mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication performed by a base station, comprising: initiating (320; 1405) an intra-frequency and inter-frequency search and measurement procedure for a user equipment, UE, connected to the base station; identifying from a plurality of radio frequency spectrum band resources one or more radio frequency spectrum band resources associated with a neighboring cell, wherein the one or more frequency spectrum band resources are to be monitored by the UE during the intra-frequency and inter-frequency search and measurement procedure; identifying (330; 1410) a subcarrier spacing of a plurality of possible subcarrier spacings of a synchronization signal transmitted by a neighboring cell based at least in part on identifying which one or more radio frequency spectrum band resources are to be monitored; and transmitting (335; 1415) to the UE an indication of the subcarrier spacing for the UE to monitor the synchronization signal transmitted by the neighboring cell. initiating (320; 1405) an intra-frequency and inter-frequency search and measurement procedure for a user equipment, UE, connected to the base station; identifying from a plurality of radio frequency spectrum band resources one or more radio frequency spectrum band resources associated with a neighboring cell, wherein the one or more frequency spectrum band resources are to be monitored by the UE during the intra-frequency and inter-frequency search and measurement procedure; identifying (330; 1410) a subcarrier spacing of a plurality of possible subcarrier spacings of a synchronization signal transmitted by a neighboring cell based at least in part on identifying which one or more radio frequency spectrum band resources are to be monitored; and transmitting (335; 1415) to the UE an indication of the subcarrier spacing for the UE to monitor the synchronization signal transmitted by the neighboring cell.
A timing recovery lock detector circuit , LD, for a signal receiver apparatus , configured to: receive a quantised signal from an analog-to-digital convertor , ADC, of the signal receiver apparatus , the quantised signal having a periodic unit interval, UI; generate at least two samples at two sampling points in the range of T= -0.25 UI to T= +0.25 UI of the quantised signal; perform a subtraction operation between two samples of the at least two samples generated from the quantised signal; increment a timing lock counter if a result of the subtraction operation is positive; increment a reset counter if the result of the subtraction operation is negative, and reset the timing lock counter if the reset counter is above a reset threshold value; determine, if the timing lock counter is above a lock threshold value, that a timing recovery circuit of the signal receiver apparatus is locked; and generate an output signal in response to determining that the timing recovery circuit is locked, wherein an order of the subtraction operation is selected such that an earlier sample is subtracted from an later sample. receive a quantised signal from an analog-to-digital convertor , ADC, of the signal receiver apparatus , the quantised signal having a periodic unit interval, UI; generate at least two samples at two sampling points in the range of T= -0.25 UI to T= +0.25 UI of the quantised signal; perform a subtraction operation between two samples of the at least two samples generated from the quantised signal; increment a timing lock counter if a result of the subtraction operation is positive; increment a reset counter if the result of the subtraction operation is negative, and reset the timing lock counter if the reset counter is above a reset threshold value; determine, if the timing lock counter is above a lock threshold value, that a timing recovery circuit of the signal receiver apparatus is locked; and generate an output signal in response to determining that the timing recovery circuit is locked, wherein an order of the subtraction operation is selected such that an earlier sample is subtracted from an later sample.
Use of a compound according to formula (I) for imparting a temperature regulating effect to a textile: A-(B) r (I); wherein: A is a polyether; and B is -NR 1 -L 1 -X wherein: R 1 is H or optionally substituted -C 1-6 alkyl; L 1 is a linker with a chain length having an integer from 1 to 10 atoms; X comprises an electrophilic moiety capable of accepting electrons from a nucleophile to form a covalent bond; r is an integer from 1 to 3 and wherein the melting point of the compound is from 5°C to 55°C and the use comprises forming a covalent bond between B and the textile. A is a polyether; and B is -NR 1 -L 1 -X wherein: R 1 is H or optionally substituted -C 1-6 alkyl; L 1 is a linker with a chain length having an integer from 1 to 10 atoms; X comprises an electrophilic moiety capable of accepting electrons from a nucleophile to form a covalent bond; r is an integer from 1 to 3 and R 1 is H or optionally substituted -C 1-6 alkyl; L 1 is a linker with a chain length having an integer from 1 to 10 atoms; X comprises an electrophilic moiety capable of accepting electrons from a nucleophile to form a covalent bond; r is an integer from 1 to 3 and
A method of treating an organ or a tissue prior to transplantation thereof into a recipient, comprising: (a) providing an organ or a tissue intended for transplantation; and (b) Ablating the cells composing the blood vessels of said organ or tissue while keeping the remaining cell layer in the organ or the tissue intact and viable, thereby obtaining a treated viable organ or tissue having reduced immunogenicity, wherein said step of ablating the cells comprises subjecting said organ or transplant to at least one cycle of perfusion with an ablating substance solution comprising at least one substance capable of destroying or eliminating said cells; wherein said method is performed ex vivo , and wherein said treated viable organ or tissue is not a decellularized organ or tissue. (a) providing an organ or a tissue intended for transplantation; and (b) Ablating the cells composing the blood vessels of said organ or tissue while keeping the remaining cell layer in the organ or the tissue intact and viable, thereby obtaining a treated viable organ or tissue having reduced immunogenicity, wherein said step of ablating the cells comprises subjecting said organ or transplant to at least one cycle of perfusion with an ablating substance solution comprising at least one substance capable of destroying or eliminating said cells;
