mhurhangee/patent-ind-claim-en huggingface dataset:
An inspection and monitoring system with an assessment unit for a cable railway, comprising a cable guided from one end to the other of the cable railway and which advances the one or more cabins or trains, whereby the inspection and monitoring system connected to the assessment unit enables the monitoring or inspection of at least the cable , whereby the cable railway is provided in particular for an urban transportation of people and goods, characterised in that that the assessment of the inspection results is being proceeded taking into account certain parameters that describe and influence the operating state of the system, such as the number of bending cycles and the length of the cable path covered.
A method for providing a distributed Self Organizing Network, dSON, for a wireless network including at least one mobile eNodeB and a plurality of coordinating network nodes, comprising: ascertaining , by the dSON, information from at least one of User Equipment, LTE, reports and neighbor detection for a mobile eNodeB attached to coordinating network node; adjusting a configuration for the mobile eNodeB based on location and a state of neighbors obtained from a LTE report and neighbor detection using a pre-configured overlap factor to set a reference Transmit, Tx, power to a higher level or a lower level, wherein the mobile eNodeB configuration includes at least one of Physical Cell Identification, PCI, allocation, Tracking Area Code, TAC, allocation, reference Transmit, Tx, power management, and Automatic Neighbor Relations, ANR, table; generating the ANR table using X2 or LTE measurements and Global Positioning System, GPS, location; tracking arriving and departing neighbor devices in the ANR table; and sending an update message regarding updated configuration for the mobile eNodeB from the coordinating network node to at least one other coordinating network node via a service bus messaging service. ascertaining , by the dSON, information from at least one of User Equipment, LTE, reports and neighbor detection for a mobile eNodeB attached to coordinating network node; adjusting a configuration for the mobile eNodeB based on location and a state of neighbors obtained from a LTE report and neighbor detection using a pre-configured overlap factor to set a reference Transmit, Tx, power to a higher level or a lower level, wherein the mobile eNodeB configuration includes at least one of Physical Cell Identification, PCI, allocation, Tracking Area Code, TAC, allocation, reference Transmit, Tx, power management, and Automatic Neighbor Relations, ANR, table; generating the ANR table using X2 or LTE measurements and Global Positioning System, GPS, location; tracking arriving and departing neighbor devices in the ANR table; and sending an update message regarding updated configuration for the mobile eNodeB from the coordinating network node to at least one other coordinating network node via a service bus messaging service.
A post-moulding station for performing at least one post-moulding operation on at least a section of a cured wind turbine blade shell of at least 40 metres length, the post-moulding station comprising: a first cradle to receive at least a section of a first cured blade shell transferred from a blade mould; a second cradle to receive at least a section of a second cured blade shell transferred from a blade mould, said first and second cured blade shells together substantially forming a wind turbine blade; wherein at least one post-moulding operation can be performed on at least one surface of said first and second cured blade shells received in said cradles, and wherein at least one of said first and second cradles is a substantially open-framed structure to provide access to a supported surface of a cured blade shell received in said cradle, the cradle having a plurality of support members to support a surface of a cured wind turbine blade shell received in said cradle. a first cradle to receive at least a section of a first cured blade shell transferred from a blade mould; a second cradle to receive at least a section of a second cured blade shell transferred from a blade mould, said first and second cured blade shells together substantially forming a wind turbine blade; wherein at least one post-moulding operation can be performed on at least one surface of said first and second cured blade shells received in said cradles, and wherein at least one of said first and second cradles is a substantially open-framed structure to provide access to a supported surface of a cured blade shell received in said cradle, the cradle having a plurality of support members to support a surface of a cured wind turbine blade shell received in said cradle.
