mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a signal in a multiple antenna system, the method performed by a transmitter comprising: pre-coding the signal based on a codebook, the codebook comprising first pre-coding matrices W(i), wherein the pre-coding is obtained by calculating Y(i) = W(i) X(i), where X(i) is a column vector of symbols inputted to the path of each antenna and Y(i) is a column vector of precoded symbols sent to each antenna; and transmitting the pre-coded signal using a radio resource, wherein each of the first pre-coding matrices W(i) is configured in a form of a matrix, which is one of W 0 i W 0 i, W 0 i - W 0 i, W 0 i jW 0 i and W 0 i - jW 0 i, W 0 (i) denotes a second pre-coding matrix, and i denotes an index for the radio resource, characterized in that: the first pre-coding matrices are applied to two antenna clusters having the same number of antennas and the same number of layers, each of the second pre-coding matrices has 4 rows, which is same as the number of antennas of the antenna cluster, and a number of columns equal to the number of layers. pre-coding the signal based on a codebook, the codebook comprising first pre-coding matrices W(i), wherein the pre-coding is obtained by calculating Y(i) = W(i) X(i), where X(i) is a column vector of symbols inputted to the path of each antenna and Y(i) is a column vector of precoded symbols sent to each antenna; and transmitting the pre-coded signal using a radio resource, wherein each of the first pre-coding matrices W(i) is configured in a form of a matrix, which is one of W 0 i W 0 i, W 0 i - W 0 i, W 0 i jW 0 i and W 0 i - jW 0 i, W 0 (i) denotes a second pre-coding matrix, and i denotes an index for the radio resource, characterized in that: the first pre-coding matrices are applied to two antenna clusters having the same number of antennas and the same number of layers, each of the second pre-coding matrices has 4 rows, which is same as the number of antennas of the antenna cluster, and a number of columns equal to the number of layers. the first pre-coding matrices are applied to two antenna clusters having the same number of antennas and the same number of layers, each of the second pre-coding matrices has 4 rows, which is same as the number of antennas of the antenna cluster, and a number of columns equal to the number of layers.
A pipette tip supply mechanism comprising: a pipette tip storage unit for storing a plurality of tapered shaped pipette tips; a belt for transporting a pipette tip supplied from an opening of the pipette tip storage unit; and a belt drive unit that drives the belt in a transport direction; wherein the belt is inclined upwards toward the transport direction and characterized in that a surface of the belt on which the pipette tip is disposed is a flat surface having no substantial unevenness, so that the pipette tip is rotatable around a longitudinal axis of the pipette tip on the surface of the belt and the pipette tip is rolled to orient the longitudinal axis of the pipette tip along the transport direction in conjunction with the drive of the belt in the transport direction. a pipette tip storage unit for storing a plurality of tapered shaped pipette tips; a belt for transporting a pipette tip supplied from an opening of the pipette tip storage unit; and a belt drive unit that drives the belt in a transport direction; wherein the belt is inclined upwards toward the transport direction and characterized in that a surface of the belt on which the pipette tip is disposed is a flat surface having no substantial unevenness, so that the pipette tip is rotatable around a longitudinal axis of the pipette tip on the surface of the belt and the pipette tip is rolled to orient the longitudinal axis of the pipette tip along the transport direction in conjunction with the drive of the belt in the transport direction.
Filler body designed to reduce a volume of a pressure measuring chamber surrounding a pressure sensor, said volume to be filled with a liquid that transfers a pressure, with - a recess designed to receive the pressure sensor, and - a free-standing base, which projects into the recess and on which the pressure sensor can be mounted in the recess, wherein - a filler body foot is provided on a side of the filler body (1, 55) facing away from the recess, said filler body foot supporting the filler body and being designed to mount the filler body at an application location, whose basic surface is less than a basic surface of an area of the filler body surrounding the recess and adjacent to the filler body foot in such a way that the filler body foot supports the filler body which is otherwise freestanding. - a recess designed to receive the pressure sensor, and - a free-standing base, which projects into the recess and on which the pressure sensor can be mounted in the recess, wherein - a filler body foot is provided on a side of the filler body (1, 55) facing away from the recess, said filler body foot supporting the filler body and being designed to mount the filler body at an application location, whose basic surface is less than a basic surface of an area of the filler body surrounding the recess and adjacent to the filler body foot in such a way that the filler body foot supports the filler body which is otherwise freestanding.