A composition selected from (i) a composition comprising an ionizable lipid of formula I and a cationic lipid in a liposome comprising a bilayer of lipid molecules; and (ii) a composition comprising more than one ionizable lipid of formula I in a liposome comprising a bilayer of lipid molecules, wherein the ionizable lipid of formula I has the following structure: wherein n and m are independently 1, 2, 3, or 4; R 1 and R 2 are independently C 10-18 alkyl or C 12-18 alkenyl; X is -CH 2 -, S, O, or absent; L is C 1-4 alkylene, -S-C 1-4 alkylene, -O-C 1-4 alkylene, -O-C(O)-C 1-4 alkylene, -S(O) 2 -C 1-4 alkylene, or represents or a pharmaceutically acceptable salt form thereof. (i) a composition comprising an ionizable lipid of formula I and a cationic lipid in a liposome comprising a bilayer of lipid molecules; and (ii) a composition comprising more than one ionizable lipid of formula I in a liposome comprising a bilayer of lipid molecules, wherein n and m are independently 1, 2, 3, or 4; R 1 and R 2 are independently C 10-18 alkyl or C 12-18 alkenyl; X is -CH 2 -, S, O, or absent; L is C 1-4 alkylene, -S-C 1-4 alkylene, -O-C 1-4 alkylene, -O-C(O)-C 1-4 alkylene, -S(O) 2 -C 1-4 alkylene, or represents or a pharmaceutically acceptable salt form thereof.
A filter for a liquid or viscous product, this filter comprising a filtering element and a bucket defining a receiving volume (V12) accommodating the filtering element, the filter comprising a liquid or viscous product intake tubing and a liquid or viscous product discharge tubing , the filter comprising a valve configured to assume: a first position where the valve couples the intake tubing to the receiving volume (V12) and this receiving volume (V12) to the discharge tubing ; and a second position where the valve couples the intake tubing to the discharge tubing and isolates the receiving volume (V12) relative to the two tubings characterized in that the valve includes two cylindrical or spherical sliding gates , including a first cylindrical or spherical sliding gate including a first duct which couples the intake tubing to the receiving volume (V12), when the valve is in its first position, and which forms a dead line, when the valve is in its second position, and a second cylindrical or spherical sliding gate including a second duct which couples the receiving volume (V12) to the discharge tubing , when the valve is in its second position, and which couples the intake tubing to the discharge tubing , when the valve is in its second position. a first position where the valve couples the intake tubing to the receiving volume (V12) and this receiving volume (V12) to the discharge tubing ; and a second position where the valve couples the intake tubing to the discharge tubing and isolates the receiving volume (V12) relative to the two tubings
An open-irrigated ablation catheter system , comprising: a catheter body ; an electrode tip body having a distal end and a proximal end configured for connection to the catheter body , the electrode tip body having a wall defining an open interior region , the wall having one or more irrigation port in fluid communication with the open interior region , wherein the wall is conductive for delivering radio frequency (RF) energy; a proximal insert positioned at least partially within the proximal end of the electrode tip body , the proximal insert defining at least one lumen extending therethrough; and a distal insert positioned within the electrode tip body , the distal insert separating the open interior region into a distal fluid chamber and a proximal fluid chamber , the distal insert having an opening fluidly connecting the distal and proximal fluid chambers, wherein at least one irrigation port is in fluid communication with the distal fluid chamber; a fluid diverting member spaced from a distal end of the lumen , the fluid diverting member extending across at least a portion of the lumen such that at least a portion of fluid flowing distally through the lumen impacts the fluid diverting member and is diverted towards the wall before flowing into the interior region and out through the one or more irrigation port , wherein the fluid diverting member is attached to the proximal insert . a catheter body ; an electrode tip body having a distal end and a proximal end configured for connection to the catheter body , the electrode tip body having a wall defining an open interior region , the wall having one or more irrigation port in fluid communication with the open interior region , wherein the wall is conductive for delivering radio frequency (RF) energy; a proximal insert positioned at least partially within the proximal end of the electrode tip body , the proximal insert defining at least one lumen extending therethrough; and a distal insert positioned within the electrode tip body , the distal insert separating the open interior region into a distal fluid chamber and a proximal fluid chamber , the distal insert having an opening fluidly connecting the distal and proximal fluid chambers, wherein at least one irrigation port is in fluid communication with the distal fluid chamber; a fluid diverting member spaced from a distal end of the lumen , the fluid diverting member extending across at least a portion of the lumen such that at least a portion of fluid flowing distally through the lumen impacts the fluid diverting member and is diverted towards the wall before flowing into the interior region and out through the one or more irrigation port , wherein the fluid diverting member is attached to the proximal insert .
