mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method performed by an access network device , comprising: generating (S100) requirement indication information, wherein the requirement indication information is used to indicate that user equipment needs to satisfy a radio resource management RRM requirement that is suitable for a mobile communication environment in which a user equipment moves at high speed, wherein the RRM requirement includes preset RRM parameters suitable for the mobile communication environment in which a user equipment moves at high speed; and sending (S102) the requirement indication information to the user equipment within coverage of a cell; wherein the RRM requirement comprises identification time parameters of the cell reselection process when the user equipment is in idle state, wherein the intra-frequency cell reselection time are shortened by using the identification time parameters of the cell reselection process; wherein among the identification time parameters of the cell reselection process, the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 0.32 seconds is 10 discontinuous reception cycles, the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 0.64 seconds is 10 discontinuous reception cycles, and the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 1.28 seconds is 10 discontinuous reception cycles. generating (S100) requirement indication information, wherein the requirement indication information is used to indicate that user equipment needs to satisfy a radio resource management RRM requirement that is suitable for a mobile communication environment in which a user equipment moves at high speed, wherein the RRM requirement includes preset RRM parameters suitable for the mobile communication environment in which a user equipment moves at high speed; and sending (S102) the requirement indication information to the user equipment within coverage of a cell; wherein the RRM requirement comprises identification time parameters of the cell reselection process when the user equipment is in idle state, wherein the intra-frequency cell reselection time are shortened by using the identification time parameters of the cell reselection process; wherein among the identification time parameters of the cell reselection process, the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 0.32 seconds is 10 discontinuous reception cycles, the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 0.64 seconds is 10 discontinuous reception cycles, and the identification time parameter of the cell reselection process corresponding to a discontinuous reception cycle of 1.28 seconds is 10 discontinuous reception cycles.
Container with a safety device , in particular in the form of a blow-moulded plastic container, preferably in vial form, having a reservoir part for receiving a medium which can be dispensed via a container opening and with a head part which is releasably connected to the reservoir part via a separation point and which, after separation from the reservoir part , frees the container opening for a removal process of the medium, wherein, in a safety position, separation of the head part from the reservoir part is completely prevented or at least made more difficult by means of the safety device , wherein, in at least one release position, the head part can be removed without force from the reservoir part via the separation point , wherein the safety device has a securing clip which, in the safety position, at least partially overlaps the head part in the form of a clip and which, in the respective release position, assumes a pivoting position with respect to the reservoir part which releases the head part for operation, in particular for its removal from the reservoir part , and wherein the securing clip with its two ends directed towards the reservoir part is pivotably hinged on the reservoir part by means of articulation points , characterised in that the respective articulation point is arranged in a region of the container in which a cylindrical part of a neck part merges into a conical taper of the neck part which terminates at the container opening . wherein the safety device has a securing clip which, in the safety position, at least partially overlaps the head part in the form of a clip and which, in the respective release position, assumes a pivoting position with respect to the reservoir part which releases the head part for operation, in particular for its removal from the reservoir part , and wherein the securing clip with its two ends directed towards the reservoir part is pivotably hinged on the reservoir part by means of articulation points , characterised in that the respective articulation point is arranged in a region of the container in which a cylindrical part of a neck part merges into a conical taper of the neck part which terminates at the container opening .
