mhurhangee/ep-ind-claims huggingface dataset:
A speaker apparatus comprising: an input portion to which audio signals of a plurality of channels are input; a plurality of speakers (1021A to 1021P, 1033L, 1033R); a directivity controlling portion (1091FL, 1091FR, 1091C, 1091SL, 1091SR) that delays the audio signals of the plurality of channels input to the input portion and distributes the delayed audio signals to the plurality of speakers (1021A to 1021P, 1033L, 1033R) so that the plurality of speakers (1021A to 1021P, 1033L, 1033R) output a plurality of sound beams; a localization adding portion that applies a filtering processing based on a head-related transfer function to at least one of the audio signals of the plurality of channels input to the input portion and inputs the processed audio signal to the plurality of speakers (1021A to 1021P, 1033L, 1033R); and a phantom processing portion that outputs an audio signal of one channel as a plurality of sound beams for localizing a phantom sound source, wherein the localization adding portion sets the direction of a virtual sound source based on the head-related transfer function in a direction corresponding to a localization direction of the phantom sound source. an input portion to which audio signals of a plurality of channels are input; a plurality of speakers (1021A to 1021P, 1033L, 1033R); a directivity controlling portion (1091FL, 1091FR, 1091C, 1091SL, 1091SR) that delays the audio signals of the plurality of channels input to the input portion and distributes the delayed audio signals to the plurality of speakers (1021A to 1021P, 1033L, 1033R) so that the plurality of speakers (1021A to 1021P, 1033L, 1033R) output a plurality of sound beams; a localization adding portion that applies a filtering processing based on a head-related transfer function to at least one of the audio signals of the plurality of channels input to the input portion and inputs the processed audio signal to the plurality of speakers (1021A to 1021P, 1033L, 1033R); and a phantom processing portion that outputs an audio signal of one channel as a plurality of sound beams for localizing a phantom sound source, wherein the localization adding portion sets the direction of a virtual sound source based on the head-related transfer function in a direction corresponding to a localization direction of the phantom sound source.
A panel for a curtain facade, said panel including: - a peripheral frame formed by assembling rail profiles (113, 114) and upright profiles (111, 112), so as to delimit a framing area, - a first internal frame, called opening frame, separate from said peripheral frame and formed by assembling rail profiles (133, 134) and upright profiles (131, 132), as arranged in said framing area, said opening frame being configured to cooperate with said peripheral frame so that said peripheral frame forms a casing of said opening frame, - a second internal frame, called fixed frame, separate from the peripheral and opening frames and formed by assembling rail profiles (143, 144) and upright profiles (141,142), said fixed frame being arranged in said framing area, substantially in the same mean plane as the opening frame, said fixed frame being configured to cooperate with said peripheral frame so as to be maintained in a fixed and detachable position, as well as configured to cooperate with the opening frame so as to form another casing of said opening frame, characterised in that each profile (111, 112, 113, 114) of the peripheral frame extends longitudinally and includes a plurality of longitudinal grooves (500, 501), each of said longitudinal grooves, when the profiles (111, 112, 113, 114) of said peripheral frame are assembled together, being arranged in the same mean plane and forming a peripheral groove on the peripheral frame, and in that the profile of the upright or rail type of the fixed frame forming the casing of the opening frame includes, on a face facing the opening frame, a plurality of longitudinal grooves (600, 601), each of said longitudinal grooves being arranged in the same mean plane as one of the peripheral grooves of the peripheral frame. - a peripheral frame formed by assembling rail profiles (113, 114) and upright profiles (111, 112), so as to delimit a framing area, - a first internal frame, called opening frame, separate from said peripheral frame and formed by assembling rail profiles (133, 134) and upright profiles (131, 132), as arranged in said framing area, said opening frame being configured to cooperate with said peripheral frame so that said peripheral frame forms a casing of said opening frame, - a second internal frame, called fixed frame, separate from the peripheral and opening frames and formed by assembling rail profiles (143, 144) and upright profiles (141,142), said fixed frame being arranged in said framing area, substantially in the same mean plane as the opening frame, said fixed frame being configured to cooperate with said peripheral frame so as to be maintained in a fixed and detachable position, as well as configured to cooperate with the opening frame so as to form another casing of said opening frame,
