mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting data, at a base station, BS, in a wireless communication system, the method comprising: transmitting downlink data to a first mobile station, MS, supporting a first system operating according to a first wireless communications standard via a first zone of a frame; and transmitting downlink data to a second mobile station, MS, supporting a second system operating according to a second wireless communications standard, via a second zone of the frame located behind the first zone by a frame offset on a time axis, wherein said first system and second system are different, and wherein the first zone includes an odd number of orthogonal frequency division multiplexing, OFDM, symbols and wherein the frame offset is an offset between a start point of a frame for the first system and a start point of a frame for the second system, and wherein the frame offset is defined as a number of subframes characterized in that the number of OFDM symbols of the first zone is (5+6*(the frame offset-1)). transmitting downlink data to a first mobile station, MS, supporting a first system operating according to a first wireless communications standard via a first zone of a frame; and transmitting downlink data to a second mobile station, MS, supporting a second system operating according to a second wireless communications standard, via a second zone of the frame located behind the first zone by a frame offset on a time axis, wherein said first system and second system are different, and wherein the first zone includes an odd number of orthogonal frequency division multiplexing, OFDM, symbols and wherein the frame offset is an offset between a start point of a frame for the first system and a start point of a frame for the second system, and wherein the frame offset is defined as a number of subframes characterized in that the number of OFDM symbols of the first zone is (5+6*(the frame offset-1)).
A user equipment apparatus comprising: means for selecting between a first scanning mode and a second scanning mode dependent on signal quality of a link between the user equipment and an access node (12, 16, 18) and also dependent on speed of the user equipment and/or network type of the access node; means for determining a scanning rate using the selected scanning mode and the speed of the user equipment, wherein the scanning rate reduces when the speed of the user equipment is increased above a first threshold speed; and means for detecting and measuring inter-frequency neighbor cells according to the determined scanning rate. means for selecting between a first scanning mode and a second scanning mode dependent on signal quality of a link between the user equipment and an access node (12, 16, 18) and also dependent on speed of the user equipment and/or network type of the access node; means for determining a scanning rate using the selected scanning mode and the speed of the user equipment, wherein the scanning rate reduces when the speed of the user equipment is increased above a first threshold speed; and means for detecting and measuring inter-frequency neighbor cells according to the determined scanning rate.
A method for use in a base station configuring a user equipment to switch from a fixed uplink-downlink (UL-DL) time division duplex configuration to a flexible UL-DL TDD configuration, the method comprising: sending, to the UE, a signaling message to switch the UE from the fixed UL-DL TDD configuration to the flexible UL-DL TDD configuration; determining a set of DL subframes based on the fixed UL-DL TDD configuration and a reference DL TDD configuration of the flexible UL-DL TDD configuration; and scheduling DL transmissions for the UE only within the determined set of DL subframes. sending, to the UE, a signaling message to switch the UE from the fixed UL-DL TDD configuration to the flexible UL-DL TDD configuration; determining a set of DL subframes based on the fixed UL-DL TDD configuration and a reference DL TDD configuration of the flexible UL-DL TDD configuration; and scheduling DL transmissions for the UE only within the determined set of DL subframes.
An isolated monomeric Fc polypeptide comprising a CH2 and a CH3 domain, which binds the neonatal Fc receptor, and comprises one of: (a) the amino acid sequence set forth as SEQ ID NO: 5 (mFc.23); (b) the amino acid sequence set forth as SEQ ID NO: 6 (mFc.23.4); (c) the amino acid sequence set forth as SEQ ID NO: 47; or (d) the amino acid sequence set forth as SEQ ID NO: 48. (a) the amino acid sequence set forth as SEQ ID NO: 5 (mFc.23); (b) the amino acid sequence set forth as SEQ ID NO: 6 (mFc.23.4); (c) the amino acid sequence set forth as SEQ ID NO: 47; or (d) the amino acid sequence set forth as SEQ ID NO: 48.
Transport container system having at least one container that has a base, a casing and a lid, having inner wall elements that are arranged on the walls of the container on the inner faces thereof and may be removed from the container and inserted into the container, wherein each inner wall element has predetermined dimensions that are adapted to the associated inner face of the container, wherein at least in the case of some of the inner wall elements a plurality of versions having at least substantially the same dimensions are part of the transport container system, wherein an inner wall element in one of the versions (6.1; 6.2; 6.3) may optionally be inserted in the container at the position provided for the relevant inner wall element, characterized in that in a first version the relevant inner wall element is a latent heat storage element or another heat storage element or a vacuum insulation panel, and in a second version the inner wall element is a place-holder element having less thermal insulation effect than a vacuum insulation panel, or in that in a first version the inner wall element (6.1) is a latent heat storage element or another heat storage element, in a second version the inner wall element (6.2) is a vacuum insulation panel and in a third version the inner wall element (6.3) is a place-holder element having less thermal insulation effect than a vacuum insulation panel.