A method for forming a peristaltic pump cassette, the method comprising: selecting bulk tubing; attaching one end of a segment of tubing to a connector (140, 160) of a peristaltic pump, wherein the segment of tubing is drawn from the selected bulk tubing; stretching the segment of tubing by applying a predetermined force to the segment of tubing; cutting the segment of tubing at a predetermined length. selecting bulk tubing; attaching one end of a segment of tubing to a connector (140, 160) of a peristaltic pump, wherein the segment of tubing is drawn from the selected bulk tubing; stretching the segment of tubing by applying a predetermined force to the segment of tubing; cutting the segment of tubing at a predetermined length.
A method in a wireless device operating in a wireless communication network, characterized in that the method comprises: while in an extended discontinuous receive, DRX, mode, waking up from a receiver sleep state for at least one measurement interval, at least an amount of time in advance of a scheduled DRX on-time and outside of any other scheduled DRX on-time; performing radio link measurements during the at least one measurement interval; based on the radio link measurements, determining whether the wireless device is in an in-synch or an out-of-sync status, prior to the scheduled DRX on-time; and when the terminal is out-of-synch, initiating a radio resource control, RRC, reestablishment procedure, wherein the amount of time is defined as T wake − up = N 310 ⋅ T total _ meas _ time + T 310 + T 311 + T re − establish _ delay, where N310 is a number of out-of-synch status determinations before radio link failure, RLF, occurance is determined, T310 is a time for declaring RLF T311 is a time used during the RRC re-establishment procedure, T total_meas_time is a time for radio link measurement, and T re_establish_delay is a delay within which the wireless device is required to send a RRC re-establishment request upon detecting the RLF. while in an extended discontinuous receive, DRX, mode, waking up from a receiver sleep state for at least one measurement interval, at least an amount of time in advance of a scheduled DRX on-time and outside of any other scheduled DRX on-time; performing radio link measurements during the at least one measurement interval; based on the radio link measurements, determining whether the wireless device is in an in-synch or an out-of-sync status, prior to the scheduled DRX on-time; and when the terminal is out-of-synch, initiating a radio resource control, RRC, reestablishment procedure, wherein the amount of time is defined as T wake − up = N 310 ⋅ T total _ meas _ time + T 310 + T 311 + T re − establish _ delay, where N310 is a number of out-of-synch status determinations before radio link failure, RLF, occurance is determined, T310 is a time for declaring RLF T311 is a time used during the RRC re-establishment procedure, T total_meas_time is a time for radio link measurement, and T re_establish_delay is a delay within which the wireless device is required to send a RRC re-establishment request upon detecting the RLF.
A wound irrigation device, comprising: a cap structure configured to engage a bottle containing an irrigation solution at a first end; a protective rim disposed about a periphery of the cap structure at a second end opposite the first end, wherein the protective rim is selectively disposed about or in proximity to a wound to be irrigated when in use; one or more conduits for selectively communicating a compressed gas into an interior of the bottle containing the irrigation solution to form a compressed irrigation solution; a longitudinal wall structure disposed within the cap structure and defining one or more channels there through for selectively communicating the compressed irrigation solution through the cap structure and to the wound to be irrigated; characterized in that the one or more conduits communicate the compressed gas through the cap structure, and a vent conduit in fluid communication with the one or more conduits is provided for selectively venting the compressed gas through the cap structure and to an external environment. a cap structure configured to engage a bottle containing an irrigation solution at a first end; a protective rim disposed about a periphery of the cap structure at a second end opposite the first end, wherein the protective rim is selectively disposed about or in proximity to a wound to be irrigated when in use; one or more conduits for selectively communicating a compressed gas into an interior of the bottle containing the irrigation solution to form a compressed irrigation solution; a longitudinal wall structure disposed within the cap structure and defining one or more channels there through for selectively communicating the compressed irrigation solution through the cap structure and to the wound to be irrigated; characterized in that the one or more conduits communicate the compressed gas through the cap structure, and a vent conduit in fluid communication with the one or more conduits is provided for selectively venting the compressed gas through the cap structure and to an external environment.
