mhurhangee/ep-ind-claims huggingface dataset:
A cold plasma sterilization device (500, 600) comprising: a plasma chamber (510, 620, 710) comprising a gas input port (540, 750) and a gas output port (550, 760) for throughput of a gas; a plurality of dielectric barrier discharge devices attached to the plasma chamber (510, 620, 710) and configured to generate a cold plasma within the plasma chamber (510, 620, 710), wherein each of the plurality of dielectric barrier discharge devices is formed by a dielectric barrier (420, 560) being sandwiched between a respective electrode (520, 720, 810, 910) and the interior of the plasma chamber (510, 620, 710), and wherein each of the electrodes (520, 720, 810, 910) is coupled to a high voltage electric input (530, 680); and a conductive stand (740, 830, 930) disposed within the plasma chamber (510, 620, 710) and configured to accept an object for sterilization, wherein the conductive stand (740, 830, 930) is coupled to ground, wherein the plurality of dielectric barrier discharge devices include a first group and a second group of dielectric barrier discharge devices, the first and second group being located on opposing sides of the plasma chamber (510, 620, 710), or wherein the plurality of dielectric barrier discharge devices are distributed evenly with respect to a center of the conductive stand (740, 830, 930). a plasma chamber (510, 620, 710) comprising a gas input port (540, 750) and a gas output port (550, 760) for throughput of a gas; a plurality of dielectric barrier discharge devices attached to the plasma chamber (510, 620, 710) and configured to generate a cold plasma within the plasma chamber (510, 620, 710), wherein each of the plurality of dielectric barrier discharge devices is formed by a dielectric barrier (420, 560) being sandwiched between a respective electrode (520, 720, 810, 910) and the interior of the plasma chamber (510, 620, 710), and wherein each of the electrodes (520, 720, 810, 910) is coupled to a high voltage electric input (530, 680); and a conductive stand (740, 830, 930) disposed within the plasma chamber (510, 620, 710) and configured to accept an object for sterilization, wherein the conductive stand (740, 830, 930) is coupled to ground, wherein the plurality of dielectric barrier discharge devices include a first group and a second group of dielectric barrier discharge devices, the first and second group being located on opposing sides of the plasma chamber (510, 620, 710), or wherein the plurality of dielectric barrier discharge devices are distributed evenly with respect to a center of the conductive stand (740, 830, 930).
An ophthalmologic apparatus, comprising: an acquisition unit configured to acquire tomographic information of an eye to be examined using information on interference light between return light from the eye to be examined, which is irradiated with measurement light, and reference light; an optical path length difference controlling unit configured to control a difference in optical path length between the measurement light and the reference light; and an in-focus position controlling unit configured to control an in-focus position of the measurement light; characterized by further comprising: a vitreous structure detection unit configured to detect a vitreous structure of the eye to be examined using tomographic information of the eye to be examined that is acquired after at least one of the difference in optical path length and the in-focus position is controlled, wherein the acquisition unit is configured to acquire tomographic information of the vitreous structure after the difference in optical path length and the in-focus position are controlled based on positional information of the detected vitreous structure. an acquisition unit configured to acquire tomographic information of an eye to be examined using information on interference light between return light from the eye to be examined, which is irradiated with measurement light, and reference light; an optical path length difference controlling unit configured to control a difference in optical path length between the measurement light and the reference light; and an in-focus position controlling unit configured to control an in-focus position of the measurement light; characterized by further comprising: a vitreous structure detection unit configured to detect a vitreous structure of the eye to be examined using tomographic information of the eye to be examined that is acquired after at least one of the difference in optical path length and the in-focus position is controlled, wherein the acquisition unit is configured to acquire tomographic information of the vitreous structure after the difference in optical path length and the in-focus position are controlled based on positional information of the detected vitreous structure. a vitreous structure detection unit configured to detect a vitreous structure of the eye to be examined using tomographic information of the eye to be examined that is acquired after at least one of the difference in optical path length and the in-focus position is controlled, wherein the acquisition unit is configured to acquire tomographic information of the vitreous structure after the difference in optical path length and the in-focus position are controlled based on positional information of the detected vitreous structure.