A rifle scope comprising: a scope body ; a movable optical element defining an optical axis connected to the scope body; a turret comprising (A) a turret screw defining a screw axis and operably connected to the optical element for adjusting the optical axis in response to rotation of the screw, (B) a turret chassis subassembly , and (C) a turret cap at least partially overlapping the turret chassis subassembly, wherein the turret cap has an upper surface defining a recess that is generally circular and centrally located on the turret cap and wherein the recess has an upper surface that is generally flat; and a zero point adjustment subassembly comprising (a) a zero cap connected to the turret screw and positioned in the recess of the turret cap, and (b) a locking mechanism releasably securing the zero cap to the turret cap, wherein at least one component of the locking mechanism is positioned between the zero cap and the upper surface of the recess. a scope body ; a movable optical element defining an optical axis connected to the scope body; a turret comprising (A) a turret screw defining a screw axis and operably connected to the optical element for adjusting the optical axis in response to rotation of the screw, (B) a turret chassis subassembly , and (C) a turret cap at least partially overlapping the turret chassis subassembly, wherein the turret cap has an upper surface defining a recess that is generally circular and centrally located on the turret cap and wherein the recess has an upper surface that is generally flat; and a zero point adjustment subassembly comprising (a) a zero cap connected to the turret screw and positioned in the recess of the turret cap, and (b) a locking mechanism releasably securing the zero cap to the turret cap, wherein at least one component of the locking mechanism is positioned between the zero cap and the upper surface of the recess. (A) a turret screw defining a screw axis and operably connected to the optical element for adjusting the optical axis in response to rotation of the screw, (B) a turret chassis subassembly , and (C) a turret cap at least partially overlapping the turret chassis subassembly, wherein the turret cap has an upper surface defining a recess that is generally circular and centrally located on the turret cap and wherein the recess has an upper surface that is generally flat; and (a) a zero cap connected to the turret screw and positioned in the recess of the turret cap, and (b) a locking mechanism releasably securing the zero cap to the turret cap, wherein at least one component of the locking mechanism is positioned between the zero cap and the upper surface of the recess.
Cosmetic composition for caring for keratin fibres, in particular human keratin fibres such as the hair, comprising, in a cosmetically acceptable medium: (i) one or more organosilanes chosen from 3-aminopropyltriethoxysilane, and oligomers and mixtures thereof (ii) one or more cationic polymers having a charge density greater than or equal to 4 meq/g, and (iii) one or more cationic surfactants the pH of said composition ranging from 3 to 7, the content of the organosilane(s) ranging from 0.1% to 8% by weight, relative to the total weight of the composition. (i) one or more organosilanes chosen from 3-aminopropyltriethoxysilane, and oligomers and mixtures thereof (ii) one or more cationic polymers having a charge density greater than or equal to 4 meq/g, and (iii) one or more cationic surfactants
A human β-defensin selected from hBD-2 (SEQ ID NO.: 2), truncated hBD-2 (SEQ ID NO.: 7) or a functionally equivalent modified defensin comprising 1-4 amino acid modifications compared to hBD-2 of SEQ ID NO.: 2 or truncated hBD-2 of SEQ ID NO.: 7; wherein said modification(s) is a conservative amino acid substitution(s) or insertion(s) that do not significantly affect the folding of the defensin; or a single deletion(s), for use in the prevention or treatment of acute graft-versus-host-disease (GVHD) in a patient that has received or is about to receive an allogeneic hematopoietic stem cell transplantation.
A method of controlling a set of at least two inverters in an electrical generation system with parallel inverters on the DC side and on the AC side, the method being characterized in that it comprises the implementation by at least one data processing unit of the steps of : (a) for each inverter of said set, obtaining an input duty cycle (PWMi) of an input signal (Si) received by said inverter , (b) calculation of an average duty cycle (PWMm) from the input duty cycles (PWMi), (c) modulation and synchronization of the input signal (Si) received by each inverter into an output signal (So) having an output duty cycle (PWMo) corresponding to the average duty cycle (PWMm). (a) for each inverter of said set, obtaining an input duty cycle (PWMi) of an input signal (Si) received by said inverter , (b) calculation of an average duty cycle (PWMm) from the input duty cycles (PWMi), (c) modulation and synchronization of the input signal (Si) received by each inverter into an output signal (So) having an output duty cycle (PWMo) corresponding to the average duty cycle (PWMm).
A method of treatment of steelmaking-slag comprising slag of various grain sizes less than 40 mm for stabilization, the method characterized by comprising the steps of adjusting the steelmaking-slag to have an amount of moisture or amount of carbonated-water to a range 5 to 8 mass % less than a moisture value where free-water starts to become present, and then supplying a flow of CO 2 gas for carbonation treatment without allowing the grains of the steelmaking-slag to bind together, the moisture value where the free-water starts to become present being measured by JIS A1101, and making relative humidity of a gas containing said CO 2 gas 75 to 100% by controlling one or more of addition of the amount of the moisture, a flow rate of the gas and the relative humidity of the gas and making an ambient temperature in surroundings of the steelmaking-slag when supplying the flow of the gas at least 10°C below zero and not more than 40°C by controlling the flow rate of the gas, and wherein the steelmaking-slag after said carbonation treatment has free-CaO and Ca(OH) 2 of a total of not more than 0.9 mass%.
