mhurhangee/patent-ind-claim-en huggingface dataset:
A stent delivery system comprising: an elongated inner member extending between a distal tip and a proximal end; a stent support member disposed over the inner member and including a stent receiving region , the inner member slidable within the stent support member ; at least one stent surrounding the stent receiving region of the stent support member , the stent having a collapsed configuration and an expanded configuration; an elongated outer sheath slidably disposed over the inner member , the outer sheath extending between a distal end and a proximal end, the outer sheath including a proximal portion and a distal portion located distal of the proximal portion , the distal portion of the outer sheath surrounding the stent to restrain the stent in the collapsed configuration; a proximal junction detachably coupling the distal portion of the outer sheath to the proximal portion of the outer sheath, the proximal junction being actuatable to selectively uncouple the distal portion of the outer sheath from the proximal portion of the outer sheath; and a distal junction detachably coupling the distal end of the outer sheath to the distal tip of the inner member , the distal junction being actuatable to selectively uncouple the outer sheath from the distal tip ; wherein the distal and proximal junctions are separately actuatable by rotating the inner member relative to the proximal portion of the outer sheath . an elongated inner member extending between a distal tip and a proximal end; a stent support member disposed over the inner member and including a stent receiving region , the inner member slidable within the stent support member ; at least one stent surrounding the stent receiving region of the stent support member , the stent having a collapsed configuration and an expanded configuration; an elongated outer sheath slidably disposed over the inner member , the outer sheath extending between a distal end and a proximal end, the outer sheath including a proximal portion and a distal portion located distal of the proximal portion , the distal portion of the outer sheath surrounding the stent to restrain the stent in the collapsed configuration; a proximal junction detachably coupling the distal portion of the outer sheath to the proximal portion of the outer sheath, the proximal junction being actuatable to selectively uncouple the distal portion of the outer sheath from the proximal portion of the outer sheath; and a distal junction detachably coupling the distal end of the outer sheath to the distal tip of the inner member , the distal junction being actuatable to selectively uncouple the outer sheath from the distal tip ; wherein the distal and proximal junctions are separately actuatable by rotating the inner member relative to the proximal portion of the outer sheath .
A communication device (10, AP1) comprising a control unit that performs control to: transmit a frame of data to a reception-side communication device (STAG), by a coordinated transmission performed to simultaneously transmit frames comprising the same data from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information comprising information regarding frequency or spatial multiplexing resources for returning the acknowledgement signal by a technique of simultaneous multiplex access, for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal in accordance with the acknowledgement return information. transmit a frame of data to a reception-side communication device (STAG), by a coordinated transmission performed to simultaneously transmit frames comprising the same data from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information comprising information regarding frequency or spatial multiplexing resources for returning the acknowledgement signal by a technique of simultaneous multiplex access, for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal in accordance with the acknowledgement return information.
Crystalline form II of 7-[3,5-Dihydroxy-2-(3-hydroxy-5-phenyl-pent-1-enyl)-cyclopentyl]-hept-5-enoic acid having (i) an X-ray powder diffraction spectrum, comprising at least one peak at the following °2θ angles: 12.0, 14.2, 16.0, 18.8, 20.6, 22.6, 24.1, 28.1, 35.9, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (ii) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 14.2, 16.0, 28.1, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (iii) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 14.2, 16.0, 20.6, 24.1, 28.1, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (iv) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 12.0, 14.2, 16.0, 18.8, 20.6, 22.6, 24.1, 28.1, 35.9, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (v) the X-ray diffraction pattern as shown in Fig. 1; or (vi) a melting endotherm onset at 62.2°C and a fusion enthalpy of 81.5 J/g; or (vii) the MDSC profile as shown in Fig. 3; or a pharmaceutically acceptable salt