mhurhangee/ep-ind-claims huggingface dataset:
A method for allocating resources by a base station in a wireless communication system, the method comprising: dividing subcarriers into subcarrier sets each having a predetermined number of subcarriers, and generating or storing a default resource index table including a plurality of offset values mapped to a plurality of resource indexes on a one-to-one basis such that a distance between the plurality of offset values for the subcarrier sets mapped to n consecutive indexes from an index 0 is maximized; generating (340, 430) a resource index table for the base station by shifting mapping between the plurality of offset values and the plurality of resource indexes in the default resource index table, based on a cell specific offset value which is calculated using a hash function to which cell specific information is inputted, the cell specific information being assigned differently between neighboring base stations; and allocating resources to a terminal using the generated resource index table for the base station, wherein the hash function uses the following equation: f x = x % Number _ Of _ SubCarrierSet where "Number_Of_SubCarrierSet" denotes a maximum number of the subcarrier sets existing in the base station, "x" denotes a resource table offset value as the cell specific information, and "%" denotes an operation of taking a remainder obtained by dividing the "x" by the "Number_Of_SubCarrierSet". dividing subcarriers into subcarrier sets each having a predetermined number of subcarriers, and generating or storing a default resource index table including a plurality of offset values mapped to a plurality of resource indexes on a one-to-one basis such that a distance between the plurality of offset values for the subcarrier sets mapped to n consecutive indexes from an index 0 is maximized; generating (340, 430) a resource index table for the base station by shifting mapping between the plurality of offset values and the plurality of resource indexes in the default resource index table, based on a cell specific offset value which is calculated using a hash function to which cell specific information is inputted, the cell specific information being assigned differently between neighboring base stations; and allocating resources to a terminal using the generated resource index table for the base station, wherein the hash function uses the following equation: f x = x % Number _ Of _ SubCarrierSet where "Number_Of_SubCarrierSet" denotes a maximum number of the subcarrier sets existing in the base station, "x" denotes a resource table offset value as the cell specific information, and "%" denotes an operation of taking a remainder obtained by dividing the "x" by the "Number_Of_SubCarrierSet".
An assembly for mounting cables comprising a cable hanger and a grommet adapted for insertion into said cable hanger, the grommet comprising: a generally C-shaped main body formed of a polymeric material and having a longitudinal axis; wherein the main body includes a plurality of apertures (60, 62, 64) extending generally parallel to a longitudinal axis of the main body, and wherein the plurality of apertures (60, 62, 64) extend less than a full thickness of the main body, and wherein the plurality of apertures (60, 62, 64) comprises a first set of apertures that extend into the main body from an upper surface of the main body and a second set of apertures that extend into the main body from a lower surface of the main body; and upper and lower flanges (54, 55) that extend radially outwardly from the main body, and wherein at least one of the upper and lower flanges (54, 55) includes a protrusion that extends radially inwardly; and wherein the main body of the grommet resides in a cavity formed by the cable hanger. a generally C-shaped main body formed of a polymeric material and having a longitudinal axis; wherein the main body includes a plurality of apertures (60, 62, 64) extending generally parallel to a longitudinal axis of the main body, and wherein the plurality of apertures (60, 62, 64) extend less than a full thickness of the main body, and wherein the plurality of apertures (60, 62, 64) comprises a first set of apertures that extend into the main body from an upper surface of the main body and a second set of apertures that extend into the main body from a lower surface of the main body; and upper and lower flanges (54, 55) that extend radially outwardly from the main body, and wherein at least one of the upper and lower flanges (54, 55) includes a protrusion that extends radially inwardly; and wherein the main body of the grommet resides in a cavity formed by the cable hanger.