A method for generating a target video, comprising: acquiring live streaming data, wherein the live streaming data comprises video data, and at least one of audio data and live interaction data; processing the live streaming data to generate, based on an object comprised in a processing result, a video measurement value and at least one of an audio measurement value and an interaction measurement value; generating , based on the video measurement value and the at least one of the audio measurement value and the interaction measurement value, a comprehensive measurement value of the live streaming data; and generating a target video based on the live streaming data, in response to a determination of the comprehensive measurement value of the live streaming data satisfying a preset condition, wherein the live streaming data comprises a plurality of live streaming slice sets obtained by slicing the live streaming data in a period, and each live streaming slice set comprises a plurality of live streaming slices, and the generating a target video based on the live streaming data, in response to a determination of the comprehensive measurement value of the live streaming data satisfying a preset condition comprises: in a case that a quantity of live streaming slices satisfying a condition for comprehensive measurement value in one of the plurality of live streaming slice sets is greater than a target quantity, using the live streaming slice set as the target video. acquiring live streaming data, wherein the live streaming data comprises video data, and at least one of audio data and live interaction data; processing the live streaming data to generate, based on an object comprised in a processing result, a video measurement value and at least one of an audio measurement value and an interaction measurement value; generating , based on the video measurement value and the at least one of the audio measurement value and the interaction measurement value, a comprehensive measurement value of the live streaming data; and generating a target video based on the live streaming data, in response to a determination of the comprehensive measurement value of the live streaming data satisfying a preset condition, wherein the live streaming data comprises a plurality of live streaming slice sets obtained by slicing the live streaming data in a period, and each live streaming slice set comprises a plurality of live streaming slices, and the generating a target video based on the live streaming data, in response to a determination of the comprehensive measurement value of the live streaming data satisfying a preset condition comprises: in a case that a quantity of live streaming slices satisfying a condition for comprehensive measurement value in one of the plurality of live streaming slice sets is greater than a target quantity, using the live streaming slice set as the target video.
A control plane entity apparatus, characterized by comprising: creation means for directing , from the control plane entity apparatus, a creation request to a new long term evolution (LTE) anchor to set up a user plane tunnel towards a 3rd Generation Partnership Program anchor; first receiving means for receiving a response from the new LTE anchor; updating means for sending an update context request from the control plane entity apparatus towards the 3GPP anchor; second receiving means for receiving an update proxy context response from the 3GPP anchor; deletion means for directing a deletion request from the control plane entity apparatus to an old LTE anchor; and third receiving means for receiving a deletion response from the old LTE anchor, wherein the control plane entity apparatus is configured to operate in an idle mode. creation means for directing , from the control plane entity apparatus, a creation request to a new long term evolution (LTE) anchor to set up a user plane tunnel towards a 3rd Generation Partnership Program anchor; first receiving means for receiving a response from the new LTE anchor; updating means for sending an update context request from the control plane entity apparatus towards the 3GPP anchor; second receiving means for receiving an update proxy context response from the 3GPP anchor; deletion means for directing a deletion request from the control plane entity apparatus to an old LTE anchor; and third receiving means for receiving a deletion response from the old LTE anchor, wherein the control plane entity apparatus is configured to operate in an idle mode.
A method implemented in a first device for wireless communication, comprising: receiving a sequence of signals from a second device , the sequence of signals comprising a signal of a first type and a signal of a second type; assigning a first priority to the signal of the first type and a second priority lower than the first priority to the signal of the second type; and generating an indicator for explicitly indicating a start position of a subset of the sequence of signals within the sequence of signals, and transmitting the indicator together with the subset of the sequence of signals via a transport network to a third device according to the assigned priorities, wherein the signal of the first type comprises a demodulation reference signal,DMRS, and the signal of the second type comprises a data signal, and wherein the first device is an assistant point, assisting a serving point, and the second device is a serving point, serving user equipment. receiving a sequence of signals from a second device , the sequence of signals comprising a signal of a first type and a signal of a second type; assigning a first priority to the signal of the first type and a second priority lower than the first priority to the signal of the second type; and generating an indicator for explicitly indicating a start position of a subset of the sequence of signals within the sequence of signals, and transmitting the indicator together with the subset of the sequence of signals via a transport network to a third device according to the assigned priorities, wherein the signal of the first type comprises a demodulation reference signal,DMRS, and the signal of the second type comprises a data signal, and wherein the first device is an assistant point, assisting a serving point, and the second device is a serving point, serving user equipment.