Apparatus for intermittently applying a flowable substance, in particular a flowable adhesive, to at least one substrate, having the following features: - an applicator nozzle for applying the flowable substance to the substrate, - a container for holding the flowable substance, - a pump for conveying the flowable substance and a drive, wherein the pump is operatively connected to the container and the pump can be driven by means of the drive, - an actuator which is operatively connected to the pump and can be transferred into two positions, wherein the actuator, in a first position, directs the flowable substance to the applicator nozzle and, in a second position, blocks the feeding to the applicator nozzle, - a control apparatus for actuating the actuator, - the arrangement of drive and pump has a characteristic according to which the rotational speed of the drive is linear with respect to the conveying volume of the pump, - in a second position, with the pump being driven, the actuator directs the flowable substance back to the container via a line, - in the first position, the actuator blocks the return flow to the container, characterized by the following features: - the drive can be regulated in terms of rotational speed, - the control apparatus serves for regulating the rotational speed of the drive of the pump, - the rotational speed of the drive is different in the two positions of the actuator. - an applicator nozzle for applying the flowable substance to the substrate, - a container for holding the flowable substance, - a pump for conveying the flowable substance and a drive, wherein the pump is operatively connected to the container and the pump can be driven by means of the drive, - an actuator which is operatively connected to the pump and can be transferred into two positions, wherein the actuator, in a first position, directs the flowable substance to the applicator nozzle and, in a second position, blocks the feeding to the applicator nozzle, - a control apparatus for actuating the actuator, - the arrangement of drive and pump has a characteristic according to which the rotational speed of the drive is linear with respect to the conveying volume of the pump, - in a second position, with the pump being driven, the actuator directs the flowable substance back to the container via a line, - in the first position, the actuator blocks - the drive can be regulated in terms of rotational speed, - the control apparatus serves for regulating the rotational speed of the drive of the pump, - the rotational speed of the drive is different in the two positions of the actuator.
A system for optimizing a position of an implant having an individually customized implant hat and at least one implant protrusion extending from the implant hat in the direction of an implant axis in an anatomical joint of a patient, the system comprising a storage media and a processor, wherein the processor is configured to: receive medical image data representing a three dimensional image of the joint from the storage media; obtain a three dimensional virtual model of the joint which is based on the received medical image data; identify damage in the joint based on the received medical image data and/or the three dimensional virtual model of the joint; define an implant area that covers at least a major part of the identified damage; position a virtual implant template having an implant hat corresponding to said implant area, in the three dimensional virtual model of the joint; and generate a customized top surface of the implant hat to correspond to a simulated healthy cartilage surface; wherein the processor is configured to position the virtual implant template by: placing the virtual implant template so that the cross section area of the implant hat in a direction perpendicular to the implant axis covers at least a major part of the damage; and optimizing the tilt of the implant axis, while maintaining the position of the cross section area of the implant hat in the joint, by minimizing one of: the maximum penetration depth D max into the bone along the circumference of the implant hat; the total volume of bone and/or cartilage to be removed for implanting the implant; or the surface area of the implant penetration into the bone. receive medical image data representing a three dimensional image of the joint from the storage media; obtain a three dimensional virtual model of the joint which is based on the received medical image data; identify damage in the joint based on the received medical image data and/or the three dimensional virtual model of the joint; define an implant area that covers at least a major part of the identified damage; position a virtual implant template having an implant hat corresponding to said implant area, in the three dimensional virtual model of the joint; and generate a customized top surface of the implant hat to correspond to a simulated healthy cartilage surface; placing the virtual implant template so that the cross section area of the implant hat in a direction perpendicular to the implant axis covers at least a major part of the damage; and optimizing the tilt of the implant axis, while maintaining the position of the cross section area of the implant hat in the joint, by minimizing one of: the maximum penetration depth D max into the bone along the circumference of the implant hat; the total volume of bone and/or cartilage to be removed for implanting the implant; or the surface area of the implant penetration into the bone. the maximum penetration depth D max into the bone along the circumference of the implant hat; the total volume of bone and/or cartilage to be removed for implanting the implant; or the surface area of the implant penetration into the bone.
A gas hydrate inhibitor comprising an N-alkyl-N'-(N",N"-dialkylammoniumalkyl)dicarboxylic acid diamide salt represented by the formula wherein R is an alkyl or alkenyl group having from 8 to 22 carbon atoms, R 1 is hydrogen, a C 1 - to C 22 alkyl group or a C 3 - to C 22 alkenyl group, R 2 and R 3 are each independently an alkyl group containing 1 to 10 carbon atoms or together form an optionally substituted ring having 5 to 10 ring atoms, wherein the ring may carry up to 3 substituents, R 4 is hydrogen, A is an optionally substituted hydrocarbyl group containing from 1 to 18 carbon atoms, B is an alkylene group having from 2 to 6 carbon atoms, Y is NR 5, R 5 is hydrogen, a C 1 - to C 22 alkyl group or a C 3 - to C 22 alkenyl group, and M - is an anion. R is an alkyl or alkenyl group having from 8 to 22 carbon atoms, R 1 is hydrogen, a C 1 - to C 22 alkyl group or a C 3 - to C 22 alkenyl group, R 2 and R 3 are each independently an alkyl group containing 1 to 10 carbon atoms or together form an optionally substituted ring having 5 to 10 ring atoms, wherein the ring may carry up to 3 substituents, R 4 is hydrogen, A is an optionally substituted hydrocarbyl group containing from 1 to 18 carbon atoms, B is an alkylene group having from 2 to 6 carbon atoms, Y is NR 5, R 5 is hydrogen, a C 1 - to C 22 alkyl group or a C 3 - to C 22 alkenyl group, and M - is an anion.
