mhurhangee/ep-ind-claims huggingface dataset:
A device for generating a transmission block for a precoded multi-carrier radio transmission, the device comprising at least one processor configured for or configured to trigger: providing a symbol, the symbol including a plurality of symbol elements, wherein a subset of the plurality of symbol elements is set to values depending on a boundary condition for the transmission block; precoding the symbol, wherein the precoding includes a Discrete Fourier Transform, DFT,; and generating the transmission block by multi-carrier modulation of the precoded symbol, wherein the multi-carrier modulation includes an Orthogonal Frequency-Division Multiplexing, OFDM, modulation, characterizing in that: a guard interval including a zero symbol element is inserted adjacent to the transmission block, and wherein the boundary condition relates to a boundary between the transmission block and the guard interval; the boundary condition specifies the symbol elements in the subset as a function of symbol elements outside of the subset; and the boundary condition specifies that a signal value of the transmission block and optionally one or more of its derivatives are continuous at the boundary. providing a symbol, the symbol including a plurality of symbol elements, wherein a subset of the plurality of symbol elements is set to values depending on a boundary condition for the transmission block; precoding the symbol, wherein the precoding includes a Discrete Fourier Transform, DFT,; and generating the transmission block by multi-carrier modulation of the precoded symbol, wherein the multi-carrier modulation includes an Orthogonal Frequency-Division Multiplexing, OFDM, modulation, characterizing in that: a guard interval including a zero symbol element is inserted adjacent to the transmission block, and wherein the boundary condition relates to a boundary between the transmission block and the guard interval; the boundary condition specifies the symbol elements in the subset as a function of symbol elements outside of the subset; and the boundary condition specifies that a signal value of the transmission block and optionally one or more of its derivatives are continuous at the boundary.
A reservoir assembly for an e-vaping device, the reservoir assembly comprising: a reservoir configured to hold pre-vapor formulation, wherein the reservoir includes a fluid port extending through an outer housing of the reservoir; a first bayonet connector assembly at an end of the reservoir; and a conduit extending into a space defined by the first bayonet connector assembly, wherein the first bayonet connector assembly is configured to detachably couple with a second bayonet connector assembly of an outlet assembly to establish a bayonet interface connection between the reservoir and the outlet assembly, such that the conduit is in fluid communication with an exterior of the reservoir assembly through an interior of the outlet assembly; and wherein the fluid port is isolated from the exterior of the reservoir assembly by the outlet assembly when the bayonet interface connection is established. a reservoir configured to hold pre-vapor formulation, wherein the reservoir includes a fluid port extending through an outer housing of the reservoir; a first bayonet connector assembly at an end of the reservoir; and a conduit extending into a space defined by the first bayonet connector assembly, wherein the first bayonet connector assembly is configured to detachably couple with a second bayonet connector assembly of an outlet assembly to establish a bayonet interface connection between the reservoir and the outlet assembly, such that the conduit is in fluid communication with an exterior of the reservoir assembly through an interior of the outlet assembly; and wherein the fluid port is isolated from the exterior of the reservoir assembly by the outlet assembly when the bayonet interface connection is established.
A method implemented by one or more computing devices, the method comprising: receiving a query request for data stored in at least two databases, wherein the query request is formed based at least in part on a first model, the first model comprising one or more queriable elements, and wherein the two databases require different implementations when applying a same query, generating a query instruction that matches the at least two databases by: converting the query request into an execution mode that matches with the at least two databases to be queried based at least in part on a conversion rule between the first model and a storage model, wherein the storage model comprises attribute information of the at least two databases to be queried and the conversion rule comprises a corresponding relationship between the one or more queriable elements in the first model and one or more attributes in the at least two databases to be queried; and accessing the at least two databases according to the execution mode. receiving a query request for data stored in at least two databases, wherein the query request is formed based at least in part on a first model, the first model comprising one or more queriable elements, and wherein the two databases require different implementations when applying a same query, generating a query instruction that matches the at least two databases by: converting the query request into an execution mode that matches with the at least two databases to be queried based at least in part on a conversion rule between the first model and a storage model, wherein the storage model comprises attribute information of the at least two databases to be queried and the conversion rule comprises a corresponding relationship between the one or more queriable elements in the first model and one or more attributes in the at least two databases to be queried; and accessing the at least two databases according to the execution mode.