A broad band directional antenna comprising: - a conductive ground plane having a main axis extending perpendicularly to the conductive ground plane; - at least one active radiator which is axially spaced from the conductive ground plane in one direction, - a metamaterial ground plane assembly comprising: o a metamaterial ground plane having a periphery; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall, - the metamaterial ground plane assembly being arranged such that the bottom of the first conductive wall is located between the conductive ground plane and the metamaterial ground plane and the top of the first conductive wall is located beyond the at least one active radiator in the one direction; and - at least one conductive pillar (28.1) between the first conductive wall and the conductive ground plane. - a conductive ground plane having a main axis extending perpendicularly to the conductive ground plane; - at least one active radiator which is axially spaced from the conductive ground plane in one direction, - a metamaterial ground plane assembly comprising: o a metamaterial ground plane having a periphery; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall, o a metamaterial ground plane having a periphery; o a first conductive wall immediately adjacent the periphery of the metamaterial ground plane, the first conductive wall having a bottom and a top; and o a second wall comprising at least two mutually electrically insulated conductive wall parts (26.1, 26.2) located spaced from and outside of the first conductive wall, - the metamaterial ground plane assembly being arranged such that the bottom of the first conductive wall is located between the conductive ground plane and the metamaterial ground plane and the top of the first conductive wall is located beyond the at least one active radiator in the one direction; and - at least one conductive pillar (28.1) between the first conductive wall and the conductive ground plane.
A method for placing preforms onto a mandrel for hardening into a composite part, the mandrel including mandrel segments, the method comprising: moving a mandrel segment in a process direction relative to a placement station that includes multiple pick-and-place machines; placing a strong back at a preform via at least one of the PNP machines; applying vacuum pressure to hold the preform in contact with the strong back; transporting (448, 462) the preform to the mandrel segment via the at least one PNP machine; and placing the preform onto the mandrel segment. moving a mandrel segment in a process direction relative to a placement station that includes multiple pick-and-place machines; placing a strong back at a preform via at least one of the PNP machines; applying vacuum pressure to hold the preform in contact with the strong back; transporting (448, 462) the preform to the mandrel segment via the at least one PNP machine; and placing the preform onto the mandrel segment.
A method of identifying a microorganism from a test sample, comprising: (a) providing a test sample known to contain or that may contain microorganisms; (b) selectively lysing non-microorganism cells in said test sample to produce a lysed sample; (c) layering said lysed sample on a density cushion in a container, wherein said density cushion has a homogenous density of from 1.025 to 1.120 g/ml; (d) centrifuging said container to separate said microorganism from other components of said lysed sample, said microorganism passing through said density cushion to form a pellet of said microorganism at the bottom of said container; (e) spectroscopically interrogating said pellet in situ to produce an excitation-emission matrix of said microorganism, wherein said spectroscopic interrogation is based on intrinsic fluorescence of said microorganism wherein said intrinsic fluorescence is measured in front face mode; and (f) identifying said microorganism in said pellet by comparison of the spectroscopic measurements with spectroscopic measurements taken, or spectroscopic properties predicted, of known microorganisms, wherein said microorganism is identified to the genus level, species level, or strain level. (a) providing a test sample known to contain or that may contain microorganisms; (b) selectively lysing non-microorganism cells in said test sample to produce a lysed sample; (c) layering said lysed sample on a density cushion in a container, wherein said density cushion has a homogenous density of from 1.025 to 1.120 g/ml; (d) centrifuging said container to separate said microorganism from other components of said lysed sample, said microorganism passing through said density cushion to form a pellet of said microorganism at the bottom of said container; (e) spectroscopically interrogating said pellet in situ to produce an excitation-emission matrix of said microorganism, wherein said spectroscopic interrogation is based on intrinsic fluorescence of said microorganism wherein said intrinsic fluorescence is measured in front face mode; and (f) identifying said microorganism in said pellet by comparison of the spectroscopic measurements with spectroscopic measurements taken, or spectroscopic properties predicted, of known microorganisms, wherein said microorganism is identified to the genus level, species level, or strain level.