Electric motor, comprising a rotor mounted rotatably about an axis of rotation that extends in the axial direction, and comprising a stator with a laminated core, said laminated core forming a stator yoke and stator teeth of the stator being radially directed from said stator yoke, - wherein the stator teeth are extended on the tooth root side in a T-shape to form pole lugs extending in the circumferential direction of the stator, - wherein the pole lugs each form an abutment shoulder, - wherein a respective stator slot for receiving coils of a stator winding is formed between adjacent stator teeth and a respective groove slot is formed between pole lugs that face each other, - wherein a plurality of stiffening elements is provided, which are inserted into a corresponding plurality of groove slots, and - wherein the stiffening elements are held on the pole lugs of adjacent stator teeth in the radial direction by means of the abutment shoulders, said pole lugs facing each other, characterized in - that the stiffening element, on each of the two narrow end faces, respectively comprises a joining contour for a form fit with respect to the axial direction with the respective pole lugs, wherein the stiffening element is designed to be mirror-symmetrical with respect to the longitudinal and to the transverse axe, wherein the joining contour is configured as pins, which, in the assembled state, form a rear grip with the pole lugs. - wherein the stator teeth are extended on the tooth root side in a T-shape to form pole lugs extending in the circumferential direction of the stator, - wherein the pole lugs each form an abutment shoulder, - wherein a respective stator slot for receiving coils of a stator winding is formed between adjacent stator teeth and a respective groove slot is formed between pole lugs that face each other, - wherein a plurality of stiffening elements is provided, which are inserted into a corresponding plurality of groove slots, and - wherein the stiffening elements are held on the pole lugs of adjacent stator teeth in the radial direction by means of the abutment shoulders, said pole lugs facing each other, characterized in - that the stiffening element, on each of the two narrow end faces, respectively comprises a joining contour for a form fit with respect to the axial direction with the respective pole lugs,
Composite pane having electrically controllable optical properties, comprising: - an outer pane, a first intermediate layer, a second intermediate layer, and an inner pane, - a functional element having electrically controllable optical properties, which is arranged between the first intermediate layer and the second intermediate layer, and - a thermoplastic frame layer, which surrounds the functional element in the manner of a frame, wherein the outer pane and the inner pane are bonded to one another via the first intermediate layer, the second intermediate layer, and the thermoplastic frame layer; and an optical waveguide is arranged at least partially between the outer pane and the inner pane, wherein the optical waveguide comprises at least one optical fiber made of glass and/or plastic and is at least partially light scattering, wherein the optical waveguide is arranged between the thermoplastic frame layer and the second intermediate layer. - an outer pane, a first intermediate layer, a second intermediate layer, and an inner pane, - a functional element having electrically controllable optical properties, which is arranged between the first intermediate layer and the second intermediate layer, and - a thermoplastic frame layer, which surrounds the functional element in the manner of a frame,
A method, in a user equipment, UE, operating in a network that supports dual connectivity operation, for minimizing transmission of unnecessary UE failure indications, the method comprising: detecting a secondary cell-group failure, SCG-failure, triggering event; suspending secondary cell group, SCG, bearers, in response to said detecting; sending a UE failure indication message to the network; and sending a further UE failure indication message only after one or more SCG parameters are reconfigured. detecting a secondary cell-group failure, SCG-failure, triggering event; suspending secondary cell group, SCG, bearers, in response to said detecting; sending a UE failure indication message to the network; and sending a further UE failure indication message only after one or more SCG parameters are reconfigured.
A wave power device for the extraction of energy from wave motion in a liquid which device comprises a container intended to at least partially be located in said liquid from which the wave energy is extracted, said container provided with one or several openings for admitting said liquid and a gas into the container and at least one outlet whereby said container at least partly is designed as an oblong unit adapted to be influenced by and essentially follow said wave motion so that the container will assume a wave shaped contour wherein the container in at least a first portion and a second portion assume positions with different potential energy relative each other so that a pressure is built up within the container by the use of the liquid and the gas which flows towards the outlet influenced by said wave motions whereby energy in said flow is extracted by an energy converter connected to the container, wherein the container at least along a part of its length is designed so that its width is larger than its height, characterized in that the height of the container is between 0,2 and 0,8 parts of the expected wave height where the wave power device is to be located..