A high chroma glitter pigment comprising an ultra large flaky substrate, one or more absorption pigments or dyes, and an optional adhesion layer, wherein the ultra large flaky substrate comprises a pearlescent pigment and wherein the ultra large flaky substrate has a median particle size, d50, at the largest dimension in the range of 200 μm to 5000 μm, and the median thickness or height in the range of 0.1 μm - 500 μm.
A planetary gear unit with spring element and with a ring gear accommodated in a housing part , wherein the spring element at least partially projects into a ring groove formed in the housing part , wherein the spring element is embodied in a ring-like manner, wherein the ring groove formed in the housing part has a chamfer on its first axial end region, characterised in that the ring gear has a further ring groove on its radially outer surface, wherein the spring element is accommodated in the further ring groove, wherein the spring element is supported on one hand on the bottom of the further ring groove formed in the ring gear and on the other hand on the chamfer of the ring groove arranged in the housing part , wherein the spring element is formed with gearing or knurling on its radial inner periphery and/or outer periphery. wherein the spring element at least partially projects into a ring groove formed in the housing part , wherein the spring element is embodied in a ring-like manner, wherein the ring groove formed in the housing part has a chamfer on its first axial end region, characterised in that the ring gear has a further ring groove on its radially outer surface, wherein the spring element is accommodated in the further ring groove, wherein the spring element is supported on one hand on the bottom of the further ring groove formed in the ring gear and on the other hand on the chamfer of the ring groove arranged in the housing part , wherein the spring element is formed with gearing or knurling on its radial inner periphery and/or outer periphery.
A user apparatus comprising: a receiving unit configured to receive DL, Downlink - UL, Uplink, configuration indicating a resource used for DL, a resource used for UL and a flexible resource dynamically used for DL or UL in TDD, Time division duplex, and receive an UL scheduling from a base station apparatus; a transmitting unit configured to perform UL transmission to the base station apparatus based on the DL-UL configuration and the UL scheduling; and a control unit configured to determine a target ratio not to exceed a ratio of UL symbols with respect to all symbols in a predetermined period and indicate the target ratio as a UE, User Equipment, capability to the base station apparatus. a receiving unit configured to receive DL, Downlink - UL, Uplink, configuration indicating a resource used for DL, a resource used for UL and a flexible resource dynamically used for DL or UL in TDD, Time division duplex, and receive an UL scheduling from a base station apparatus; a transmitting unit configured to perform UL transmission to the base station apparatus based on the DL-UL configuration and the UL scheduling; and a control unit configured to determine a target ratio not to exceed a ratio of UL symbols with respect to all symbols in a predetermined period and indicate the target ratio as a UE, User Equipment, capability to the base station apparatus.
An encoder comprising a light source , a photodetector , a signal processor , and a scale that includes a plurality of first unit block patterns (KA) each having a first pattern configured to transmit or reflect light from the light source toward the photodetector , wherein the encoder is configured to output positional information related to a position in a position measuring direction (X) based on an output signal from the photodetector , the plurality of first unit block patterns are adjacently arranged in the position measuring direction (X) with a period of a pitch P, and the plurality of first unit block patterns are periodically arranged in a direction (Y) perpendicular to the position measuring direction, the signal processor is configured to generate a phase signal related to a phase of a periodic component, wherein the periodic component is included in the output signal from the photodetector and changes with a relative movement in the position measuring direction (X) between the scale and the photodetector , the size of each first unit block pattern in the direction (Y) perpendicular to the position measuring direction is smaller than the size of the detectable range of the scale by the photodetector in the direction (Y) perpendicular to the position measuring direction, the first pattern of each first unit block pattern has a symmetrical shape with respect to a symmetry line (Xc) perpendicular to the position measuring direction, each first unit block pattern is divided, along the direction (Y) perpendicular to the position measuring direction, into a plurality of sections, an area ratio of the first pattern in each section is different between two adjacent sections, wherein an area ratio of the first pattern in a section is a value obtained by dividing an area of the first pattern in the section by an area of the section, and the first pattern in each section has a rectangular shape defined by two lines parallel to the position measuring direction (X) and two lines perpendicular to the position measuring direction (X).