thereof. (i) an X-ray powder diffraction spectrum, comprising at least one peak at the following °2θ angles: 12.0, 14.2, 16.0, 18.8, 20.6, 22.6, 24.1, 28.1, 35.9, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (ii) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 14.2, 16.0, 28.1, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (iii) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 14.2, 16.0, 20.6, 24.1, 28.1, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (iv) an X-ray powder diffraction spectrum, comprising peaks at the following °2θ angles: 12.0, 14.2, 16.0, 18.8, 20.6, 22.6, 24.1, 28.1, 35.9, 36.5, measured with Cu-Kα irradiation (1.54 Å); or (v) the X-ray diffraction pattern as shown in Fig. 1; or (vi) a melting endotherm onset at 62.2°C and a fusion enthalpy of 81.5 J/g; or (vii) the MDSC profile as shown in Fig. 3;
A method for deriving cell information of a radio cell by a mobile device, the method comprising: receiving a sequence of radio frames, wherein each radio frame comprises a master information block MIB; deriving synchronization information of the sequence of radio frames from the MIBs of at least two radio frames; determining a position of a first type system information block SIB1 comprised in the sequence of radio frames based on the synchronization information; determining a position of a second type system information block SIB2 comprised in the sequence of radio frames based on information comprised in the SIB1; and deriving the cell information based on at least one of the SIB1 and the SIB2; wherein receiving the sequence of radio frames comprises caching the sub-frames between the MIB and the SIB1; characterized by after successful decoding of SIB1 information which provides scheduling parameters of other system information blocks than SIB1, fetching the other system information blocks from the cached sub-frames to check if they have any dynamical scheduled system information blocks. receiving a sequence of radio frames, wherein each radio frame comprises a master information block MIB; deriving synchronization information of the sequence of radio frames from the MIBs of at least two radio frames; determining a position of a first type system information block SIB1 comprised in the sequence of radio frames based on the synchronization information; determining a position of a second type system information block SIB2 comprised in the sequence of radio frames based on information comprised in the SIB1; and deriving the cell information based on at least one of the SIB1 and the SIB2; wherein receiving the sequence of radio frames comprises caching the sub-frames between the MIB and the SIB1; characterized by after successful decoding of SIB1 information which provides scheduling parameters of other system information blocks than SIB1, fetching the other system information blocks from the cached sub-frames to check if they have any dynamical scheduled system information blocks.
Method for determining a 3D model of a surface (S), executed by a 3D model determination device , comprising: - obtaining (S1) a plurality of 2D+Z images of said surface (S) from respective 2D+Z image sources , - determining (S2), in function of the 2D+Z images, implicit surface data (sdf + ) modeling said surface (S), wherein the implicit surface data (sdf + ) specify, for respective sample points (p 1 ) of a 3D field, a distance (d) between said sample point and said surface and a 2D+Z image source identifier (C 0 , C 1 , C 2 ) associated with said sample point, - determining (S3) a plurality of surface points (V i ) in function of the implicit surface data, - for at least one of said surface points, determining (S4) at least one 2D+Z image source associated with said surface point in function of the implicit surface data, and at least one texture identifier (T ID ) and 2D texture coordinates (v i ) associated with said surface point in function of 2D+Z image source modeling data associated with the determined at least one 2D+Z image source. - obtaining (S1) a plurality of 2D+Z images of said surface (S) from respective 2D+Z image sources , - determining (S2), in function of the 2D+Z images, implicit surface data (sdf + ) modeling said surface (S), wherein the implicit surface data (sdf + ) specify, for respective sample points (p 1 ) of a 3D field, a distance (d) between said sample point and said surface and a 2D+Z image source identifier (C 0 , C 1 , C 2 ) associated with said sample point, - determining (S3) a plurality of surface points (V i ) in function of the implicit surface data, - for at least one of said surface points, determining (S4) at least one 2D+Z image source associated with said surface point in function of the implicit surface data, and at least one texture identifier (T ID ) and 2D texture coordinates (v i ) associated with said surface point in function of 2D+Z image source modeling data associated with the determined at least one 2D+Z image source.