A process for metallising a polymeric surface of an article, which process comprises applying to the polymeric surface a liquid carrier containing a suspension of leafing particles of metallic appearance, being made of, or coated with, a metal or an alloy, or of mica, wherein the polymeric surface and the liquid carrier are such that the wetting angle between the liquid carrier and the polymeric surface is of substantially 90° or above and wherein the particles and the polymeric surface are such that the particles have a greater affinity to the polymeric surface than to one another or to the liquid, whereby particles suspended in the liquid migrate to the interface between the liquid and the polymeric surface to form a monolayer coating of particles on the polymeric surface.
A method for Acknowledgement / Negative Acknowledgement, ACK/NACK, multiplexing based on Physical Uplink Control Channel, PUCCH, resource selection by a communication apparatus with a primary Component Carrier, CC, and a secondary CC which is a CC other than the primary CC in a wireless communication system, the method comprising: receiving a first Physical Downlink Control Channel, PDCCH, for scheduling the primary CC and a second PDCCH for scheduling the secondary CC; based on the first and second PDCCHs, receiving a first Physical Downlink Shared Channel, PDSCH, via the primary CC and a second PDSCH via the secondary CC; and transmitting a modulation symbol using a PUCCH resource among a plurality of PUCCH resources, based on an ACK/NACK state related to the first and second PDSCHs, according to the ACK/NACK multiplexing based on PUCCH resource selection, wherein, when a transmission mode of the primary CC is configured as a Multiple Input Multiple Output, MIMO, mode and the ACK/NACK state indicates any one of "ACK+ACK", "ACK+NACK", "NACK+ACK" and "NACK+NACK" for the first PDSCH and all "NACK(s)" for the second PDSCH, the PUCCH resource is determined based on a resource of the first PDCCH. receiving a first Physical Downlink Control Channel, PDCCH, for scheduling the primary CC and a second PDCCH for scheduling the secondary CC; based on the first and second PDCCHs, receiving a first Physical Downlink Shared Channel, PDSCH, via the primary CC and a second PDSCH via the secondary CC; and transmitting a modulation symbol using a PUCCH resource among a plurality of PUCCH resources, based on an ACK/NACK state related to the first and second PDSCHs, according to the ACK/NACK multiplexing based on PUCCH resource selection, wherein, when a transmission mode of the primary CC is configured as a Multiple Input Multiple Output, MIMO, mode and the ACK/NACK state indicates any one of "ACK+ACK", "ACK+NACK", "NACK+ACK" and "NACK+NACK" for the first PDSCH and all "NACK(s)" for the second PDSCH, the PUCCH resource is determined based on a resource of the first PDCCH.
A mobile communication method comprising: a step of notifying, by a radio base station (eNB), configuration information of a reference signal for a mobile station in a transmission point to the mobile station connected to a cell (#5) managed by the radio base station (eNB), when instructing an addition or change of the transmission point performing a coordinated multi-point transmission/reception process by an RRC Connection Reconfiguration including the configuration information of the reference signal; a step of measuring, by the mobile station, a channel quality of the transmission point by using the reference signal for the mobile station in the transmission point, while performing the coordinated multi-point transmission/reception process; and a step of notifying, by the mobile station, the channel quality of the transmission point to the radio base station (eNB). a step of notifying, by a radio base station (eNB), configuration information of a reference signal for a mobile station in a transmission point to the mobile station connected to a cell (#5) managed by the radio base station (eNB), when instructing an addition or change of the transmission point performing a coordinated multi-point transmission/reception process by an RRC Connection Reconfiguration including the configuration information of the reference signal; a step of measuring, by the mobile station, a channel quality of the transmission point by using the reference signal for the mobile station in the transmission point, while performing the coordinated multi-point transmission/reception process; and a step of notifying, by the mobile station, the channel quality of the transmission point to the radio base station (eNB).