A semiconductor radiation detector for detecting X-ray and / or gamma-ray radiation comprising: a converter element for converting incident X-ray and gamma-ray photons into electron-hole pairs, said converter element comprising a first side and a second side, said second side being opposite to said first side; at least one cathode arranged on said first side of said converter element; a plurality of detector electrodes arranged on said second side of said converter element with a pitch along a first axis; a plurality of drift electrodes arranged on said second side of said converter element, each drift electrode being connected to a voltage source configured to apply a potential being negative relative to the electrical potential of said plurality of detector electrodes, whereby electrons are steered towards said plurality of detector electrodes; a readout circuitry being configured to read out signals from said plurality of detector electrodes; a processing unit connected to said readout circuitry, said processing unit being configured to detect an event in said converter element; wherein said readout circuitry is further configured to read out signals from said plurality of drift electrodes, characterised in that said processing unit is further configured to estimate a location of said event along said first axis by processing signals obtained from both said detector electrodes and said drift electrodes, the location of the event along said first axis is estimated with a precision being greater than the pitch. a converter element for converting incident X-ray and gamma-ray photons into electron-hole pairs, said converter element comprising a first side and a second side, said second side being opposite to said first side; at least one cathode arranged on said first side of said converter element; a plurality of detector electrodes arranged on said second side of said converter element with a pitch along a first axis; a plurality of drift electrodes arranged on said second side of said converter element, each drift electrode being connected to a voltage source configured to apply a potential being negative relative to the electrical potential of said plurality of detector electrodes, whereby electrons are steered towards said plurality of detector electrodes; a readout circuitry being configured to read out signals from said plurality of detector electrodes; a processing unit connected to said readout circuitry, said processing unit being configured to detect an event in said converter element; wherein said readout circuitry is further configured to read out signals from said plurality of drift electrodes, characterised in that said processing unit is further configured to estimate a location of said event along said first axis by processing signals obtained from both said detector electrodes and said drift electrodes, the location of the event along said first axis is estimated with a precision being greater than the pitch.
A bogey assembly including a body with a bore for threaded engagement with a hanger bolt, and a lock mechanism to engage side flats of the hanger bolt and thereby lock the bolt against rotation and axial movement relative to the body, wherein the lock mechanism includes a collar that includes a throat which is profiled to key with side flats of the hanger bolt and rotate with the bolt during height adjustment obtained by rotating the bolt relative to the body, and wherein the lock mechanism further includes a keeper that is arranged to move from a free position into an engaged position with the collar, wherein the collar has a slotted external profile into which the keeper is moved to engage the collar, in order to lock the bolt against rotation relative to the body; wherein at least part of the lock mechanism is recessed into the body.
A particle characterisation apparatus comprising: a light source; a sample cell; an optical group (56, 58); and a detector (42, 44, 44a, 44b); wherein the light source is operable to illuminate a sample within the sample cell with a light beam along a light beam axis, the light beam producing scattered light by interactions with the sample; wherein the optical group (56, 58) is configured to collect and focus scattered light on the detector (42, 44, 44a, 44b), and comprises at least one lens element (94, 95, 96, 97, 99a, 99b); characterized in that a lens element (94, 95, 96, 97, 99a, 99b) of the optical group (56, 58) comprises an open region along the lens element axis, and the lens element (94, 95, 96, 97, 99a, 99b) is positioned with its axis substantially coincident with the light beam axis so that the light beam passes through the open region.
A seat base sliding device, comprising: a seat base including a lower part adapted to be fixed to a floor of a vehicle body and an upper part adapted to be fixed to a seat, sliding plates located on left and right sides of the seat base and slidable according to a lateral direction of the seat base wherein a control stand is fixed to one side of each of the sliding plates; and at least one adjustment unit selectively fixing the sliding plates to the seat base at a certain position determined by sliding movement of the sliding plates. a seat base including a lower part adapted to be fixed to a floor of a vehicle body and an upper part adapted to be fixed to a seat, sliding plates located on left and right sides of the seat base and slidable according to a lateral direction of the seat base wherein a control stand is fixed to one side of each of the sliding plates; and at least one adjustment unit selectively fixing the sliding plates to the seat base at a certain position determined by sliding movement of the sliding plates.
Optical system for a sensor, comprising a lens holder and a lens which can be positioned on the lens holder in a continuous range of relative positions along its optical axis, whereby the optical system comprises at least one thermoplastic fixing element (7, 7a, 7b, 7c, 7d, 7e, 7s, 7s', 7z, 7z') for fixing the lens in a desired relative position (15a, 15k, 15k', 15v) through the thermoplastic forming of the fixing element (7, 7a, 7b, 7c, 7d, 7e, 7s, 7s', 7z, 7z'), whereby the optical system comprises a guiding element (11, 11a, 11b, 11c, 11c') for guiding the lens along its optical axis relative to the lens holder, characterized in that the thermoplastic fixing element (7, 7a, 7b, 7c, 7d, 7e, 7s, 7s', 7z, 7z') is integral with the lens or the lens holder.