A method for indicating release of an antibacterial agent or for indicating an amount of time for cleansing skin, wherein the method comprises washing skin with a liquid soap or body wash, and wherein the liquid soap or body wash comprises a surfactant and a zinc X halide complex, wherein X is lysine, arginine or trimethylglycine, and wherein the skin is washed with the liquid soap or body wash for a time until the zinc X halide complex precipitates from the aqueous cleansing composition.
An indoor unit comprising: a main body unit including a housing having an opening hole for pipe formed on a part of a side surface of the main body unit; at least one refrigerant pipe connection part projecting from inside to outside of the housing through the opening hole for pipe; and an attachment plate holding and fixing the at least one refrigerant pipe connection part together with the housing and closing the opening hole for pipe, the opening hole for pipe being formed over a first side surface on a side of the housing from which the at least one refrigerant pipe connection part projects and a second side surface adjacent to the first side surface, the attachment plate having an L shape including planes corresponding to the opening hole for pipe over the first side surface and the second side surface, the attachment plate including a plate-side heat insulating material holding the at least one refrigerant pipe connection part together with a main-body-side heat insulating material provided to an inner surface side of the housing, characterized in that the plate-side heat insulating material is harder than the main-body-side heat insulating material. a main body unit including a housing having an opening hole for pipe formed on a part of a side surface of the main body unit; at least one refrigerant pipe connection part projecting from inside to outside of the housing through the opening hole for pipe; and an attachment plate holding and fixing the at least one refrigerant pipe connection part together with the housing and closing the opening hole for pipe, the opening hole for pipe being formed over a first side surface on a side of the housing from which the at least one refrigerant pipe connection part projects and a second side surface adjacent to the first side surface, the attachment plate having an L shape including planes corresponding to the opening hole for pipe over the first side surface and the second side surface, the attachment plate including a plate-side heat insulating material holding the at least one refrigerant pipe connection part together with a main-body-side heat insulating material provided to an inner surface side of the housing, characterized in that the plate-side heat insulating material is harder than the main-body-side heat insulating material.
A food bar arrangement, e.g. a salad bar, comprising a canteen or pan holding arrangement adapted to hold a plurality of canteens or pans for holding fresh food products, a refrigerating arrangement for cooling the arrangement, i.e. food products held in the canteens or pans, and keeping the food products at a desired temperature, wherein the holding arrangement comprises a cupboard or a bench arrangement comprising a cold well, and is adapted to receive the canteens or pans in such a manner that openings of the canteens or pans make the food accessible for a user at least from a first outer side section (15A,15B) of the food bar arrangement allowing the user to choose and pick from the canteens or pans, wherein the refrigerating arrangement comprises a cooling arrangement with one or more cooling elements, that the holding arrangement comprises a bottom with a bottom section or bottom sections, the holding arrangement and the cooling arrangement being so arranged with respect to one another that a distance (d) is provided between the bottom of the holding arrangement forming a cold well and the cooling arrangement, that holding or supporting means (13,14) are provided which are adapted to hold the canteens or pans in an inclined position such that upper edges of the canteens, which when placed in the food bar arrangement will be located adjacent the first outer side section (15A,15B), will be located at a lower level than opposing inner, upper edges, characterized in that the cooling arrangement is centrally arranged and in that the holding means are arranged on either sides thereof to allow holding canteens on at least two opposite sides of the cooling arrangement, in respective outwardly inclined positions, so that the cooling arrangement peripherally or at least on two sides such may be surrounded by canteens, that the cooling arrangement is so arranged with respect to the holding arrangement that it will be located close to a location where canteen back walls will be located when held by the holding arrangement, said location being distant from the first outer side sections (15A,15B), that a first portion of the cooling arrangement extends upwardly from a second lower section of the cooling arrangement and is arranged above the location where the upper, inner edges of the canteens will be located when placed in the holding arrangement, and in that the second lower section of the cooling arrangement extends downwards towards, but ending at said distance (d) from the bottom of the well or trough of the holding arrangement, such that when canteens or pans are mounted in the food bar arrangement, substantially their entire back walls will be located adjacent said lower section of the cooling arrangement.
