mhurhangee/ep-ind-claims huggingface dataset:
A method for exchanging positioning messages between access points, including: detecting an incoming message from an access point; determining a Round Trip Time/2, RTT/2, value associated with the access point, wherein the RTT/2 value is a time difference between a time instance when the incoming message was sent and a time instance when the incoming message is detected; generating an acknowledgment message; calculating a time of departure t3 for the acknowledgment message; and sending the acknowledgment message at the time of departure, characterized in that t3 is calculated according to: t3 = t2 + SIFS - RTT/2 + L M, wherein t2 is a time the incoming message is detected, SIFS is the Short Inter-Frame Space associated with the access point, and L M is a length of the incoming message. detecting an incoming message from an access point; determining a Round Trip Time/2, RTT/2, value associated with the access point, wherein the RTT/2 value is a time difference between a time instance when the incoming message was sent and a time instance when the incoming message is detected; generating an acknowledgment message; calculating a time of departure t3 for the acknowledgment message; and sending the acknowledgment message at the time of departure, characterized in that t3 is calculated according to: t3 = t2 + SIFS - RTT/2 + L M, wherein t2 is a time the incoming message is detected, SIFS is the Short Inter-Frame Space associated with the access point, and L M is a length of the incoming message. t3 = t2 + SIFS - RTT/2 + L M, wherein t2 is a time the incoming message is detected, SIFS is the Short Inter-Frame Space associated with the access point, and L M is a length of the incoming message.
A gas-turbine-stator-vane insert removing device with which welding metal that connects an insert collar, which protrudes outward from an outer circumferential surface of an insert, and a stator-vane-outer-shroud non-gas path surface, which surrounds the periphery of the insert collar, is removed by means of an arc discharge repeated at a short cycle between an electrode and a blade surface of a gas-turbine stator vane, wherein a bottom surface of the electrode has the same plan-view shape as a plan-view shape of the welding metal.
A radio frequency switch arrangement comprising: a ground plane; a stack arranged in relation to the ground plane, the stack including a plurality of switching elements (201-n) coupled in series with one another, and the stack having first and second ends, the first end including a respective terminal of a first one of the plurality of switching elements (201-n); and a first solder bump coupled to the respective terminal of the first one of the plurality of switching elements (201-n) such that at least a portion of the first solder bump overlaps with one or more of the plurality of switching elements (201-n), an overlap dimension set in relation to a first threshold value in order to set a respective contribution to a parasitic capacitance existing between the plurality of switching elements (201-n) and the ground plane of the radio frequency switch arrangement. a ground plane; a stack arranged in relation to the ground plane, the stack including a plurality of switching elements (201-n) coupled in series with one another, and the stack having first and second ends, the first end including a respective terminal of a first one of the plurality of switching elements (201-n); and a first solder bump coupled to the respective terminal of the first one of the plurality of switching elements (201-n) such that at least a portion of the first solder bump overlaps with one or more of the plurality of switching elements (201-n), an overlap dimension set in relation to a first threshold value in order to set a respective contribution to a parasitic capacitance existing between the plurality of switching elements (201-n) and the ground plane of the radio frequency switch arrangement.
An insert (1, 2, 3) for a drilling machine comprising: a fixing means for fixing the insert (1, 2, 3) to the drilling machine, at least one air passage which can be brought into fluid communication with at least one air-conveying portion of the drilling machine by fixing the insert (1, 2, 3) to the drilling machine, and at least one abutment (8, 9, 10) for a drilling core or parts of a drilling core, wherein the at least one air passage is connected to at least one air inlet opening for directly receiving drilling chips which occur when using the drilling machine with a hollow drill, characterised in that the at least one air inlet opening is oriented inclinedly relative to the longitudinal axis of the insert (1, 2, 3) so that there is always a gap, by way of which air can be sucked out of the region of the hollow drill.
A ground-basin fermenter having a lowered basin bottom, which is covered by a sealing layer and forms a ground basin, and which has at least one gas-tight cover (26, 27) attached to its basin rim, wherein supply and discharge lines and at least one stirring device (31, 32, 33, 34, 35, 36, 39) are provided, and wherein inclined walls extend from the basin bottom to the circumferential basin rim; characterized in that at least one flow-guide wall is provided within the ground basin, resulting in a division of the cross section of the ground basin along a portion thereof so that upon actuation of the at least one stirring device (31, 32, 33, 34, 35) a medium flow will form on both sides of the flow-guide wall.