Method for winding a winding material from a supply device onto a winding body, having a non-circular cross section, of a winding machine, comprising the following steps: providing the winding material from the supply device; and winding the winding material provided by the supply device onto the winding body by way of at least one deflection roller, wherein an actual winding tension of the winding material is set to a setpoint winding tension depending on a position-dependent compensation signal, stored in a storage unit, for compensating a changeable free length (x), resulting from the non-circular cross section of the winding material, of the winding material between the deflection roller and the winding body; characterized in that the position-dependent compensation signal is calculated depending on a respective determined position (α) of the winding body for a simulated winding cycle consisting of N rotations of the winding body prior to the winding of the winding material onto the winding body and is stored in a table of the storage unit; and in that the calculated position-dependent compensation signal is filtered by way of a filter of a predetermined filter order prior to storage in the table, and the filtered position-dependent compensation signal is stored in the table of the storage unit. providing the winding material from the supply device; and winding the winding material provided by the supply device onto the winding body by way of at least one deflection roller, wherein an actual winding tension of the winding material is set to a setpoint winding tension depending on a position-dependent compensation signal, stored in a storage unit, for compensating a changeable free length (x), resulting from the non-circular cross section of the winding material, of the winding material between the deflection roller and the winding body; characterized in that the position-dependent compensation signal is calculated depending on a respective determined position (α) of the winding body for a simulated winding cycle consisting of N rotations of the winding body prior to the winding of the winding material onto the winding body and is stored in a table of the storage unit; and in that the calculated position-dependent compensation signal is filtered by way of a filter of a predetermined filter order prior to storage in the table, and the filtered position-dependent compensation signal is stored in the table of the storage unit.
A fertilizing composition comprising a glass matrix, said glass matrix comprising at least three forming oxides, wherein said at least three forming oxides are SiO 2, P 2 O 5 and B 2 O 3, and have a ratio by weight between SiO 2 /P 2 O 5 comprised from 1 to 5 and a ratio by weight between SiO 2 /B 2 O 3 comprised from 15 to 25, wherein said glass matrix comprises at least one microelement selected from among: iron, zinc, copper, manganese, cobalt, molybdenum and mixtures thereof, said at least one microelement being present within said glass matrix in oxide form.
A multi-modal imaging system, comprising: a stage comprising a rotating table (172; 272) adapted to rotate the imaging object about a vertical axis running therethrough, and adapted to support an imaging object, from below the object, at a single location during a multi-modal imaging process; an optical imaging system comprising a camera (44, 144), and configured to obtain optical imaging data on the imaging object while the imaging object is on the stage, wherein the optical imaging data is obtained with respect to a first axis running through the imaging object by a camera positioned above the imaging object and along a vertical axis; and a secondary imaging system separate from said optical imaging system and configured to obtain secondary imaging data while the imaging object is on the stage, wherein the multi-modal imaging system is adapted such that the optical imaging data and the secondary imaging data are both able to be obtained while the imaging object remains at the single location, and such that the secondary imaging data is obtained with respect to a second axis running through the imaging object, said second axis being orthogonal with respect to said first axis, wherein the secondary imaging system is an x-ray imaging system, characterised in that the stage comprises transillumination components adapted to transilluminate the imaging object from below. a stage comprising a rotating table (172; 272) adapted to rotate the imaging object about a vertical axis running therethrough, and adapted to support an imaging object, from below the object, at a single location during a multi-modal imaging process; an optical imaging system comprising a camera (44, 144), and configured to obtain optical imaging data on the imaging object while the imaging object is on the stage, wherein the optical imaging data is obtained with respect to a first axis running through the imaging object by a camera positioned above the imaging object and along a vertical axis; and a secondary imaging system separate from said optical imaging system and configured to obtain secondary imaging data while the imaging object is on the stage, wherein the multi-modal imaging system is adapted such that the optical imaging data and the secondary imaging data are both able to be obtained while the imaging object remains at the single location, and such that the secondary imaging data is obtained with respect to a second axis running through the imaging object, said second axis being orthogonal with respect to said first axis, wherein the secondary imaging system is an x-ray imaging system, characterised in that the stage comprises transillumination components adapted to transilluminate the imaging object from below.