A compound represented by the formula (I): wherein R 1 is a C 1-6 alkyl group, or an amino group; R 2 is a C 1-6 alkyl group; X is -C(R 3 ) (R 4 )-, -CO- or -O-; R 3 and R 4 are both hydrogen atoms; Ring Q is benzene optionally substituted by 1 to 3 C 1-6 alkyl groups; Ring R is benzene optionally substituted by 1 to 3 C 1-6 alkoxy groups optionally substituted by 1 to 3 C 3-10 cycloalkyl groups; Ring S is a 5-membered monocyclic aromatic heterocycle; m and n are both 1; and p is 1, and q is 0, or a salt thereof. R 1 is a C 1-6 alkyl group, or an amino group; a C 1-6 alkyl group, or an amino group; R 2 is a C 1-6 alkyl group; X is -C(R 3 ) (R 4 )-, -CO- or -O-; R 3 and R 4 are both hydrogen atoms; Ring Q is benzene optionally substituted by 1 to 3 C 1-6 alkyl groups; Ring R is benzene optionally substituted by 1 to 3 C 1-6 alkoxy groups optionally substituted by 1 to 3 C 3-10 cycloalkyl groups; Ring S is a 5-membered monocyclic aromatic heterocycle; m and n are both 1; and p is 1, and q is 0,
A high-temperature insulation for thermally insulating pipes, comprising a carrier layer having four or more windings wound helically to form a tubular main body, and three or more different insulating layers , the inner winding of the carrier layer circumferentially surrounding the inner cavity of the tubular main body, the insulating layers arranged in the carrier layer having, along the circular path specified in each case by the winding, a length that corresponds to at least 80% of the circumference of the inner cavity of the tubular main body, and the carrier layer , the first insulating layer , the second insulating layer and the third insulating layer each consisting of different materials and/or having different thermal conductivities and/or having different temperature resistances, characterized in that the circumference of the inner cavity is at least 50 mm, and that the insulating layers is arranged in the gaps between the windings of the carrier layer and being in contact with the carrier layer both radially inwardly and radially outwardly. a carrier layer having four or more windings wound helically to form a tubular main body, and three or more different insulating layers , the inner winding of the carrier layer circumferentially surrounding the inner cavity of the tubular main body, the insulating layers arranged in the carrier layer having, along the circular path specified in each case by the winding, a length that corresponds to at least 80% of the circumference of the inner cavity of the tubular main body, and the carrier layer , the first insulating layer , the second insulating layer and the third insulating layer each consisting of different materials and/or having different thermal conductivities and/or having different temperature resistances, characterized in that the circumference of the inner cavity is at least 50 mm, and that the insulating layers is arranged in the gaps between the windings of the carrier layer and being in contact with the carrier layer both radially inwardly and radially outwardly.
A flow measurement assembly, comprising: a coupler maintaining a magnet and a sensor spaced from the magnet; and a flow channel positionable between the magnet and the sensor, the flow channel comprising: a housing having an inlet , an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, wherein the sensor is configured to detect a frequency of a change within a magnetic field as the ferrous body travels within the flow conduit between the magnet and the sensor. a coupler maintaining a magnet and a sensor spaced from the magnet; and a flow channel positionable between the magnet and the sensor, the flow channel comprising: a housing having an inlet , an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, a housing having an inlet , an outlet spaced from the inlet, and a flow conduit fluidly open to the inlet and the outlet; and a ferrous body movably disposed in the conduit, wherein the sensor is configured to detect a frequency of a change within a magnetic field as the ferrous body travels within the flow conduit between the magnet and the sensor.
Method for processing a wafer-like substrate, the method comprising the following steps : i) providing the substrate in a loading device ; ii) transporting the substrate from the loading device to an alignment device using a touchless gripper or a touching gripper ; iii) aligning the substrate in the alignment device ; iv) transporting the aligned substrate to a connecting device using a touching gripper , wherein the connecting device provides a substrate holder; v) fastening the aligned substrate in the substrate holder in the connecting device ; vi) transporting the substrate holder comprising the aligned substrate further to a treatment device using a touching gripper; vii) treating the substrate, which is still fastened in the respective substrate holder, in the treatment device; viii) transporting the substrate holder comprising the treated substrate to the connecting device , wherein the treated substrate is unfastened from the respective substrate holder; ix) transporting the treated substrate further to a post-treatment device using a touching gripper ; x) post-treating the substrate in the post-treatment device ; the method being characterised by xi) transporting the post-treated substrate from the post-treatment device to a storing device using a touchless gripper or back to the loading device using a touchless gripper . i) providing the substrate in a loading device ; ii) transporting the substrate from the loading device to an alignment device using a touchless gripper or a touching gripper ; iii) aligning the substrate in the alignment device ; iv) transporting the aligned substrate to a connecting device using a touching gripper , wherein the connecting device provides a substrate holder; v) fastening the aligned substrate in the substrate holder in the connecting device ; vi) transporting the substrate holder comprising the aligned substrate further to a treatment device using a touching gripper; vii) treating the substrate, which is still fastened in the respective substrate holder, in the treatment device; viii) transporting the substrate holder comprising the treated substrate to the connecting device , wherein the treated substrate is unfastened from the respective substrate holder; ix) transporting the treated substrate further to a post-treatment device using a touching gripper ; x) post-treating the substrate in the post-treatment device ; the method being characterised by xi) transporting the post-treated substrate from the post-treatment device to a storing device using a touchless gripper or back to the loading device using a touchless gripper .