A packing press for packing deformable material, comprising: a first compression chamber , a second compression chamber , a compactor that is arranged between the first and the second compression chamber such that it engages in the first compression chamber when operated in a first direction and in the second compression chamber when operated in a second direction; a first and a second feed chamber section , wherein the compactor transfers material from the first feed chamber section to the first compression chamber and from the second feed chamber section to the second compression chamber ; and a feed chamber that includes the first feed chamber section and the second feed chamber section , wherein the compactor is arranged in the feed chamber ; wherein the first and/or the second compression chamber each includes a guide section provided to guide a package; wherein the guide section is formed by a vertical offset; wherein the vertical offset is formed such that a floor of the first and/or second compression chamber is offset downward relative to a floor of the feed chamber ; and characterized in that a floor of the feed chamber is vertically displaceable, that the compactor is configured to be displaced with a vertical displacement of the floor of the feed chamber , and that a housing of the feed chamber is configured not to be displaced with a vertical displacement of the floor of the feed chamber . a first compression chamber , a second compression chamber , a compactor that is arranged between the first and the second compression chamber such that it engages in the first compression chamber when operated in a first direction and in the second compression chamber when operated in a second direction; a first and a second feed chamber section , wherein the compactor transfers material from the first feed chamber section to the first compression chamber and from the second feed chamber section to the second compression chamber ; and a feed chamber that includes the first feed chamber section and the second feed chamber section , wherein the compactor is arranged in the feed chamber ; wherein the first and/or the second compression chamber each includes a guide section provided to guide a package; wherein the guide section is formed by a vertical offset; wherein the vertical offset is formed such that a floor of the first and/or second compression chamber is offset downward relative to a floor of the feed chamber ; and characterized in that a floor of the feed chamber is vertically displaceable, that the compactor is configured to be displaced with a vertical displacement of the floor of the feed chamber , and that a housing of the feed chamber is configured not to be displaced with a vertical displacement of the floor of the feed chamber .
Method for recycling polyester based nonwovens comprising 5 to 50% of PET and coPET staple fibers having at least a sheath component melting at a temperature of around 180 °C or less comprising the steps of: - Feeding a polyester based nonwoven to recycle into a repelletizing machine to obtain recycled polyester-based pellets , - Blending the obtained pellets with polyester flakes , the blend comprising 15 to 35% of recycled polyester-based pellets and 65 to 85% of polyester flakes , and - Extruding the blend into polyester staple fibers (PSF) having an intrinsic viscosity (IV) of below 0.7 dl/ g, as measured according to the method described herein. - Feeding a polyester based nonwoven to recycle into a repelletizing machine to obtain recycled polyester-based pellets , - Blending the obtained pellets with polyester flakes , the blend comprising 15 to 35% of recycled polyester-based pellets and 65 to 85% of polyester flakes , and - Extruding the blend into polyester staple fibers (PSF) having an intrinsic viscosity (IV) of below 0.7 dl/ g, as measured according to the method described herein.
A universal tray insert (200; 200') for a multipurpose tray (20; 20') for an automated processing system, for holding a plurality of reagent or sample tubes having similar or differing diameters, said universal tray insert (200; 200') comprising an array of tube receiving recesses (201, 202, 203; 201', 202', 203') with different sizes, wherein said array of tube receiving recesses (201, 202, 203; 201', 202', 203') comprising at least a first group of tube receiving recesses (201; 201'), a second group of tube receiving recesses (202; 202'), and a third group of tube receiving recesses (203; 203'), the size of a recess (201; 201') of said first group of tube receiving recesses (201; 201'), the size of a recess (202; 202') of said second group of tube receiving recesses (202; 202'), and the size of a recess (203; 203') of said third group of tube receiving recesses (203; 203') differ from each other, and a contour of an inner circumference of each tube receiving recess (201; 201') of said first group of tube receiving recesses (201; 201') intersects with a contour of an inner circumference of at least one adjacent tube receiving recess (202; 202') of said second group of tube receiving recesses (202; 202') and with a contour of an inner circumference of at least one of the tube receiving recesses (203; 203') of said third group of tube receiving recesses (203; 203'). said array of tube receiving recesses (201, 202, 203; 201', 202', 203') comprising at least a first group of tube receiving recesses (201; 201'), a second group of tube receiving recesses (202; 202'), and a third group of tube receiving recesses (203; 203'), the size of a recess (201; 201') of said first group of tube receiving recesses (201; 201'), the size of a recess (202; 202') of said second group of tube receiving recesses (202; 202'), and the size of a recess (203; 203') of said third group of tube receiving recesses (203; 203') differ from each other, and a contour of an inner circumference of each tube receiving recess (201; 201') of said first group of tube receiving recesses (201; 201') intersects with a contour of an inner circumference of at least one adjacent tube receiving recess (202; 202') of said second group of tube receiving recesses (202; 202') and with a contour of an inner circumference of at least one of the tube receiving recesses (203; 203') of said third group of tube receiving recesses (203; 203').