A method for predicting whether a subject to be treated for monosymptomatic nocturnal enuresis will respond to said treatment comprising the steps of (i) determining a first level of copeptin in a first sample of said subject which has been obtained at a first time, (ii) determining a second level of copeptin in a second sample of said subject which has been obtained at a second time, wherein said first time is after an overnight fast of minimum 8 hrs and between 6 a.m. and 9 a.m. in the morning and said second time is between 6 pm and 9 p.m. at the same day, and wherein if the ratio of said first level to said second level (c1 / c2) is ≥ 1.00, said subject is predicted to respond to said treatment. (i) determining a first level of copeptin in a first sample of said subject which has been obtained at a first time, (ii) determining a second level of copeptin in a second sample of said subject which has been obtained at a second time, wherein said first time is after an overnight fast of minimum 8 hrs and between 6 a.m. and 9 a.m. in the morning and said second time is between 6 pm and 9 p.m. at the same day, and wherein if the ratio of said first level to said second level (c1 / c2) is ≥ 1.00, said subject is predicted to respond to said treatment.
A method of producing inorganic fibers comprising: heating and melting an inorganic raw material that comprises 70 wt% to 80 wt% of silica and 15 wt% to 30 wt% of magnesia and calcia in total and does not comprise BaO in a container to obtain a melt having a melt viscosity of 15 poise or less, rotating two or more rotors, opposing rotors rotating clockwise and counterclockwise respectively, supplying the melt to an outer circumferential surface of one rotor whereby the melt flows over outer circumferential surface of each rotor, rotating the rotors at an acceleration of 70 km/s 2 or more, drawing the melt due to a centrifugal force caused by rotation of the rotor to obtain fibers, blowing the fibers off by blowing air around the rotor, and collecting the fibers to obtain fibers having an average fiber diameter of 5 μm or less, wherein the container has a hole for supplying the melt to the rotor at its bottom, a rod is provided inside the container toward the hole, and the amount of the melt supplied to the rotor is adjusted by bringing the rod close to the hole when the hole has increased in diameter, the melt viscosity of the melt and the acceleration of the rotor satisfy the following expressions, A ≥ 36.81 × P − 11.21 15 ≥ P where, P is the melt viscosity in dPa.s (poise) of the melt, and A is the acceleration (km/s 2) of the rotor, and the fibers have the following composition, SiO 2: 70 wt% to 80 wt% CaO: 1 wt% to 9 wt% MgO: 10 wt% to 29 wt% Al 2 O 3: less than 3 wt%. heating and melting an inorganic raw material that comprises 70 wt% to 80 wt% of silica and 15 wt% to 30 wt% of magnesia and calcia in total and does not comprise BaO in a container to obtain a melt having a melt viscosity of 15 poise or less, rotating two or more rotors, opposing rotors rotating clockwise and counterclockwise respectively, supplying the melt to an outer circumferential surface of one rotor whereby the melt flows over outer circumferential surface of each rotor, rotating the rotors at an acceleration of 70 km/s 2 or more, drawing the melt due to a centrifugal force caused by rotation of the rotor to obtain fibers, blowing the fibers off by blowing air around the rotor, and collecting the fibers to obtain fibers having an average fiber diameter of 5 μm or less, wherein the container has a hole for supplying the melt to the rotor at its bottom, a rod is provided inside the container toward the hole, and the amount of the melt supplied to the rotor is adjusted by bringing the rod close to the hole when the hole has increased in diameter, the melt viscosity of the melt and the acceleration of the rotor satisfy the following expressions, A ≥ 36.81 × P − 11.21 15 ≥ P where, P is the melt viscosity in dPa.s (poise) of the melt, and A is the acceleration (km/s 2) of the rotor, and the fibers have the following composition, SiO 2: 70 wt% to 80 wt% CaO: 1 wt% to 9 wt% MgO: 10 wt% to 29 wt% Al 2 O 3: less than 3 wt%. SiO 2: 70 wt% to 80 wt% CaO: 1 wt% to 9 wt% MgO: 10 wt% to 29 wt% Al 2 O 3: less than 3 wt%.