An apparatus configured to be employed in an evolved NodeB "eNB" comprising: one or more processors configured to execute executable instructions stored in a memory for one or more executable components comprising: a communication component configured to generate a downlink "DL" transmission corresponding to an unlicensed band or a licensed band; and a listen-before-talk "LBT" component configured to determine different LBT priority classes associated with the DL transmission , and assign an LBT priority class to an uplink "UL" grant of the DL transmission wherein the LBT component is further configured to assign a lowest LBT priority class of the different LBT priority classes to LBT parameters in the DL transmission for an LBT protocol; and characterized by : a scheduling component configured to generate within a first transmission opportunity the DL transmission comprising the UL grant and an indication of whether to schedule a UL transmission within the first transmission opportunity using a single LBT interval to perform a clear channel assessment or a second transmission opportunity that is outside and different than the first transmission opportunity using a category 4 LBT protocol. a communication component configured to generate a downlink "DL" transmission corresponding to an unlicensed band or a licensed band; and a listen-before-talk "LBT" component configured to determine different LBT priority classes associated with the DL transmission , and assign an LBT priority class to an uplink "UL" grant of the DL transmission wherein the LBT component is further configured to assign a lowest LBT priority class of the different LBT priority classes to LBT parameters in the DL transmission for an LBT protocol; and characterized by : a scheduling component configured to generate within a first transmission opportunity the DL transmission comprising the UL grant and an indication of whether to schedule a UL transmission within the first transmission opportunity using a single LBT interval to perform a clear channel assessment or a second transmission opportunity that is outside and different than the first transmission opportunity using a category 4 LBT protocol.
A guide wire capable of delivering a stent received inside a catheter , the guide wire comprising: a core shaft ; and an external coil arrangement covering the core shaft , wherein the external coil arrangement includes a first coil portion that abuts against a rear end of the stent inside the catheter , and a second coil portion that is positioned on a distal end side of the first coil portion and that abuts against the stent from an inside of the stent , characterized in that the first coil portion and the second coil portion are formed in an integrated manner with a plurality of wires, the first coil portion is formed in a densely wound manner, the second coil portion is formed in a sparsely wound manner, and an attachment is provided in the stent , and can be engaged between the wires of the second coil portion . a core shaft ; and an external coil arrangement covering the core shaft , wherein the external coil arrangement includes a first coil portion that abuts against a rear end of the stent inside the catheter , and a second coil portion that is positioned on a distal end side of the first coil portion and that abuts against the stent from an inside of the stent , a first coil portion that abuts against a rear end of the stent inside the catheter , and a second coil portion that is positioned on a distal end side of the first coil portion and that abuts against the stent from an inside of the stent , characterized in that the first coil portion and the second coil portion are formed in an integrated manner with a plurality of wires, the first coil portion is formed in a densely wound manner, the second coil portion is formed in a sparsely wound manner, and an attachment is provided in the stent , and can be engaged between the wires of the second coil portion .
A process for obtaining reaction products comprising olefins comprising: converting a solid carbonaceous material with a first reaction scheme to a gaseous component comprising condensable gases and non-condensable gases and a solid component comprising char and ash, wherein a temperature of the first reaction scheme is in the range of 350 to 600 deg C, and a residence time of the first reaction scheme is less than 5 sec, and at least 0.0001 sec; and converting at least a portion of the condensable gases and at least a portion of the non-condensable gases that contain 2 or more carbon atoms with a second reaction scheme to reaction products comprising olefins, wherein a temperature of second reaction scheme is in the range of 600 to 1000 deg C and a residence time of the second reaction scheme is less than 5 sec and at least 0.000001 sec; wherein the portion of the condensable gases and the portion of the non-condensable gases that contain 2 or more carbon atoms are directly fed from the first reaction scheme to the second reaction scheme without being cooled; the first reaction scheme is pyrolysis performed in the absence of a catalyst; the second reaction scheme is similar to the reaction occurring only in the radiant section of a steam cracker, and is performed in the absence of a catalyst, and in the presence of steam and in the absence of molecular oxygen; and wherein hydrogen is not added during the process. converting a solid carbonaceous material with a first reaction scheme to a gaseous component comprising condensable gases and non-condensable gases and a solid component comprising char and ash, wherein a temperature of the first reaction scheme is in the range of 350 to 600 deg C, and a residence time of the first reaction scheme is less than 5 sec, and at least 0.0001 sec; and converting at least a portion of the condensable gases and at least a portion of the non-condensable gases that contain 2 or more carbon atoms with a second reaction scheme to reaction products comprising olefins, wherein a temperature of second reaction scheme is in the range of 600 to 1000 deg C and a residence time of the second reaction scheme is less than 5 sec and at least 0.000001 sec; wherein the portion of the condensable gases and the portion of the non-condensable gases that contain 2 or more carbon atoms are directly fed from the first reaction scheme to the second reaction scheme without being cooled; the first reaction scheme is pyrolysis performed in the absence of a catalyst; the second reaction scheme is similar to the reaction occurring only in the radiant section of a steam cracker, and is performed in the absence of a catalyst, and in the presence of steam and in the absence of molecular oxygen; and wherein hydrogen is not added during the process.