Medical instrumentation (42; 142), in particular for implanting a hip joint stem (20a, 20b, 20c; 120a, 120b, 120c; 120a', 120b', 120c'), comprising a rasping instrument (44; 144) having a rasp stem (46; 146) defining a longitudinal direction (28; 128), wherein the rasp stem (46; 146) has at least two depth stops (152a, 152b, 152c) arranged or formed thereon, wherein at least two of the at least two depth stops (152a, 152b) comprise at least one groove (192a, 192b), characterized in that the grooves (192a, 192b) on the rasp stem extend parallel or essentially parallel to an end face of the rasp stem pointing in a proximal direction, in that the instrumentation comprises a coupling element arranged or formed on the rasp stem for coupling the rasp stem with a handle element, in that the coupling element is arranged or formed extending from the end face pointing in a proximal or in an essentially proximal direction, and in that the depth stop faces (154a, 154b, 154c) defined by the at least two depth stops (152a, 152b, 152c) have different surface textures or are differently coloured.
A compound having the formula: or a pharmaceutically acceptable salt thereof; wherein: R 1 is independently halogen, -CF 3, -CCl 3, -CI 3, -CBr 3, -CHF 2, -CHCl 2, -CHI 2, -CHBr 2, -OCH 2 F, -OCH 2 CI, -OCH 2 I, -OCH 2 Br, -OCHF 2, -OCHCl 2, -OCHI 2, -OCHBr 2, -OCF 3, -OCCl 3, -OCI 3, -OCBr 3; R 2 is independently unsubstituted C 1 -C 4 alkyl; R 3 is unsubstituted alkyl, unsubstituted heteroalkyl, unsubstituted cycloalkyl, unsubstituted heterocycloalkyl, unsubstituted aryl, or unsubstituted heteroaryl; Y is S or O; z1 is an integer of 0 or 1; z2 is an integer of 0, 1, or 2; and wherein the compound does not have the formula: or R 1 is independently halogen, -CF 3, -CCl 3, -CI 3, -CBr 3, -CHF 2, -CHCl 2, -CHI 2, -CHBr 2, -OCH 2 F, -OCH 2 CI, -OCH 2 I, -OCH 2 Br, -OCHF 2, -OCHCl 2, -OCHI 2, -OCHBr 2, -OCF 3, -OCCl 3, -OCI 3, -OCBr 3; R 2 is independently unsubstituted C 1 -C 4 alkyl; R 3 is unsubstituted alkyl, unsubstituted heteroalkyl, unsubstituted cycloalkyl, unsubstituted heterocycloalkyl, unsubstituted aryl, or unsubstituted heteroaryl; Y is S or O; z1 is an integer of 0 or 1; z2 is an integer of 0, 1, or 2; and wherein the compound does not have the formula: or
A hot melt adhesive composition, comprising: 1-60 wt% of a block composite compatibilizer comprising: (i) a hard polymer that includes propylene; (ii) a soft polymer that includes ethylene; and (iii) a block copolymer having a soft block and a hard block, the hard block of the block copolymer having the same composition as the hard polymer of the block composite compatibilizer and the soft block of the block copolymer having the same composition as the soft polymer of the block composite compatibilizer; 1-70 wt% of a tackifier; 1-40 wt% of at least one selected from the group of a wax and an oil; and Optionally, from greater than zero to 97 wt% of a polymer component that includes an ethylene-based polymer and/or a propylene-based polymer; wherein the soft block of the block copolymer includes from 50 wt% to 84 wt% of units derived from ethylene with a remainder derived from propylene and wherein the hard block of the block copolymer includes from 0 wt% to 20 wt% of units derived from ethylene and a remainder derived from propylene. 1-60 wt% of a block composite compatibilizer comprising: (i) a hard polymer that includes propylene; (ii) a soft polymer that includes ethylene; and (iii) a block copolymer having a soft block and a hard block, the hard block of the block copolymer having the same composition as the hard polymer of the block composite compatibilizer and the soft block of the block copolymer having the same composition as the soft polymer of the block composite compatibilizer; (i) a hard polymer that includes propylene; (ii) a soft polymer that includes ethylene; and (iii) a block copolymer having a soft block and a hard block, the hard block of the block copolymer having the same composition as the hard polymer of the block composite compatibilizer and the soft block of the block copolymer having the same composition as the soft polymer of the block composite compatibilizer; 1-70 wt% of a tackifier; 1-40 wt% of at least one selected from the group of a wax and an oil; and Optionally, from greater than zero to 97 wt% of a polymer component that includes an ethylene-based polymer and/or a propylene-based polymer;
