (Start) in its set state and to start a trip timer (Trip timer), - to set the protection trip signal (Trip) in its set state when the trip timer (Trip timer) is expired, - to start a reset timer (tReset) and to pause the trip timer when detection of the fault ends, - as long as no new fault is detected before expiration of the reset timer (tReset), to hold each of the protection start signal (Start) and the protection trip signal (Trip) in its current state, - as long as no new fault is detected, at expiration of the reset timer (tReset), to reset the protection start signal (Start) and the protection trip signal (Trip) in their reset states and to reset the trip timer, - when a new fault is detected before expiration of the reset timer (tReset), to stop pause of the trip timer (Trip timer). - to detect a fault when rotor or stator measurement values received from the instrument transformers exceed a first threshold and to end detection of the fault when said measurement values cross a second threshold, - to issue a protection start signal (Start) and a protection trip signal (Trip) each being either in a reset state or in a set state, - when a fault is detected, to set the protection start signal (Start) in its set state and to start a trip timer (Trip timer), - to set the protection trip signal (Trip) in its set state when the trip timer (Trip timer) is expired, - to start a reset timer (tReset) and to pause the trip timer when detection of the fault ends, - as long as no new fault is detected before expiration of the reset timer (tReset), to hold each of the protection start signal (Start) and the protection trip signal (Trip) in its current state, - as long as no new fault is detected, at expiration of the reset timer (tReset), to reset the protection start signal (Start) and the protection trip signal (Trip) in their reset states and to reset the trip timer, - when a new fault is detected before expiration of the reset timer (tReset), to stop pause of the trip timer (Trip timer).
An apparatus, comprising: memory and processing circuitry configured to cause a User Equipment, UE, comprising said apparatus and configured for carrier aggregation using a synchronization component carrier, CC, and a secondary CC, to: attempt to detect a sidelink synchronization signal, SLSS, from another UE on the synchronization CC; if the SLSS from the other UE is detected: determine, based on the detected SLSS, a common time synchronization for the carrier aggregation for vehicle-to-vehicle, V2V, sidelink transmissions to the other UE; and, if the SLSS from the other UE is not detected: encode an SLSS to enable determination of the common time synchronization for the synchronization CC and the secondary CC by the other UE, wherein the SLSS is encoded for transmission on the synchronization CC, wherein the memory is configured to store information that identifies the common time synchronization. attempt to detect a sidelink synchronization signal, SLSS, from another UE on the synchronization CC; if the SLSS from the other UE is detected: determine, based on the detected SLSS, a common time synchronization for the carrier aggregation for vehicle-to-vehicle, V2V, sidelink transmissions to the other UE; and, if the SLSS from the other UE is not detected: encode an SLSS to enable determination of the common time synchronization for the synchronization CC and the secondary CC by the other UE, wherein the SLSS is encoded for transmission on the synchronization CC, wherein the memory is configured to store information that identifies the common time synchronization.
An imaging element (100; 1000) comprising: a photoelectric conversion element layer containing a semiconductor substrate which comprises a photoelectric conversion element (115; 1021) that photoelectrically converts incident light and a wiring layer (116; 1022) formed under the semiconductor substrate on the side opposite to a light entering plane of the incident light, the wiring layer (116; 1022) containing wires for reading charges from the photoelectric conversion element (115; 1021) and a wire interlayer film; and a support substrate laminated on the photoelectric conversion element layer and the wiring layer (116; 1022), and containing another photoelectric conversion element (124; 1031), wherein the wires of the wiring layer (116; 1022) are disposed in such a position as to secure an optical path of incident light transmitted from one of the sides of the wiring layer (116; 1022) to the other side, characterized in that a waveguide formed by material having a larger refractive index than the refractive index of the surroundings is provided on the optical path of the wiring layer, said waveguide being embedded in the wiring layer (116; 1022); and/or a light absorber is provided on the optical path of the wiring layer, said light absorber being embedded in the wiring layer. a photoelectric conversion element layer containing a semiconductor substrate which comprises a photoelectric conversion element (115; 1021) that photoelectrically converts incident light and a wiring layer (116; 1022) formed under the semiconductor substrate on the side opposite to a light entering plane of the incident light, the wiring layer (116; 1022) containing wires for reading charges from the photoelectric conversion element (115; 1021) and a wire interlayer film; and a support substrate laminated on the photoelectric conversion element layer and the wiring layer (116; 1022), and containing another photoelectric conversion element (124; 1031), wherein the wires of the wiring layer (116; 1022) are disposed in such a position as to secure an optical path of incident light transmitted from one of the sides of the wiring layer (116; 1022) to the other side, characterized in that a waveguide formed by material having a larger refractive index than the refractive index of the surroundings is provided on the optical path of the wiring layer, said waveguide being embedded in the wiring layer (116; 1022); and/or a light absorber is provided on the optical path of the wiring layer, said light absorber being embedded in the wiring layer.