A printing head adjustment device which adjusts a position of a head module in a head including one or more head modules (20,20A,20B), the head adjustment device comprising: an adjustment unit that includes an actuator (160,162) that is connected to an adjustment member, which is configured to be operated in a case where the position of the head module is to be adjusted, and operates the adjustment member; a movement unit configured to move the adjustment unit relative to the head; a detection unit (174,174A,174B) configured to detect a reference position of the head; and a movement control unit configured to set coordinates to be applied to the movement unit based on the reference position of the head and move the adjustment unit based on coordinate values of the adjustment member. an adjustment unit that includes an actuator (160,162) that is connected to an adjustment member, which is configured to be operated in a case where the position of the head module is to be adjusted, and operates the adjustment member; a movement unit configured to move the adjustment unit relative to the head; a detection unit (174,174A,174B) configured to detect a reference position of the head; and a movement control unit configured to set coordinates to be applied to the movement unit based on the reference position of the head and move the adjustment unit based on coordinate values of the adjustment member.
Compounds of formula wherein R 1 and R 2 are independently selected from H, alkyl and cycloalkyl; R 9 is H or alkyl; R 10 and R 11 together form -(CH 2) w -; A is -C - or -S 2 -; B is -C- or -N-; R 12 is cycloalkyl or substituted heteroaryl, wherein substituted heteroaryl is substituted with one to three subtituent independently selected from H, alkyl, cycloalkyl, hydroxy, alkoxy, cyano and halogen; R 13 is halogen, cyano, alkoxy or haloalkoxy; R 14 is H, alkyl or cycloalkyl; R 15 is H, alkyl, cycloalkyl or halogen; m, n and p are zero; w is 1, 2 or 3; and pharmaceutically acceptable salts thereof. R 1 and R 2 are independently selected from H, alkyl and cycloalkyl; R 9 is H or alkyl; R 10 and R 11 together form -(CH 2) w -; A is -C - or -S 2 -; B is -C- or -N-; R 12 is cycloalkyl or substituted heteroaryl, wherein substituted heteroaryl is substituted with one to three subtituent independently selected from H, alkyl, cycloalkyl, hydroxy, alkoxy, cyano and halogen; R 13 is halogen, cyano, alkoxy or haloalkoxy; R 14 is H, alkyl or cycloalkyl; R 15 is H, alkyl, cycloalkyl or halogen; m, n and p are zero; w is 1, 2 or 3;
An artificial turf system having a pile height between about 15 mm and about 70 mm and comprising: a turf backing layer, a plurality of turf fibers attached to the turf backing layer, and a dual layers infill, the first layer of said infill being a stabilizing infill layer on top of the turf backing layer and overlaying said turf backing layer, the second layer of said infill being a performance infill layer on top of the stabilizing infill layer and overlaying the stabilizing infill layer, wherein said infill is interspersed between the turf fibers supporting the turf fibers in an upright position and having a depth covering a portion of the turf fibers and exposing another portion of the turf fibers, wherein the infill comprises olive pit particles and another infill material, wherein the performance infill layer is an olive pit particles layer having a weight between about 1 kg per square meter and about 15 kg per square meter of olive pit particles, and the stabilizing infill layer is a layer of said another infill material being sand. a turf backing layer, a plurality of turf fibers attached to the turf backing layer, and a dual layers infill, the first layer of said infill being a stabilizing infill layer on top of the turf backing layer and overlaying said turf backing layer, the second layer of said infill being a performance infill layer on top of the stabilizing infill layer and overlaying the stabilizing infill layer, wherein said infill is interspersed between the turf fibers supporting the turf fibers in an upright position and having a depth covering a portion of the turf fibers and exposing another portion of the turf fibers, wherein the infill comprises olive pit particles and another infill material, wherein the performance infill layer is an olive pit particles layer having a weight between about 1 kg per square meter and about 15 kg per square meter of olive pit particles, and the stabilizing infill layer is a layer of said another infill material being sand.
