mhurhangee/ep-ind-claims huggingface dataset:
A method of releasing a N2 connection associated with a user equipment, UE, comprising: receiving, by an access and mobility management function, AMF, from an access network, AN, a first packet data unit, PDU, session deactivation request including PDU session identifiers, IDs, associated with PDU sessions of the UE; sending, by the AMF to one or more session management function, SMFs that serve one or more of the PDU sessions which are to be deactivated, one or more second PDU session deactivation requests including one or more identifiers indicating the one or more of the PDU sessions which are to be deactivated; receiving, by the AMF from each of the one or more SMFs, a PDU session deactivation response; sending, by the AMF to the AN, a PDU session connection release request to release a UE context including the N2 connection associated with the UE; and receiving, by the AMF from the AN, a PDU session connection release response to confirm a release of the UE context. receiving, by an access and mobility management function, AMF, from an access network, AN, a first packet data unit, PDU, session deactivation request including PDU session identifiers, IDs, associated with PDU sessions of the UE; sending, by the AMF to one or more session management function, SMFs that serve one or more of the PDU sessions which are to be deactivated, one or more second PDU session deactivation requests including one or more identifiers indicating the one or more of the PDU sessions which are to be deactivated; receiving, by the AMF from each of the one or more SMFs, a PDU session deactivation response; sending, by the AMF to the AN, a PDU session connection release request to release a UE context including the N2 connection associated with the UE; and receiving, by the AMF from the AN, a PDU session connection release response to confirm a release of the UE context.
An apparatus for controlling/regulating the travel speed of a utility vehicle comprising at least one drive motor, at least one adjustable hydraulic pump for pressurizing a pressure medium, said hydraulic pump being driven by the t least one drive motor, at least one hydraulic travel motor for the propulsion of the utility vehicle, at least one control slide valve via which the pressure medium is suppliable to the at least one hydraulic travel motor, at least one further hydraulic drive that is supplied with a pressurizing agent by the at least one hydraulic pump and at least one controller by means of which an exclusive travel operation can be determined in which a drive power is only effected by the at least one hydraulic motor and not from any of the further hydraulic drives, wherein the rotational speed of the at least one hydraulic travel motor can be controlled/regulated at least via the rotational speed of the drive motor in the exclusive travel operation, wherein the rotational speed of the drive motor can be set by means of the at least one controller, and wherein the hydraulic pump is fully pivoted out. at least one drive motor, at least one adjustable hydraulic pump for pressurizing a pressure medium, said hydraulic pump being driven by the t least one drive motor, at least one hydraulic travel motor for the propulsion of the utility vehicle, at least one control slide valve via which the pressure medium is suppliable to the at least one hydraulic travel motor, at least one further hydraulic drive that is supplied with a pressurizing agent by the at least one hydraulic pump and at least one controller by means of which an exclusive travel operation can be determined in which a drive power is only effected by the at least one hydraulic motor and not from any of the further hydraulic drives, wherein the rotational speed of the at least one hydraulic travel motor can be controlled/regulated at least via the rotational speed of the drive motor in the exclusive travel operation, wherein the rotational speed of the drive motor can be set by means of the at least one controller, and wherein the hydraulic pump is fully pivoted out.
A bar system for building constructions comprising: level adjustment means comprising a level adjustment projection and a level adjustment block, said level adjustment block having a bottom surface, a top surface and a height extending along a geometrical vertical axis from said bottom surface to said top surface; and a bar having a longitudinal direction and adapted in use to at least partly enclose said level adjustment means; said level adjustment projection being adapted to project parallel to said geometrical vertical axis from said bar against a support structure; said level adjustment block comprising resilient engagement means (222, 322) adapted for engagement with said bar; said bar comprising: a shank (50a, 50b) adapted to press said resilient engagement means (222, 322) during application of the bar to the level adjustment means; and a recess arranged in said shank (50a, 50b) and adapted to allow the resilient engagement means (222, 322) to move resiliently back for engagement with said recess; characterized in that said resilient engagement means (222, 322) is adapted to pivot about a geometrical axis (G11, G22) extending from said bottom surface to said top surface of said level adjustment block during application of the bar to the level adjustment means. level adjustment means comprising a level adjustment projection and a level adjustment block, said level adjustment block having a bottom surface, a top surface and a height extending along a geometrical vertical axis from said bottom surface to said top surface; and a bar having a longitudinal direction and adapted in use to at least partly enclose said level adjustment means; said level adjustment projection being adapted to project parallel to said geometrical vertical axis from said bar against a support structure; said level adjustment block comprising resilient engagement means (222, 322) adapted for engagement with said bar; a shank (50a, 50b) adapted to press said resilient engagement means (222, 322) during application of the bar to the level adjustment means; and a recess arranged in said shank (50a, 50b) and adapted to allow the resilient engagement means (222, 322) to move resiliently back for engagement with said recess; characterized in that said resilient engagement means (222, 322) is adapted to pivot about a geometrical axis (G11, G22) extending from said bottom surface to said top surface of said level adjustment block during application of the bar to the level adjustment means.