A full-duplex antenna, comprising: a receive antenna; a first transmit antenna, disposed on one side of the receive antenna, wherein the first transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the first transmit antenna points to the receive antenna; and a second transmit antenna, disposed on the other side of the receive antenna, wherein a distance between the second transmit antenna and the receive antenna is equal to a distance between the first transmit antenna and the receive antenna, the second transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the second transmit antenna points to the receive antenna; a signal generator, wherein a first output end of the signal generator is connected to the first transmit antenna by means of a first conducting wire, a second output end of the signal generator is connected to the second transmit antenna by means of a second conducting wire, and the signal generator is configured to generate two channels of transmit signals having a same amplitude and reverse phases and separately send the two channels of transmit signals to the first transmit antenna and the second transmit antenna; a digital interference canceller, wherein the digital interference canceller is configured to cancel interference signals received by the receive antenna from the first transmit antenna and the second transmit antenna. a receive antenna; a first transmit antenna, disposed on one side of the receive antenna, wherein the first transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the first transmit antenna points to the receive antenna; and a second transmit antenna, disposed on the other side of the receive antenna, wherein a distance between the second transmit antenna and the receive antenna is equal to a distance between the first transmit antenna and the receive antenna, the second transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the second transmit antenna points to the receive antenna; a signal generator, wherein a first output end of the signal generator is connected to the first transmit antenna by means of a first conducting wire, a second output end of the signal generator is connected to the second transmit antenna by means of a second conducting wire, and the signal generator is configured to generate two channels of transmit signals having a same amplitude and reverse phases and separately send the two channels of transmit signals to the first transmit antenna and the second transmit antenna; a digital interference canceller, wherein the digital interference canceller is configured to cancel interference signals received by the receive antenna from the first transmit antenna and the second transmit antenna.
A fusion protein comprising interleukin 2 fused to the N-terminus of interleukin 2 receptor beta (IL2Rβ), with an intervening linker, and a cytoplasmic domain of IL21R at the C-terminus of IL2Rβ.
Cooktop device, in particular induction cooktop device, having at least one heating element (24a-b), with an articulated arm (12a-b) which has a first arm part (14a-b) and a second arm part (16a-b), a joint (18a-b) which is designed to support the second arm part (16a-b) in such a way that said second arm part (16a-b) can be moved relative to the first arm part (14a-b), and a suspension (20a-b) for connecting the first arm part (14a-b) to a base component (22a-b), characterised in that the articulated arm (12a-b), which has exactly two arm parts, is designed to bear exactly one heating element (24a-b), namely the at least one heating element (24a-b), and in a mounted state bears the exactly one single heating element (24a-b).
A female quick coupling engageable under pressure, comprising an outer tubular support body which extends along an axis of the coupling and has a front end and a rear end, a hollow valve body supported inside the support body and having an inlet path distal from the front end and an outlet path proximal to the front end of the support body and an obturator slidable in the valve body in the direction of the axis of the coupling so as to open and close the outlet path, wherein said obturator comprises a mushroom head and a housing and support body for the guided sliding of said mushroom head, said housing and support body having externally an occlusion element engageable in a seat of the valve body so as to close said outlet path, and wherein there is provided a means for deferring the movement of said housing and support body relative to said mushroom head, said housing and support body having a rear end distal from said front end of said support body and an open front end proximal to said front end of said support body from which said mushroom head comes out, and wherein the mushroom head is adapted to be retracted towards the inside of the housing and support body, due to the effect of interference with the obturator of a male coupling, before the start of the retraction of the housing body towards the rear end of the support body.
A laundry dryer comprising: a cabinet forming an outer body; a drum rotatably supported inside the cabinet and supplied with hot air and steam therein; a steam unit placed inside the cabinet and to generate the steam; a storage tank placed inside the cabinet and to include a storage space for storing water to be supplied to the steam unit therein; a tank housing placed inside the cabinet and to accommodate the storage tank; and a water supply hole formed on a tank cover of the storage tank, a water supply cap is detachably fastened to the water supply hole and is configured to allow water to be supplied in a state where the water supply cap is separated; wherein an intake hole (812h, 813h) formed in the tank cover for maintaining an internal air pressure of the storage tank and an external air pressure the same by communicating the storage space and an external space of the storage tank is formed on a front upper side surface of the storage tank based on a state in which the storage tank is accommodated in the tank housing. a cabinet forming an outer body; a drum rotatably supported inside the cabinet and supplied with hot air and steam therein; a steam unit placed inside the cabinet and to generate the steam; a storage tank placed inside the cabinet and to include a storage space for storing water to be supplied to the steam unit therein; a tank housing placed inside the cabinet and to accommodate the storage tank; and a water supply hole formed on a tank cover of the storage tank, a water supply cap is detachably fastened to the water supply hole and is configured to allow water to be supplied in a state where the water supply cap is separated; wherein an intake hole (812h, 813h) formed in the tank cover for maintaining an internal air pressure of the storage tank and an external air pressure the same by communicating the storage space and an external space of the storage tank is formed on a front upper side surface of the storage tank based on a state in which the storage tank is accommodated in the tank housing.
Clamping device for fixing printing plates on the plate cylinder of a printing press with a fixed upper clamping bar and a lower clamping bar which can be moved into a clamping position and an exchange position, as well as an actuating device acting on the lower clamping bar, characterised in that at least one adjusting unit is arranged on the side of the lower clamping strip of the clamping device that is facing the interior of the plate cylinder, said adjusting unit comprising a follower with a rotating cam disc, an eccentric cam disc fixed to the follower, and a spring element; the rotating cam disc being movable via a thrust piece by means of a switching element, a contact surface (6.1) of the cam disk sliding over the cam track of the eccentric cam disk.