A process of cold rolling a product made of aluminum, or aluminum alloys, through at least one rolling stand, wherein a lubricant is applied to the product in proximity of said at least one rolling stand by means of a plurality of first applying means, said lubricant comprising an emulsion of oil and water; characterized in that Δv = v s - v r being the difference between the feeding speed v s of the rolled product, measured at the output of the at least one rolling stand, and the peripheral speed v r of the working rolls of said at least one rolling stand, measured during the rolling operation, and Δv 0 = v s0 - v r0 being the design value of said difference, v s0 being the theoretical feeding speed of the rolled product exiting from the at least one rolling stand and v r0 being the theoretical peripheral speed of the working rolls of said at least one rolling stand, each time the relation [(Δv * v r0)/(v r * Δv 0)] - 1 < L, where L is equal to a value between 0,0005 and 0,002, is not met, an application of only oil to the aluminum product is provided, upstream of said at least one rolling stand considering the product feeding direction, by means of a plurality of second applying means, until said relation is met again. Δv = v s - v r being the difference between the feeding speed v s of the rolled product, measured at the output of the at least one rolling stand, and the peripheral speed v r of the working rolls of said at least one rolling stand, measured during the rolling operation, and Δv 0 = v s0 - v r0 being the design value of said difference, v s0 being the theoretical feeding speed of the rolled product exiting from the at least one rolling stand and v r0 being the theoretical peripheral speed of the working rolls of said at least one rolling stand, each time the relation [(Δv * v r0)/(v r * Δv 0)] - 1 < L, where L is equal to a value between 0,0005 and 0,002, is not met, an application of only oil to the aluminum product is provided, upstream of said at least one rolling stand considering the product feeding direction, by means of a plurality of second applying means, until said relation is met again.
A combined heat and power system comprising: a four-stroke opposed piston engine, and characterized by further comprising: a first pressure vessel containing a first fluid in thermodynamic communication with an exhaust stream of said engine, and, a second pressure vessel, or a storage container, contained within said first pressure vessel, said second pressure vessel containing a second fluid in thermodynamic communication with a coolant of said engine. a four-stroke opposed piston engine, and characterized by further comprising: a first pressure vessel containing a first fluid in thermodynamic communication with an exhaust stream of said engine, and, a second pressure vessel, or a storage container, contained within said first pressure vessel, said second pressure vessel containing a second fluid in thermodynamic communication with a coolant of said engine. a first pressure vessel containing a first fluid in thermodynamic communication with an exhaust stream of said engine, and, a second pressure vessel, or a storage container, contained within said first pressure vessel, said second pressure vessel containing a second fluid in thermodynamic communication with a coolant of said engine.
An optical line terminal, OLT, configured to perform optical time-domain reflectometry, OTDR, to locate an interruption in a passive optical network, PON, the OLT comprising: a PON controller configured to transmit a power-saving initiation command to an optical network unit, ONU, over the PON to place the ONU in a power savings mode; and an OTDR module configured to inject a pulse into the PON and analyze a signal reflected back over the PON from the injected pulse to locate the interruption in the PON, wherein the OTDR module injects the pulse into the PON after receiving an indication that the ONU has accepted the power-saving initiation command and is in the power savings mode. a PON controller configured to transmit a power-saving initiation command to an optical network unit, ONU, over the PON to place the ONU in a power savings mode; and an OTDR module configured to inject a pulse into the PON and analyze a signal reflected back over the PON from the injected pulse to locate the interruption in the PON, wherein the OTDR module injects the pulse into the PON after receiving an indication that the ONU has accepted the power-saving initiation command and is in the power savings mode.
A system for hemodynamic simulation, the system comprising: a reservoir containing a fluid; a vessel through which the fluid may be urged; an upstream pump in fluid communication with the fluid, said upstream pump urging the fluid through the vessel in a pushing manner; a downstream pump in fluid communication with the fluid, said downstream pump being downstream from said upstream pump, said downstream pump urging the fluid through the vessel in a pulling manner; a first pump for generating a steady flow of fluid between the reservoir and the vessel; and a drive system unit comprising a plurality of independent linear actuators for controlling the upstream pump and downstream pump. a reservoir containing a fluid; a vessel through which the fluid may be urged; an upstream pump in fluid communication with the fluid, said upstream pump urging the fluid through the vessel in a pushing manner; a downstream pump in fluid communication with the fluid, said downstream pump being downstream from said upstream pump, said downstream pump urging the fluid through the vessel in a pulling manner; a first pump for generating a steady flow of fluid between the reservoir and the vessel; and a drive system unit comprising a plurality of independent linear actuators for controlling the upstream pump and downstream pump.