A display system comprising: an imaging device comprising: a projection optic,,, arranged to form a virtual image of a real image; a first diffuser, positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a holographic projector,, comprising a spatial light modulator arranged to apply a phase-delay distribution to incident light to form the real image, wherein the phase-delay distribution comprises phase data representative of a lens and phase data representative of the real image. an imaging device comprising: a projection optic,,, arranged to form a virtual image of a real image; a first diffuser, positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a projection optic,,, arranged to form a virtual image of a real image; a first diffuser, positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a holographic projector,, comprising a spatial light modulator arranged to apply a phase-delay distribution to incident light to form the real image, wherein the phase-delay distribution comprises phase data representative of a lens and phase data representative of the real image.
Device for the transcutaneous implantation of an epicardial pacemaker electrode, with a tubular, flexible implantation catheter insertable into the pericardial space and with an epicardial pacemaker electrode, which is arranged in the implantation catheter, wherein the distal end area of the implantation catheter has a shape-variable element (6, 7) for adjusting the implantation angle and for stabilizing, in particular laterally stabilizing, the electrode, characterized in that the implantation catheter comprises an outer catheter and in that the shape-variable element is composed of an aligning and stabilizing element, which receives the electrode and which has open or closed end-side rings (74, 75) and struts connecting the end-side rings (74, 75), wherein during the advance of the implantation catheter from the puncture site to the implantation site the struts are oriented substantially parallel to the wall of the outer catheter and, after release of the aligning and stabilizing element, deploy out of the outer catheter to an implantation position.
A performance evaluation device for a variable-speed centrifugal chiller (11, 12, 13), comprising: a data acquisition unit that acquires operating data of the variable-speed centrifugal chiller as input data; a storage unit that stores a first arithmetic equation derived on the basis of mechanical characteristics of the chiller and used for calculating a relative load factor that relatively expresses a relationship between a current load factor at a current coolant inlet temperature and a predetermined load factor at a predetermined coolant inlet temperature set as a reference operating point, a second arithmetic equation that expresses a relationship between the relative load factor and a correction coefficient, and a third arithmetic equation used for calculating a planned COP by using the correction coefficient to correct a COP calculation equation derived from a reverse Carnot cycle; and an arithmetic unit that calculates the planned COP at a current operating point by using the operating data acquired by the data acquisition unit in the first, second, and third arithmetic equations stored in the storage unit, wherein the correction coefficient obtained in the second arithmetic equation is a correction coefficient for making characteristics of an actual ideal COP under ideal conditions and calculated using the COP calculation equation included in the third arithmetic equation closer to actual COP characteristics. a data acquisition unit that acquires operating data of the variable-speed centrifugal chiller as input data; a storage unit that stores a first arithmetic equation derived on the basis of mechanical characteristics of the chiller and used for calculating a relative load factor that relatively expresses a relationship between a current load factor at a current coolant inlet temperature and a predetermined load factor at a predetermined coolant inlet temperature set as a reference operating point, a second arithmetic equation that expresses a relationship between the relative load factor and a correction coefficient, and a third arithmetic equation used for calculating a planned COP by using the correction coefficient to correct a COP calculation equation derived from a reverse Carnot cycle; and an arithmetic unit that calculates the planned COP at a current operating point by using the operating data acquired by the data acquisition unit in the first, second, and third arithmetic equations stored in the storage unit, wherein the correction coefficient obtained in the second arithmetic equation is a correction coefficient for making characteristics of an actual ideal COP under ideal conditions and calculated using the COP calculation equation included in the third arithmetic equation closer to actual COP characteristics.