A method of making a coated substrate comprising: coating the substrate with a coating composition, wherein the composition comprises (a) a resin, (b) a cationic type photoinitiator, and (c) a polyol cross-linker, the composition being curable by radiation having the strongest wavelength in the UVV range of 400 to 450 nm; and curing the coating by passing the coated substrate under a bank or array of UVV light emitting diodes having the strongest wavelength in the UVV range of 400 to 450 nm. coating the substrate with a coating composition, wherein the composition comprises (a) a resin, (b) a cationic type photoinitiator, and (c) a polyol cross-linker, the composition being curable by radiation having the strongest wavelength in the UVV range of 400 to 450 nm; and curing the coating by passing the coated substrate under a bank or array of UVV light emitting diodes having the strongest wavelength in the UVV range of 400 to 450 nm. (a) a resin, (b) a cationic type photoinitiator, and (c) a polyol cross-linker, the composition being curable by radiation having the strongest wavelength in the UVV range of 400 to 450 nm; and curing the coating by passing the coated substrate under a bank or array of UVV light emitting diodes having the strongest wavelength in the UVV range of 400 to 450 nm.
A composition for inactivating a retrovirus in a mammalian cell comprising an expression vector encoding a) a Clustered Regularly Interspaced Short Palindromic Repeat (CRISPR)-associated endonuclease; and b) two or more guide RNAs, wherein (i) a first guide RNA (gRNA) targets a first cleavage site and is complementary to a first target nucleic acid sequence within a 5' long terminal repeat of a retrovirus, and (ii) a second guide RNA (gRNA) targets a second cleavage site and is complementary to a second target nucleic acid sequence within a 3' long terminal repeat of the retrovirus, and wherein at least two encoded guide RNAs are different, thereby resulting, when administered to a mammalian cell comprising the retrovirus, in excision of the retroviral sequence between the cleavage sites recognized by the CRISPR associated endonuclease, and thereby inactivating the retrovirus in the mammalian cell, wherein the gRNAs target sequences that minimize off-target effects in the mammalian cell, wherein the retrovirus is HIV, wherein the gRNAs comprise crRNA and tracrRNA, and wherein the first target nucleic acid sequence or the second target nucleic acid sequence comprises a sequence having 95% identity to a sequence selected from the group consisting of SEQ ID NO: 96 (LTR A), SEQ ID NO: 121 (LTR B), SEQ ID NO: 87 (LTR C), and SEQ ID NO: 110 (LTR D) or a combination thereof. a) a Clustered Regularly Interspaced Short Palindromic Repeat (CRISPR)-associated endonuclease; and b) two or more guide RNAs, wherein (i) a first guide RNA (gRNA) targets a first cleavage site and is complementary to a first target nucleic acid sequence within a 5' long terminal repeat of a retrovirus, and (ii) a second guide RNA (gRNA) targets a second cleavage site and is complementary to a second target nucleic acid sequence within a 3' long terminal repeat of the retrovirus, and wherein at least two encoded guide RNAs are different, thereby resulting, when administered to a mammalian cell comprising the retrovirus, in excision of the retroviral sequence between the cleavage sites recognized by the CRISPR associated endonuclease, and thereby inactivating the retrovirus in the mammalian cell,
A method for channel state information feedback, comprising: estimating channel state information from the mobile terminal to a serving cell and neighboring cells according to channel state information reference signals, CSI-Reference Signals, received from a plurality of coordinating cells; calculating a precoding matrix based on the estimated channel state information of the serving cell; calculating precoded channel state information respectively for the serving cell of the mobile terminal and neighboring cells in the coordinating cells according to the obtained precoding matrix; feeding the precoded channel state information back to the serving cell of the mobile terminal. estimating channel state information from the mobile terminal to a serving cell and neighboring cells according to channel state information reference signals, CSI-Reference Signals, received from a plurality of coordinating cells; calculating a precoding matrix based on the estimated channel state information of the serving cell; calculating precoded channel state information respectively for the serving cell of the mobile terminal and neighboring cells in the coordinating cells according to the obtained precoding matrix; feeding the precoded channel state information back to the serving cell of the mobile terminal.