An uplink control information transmission method, comprising: determining, by a terminal device, a preamble that needs to be sent; determining, by the terminal device based on the preamble, a first resource set that is in a physical uplink shared channel PUSCH resource and that is used to send uplink control information, wherein the PUSCH resource comprises a plurality of resource sets, the plurality of resource sets comprise the first resource set, an intersection set of any two resource sets in the plurality of resource sets is an empty set, each resource set is corresponding to one preamble set, and an intersection set of preamble sets corresponding to any two resource sets is an empty set; and sending, by the terminal device, the uplink control information and uplink data on the PUSCH resource, wherein the uplink control information is mapped to the first resource set, the uplink data is mapped to a resource that is other than the plurality of resource sets and that is in the PUSCH resource, and no information or uplink data is mapped to a resource set that is other than the first resource set and that is in the plurality of resource sets. determining, by a terminal device, a preamble that needs to be sent; determining, by the terminal device based on the preamble, a first resource set that is in a physical uplink shared channel PUSCH resource and that is used to send uplink control information, wherein the PUSCH resource comprises a plurality of resource sets, the plurality of resource sets comprise the first resource set, an intersection set of any two resource sets in the plurality of resource sets is an empty set, each resource set is corresponding to one preamble set, and an intersection set of preamble sets corresponding to any two resource sets is an empty set; and sending, by the terminal device, the uplink control information and uplink data on the PUSCH resource, wherein the uplink control information is mapped to the first resource set, the uplink data is mapped to a resource that is other than the plurality of resource sets and that is in the PUSCH resource, and no information or uplink data is mapped to a resource set that is other than the first resource set and that is in the plurality of resource sets.
An overhead storage unit, comprising: a guide member having a first horizontal segment mountable within an overhead storage area, a second vertical segment mountable below the overhead storage area, and a curved segment extending between the first and second segments (32, 34); and a storage assembly having a plurality of storage containers each connected to at least one other storage container at common pivots, the storage containers mounted to the guide member and displaceable therealong to be raised and lowered between a stored position and an accessible position, each storage container pivoting relative to an adjacent storage container on the common pivot as the storage containers are displaced between the stored and accessible positions, the storage containers disposed within the overhead storage area and having a first orientation in the stored position, and the storage containers disposed below the overhead storage area and having a second orientation different from the first orientation in the accessible position; characterized in that the common pivots have guide wheels displaceable along the first horizontal segment, the second vertical segment, and the curved segment of the guide member. a guide member having a first horizontal segment mountable within an overhead storage area, a second vertical segment mountable below the overhead storage area, and a curved segment extending between the first and second segments (32, 34); and a storage assembly having a plurality of storage containers each connected to at least one other storage container at common pivots, the storage containers mounted to the guide member and displaceable therealong to be raised and lowered between a stored position and an accessible position, each storage container pivoting relative to an adjacent storage container on the common pivot as the storage containers are displaced between the stored and accessible positions, the storage containers disposed within the overhead storage area and having a first orientation in the stored position, and the storage containers disposed below the overhead storage area and having a second orientation different from the first orientation in the accessible position; characterized in that the common pivots have guide wheels displaceable along the first horizontal segment, the second vertical segment, and the curved segment of the guide member.
A method comprising applying forward error correction coding, FEC, to a signalling message to generate a coded signalling message; M-ary Phase Shift Keying, MPSK, mapping the coded signalling message to produce an MPSK mapped coded signalling message; mapping the MPSK mapped coded signalling message onto a plurality of sub-carriers within an OFDM frame comprising a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols; encoding symbols of the MPSK mapped coded signalling message using Differential Space-Time Block Coding, D-STBC, in a time direction to generate encoded symbols; and transmitting the encoded symbols on a plurality of transmit antennas (960, 962), with the encoded symbols being transmitted at an increased power level relative to other symbols within the OFDM frame as a function of channel conditions. applying forward error correction coding, FEC, to a signalling message to generate a coded signalling message; M-ary Phase Shift Keying, MPSK, mapping the coded signalling message to produce an MPSK mapped coded signalling message; mapping the MPSK mapped coded signalling message onto a plurality of sub-carriers within an OFDM frame comprising a plurality of Orthogonal Frequency Division Multiplexing, OFDM, symbols; encoding symbols of the MPSK mapped coded signalling message using Differential Space-Time Block Coding, D-STBC, in a time direction to generate encoded symbols; and transmitting the encoded symbols on a plurality of transmit antennas (960, 962), with the encoded symbols being transmitted at an increased power level relative to other symbols within the OFDM frame as a function of channel conditions.