A process, comprising: providing a release liner, the release liner comprising: a laser-markable layer comprised of at least one organic polymer and at least one light-sensitive pigment, wherein the laser-markable layer has a first major surface and a second opposed major surface, a first layer of a first release agent disposed on the first major surface of the laser-markable layer, the first release agent being transparent to the laser radiation, and a second layer of a second release agent disposed on the second major surface of the laser-markable layer; and laser-marking the laser-markable layer by directing laser radiation into the release liner through the first release agent to induce an interaction between the light-sensitive pigment and the organic polymer to form a visually perceptible marking in the release liner; wherein the first and second release agents each comprise a material selected from the group consisting of silicones, fluorosilicones, perfluoroethers, fluorocarbons, polymers with long alkyl side chains, and combinations of two or more of the foregoing. a laser-markable layer comprised of at least one organic polymer and at least one light-sensitive pigment, wherein the laser-markable layer has a first major surface and a second opposed major surface, a first layer of a first release agent disposed on the first major surface of the laser-markable layer, the first release agent being transparent to the laser radiation, and a second layer of a second release agent disposed on the second major surface of the laser-markable layer; and laser-marking the laser-markable layer by directing laser radiation into the release liner through the first release agent to induce an interaction between the light-sensitive pigment and the organic polymer to form a visually perceptible marking in the release liner;
A system for an aircraft, the system comprising: • a frame (14, 16, 18, 20) for mounting on an aircraft structure; • equipment movable relative to said frame along a predetermined path between a "retracted" position and a "deployed" position; • protection means movable between a first position in which said protection means intercept said path of said equipment in order to protect it, and a second position in which said protection means are spaced apart from said path in order to allow said equipment to pass therealong; and • at least one drive device for driving said protection means between said first and second positions; the system being characterized in that said drive device comprises: • a cam secured to said frame; • a cam follower co-operating with said cam; • a drive member connected to said protection means so as to drive them between said first and second positions; • first coupling means mechanically coupling said cam follower to said equipment; and • second coupling means mechanically coupling said cam follower to said drive member; and in that said cam, said first coupling means, and said second coupling means are configured in such a manner that said cam follower converts straight-line movement of said equipment along said path into straight-line movement of said drive member in such a manner that the ratio of the respective speeds of said drive member and of said equipment varies during the movement of said equipment. • a frame (14, 16, 18, 20) for mounting on an aircraft structure; • equipment movable relative to said frame along a predetermined path between a "retracted" position and a "deployed" position; • protection means movable between a first position in which said protection means intercept said path of said equipment in order to protect it, and a second position in which said protection means are spaced apart from said path in order to allow said equipment to pass therealong; and • at least one drive device for driving said protection means between said first and second positions; • a cam secured to said frame; • a cam follower co-operating with said cam; • a drive member connected to said protection means so as to drive them between said first and second positions; • first coupling means mechanically coupling said cam follower to said equipment; and • second coupling means mechanically coupling said cam follower to said drive member;
A fusion protein for use in the treatment of a CDKL5 deficiency, Rett syndrome, or an atypical Rett syndrome caused by a CDKL5 mutation or deficiency, the fusion protein comprising: a CDKL5 polypeptide sequence, wherein the CDKL5 polypeptide sequence comprises SEQ ID NO: 2 or SEQ ID NO: 16; and a TATk polypeptide sequence, wherein the TATk polypeptide sequence has about 90% to about 100% sequence identity to SEQ ID NO: 4, wherein the TATk polypeptide is operatively coupled to the CDKL5 polypeptide. a CDKL5 polypeptide sequence, wherein the CDKL5 polypeptide sequence comprises SEQ ID NO: 2 or SEQ ID NO: 16; and a TATk polypeptide sequence, wherein the TATk polypeptide sequence has about 90% to about 100% sequence identity to SEQ ID NO: 4, wherein the TATk polypeptide is operatively coupled to the CDKL5 polypeptide.
A method comprising: receiving, at an access point (40, 50), an indication of data for transmission to a target device (20, 22) for which cellular network communication between an originating device and the target device (20, 22) is not currently available; receiving, by the access point, data corresponding to the indication from a memory buffer of the originating device, the memory buffer being associated with a short range communication link, wherein receiving the data comprises causing the data to be pulled from a radio frequency memory tag server of the memory buffer of the originating device while the originating device is powered off; and causing, by the access point, communication of the data via a long range communication link to enable communication of the data to the target device (20, 22). receiving, at an access point (40, 50), an indication of data for transmission to a target device (20, 22) for which cellular network communication between an originating device and the target device (20, 22) is not currently available; receiving, by the access point, data corresponding to the indication from a memory buffer of the originating device, the memory buffer being associated with a short range communication link, wherein receiving the data comprises causing the data to be pulled from a radio frequency memory tag server of the memory buffer of the originating device while the originating device is powered off; and causing, by the access point, communication of the data via a long range communication link to enable communication of the data to the target device (20, 22).