A communication method, comprising: generating a first signal, wherein the first signal comprises an orthogonal frequency division multiplexing, OFDM, symbol, a first-type cyclic prefix, CP, and a second-type CP, CP resources of the first-type CP comprise a first CP resource and a second CP resource, CP resources of the second-type CP comprise another second CP resource, the first CP resource is used to carry data that is different from data carried on the OFDM symbol corresponding to the first CP resource, and the second CP resource is used to carry data that is the same as the data carried on the OFDM symbol corresponding to the second CP resource, and the another second CP resource is used to carry data that is the same as the data carried on the OFDM symbol corresponding to the another second CP resource; and sending the first signal; and wherein a length of the first-type CP is greater than a first length, a length of the second-type CP is less than the first length, and a sum of lengths of M first-type CPs and K-M second-type CPs that belong to a same slot in the first signal is a product of the first length and K, where there are K OFDM symbols in the slot. generating a first signal, wherein the first signal comprises an orthogonal frequency division multiplexing, OFDM, symbol, a first-type cyclic prefix, CP, and a second-type CP, CP resources of the first-type CP comprise a first CP resource and a second CP resource, CP resources of the second-type CP comprise another second CP resource, the first CP resource is used to carry data that is different from data carried on the OFDM symbol corresponding to the first CP resource, and the second CP resource is used to carry data that is the same as the data carried on the OFDM symbol corresponding to the second CP resource, and the another second CP resource is used to carry data that is the same as the data carried on the OFDM symbol corresponding to the another second CP resource; and sending the first signal; and wherein a length of the first-type CP is greater than a first length, a length of the second-type CP is less than the first length, and a sum of lengths of M first-type CPs and K-M second-type CPs that belong to a same slot in the first signal is a product of the first length and K, where there are K OFDM symbols in the slot.
A method for reference signal allocation in a wireless communication system, the method comprising: determining, by a central node, the number of reference signals to be used by a remote node for an uplink transmission (11, 21), wherein the reference signals are demodulation reference signals, DRSs, and each DRS is associated with a virtual antenna, wherein each virtual antenna can be mapped to one or more physical antenna of the remote node; indicating, by the central node, the number of reference signals (12, 22) to said remote node; and wherein said wireless communication system is a cellular communication system, and said determining of said number of reference signals is based on cell load; or wherein said determining of said number of reference signals is based on uplink measurements. determining, by a central node, the number of reference signals to be used by a remote node for an uplink transmission (11, 21), wherein the reference signals are demodulation reference signals, DRSs, and each DRS is associated with a virtual antenna, wherein each virtual antenna can be mapped to one or more physical antenna of the remote node; indicating, by the central node, the number of reference signals (12, 22) to said remote node; and wherein said wireless communication system is a cellular communication system, and said determining of said number of reference signals is based on cell load; or wherein said determining of said number of reference signals is based on uplink measurements. wherein said wireless communication system is a cellular communication system, and said determining of said number of reference signals is based on cell load; or wherein said determining of said number of reference signals is based on uplink measurements.
Conveying installation having a conveying belt, comprising a load-bearing-side cover panel and a running-side cover panel and an embedded tension member (8, 8'), and also having drums, load-bearing rollers and load-bearing frameworks, wherein the conveying installation forms a material-conveying upper strand, with a feed location for the conveying material, and a mostly material-free lower strand, characterized in that at least one further, i.e. additional, layer, which consists of a foamed polymer blend, is located between the load-bearing-side cover panel and the running-side cover panel, and wherein the additional foamed layer is in direct contact with the layer of the embedded tension member and the load-bearing-side cover panel and wherein the rubber for the foamed polymer layer is selected from the group consisting of natural rubber, and/or butadiene rubber and/or chloroprene rubber and/or styrene-butadiene rubber and/or nitrile rubber and/or butyl rubber and/or ethylene-propylene rubber and/or ethylene-propylene-diene rubber (EPDM) and/or polyacrylate rubber and/or epichlorohydrin rubber and/or chlorosulfonated polyethylene rubber and/or silicone rubber and/or fluoro rubber and wherein the foamed polymer blend contains an expanding agent on the basis of at least one acrylonitrile polymer and wherein the embedded tension member comprises strands of steel running parallel in the longitudinal direction of the conveying belt.
An electronic device comprising: a piezoelectric element; a panel, the piezoelectric element being attached thereto, the panel vibrating due to the piezoelectric element to generate a vibration sound that is transmitted by vibrating a part of a human body; a housing supporting the panel; and a mounting unit (43_1, 43_2) characterized in that the mounting unit is separated from the housing and fixed thereto, the mounting unit (43_1, 43_2) having a microphone (42_1. 42_2) mounted thereon so that the mounting unit (43_1, 43_2) damps the vibration sound. a piezoelectric element; a panel, the piezoelectric element being attached thereto, the panel vibrating due to the piezoelectric element to generate a vibration sound that is transmitted by vibrating a part of a human body; a housing supporting the panel; and a mounting unit (43_1, 43_2) characterized in that the mounting unit is separated from the housing and fixed thereto, the mounting unit (43_1, 43_2) having a microphone (42_1. 42_2) mounted thereon so that the mounting unit (43_1, 43_2) damps the vibration sound.