A process for manufacturing a threaded impact extruded metallic bottle for a beverage, comprising: forming a slug with an aluminum alloy, wherein said aluminum alloy is blended from approximately 60% of a scrap aluminum alloy and approximately 40% of a 1070 aluminum alloy, wherein said scrap aluminum alloy comprises: between 0.20 wt. % Si and 0.32 wt. % Si; between 0.47 wt. % Fe and 0.59 wt. % Fe; between 0.10 wt. % Cu and 0.22 wt. % Cu; between 0.78 wt. % Mn and 0.90 wt. % Mn; between 0.54 wt. % Mg and 0.66 wt. % Mg; between 0.06 wt. % Zn and 0.18 wt. % Zn; between 0.00 wt. % Cr and 0.08 wt. % Cr; and between 0.00 wt. % Ti and 0.08 wt. % Ti; deforming said slug into a preferred shape in an impact extrusion process to form said metallic bottle; and forming threads on a neck portion of said metallic bottle, said threads configured to receive a threaded closure which can be selectively opened and closed after said metallic bottle is filled with the beverage. forming a slug with an aluminum alloy, wherein said aluminum alloy is blended from approximately 60% of a scrap aluminum alloy and approximately 40% of a 1070 aluminum alloy, wherein said scrap aluminum alloy comprises: between 0.20 wt. % Si and 0.32 wt. % Si; between 0.47 wt. % Fe and 0.59 wt. % Fe; between 0.10 wt. % Cu and 0.22 wt. % Cu; between 0.78 wt. % Mn and 0.90 wt. % Mn; between 0.54 wt. % Mg and 0.66 wt. % Mg; between 0.06 wt. % Zn and 0.18 wt. % Zn; between 0.00 wt. % Cr and 0.08 wt. % Cr; and between 0.00 wt. % Ti and 0.08 wt. % Ti; between 0.20 wt. % Si and 0.32 wt. % Si; between 0.47 wt. % Fe and 0.59 wt. % Fe; between 0.10 wt. % Cu and 0.22 wt. % Cu; between 0.78 wt. % Mn and 0.90 wt. % Mn; between 0.54 wt. % Mg and 0.66 wt. % Mg; between 0.06 wt. % Zn and 0.18 wt. % Zn; between 0.00 wt. % Cr and 0.08 wt. % Cr; and between 0.00 wt. % Ti and 0.08 wt. % Ti; deforming said slug into a preferred shape in an impact extrusion process to form said metallic bottle; and forming threads on a neck portion of said metallic bottle, said threads configured to receive a threaded closure which can be selectively opened and closed after said metallic bottle is filled with the beverage.
A method performed by a controller in a wireless communication system for determining a security attack, the method comprising: obtaining a first statistics based on an amount of messages received from at least one packet forwarding entity within a pre-defined time interval, t, wherein the first statistics is a time-domain data; obtaining a second statistics based on at least one arriving-time difference, T d, between two consecutive messages; detecting an anomaly based on the second statistics; determining, if the anomaly is detected, a security attack based on the first statistics; and initiating a security attack notification to an orchestrator. obtaining a first statistics based on an amount of messages received from at least one packet forwarding entity within a pre-defined time interval, t, wherein the first statistics is a time-domain data; obtaining a second statistics based on at least one arriving-time difference, T d, between two consecutive messages; detecting an anomaly based on the second statistics; determining, if the anomaly is detected, a security attack based on the first statistics; and initiating a security attack notification to an orchestrator.
Process for the preparation of the compound of formula: wherein Z is selected from the group comprising OH, O-, OR, SR, O OR, NH 2, NHR, NR 2 wherein R is selected between linear or branched C 1-7 alkyl, linear or branched C 1-7 alkenyl or alkynyl, C 3-7 cycloalkyl, aryl-C 0-4 alkyl and wherein in NR 2 the two R groups can also be joined forming a C 2-10 alkyl or alkenyl ring; PG is a hydroxyl protecting group selected in the group comprising THP, camphanoyl, bornyl, menthyl, R, R, CH 2 OR, CH 2 SR, SiR 3 wherein the substituent R can be equal or different in SiR 3 and R is selected between linear or branched C 1-7 alkyl, linear or branched C 1-7 alkenyl or alkynyl, C 3-7 cycloalkyl, aryl-C 0-4 alkyl; and Q is selected in the group comprising the following radicals: wherein the symbol * specifies the bonding position; and R 1 is hydrogen or methyl; and R 2 is chosen between hydrogen, methyl, hydroxyl, hydroxymethyl and O-PG wherein PG has the same meaning as defined in this claim; comprising the reaction of the compound of formula: wherein PG and Z are the same as in the compound of formula, with the compound of formula: wherein Q is the same as in the compound of formula, and in which the process is carried out in presence of a Lewis acid.