Method of mapping source colors, in a given color space, from a source color device having an actual source gamut into target colors for a target color device having an actual target gamut different from said actual source gamut, wherein at least one of the actual source gamut and the actual target gamut is non-convex and wherein said source colors are inside said actual source gamut, comprising the steps of: - in order to represent the actual source gamut, creating a source convex gamut boundary descriptor and, if this actual source gamut is non-convex, a source non-convex gamut boundary descriptor that is included into said source convex gamut boundary descriptor, - in order to represent the actual target gamut, creating a target convex gamut boundary descriptor and, if this actual target gamut is non-convex, a target non-convex gamut boundary descriptor that is included into said target convex gamut boundary descriptor, then, for each source color to map, 1 - if the actual source gamut is non-convex, and if said source color is located outside said source non-convex gamut boundary descriptor, pre-mapping said source color into a pre-mapped source color such that it is located inside said source non-convex gamut boundary descriptor, 2 - main-mapping said source color if not pre-mapped or said pre-mapped source color into a target color that is located inside said target convex gamut boundary descriptor, 3 - if the actual target gamut is non-convex, and at least if said main-mapped target color is located outside said target non-convex gamut boundary descriptor, post-mapping said main-mapped target color into a final target color such that that is located inside said target non-convex gamut boundary descriptor. - in order to represent the actual source gamut, creating a source convex gamut boundary descriptor and, if this actual source gamut is non-convex, a source non-convex gamut boundary descriptor that is included into said source convex gamut boundary descriptor, - in order to represent the actual target gamut, creating a target convex gamut boundary descriptor and, if this actual target gamut is non-convex, a target non-convex gamut boundary descriptor that is included into said target convex gamut boundary descriptor, 1 - if the actual source gamut is non-convex, and if said source color is located outside said source non-convex gamut boundary descriptor, pre-mapping said source color into a pre-mapped source color such that it is located inside said source non-convex gamut boundary descriptor, 2 - main-mapping said source color if not pre-mapped or said pre-mapped source color into a target color that is located inside said target convex gamut boundary descriptor, 3 - if the actual target gamut is non-convex, and at least if said main-mapped target color is located outside said target non-convex gamut boundary descriptor, post-mapping said main-mapped target color into a final target color such that that is located inside said target non-convex gamut boundary descriptor.
A pharmaceutical composition comprising: prasugrel, and a cyclodextrin derivative of formula I: wherein n is 4, 5 or 6, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 are independently selected from: -OH, a straight-chain or branched -O-(C 1 -C 8 -(alkylene))-SO 3 - group, an optionally substituted straight-chain, branched, or cyclic -O-(C 1 -C 10) group, an optionally substituted straight-chain, branched, or cyclic -S-(C 1 -C 10) group, and a saccharide, and wherein the cyclodextrin derivative is present in a concentration of at least 100:1 by weight relative to the prasugrel. prasugrel, and a cyclodextrin derivative of formula I: wherein n is 4, 5 or 6, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 are independently selected from: -OH, a straight-chain or branched -O-(C 1 -C 8 -(alkylene))-SO 3 - group, an optionally substituted straight-chain, branched, or cyclic -O-(C 1 -C 10) group, an optionally substituted straight-chain, branched, or cyclic -S-(C 1 -C 10) group, and a saccharide, and wherein the cyclodextrin derivative is present in a concentration of at least 100:1 by weight relative to the prasugrel. wherein n is 4, 5 or 6, wherein R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 and R 9 are independently selected from: -OH, a straight-chain or branched -O-(C 1 -C 8 -(alkylene))-SO 3 - group, an optionally substituted straight-chain, branched, or cyclic -O-(C 1 -C 10) group, an optionally substituted straight-chain, branched, or cyclic -S-(C 1 -C 10) group, and a saccharide, and wherein the cyclodextrin derivative is present in a concentration of at least 100:1 by weight relative to the prasugrel. -OH, a straight-chain or branched -O-(C 1 -C 8 -(alkylene))-SO 3 - group, an optionally substituted straight-chain, branched, or cyclic -O-(C 1 -C 10) group, an optionally substituted straight-chain, branched, or cyclic -S-(C 1 -C 10) group, and a saccharide, and wherein the cyclodextrin derivative is present in a concentration of at least 100:1 by weight relative to the prasugrel.