A method for operating an HVAC system, the HVAC system having an HVAC unit for conditioning inside air of a building and an HVAC controller configured to control whether the HVAC unit is in a cooling mode or a heating mode and whether the HVAC unit is currently activated or not, the method comprising: sensing a temperature of the inside air of the building; maintaining in a memory of the HVAC controller a recurring schedule having a number of time periods, the recurring schedule having a control mode associated with at least two of the number of time periods, at least one of the time periods being associated with an HVAC-off control mode in which the HVAC unit does not condition the inside air of the building regardless of the sensed temperature of the inside air, and at least another one of the time periods being associated with an HVAC-on control mode in which the HVAC unit controls the sensed temperature of the inside air of the building in accordance with one or more setpoints; and controlling the HVAC unit with the HVAC controller in accordance with the recurring schedule. sensing a temperature of the inside air of the building; maintaining in a memory of the HVAC controller a recurring schedule having a number of time periods, the recurring schedule having a control mode associated with at least two of the number of time periods, at least one of the time periods being associated with an HVAC-off control mode in which the HVAC unit does not condition the inside air of the building regardless of the sensed temperature of the inside air, and at least another one of the time periods being associated with an HVAC-on control mode in which the HVAC unit controls the sensed temperature of the inside air of the building in accordance with one or more setpoints; and controlling the HVAC unit with the HVAC controller in accordance with the recurring schedule.
An apparatus for testing a fatigue of a metal foil, comprising: a metal foil moving unit including an unwinding roll, from which a metal foil is unwound, a plurality of guide rolls configured to support and transfer the metal foil supplied from the unwinding roll, and a rewinding roll where the metal foil transferred from the guide rolls is wound; a tensile strength measuring unit configured to measure tensile strength of the metal foil, characterized by a control unit configured to control the metal foil moving unit to operate according to preset movement conditions to repeatedly move the metal foil between the unwinding roll and the rewinding roll in a forward direction and a reverse direction, wherein the movement conditions include at least a winding direction (A, B) of the metal foil defining the direction (A, B) in which the metal foil is moved, and a number of times of winding of the metal foil defining the number of times of the movement of the metal foil in the forward direction and the reverse direction. a metal foil moving unit including an unwinding roll, from which a metal foil is unwound, a plurality of guide rolls configured to support and transfer the metal foil supplied from the unwinding roll, and a rewinding roll where the metal foil transferred from the guide rolls is wound; a tensile strength measuring unit configured to measure tensile strength of the metal foil, characterized by a control unit configured to control the metal foil moving unit to operate according to preset movement conditions to repeatedly move the metal foil between the unwinding roll and the rewinding roll in a forward direction and a reverse direction, wherein the movement conditions include at least a winding direction (A, B) of the metal foil defining the direction (A, B) in which the metal foil is moved, and a number of times of winding of the metal foil defining the number of times of the movement of the metal foil in the forward direction and the reverse direction.