A tool (SC) having a spur gear shape for cutting, as a gear (FG) to be cut, a skew gear to be meshed with a predetermined helical gear (PG), the tool comprising a cutting edge portion having a cutting edge of a tooth-profile curvilinear shape that is the same as one of at least a pair of tooth-profile curvilinear shapes of a tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to an axis of the helical gear (PG), wherein: a circular tooth thickness of the cutting edge portion is smaller than a circular tooth thickness of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis; a tooth depth of the cutting edge portion is larger than a tooth depth of the helical gear (PG); and when a circular tooth thickness of a tooth tip of the cutting edge portion is represented as S atSC , a circular tooth thickness on a virtual outside diameter of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis is represented as S at , a helix angle on the virtual outside diameter of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis is represented as β a , and a face width of the cutting edge portion is represented as b SC , the following Expression 1 is satisfied. b SC ≤ S at − S atSC tan β a a circular tooth thickness of the cutting edge portion is smaller than a circular tooth thickness of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis; a tooth depth of the cutting edge portion is larger than a tooth depth of the helical gear (PG); and when a circular tooth thickness of a tooth tip of the cutting edge portion is represented as S atSC , a circular tooth thickness on a virtual outside diameter of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis is represented as S at , a helix angle on the virtual outside diameter of the tooth profile of the helical gear (PG) in a cross-sectional view by a plane perpendicular to the axis is represented as β a , and a face width of the cutting edge portion is represented as b SC , the following Expression 1 is satisfied. b SC ≤ S at − S atSC tan β a
A diabetes management system comprising: a pump device including a housing structure defining a cavity in which an insulin cartridge can be received, and a drive system for dispensing insulin from the insulin cartridge ; and a controller , wherein the controller is in electrical communication with a portion of the drive system for controlling dispensation of the insulin from the insulin cartridge ; and wherein, over a first diurnal time period, the controller communicates electrical control signals to the drive system to cause insulin to be dispensed from the insulin cartridge based on a baseline basal insulin rate that is stored, the controller receiving at least blood glucose data to control dispensation of insulin from the insulin cartridge in amounts variable from the baseline basal insulin rate; characterized in that the controller modifies the baseline basal insulin rate that is stored for a second diurnal time period that is at least 20 hours after the first diurnal period based on an amount of insulin actually dispensed during the first diurnal time period by increasing or decreasing the baseline basal insulin rate by a fixed amount or percentage that is less than the difference between the amount of insulin actually delivered during the first diurnal time period and the amount dictated by the baseline basal insulin rate. a pump device including a housing structure defining a cavity in which an insulin cartridge can be received, and a drive system for dispensing insulin from the insulin cartridge ; and a controller , wherein the controller is in electrical communication with a portion of the drive system for controlling dispensation of the insulin from the insulin cartridge ; and wherein, over a first diurnal time period, the controller communicates electrical control signals to the drive system to cause insulin to be dispensed from the insulin cartridge based on a baseline basal insulin rate that is stored, the controller receiving at least blood glucose data to control dispensation of insulin from the insulin cartridge in amounts variable from the baseline basal insulin rate; characterized in that the controller modifies the baseline basal insulin rate that is stored for a second diurnal time period that is at least 20 hours after the first diurnal period based on an amount of insulin actually dispensed during the first diurnal time period by increasing or decreasing the baseline basal insulin rate by a fixed amount or percentage that is less than the difference between the amount of insulin actually delivered during the first diurnal time period and the amount dictated by the baseline basal insulin rate.
Filling system for filling a slot-like recess in an add-on part fixed to a substrate with a flowable, curable composition , having a filling element , especially a filling disc , which has an introduction opening for introduction of the flowable, curable composition into the slot-like recess and a through-opening for receiving a fixing element , characterised in that the filling system has a filling aid and is configured in such a way that the filling aid at least partly encompasses the filling element in a filling state, and the filling aid together with the filling element forms a first sealing surface for contact with the add-on part for delimitation of a filling volume of the slot-like recess .
A method for preparing nanoparticle of active ingredient comprising: a step of providing a mixture comprising the active ingredient, a lipid as a lubricant, and a biocompatible polymer having a glass transition temperature of 80°C or higher; a step of pulverizing the resulting product of said step through milling process; and a step of removing the lipid from the resulting product of said step by using supercritical fluid, wherein the lipid is used in an amount of five parts by weight or less, based on one part by weight of the active ingredient. a step of providing a mixture comprising the active ingredient, a lipid as a lubricant, and a biocompatible polymer having a glass transition temperature of 80°C or higher; a step of pulverizing the resulting product of said step through milling process; and a step of removing the lipid from the resulting product of said step by using supercritical fluid, wherein the lipid is used in an amount of five parts by weight or less, based on one part by weight of the active ingredient.