A vaccine delivery assembly , comprising: a vaccine delivery frame ; a wing web injection device operably engaged with the vaccine delivery frame and having a wing web injection actuator , the wing web injection device being configured to deliver a first vaccine substance to at least one wing web of an avian pullet; an intramuscular injection device operably engaged with the vaccine delivery frame and having an intramuscular injection actuator , the intramuscular injection device being configured to deliver a second vaccine substance to a breast of the avian pullet; a subcutaneous injection device operably engaged with the vaccine delivery frame and having a subcutaneous injector actuator , the subcutaneous injection device being adapted to deliver a third vaccine substance to an inguinal fold of the avian pullet; a spray delivery device operably engaged with the vaccine delivery frame , the spray delivery device being adapted to deliver a fourth vaccine substance to a facial region of the avian pullet, the spray delivery device having a spray device actuator and being configured to be carried proximate to the facial area of the avian pullet by a guide ; and a main actuator configured to move the wing web injection actuator , the intramuscular injection actuator , and the subcutaneous injector actuator to a position that allows for injection of a respective body part of the avian pullet. a vaccine delivery frame ; a wing web injection device operably engaged with the vaccine delivery frame and having a wing web injection actuator , the wing web injection device being configured to deliver a first vaccine substance to at least one wing web of an avian pullet; an intramuscular injection device operably engaged with the vaccine delivery frame and having an intramuscular injection actuator , the intramuscular injection device being configured to deliver a second vaccine substance to a breast of the avian pullet; a subcutaneous injection device operably engaged with the vaccine delivery frame and having a subcutaneous injector actuator , the subcutaneous injection device being adapted to deliver a third vaccine substance to an inguinal fold of the avian pullet; a spray delivery device operably engaged with the vaccine delivery frame , the spray delivery device being adapted to deliver a fourth vaccine substance to a facial region of the avian pullet, the spray delivery device having a spray device actuator and being configured to be carried proximate to the facial area of the avian pullet by a guide ; and a main actuator configured to move the wing web injection actuator , the intramuscular injection actuator , and the subcutaneous injector actuator to a position that allows for injection of a respective body part of the avian pullet.
Washing tub unit for a washing machine comprising a) a washing tub having a tub interior housing a rotatable drum , b) a draining sump arranged in a lower region of the washing tub , and c) a draining device being in fluid connection with the draining sump for draining washing liquid from the tub interior , d) wherein the draining device comprises a draining conduit and a draining pump , e) wherein the washing tub is composed of a pre-formed front tub part and a pre-formed rear tub part being connected with the front tub part in a connecting area , f) wherein the conduit is formed integral with a first tub part being one of the front tub part and the rear tub part and g) wherein the conduit has a pump receiving part at a first end for receiving the draining pump characterised in that the conduit is closed by a cover wall at a second end of the conduit opposite to the first end , wherein the cover wall is formed integral with a second tub part being the other of the front tub part and the rear tub part and is connected with the conduit in the connecting area , and in that said sump is formed integral with the same tub part the conduit is formed integral with, and is closed by a sump cover wall which is formed integral with the same tub part which the cover wall closing the conduit is formed integral with. a) a washing tub having a tub interior housing a rotatable drum , b) a draining sump arranged in a lower region of the washing tub , and c) a draining device being in fluid connection with the draining sump for draining washing liquid from the tub interior , d) wherein the draining device comprises a draining conduit and a draining pump , e) wherein the washing tub is composed of a pre-formed front tub part and a pre-formed rear tub part being connected with the front tub part in a connecting area , f) wherein the conduit is formed integral with a first tub part being one of the front tub part and the rear tub part and g) wherein the conduit has a pump receiving part at a first end for receiving the draining pump
An elongated composite profile comprising a first flange and a second flange , the first flange and the second flange together forming an L-profile, wherein each of the flanges , inside the L-profile, have been given a first rib and a second rib , respectively, and the first flange , the second flange , the first rib and the second rib form a longitudinal closed channel in the composite profile , whereby: - at least one of the ribs is narrower than its remote flange ; - inside the channel , at least one of the flanges is formed with a longitudinal nut-bed groove ; characterized in that , inside the L-profile and outside the channel , at least one of the flanges is provided with a drilling groove . - at least one of the ribs is narrower than its remote flange ; - inside the channel , at least one of the flanges is formed with a longitudinal nut-bed groove ;
A method performed by a receiving station, STA, in a wireless local area network, WLAN, system, the method comprising: receiving a Null Data Physical Layer Protocol Data Unit, NDP, frame, wherein the NDP frame includes a first signal field and a second signal field, wherein the first signal field includes first information related to a physical layer, PHY, version, wherein the second signal field includes second information related to transmission of the NDP frame, wherein the NDP frame is received based on a first bandwidth, wherein the second signal field is duplicated based on a second bandwidth within the first bandwidth; and performing, based on the NDP frame, channel sounding. receiving a Null Data Physical Layer Protocol Data Unit, NDP, frame, wherein the NDP frame includes a first signal field and a second signal field, wherein the first signal field includes first information related to a physical layer, PHY, version, wherein the second signal field includes second information related to transmission of the NDP frame, wherein the NDP frame is received based on a first bandwidth, wherein the second signal field is duplicated based on a second bandwidth within the first bandwidth; and performing, based on the NDP frame, channel sounding.