A bendable articulated tip part for an endoscope , the articulated tip part comprising a number of hingedly connected segments including a distal end segment and a second segment , wherein adjacent segments are interconnected by at least one hinge member , whereby the tip part can be bent by means of the hingedly connected segments , and an insertion guide adapted for accommodating and guiding a steering wire and including an entry (91a; 81a, 81b) provided in an outer circumferential surface of the distal end segment and an exit leading to a spacing enclosed by an outer circumferential wall of the distal end segment , whereby an end of a steering wire can be guided into the spacing of the distal end segment via the entry of the insertion guide , wherein each segment comprises a proximal surface facing a distal surface of an adjacent segment forming a gap between them, and at least one hinge member bridges the gap, characterized in that an entry of a distal portion of the insertion guide is provided in the proximal surface of the distal end segment . a number of hingedly connected segments including a distal end segment and a second segment , wherein adjacent segments are interconnected by at least one hinge member , whereby the tip part can be bent by means of the hingedly connected segments , and an insertion guide adapted for accommodating and guiding a steering wire and including an entry (91a; 81a, 81b) provided in an outer circumferential surface of the distal end segment and an exit leading to a spacing enclosed by an outer circumferential wall of the distal end segment , whereby an end of a steering wire can be guided into the spacing of the distal end segment via the entry of the insertion guide , wherein each segment comprises a proximal surface facing a distal surface of an adjacent segment forming a gap between them, and at least one hinge member bridges the gap, characterized in that an entry of a distal portion of the insertion guide is provided in the proximal surface of the distal end segment .
An activated polymer comprising a backbone ester prepared by a process comprising exposing the polymer to conditions such that one or more backbone esters are hydrolyzed for 1 day to 30 days or more at a temperature from 30 ± 3 degrees C to 42 ± 4 degrees C under atmospheric pressure, thereby obtaining a Mw between 5 and 10 KDa and exposing one or more activated end group(s) which are either hydroxyl or carboxylic acid end groups, and wherein the polymer is poly(amine co ester) synthesized by a method comprising combining 15 pentadecanolide (PDL), diethanolamine, and a diester/diacid selected from either diethyl sebacate (DES) or sebacic acid (SBA).
A beamforming device for a phased array antenna, comprising: a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a distribution unit configured to distribute a plurality of the spaced wavelengths onto a plurality of optical paths, a wavelength selection device configured to receive the plurality of spaced wavelengths on each of the plurality of optical paths, one or more phase shift unit connected to a said wavelength selection device, wherein the phase shift unit is configured to introduce a phase shift to a received wavelength; and further comprising one or more modulator configured to modulate a wavelength selected by the wavelength selection device; and wherein the wavelength selection device on each optical path is configured to selectively transmit a wavelength to the phase shift unit, and wherein the wavelength selection device is configured to receive the said phase shifted wavelength from the phase shift unit, and beamforming device further comprising: a heterodyning device configured to generate a signal for transmission by an element of the phased array antenna, wherein the heterodyning device is configured to heterodyne a plurality of pairs of selected spectral components of the spaced wavelengths of the laser light source to form a plurality of beams. a laser light source arranged to provide an optical spectrum comprising a plurality of spaced wavelengths, a distribution unit configured to distribute a plurality of the spaced wavelengths onto a plurality of optical paths, a wavelength selection device configured to receive the plurality of spaced wavelengths on each of the plurality of optical paths, one or more phase shift unit connected to a said wavelength selection device, wherein the phase shift unit is configured to introduce a phase shift to a received wavelength; and further comprising one or more modulator configured to modulate a wavelength selected by the wavelength selection device; and wherein the wavelength selection device on each optical path is configured to selectively transmit a wavelength to the phase shift unit, and wherein the wavelength selection device is configured to receive the said phase shifted wavelength from the phase shift unit, and beamforming device further comprising: a heterodyning device configured to generate a signal for transmission by an element of the phased array antenna, wherein the heterodyning device is configured to heterodyne a plurality of pairs of selected spectral components of the spaced wavelengths of the laser light source to form a plurality of beams.