Method of producing a shielding assembly for shielding against vibrations in the ground with the method steps: inserting a sinking body into the ground by means of an insertion device until a desired depth is reached, wherein the sinking body seen in cross-section has a length multiple times greater than a width, wherein the insertion device is detachably connected to a crossbeam for introducing forces into the sinking body and the crossbeam is detachably mounted on the sinking body wherein the sinking body displaces and supports the ground during insertion, introducing shielding means into the sinking body wherein at its lower end the sinking body has at least one opening through which the shielding means can exit downwards, pulling the sinking body out of the ground, wherein the shielding means remains in the ground and at least partially fills a hollow space created by the sinking body. inserting a sinking body into the ground by means of an insertion device until a desired depth is reached, wherein the sinking body seen in cross-section has a length multiple times greater than a width, wherein the insertion device is detachably connected to a crossbeam for introducing forces into the sinking body and the crossbeam is detachably mounted on the sinking body wherein the sinking body displaces and supports the ground during insertion, introducing shielding means into the sinking body wherein at its lower end the sinking body has at least one opening through which the shielding means can exit downwards, pulling the sinking body out of the ground, wherein the shielding means remains in the ground and at least partially fills a hollow space created by the sinking body.
Bidirectional trolley comprising a movable drawbar, a push handle, a loading and unloading plan, two front wheels (4, 4') and two rear wheels (40, 40') connected to the loading and unloading plan, a handling system comprising in turn a first toothed means connected by meshing to a second front wheel, and a second toothed means connected, again by meshing, to a second rear wheel, in which the first toothed means and the second toothed means are connected to each other by a connecting bar which allows the joint movement of the two toothed means (8, 80) as a result of the movement of the drawbar by means of the push handle by the user, said bidirectional trolley being characterized in that the drawbar comprises a folding metal ring which, once released, enters the working position and disengages a brake.
A footswitch assembly for controlling an adjustable bed, including: a footswitch (14a, 14b) for controlling an adjustable bed, the footswitch having an operative element (15a, 15b) and being configured to be actuated in response to pressure of a foot or part of a foot upon the operative element (15a, 15b); a guard member movable between a guarding position and a non-guarding position; wherein in the guarding position the guard member is configured to overlie a portion of the operative element (15a, 15b) to inhibit actuation of the footswitch (14a, 14b), and wherein in the non-guarding position the guard member is configured to allow access to the operative element (15a, 15b) for actuation of the footswitch (14a, 14b), further comprising a validation element being configured, in response to movement of the guard member into the non-guarding position, to validate actuation of the footswitch (14a, 14b), characterised in that the validation element is configured to be coupled to a control mechanism of the bed, the validation element being configured to receive at least one actuation signal from the footswitch (14a, 14b) and wherein validating the actuation of the footswitch includes sending a signal to the control mechanism of the bed corresponding to the actuation signal received from the footswitch (14a, 14b). a footswitch (14a, 14b) for controlling an adjustable bed, the footswitch having an operative element (15a, 15b) and being configured to be actuated in response to pressure of a foot or part of a foot upon the operative element (15a, 15b); a guard member movable between a guarding position and a non-guarding position; wherein in the guarding position the guard member is configured to overlie a portion of the operative element (15a, 15b) to inhibit actuation of the footswitch (14a, 14b), and wherein in the non-guarding position the guard member is configured to allow access to the operative element (15a, 15b) for actuation of the footswitch (14a, 14b), further comprising a validation element being configured, in response to movement of the guard member into the non-guarding position, to validate actuation of the footswitch (14a, 14b), characterised in that the validation element is configured to be coupled to a control mechanism of the bed, the validation element being configured to receive at least one actuation signal from the footswitch (14a, 14b) and wherein validating the actuation of the footswitch includes sending a signal to the control mechanism of the bed corresponding to the actuation signal received from the footswitch (14a, 14b).