A process for preparing latanoprostene bunod comprising reacting latanoprost acid with 1,4-butanediol dinitrate to form latanoprostene bunod; and optionally purifying the latanoprostene bunod, which purifying comprises silylating all the hydroxyl groups in the latanoprostene bunod with a silylating agent comprising the residue -SiR a R b R c to form a compound of Formula LB-3Si wherein R a , R b and R c are each independently C 1-8 alkyl, phenyl, benzyl, a substituted phenyl, or a substituted benzyl. optionally purifying the latanoprostene bunod, which purifying comprises silylating all the hydroxyl groups in the latanoprostene bunod with a silylating agent comprising the residue -SiR a R b R c to form a compound of Formula LB-3Si wherein R a , R b and R c are each independently C 1-8 alkyl, phenyl, benzyl, a substituted phenyl, or a substituted benzyl.
A method performed by a terminal in a wireless communication system, the method comprising: A) determining , during initial access, a subcarrier spacing set which is available to be supported by a base station, the subcarrier spacing set including a first subcarrier spacing and a second subcarrier spacing wherein the first subcarrier spacing is the lowest subcarrier spacing among the subcarrier spacing set; B) selecting the first subcarrier spacing; C) configuring a terminal hardware to attempt to detect a synchronization signal using the selected subcarrier spacing; D) identifying , by performing a time and frequency synchronization and a cell search based on the selected subcarrier spacing, whether the synchronization signal is generated using the first subcarrier spacing; E) when the time and frequency synchronization and the cell search have been completed by using the selected subcarrier spacing, determining that the selected subcarrier spacing is used by the base station; F) when the time and frequency synchronization and the cell search have not been completed by using the selected subcarrier spacing, selecting the second subcarrier spacing and performing the steps C to F, wherein the second subcarrier spacing is a subcarrier spacing having a next size among subcarrier spacings in the subcarrier spacing set; G) identifying a master information block, MIB, received from the base station using the determined subcarrier spacing used by the base station; and H) receiving a system information block based on the MIB, wherein the MIB includes information on a subcarrier spacing for a system information block 1, SIB1. A) determining , during initial access, a subcarrier spacing set which is available to be supported by a base station, the subcarrier spacing set including a first subcarrier spacing and a second subcarrier spacing wherein the first subcarrier spacing is the lowest subcarrier spacing among the subcarrier spacing set; B) selecting the first subcarrier spacing; C) configuring a terminal hardware to attempt to detect a synchronization signal using the selected subcarrier spacing; D) identifying , by performing a time and frequency synchronization and a cell search based on the selected subcarrier spacing, whether the synchronization signal is generated using the first subcarrier spacing; E) when the time and frequency synchronization and the cell search have been completed by using the selected subcarrier spacing, determining that the selected subcarrier spacing is used by the base station; F) when the time and frequency synchronization and the cell search have not been completed by using the selected subcarrier spacing, selecting the second subcarrier spacing and performing the steps C to F, wherein the second subcarrier spacing is a subcarrier spacing having a next size among subcarrier spacings in the subcarrier spacing set; G) identifying a master information block, MIB, received from the base station using the determined subcarrier spacing used by the base station; and H) receiving a system information block based on the MIB,
A packaging structure for containers for pharmaceutical use, wherein it comprises a support surface for the containers , a tray configured to support the support surface inside it, and demarcation elements which extend on the support surface and delimit with the support surface a plurality of cells in each of which a container may be positioned , each cell having a bottom wail for supporting the container and side walls for containing the lateral movement of the container , said bottom wall of the cell having along its entire perimeter solid portions for the container to rest on, alternating with empty portions enabling the passage of a device for handling the container , characterized in that said empty portions are defined by a central through opening of the bottom wall of the cell , said opening having a main central portion and branches that extend radially from the central portion , wherein said opening , in first, second and third branches , respectively, extends for most of a first, second and third diameter (D1, D2, D3), respectively, of the bottom wall of the cell , wherein said first, second and third diameter (D1, D2, D3) are equally angularly spaced.
An implant for the replacement and regeneration of biological tissue in the shape of a plug, comprising a base section configured for anchoring in bone tissue, a middle section configured for replacing cartilage tissue, and a top section configured for growing cartilage tissue onto and into, wherein the middle and top section comprise the same thermoplastic elastomeric material, which is porous in the top section , and non-porous in the middle section , characterized in that the base section comprises a substantially non-porous polyaryletherketone polymer with a porosity of less than 20 %, relative to the total volume of the polyaryletherketone polymer.