A method of communicating payload data in a High Definition video communication system using an Open System Interconnection Reference, OSI, model including an application layer, a MAC layer, and a PHY layer, the method comprising: receiving by the MAC layer payload data comprising uncompressed video data from the application layer; encapsulating at least a portion of the payload data with a fixed size MAC header, a MAC header extension of a variable size, a first checking data segment, and a second checking data segment to produce MAC Protocol Data Unit (MPDU); appending a synchronization header (PHY header, 810) for a PHY layer to the MPDU; and transmitting the PHY header appended MPDU to a receiver, characterized in that: the first checking data segment comprises a first cyclic redundancy checksum (first CRC, 792) for the PHY header and the MAC header, wherein the second checking data segment comprises a second cyclic redundancy checksum (second CRC, 794) for the MAC header extension. receiving by the MAC layer payload data comprising uncompressed video data from the application layer; encapsulating at least a portion of the payload data with a fixed size MAC header, a MAC header extension of a variable size, a first checking data segment, and a second checking data segment to produce MAC Protocol Data Unit (MPDU); appending a synchronization header (PHY header, 810) for a PHY layer to the MPDU; and transmitting the PHY header appended MPDU to a receiver, characterized in that: the first checking data segment comprises a first cyclic redundancy checksum (first CRC, 792) for the PHY header and the MAC header, wherein the second checking data segment comprises a second cyclic redundancy checksum (second CRC, 794) for the MAC header extension. the first checking data segment comprises a first cyclic redundancy checksum (first CRC, 792) for the PHY header and the MAC header, wherein the second checking data segment comprises a second cyclic redundancy checksum (second CRC, 794) for the MAC header extension.
A microfluidic device comprising: (a) one or more reservoirs; (b) one or more receiving containers; (c) a purification cavity configured to be detachable from the micro fluidic device, the purification cavity comprising: (i) a first port enabling gas communication of the purification cavity with a vacuum generator, via a first flow path; (ii) a second port enabling liquid communication of the purification cavity with the one or more reservoirs, via a second flow path; and (iii) a third port enabling gas and liquid communication of the purification cavity with both the one or more receiving containers and a vacuum generator, via a third flow path; and (d) a membrane filter configured to purify biological or chemical analytes from a complex biological sample and placed directly over the third port such that fluid entering the purification cavity through the first and/or second port and exiting the purification cavity through the third port flows through the membrane filter, wherein the purification cavity comprises a clipping feature configured to fix the position of the membrane filter and the purification cavity in the microfluidic device. (a) one or more reservoirs; (b) one or more receiving containers; (c) a purification cavity configured to be detachable from the micro fluidic device, the purification cavity comprising: (i) a first port enabling gas communication of the purification cavity with a vacuum generator, via a first flow path; (ii) a second port enabling liquid communication of the purification cavity with the one or more reservoirs, via a second flow path; and (iii) a third port enabling gas and liquid communication of the purification cavity with both the one or more receiving containers and a vacuum generator, via a third flow path; and (i) a first port enabling gas communication of the purification cavity with a vacuum generator, via a first flow path; (ii) a second port enabling liquid communication of the purification cavity with the one or more reservoirs, via a second flow path; and (iii) a third port enabling gas and liquid communication of the purification cavity with both the one or more receiving containers and a vacuum generator, via a third flow path; and (d) a membrane filter configured to purify biological or chemical analytes from a complex biological sample and placed directly over the third port such that fluid entering the purification cavity through the first and/or second port and exiting the purification cavity through the third port flows through the membrane filter,
A waveguide gasket arranged for electrically sealing a waveguide interface between a first contact end and second contact end of the waveguide gasket, wherein the waveguide gasket comprises a plurality of electrically conducting members that are positioned along a circumference along which the waveguide gasket extends such that a gasket opening is defined and surrounded by the electrically conducting members, each electrically conducting member being compressible along a first direction (d 1) and having a first end and a second end that are separated by a variable first height (h 1) along the first direction (d 1), the variable first height (h 1) being equal to, or falling below, a maximum first height (h 1max), where each first end faces the first contact end and each second end faces the second side contact end, where each first contact end and each second contact end are separated by a variable second height (h 2) along the first direction (di), where the electrically conducting members are arranged to expand such that a width and a height of the gasket opening are unaffected by the compression of the waveguide gasket, such that an expansion of the waveguide gasket in a direction towards the gasket opening is avoided, characterized in that the maximum first height (h 1max) exceeds a first distance (L 1) defining a length of a space between adjacent electrically conducting members along a second direction (d 2) perpendicular to the first direction (d 1) when the variable first height (h 1) equals the maximum first height (h 1max).