A receiver for use in a wireless power transfer system, the receiver configured to receive wireless power from a transmitter driven by a power source and a transmit controller, and configured to deliver the received wireless power to a load via a MOSFET bridge, the receiver comprising: a receiving coil; and receiver electronics coupled to the receiving coil, the receiver electronics configured to: vary an ideal source voltage at an input of the MOSFET bridge and driven by the MOSFET bridge and observe changes in a receiver current at the input of the MOSFET bridge, the load being coupled to an output of the MOSFET bridge; determine a Thevenin equivalent impedance of the wireless power transfer system based on the ideal source voltage and observed changes in the receiver current; calculate a Thevenin equivalent source voltage of the wireless power transfer system as a product of the Thevenin equivalent impedance and the receiver current; and control the MOSFET bridge, based on the Thevenin equivalent impedance and the Thevenin equivalent source voltage, to adjust the ideal source voltage to vary an amount of the wireless power transferred from the transmitter to the receiver. a receiving coil; and receiver electronics coupled to the receiving coil, the receiver electronics configured to: vary an ideal source voltage at an input of the MOSFET bridge and driven by the MOSFET bridge and observe changes in a receiver current at the input of the MOSFET bridge, the load being coupled to an output of the MOSFET bridge; determine a Thevenin equivalent impedance of the wireless power transfer system based on the ideal source voltage and observed changes in the receiver current; calculate a Thevenin equivalent source voltage of the wireless power transfer system as a product of the Thevenin equivalent impedance and the receiver current; and control the MOSFET bridge, based on the Thevenin equivalent impedance and the Thevenin equivalent source voltage, to adjust the ideal source voltage to vary an amount of the wireless power transferred from the transmitter to the receiver. vary an ideal source voltage at an input of the MOSFET bridge and driven by the MOSFET bridge and observe changes in a receiver current at the input of the MOSFET bridge, the load being coupled to an output of the MOSFET bridge; determine a Thevenin equivalent impedance of the wireless power transfer system based on the ideal source voltage and observed changes in the receiver current; calculate a Thevenin equivalent source voltage of the wireless power transfer system as a product of the Thevenin equivalent impedance and the receiver current; and control the MOSFET bridge, based on the Thevenin equivalent impedance and the Thevenin equivalent source voltage, to adjust the ideal source voltage to vary an amount of the wireless power transferred from the transmitter to the receiver.
A hearing system comprising: - at least one hearing device having a signal processing unit with a control input operationally connected to a device communication port, and - a remote control device with a wireless communication port for single- or bi-directional wireless communication with said device communication port, an embedded computer in said remote control device operated by an operating system, an output of said embedded computer being operationally connected to said wireless communication port and to at least one machine/man interface at said remote control device, and an input of said embedded computer being operationally connected to at least one man/machine interface at said remote control device, and a set of hearing device-specific application programs (HDP; HDP1, HDP2,...) executable by said embedded computer and associated with different hearing device types, wherein said remote control device is adapted to identify said hearing device and automatically select and execute a hearing device-specific application program (HDP; HDP1, HDP2,...) associated with the identified hearing device, from said set of hearing device-specific application programs (HDP; HDP1, HDP2,...) associated with said different hearing device types, characterised in that the remote control device is adapted to operate as a remote hearing device control as well as a remote audio system control, in particular as a remote control for TV, radio or DVD, wherein the remote control unit is further adapted to automatically adjust the volume and program of the hearing device and the volume of a remote audio system in combination to optimally fit a user of the hearing device. - at least one hearing device having a signal processing unit with a control input operationally connected to a device communication port, and - a remote control device with a wireless communication port for single- or bi-directional wireless communication with said device communication port, an embedded computer in said remote control device operated by an operating system, an output of said embedded computer being operationally connected to said wireless communication port and to at least one machine/man interface at said remote control device, and an input of said embedded computer being operationally connected to at least one man/machine interface at said remote control device, and a set of hearing device-specific application programs (HDP; HDP1, HDP2,...) executable by said embedded computer and associated with different hearing device types,
A method for manually reading a code marked on a glass sheet, said glass sheet having a first main face on a first side and a second main face, opposite the first main face, on a second side, wherein, said glass sheet being fixed, a portable device (20, 40) equipped with an optical imaging system comprising at least one optical sensor and a light source is configured to be able to be engaged around an edge of said glass sheet in a position in which the optical sensor is located on the first side of said glass sheet facing the code in a reading direction corresponding to the observation direction of the optical imaging system, and the light source is arranged on the second side of said glass sheet, said code being illuminated by said light source located on the second side of said glass sheet, at least one image of the code is acquired by the optical imaging system.