A method of allocating resources in a slot-based time domain duplex system, wherein each slot comprises a plurality of OFDM symbols, the method being performed by a plurality of proximal base stations in a cellular communication system and comprising the steps of at a first proximal base station defining, for a slot k, an uplink region of u k OFDM symbols, and a downlink region of d k OFDM symbols, and at the first proximal base station defining, for a slot k+1, an uplink region of u k+1 = u k +/- n OFDM symbols, and a downlink region of d k+1 = d k +/- n OFDM symbols, where k and n are positive integers and u k + d k = u k+1 + d k+1, wherein n = 1, and at a second proximal base station scheduling, in slot k+1, traffic based on the regions defined for slot k by the first proximal base station and n. at a first proximal base station defining, for a slot k, an uplink region of u k OFDM symbols, and a downlink region of d k OFDM symbols, and at the first proximal base station defining, for a slot k+1, an uplink region of u k+1 = u k +/- n OFDM symbols, and a downlink region of d k+1 = d k +/- n OFDM symbols, where k and n are positive integers and u k + d k = u k+1 + d k+1, wherein n = 1, and at a second proximal base station scheduling, in slot k+1, traffic based on the regions defined for slot k by the first proximal base station and n.
A method for the synthesis of a compound of Formula IIIa: wherein R 1 is H or a nitrogen protecting group, the method comprising treating a compound of Formula Ia with reagents to form an acyl azide: wherein R 1 is H or a nitrogen protecting group; followed by decomposition of the acyl azide to provide an isocyanate; which isocyanate undergoes nucleophilic attack with an alcohol or water. wherein R 1 is H or a nitrogen protecting group, the method comprising treating a compound of Formula Ia with reagents to form an acyl azide: wherein R 1 is H or a nitrogen protecting group; followed by decomposition of the acyl azide to provide an isocyanate; which isocyanate undergoes nucleophilic attack with an alcohol or water.
Apparatus comprising an endovascular stent-graft, which comprises a generally tubular hourglass-shaped body, which body (a) is configured to assume a radially-compressed delivery configuration and a radially-expanded deployment configuration, and (b) comprises: a flexible stent member, which comprises a plurality of structural stent elements; and a tubular fluid flow guide, which comprises a fabric, and is attached to the structural stent elements, wherein the hourglass-shaped body is shaped so as to define a narrow waist portion longitudinally surrounded by and adjacent to wider first and second longitudinal portions (30, 34) of the hourglass-shaped body, and wherein the fabric along the waist portion is shaped so as to define at least first and second lateral apertures (36, 38), characterized in that: the hourglass-shaped body, including the waist portion, is configured to assume an intermediate deployment configuration, in which an average diameter of the waist portion is at least 10% less than when the hourglass-shaped body, including the waist portion, is in the radially-expanded deployment configuration, and the apparatus further comprises a releasable latching mechanism, which is configured to assume a latched state in which the mechanism confines the structural stent elements of the waist portion in the intermediate deployment configuration. a flexible stent member, which comprises a plurality of structural stent elements; and a tubular fluid flow guide, which comprises a fabric, and is attached to the structural stent elements, wherein the hourglass-shaped body is shaped so as to define a narrow waist portion longitudinally surrounded by and adjacent to wider first and second longitudinal portions (30, 34) of the hourglass-shaped body, and wherein the fabric along the waist portion is shaped so as to define at least first and second lateral apertures (36, 38), characterized in that: the hourglass-shaped body, including the waist portion, is configured to assume an intermediate deployment configuration, in which an average diameter of the waist portion is at least 10% less than when the hourglass-shaped body, including the waist portion, is in the radially-expanded deployment configuration, and the apparatus further comprises a releasable latching mechanism, which is configured to assume a latched state in which the mechanism confines the structural stent elements of the waist portion in the intermediate deployment configuration. the hourglass-shaped body, including the waist portion, is configured to assume an intermediate deployment configuration, in which an average diameter of the waist portion is at least 10% less than when the hourglass-shaped body, including the waist portion, is in the radially-expanded deployment configuration, and the apparatus further comprises a releasable latching mechanism, which is configured to assume a latched state in which the mechanism confines the structural stent elements of the waist portion in the intermediate deployment configuration.