A method for wireless communication, comprising: receiving, from a base station, configuration information that configures a first set of uplink resources and a second set of uplink resources within a shared radio frequency spectrum band for transmission of one or more uplink transmissions to the base station, the first set of uplink resources being adjacent in time to the second set of uplink resources, wherein each of the first set of uplink resources and the second set of uplink resources have associated uplink control channel resources; selecting the first set of uplink resources or the second set of uplink resources for one or more uplink transmissions to the base station based at least in part on a location in time of the uplink control channel resources associated with the first set of uplink resources and a location in time of the uplink control channel resources associated with the second set of uplink resources relative to a time boundary of an uplink transmission duration; and transmitting the one or more uplink transmissions to the base station using the selected first set of uplink resources or second set of uplink resources. receiving, from a base station, configuration information that configures a first set of uplink resources and a second set of uplink resources within a shared radio frequency spectrum band for transmission of one or more uplink transmissions to the base station, the first set of uplink resources being adjacent in time to the second set of uplink resources, wherein each of the first set of uplink resources and the second set of uplink resources have associated uplink control channel resources; selecting the first set of uplink resources or the second set of uplink resources for one or more uplink transmissions to the base station based at least in part on a location in time of the uplink control channel resources associated with the first set of uplink resources and a location in time of the uplink control channel resources associated with the second set of uplink resources relative to a time boundary of an uplink transmission duration; and transmitting the one or more uplink transmissions to the base station using the selected first set of uplink resources or second set of uplink resources.
An information processing apparatus comprising: a control means configured to perform tilt control for tilting an image capturing element with respect to a plane perpendicular to an optical axis of an image capturing optical system about a rotation axis, and to perform focus control for moving a focus lens in a direction of the optical axis; a setting means configured to set a target region in a captured image obtained by an image capturing unit; and a determining means configured to determine, based on a position corresponding to a position of the rotation axis in the image and a position of the target region in the image, a correction amount (β) of a position of the focus lens, wherein the control means is configured to move the focus lens based on the correction amount (β), wherein, when the distance (k) between the position of the rotation axis in the image and the position of the target region in the image is not equal to zero, the control means is configured to perform the tilt control and the focus control, characterized in that when a distance (k) between the position of the rotation axis in the image and the position of the target region in the image is equal to zero, the control means is configured to perform the tilt control and does not perform the focus control. a control means configured to perform tilt control for tilting an image capturing element with respect to a plane perpendicular to an optical axis of an image capturing optical system about a rotation axis, and to perform focus control for moving a focus lens in a direction of the optical axis; a setting means configured to set a target region in a captured image obtained by an image capturing unit; and a determining means configured to determine, based on a position corresponding to a position of the rotation axis in the image and a position of the target region in the image, a correction amount (β) of a position of the focus lens, wherein the control means is configured to move the focus lens based on the correction amount (β), wherein, when the distance (k) between the position of the rotation axis in the image and the position of the target region in the image is not equal to zero, the control means is configured to perform the tilt control and the focus control, characterized in that when a distance (k) between the position of the rotation axis in the image and the position of the target region in the image is equal to zero, the control means is configured to perform the tilt control and does not perform the focus control.
Method for decoding an incident pulse signal of the ultra wideband type conveying digital information coded using pulses of known theoretical shape, comprising at least one synchronization phase and one decoding phase, characterized in that it comprises a reception of the incident signal so as to obtain a base signal, a comparison of the base signal with a reference so as to obtain a binary intermediate signal representative of the sign of the base signal with respect to said reference, a sampling of the binary intermediate signal with a finer resolution than the width of the pulses, so as to obtain a digital signal, and in that the synchronization phase and the decoding phase comprise digital processings of the digital signal comprising a correlation of the digital signal with a reference correlation signal corresponding to a theoretical base signal arising from the reception of at least one theoretical pulse having the said known theoretical shape.
A lipoprotein obtainable from Bordetella pertussis for enhancing a Th1 response, the lipoprotein having an N terminal signal peptide of less than 40 amino acids in length wherein the N terminal signal peptide comprises a lipobox comprising an amino acid sequence X1, X2, X3, X4, wherein X1 can be selected from Leucine, Valine and Isoleucine; X2 can be selected from Alanine, Serine, Threonine, Valine and Isoleucine; X3 can be selected from Glycine, Alanine, and Serine; and X4 is Cysteine, wherein X4 is capable of being acylated, wherein the lipoprotein is a Toll-like receptor 2 agonist, wherein the lipoprotein is selected from the group consisting of a lipoprotein comprising an amino acid sequence of SEQ ID NO:1; a lipopeptide comprising an amino acid sequence of SEQ ID NO:13; and a lipopeptide comprising an amino acid sequence of SEQ ID NO:14; wherein the lipoprotein is for use in medicine.