A method performed by an apparatus, the method comprising: - obtaining position information from a mobile terminal on a position of said mobile terminal and received signal strength information representative of a strength of a signal from a communication node (3-1, 3-2, 3-3) receivable at said position; - generating or updating a three-dimensional, 3D, sectorized path-loss model associated with said communication node (3-1, 3-2, 3-3) at least based on said position information and said received signal strength information, wherein said position information and said received signal strength information are used to generate or update one or more path-loss parameters for a 3D sector of a set of at least two 3D sectors of said 3D sectorized path-loss model in which 3D sector said position is located. - obtaining position information from a mobile terminal on a position of said mobile terminal and received signal strength information representative of a strength of a signal from a communication node (3-1, 3-2, 3-3) receivable at said position; - generating or updating a three-dimensional, 3D, sectorized path-loss model associated with said communication node (3-1, 3-2, 3-3) at least based on said position information and said received signal strength information, wherein said position information and said received signal strength information are used to generate or update one or more path-loss parameters for a 3D sector of a set of at least two 3D sectors of said 3D sectorized path-loss model in which 3D sector said position is located.
A method of forming individual foil or laminate tubes or sachets containing fluent material using a packaging machine which is characterised by exposing the side of the foil from which the tubes are made, and which will be in contact with the fluent material when the package is formed, to plasma in mist or aerosol form as the tube or sachet is formed on the packaging machine.
A process for the purification of water and/or dewatering of sludges and/or sediments, comprising the following steps of: a) providing water to be purified and/or sludge and/or sediment to be dewatered comprising impurities; b) providing at least one surface-treated calcium carbonate, wherein at least 1 % of the accessible surface area of the calcium carbonate is covered by a coating comprising at least one cationic polymer, wherein the at least one cationic polymer is present in the coating in an amount of 0.2 wt.-% to 10 wt.-%, based on the dry weight of the calcium carbonate, c) providing at least one phyllosilicate, wherein the phyllosilicate is bentonite with a montmorillonites content of at least 50.0 wt.-%, based on the total weight of the bentonite, and d) contacting the water and/or sludge and/or sediment of step a) with the at least one surface-treated calcium carbonate of step b) and the at least one phyllosilicate of step c) for obtaining and removing a composite material comprising the at least one surface-treated calcium carbonate, the at least one phyllosilicate and impurities, wherein contacting step d) is carried out by adding the at least one phyllosilicate of step c) to the water and/or sludge and/or sediment of step a) before adding the at least one surface-treated calcium carbonate of step b) to the water and/or sludge and/or sediment of step a) and/or by adding a mixture comprising the at least one surface-treated calcium carbonate of step b) and the at least one phyllosilicate of step c) to the water and/or sludge and/or sediment of step a). a) providing water to be purified and/or sludge and/or sediment to be dewatered comprising impurities; b) providing at least one surface-treated calcium carbonate, wherein at least 1 % of the accessible surface area of the calcium carbonate is covered by a coating comprising at least one cationic polymer, wherein the at least one cationic polymer is present in the coating in an amount of 0.2 wt.-% to 10 wt.-%, based on the dry weight of the calcium carbonate, c) providing at least one phyllosilicate, wherein the phyllosilicate is bentonite with a montmorillonites content of at least 50.0 wt.-%, based on the total weight of the bentonite, and d) contacting the water and/or sludge and/or sediment of step a) with the at least one surface-treated calcium carbonate of step b) and the at least one phyllosilicate of step c) for obtaining and removing a composite material comprising the at least one surface-treated calcium carbonate, the at least one phyllosilicate and impurities, wherein contacting step d) is carried out by adding the at least one phyllosilicate of step c) to the water and/or sludge and/or sediment of step a) before adding the at least one surface-treated calcium carbonate of step b) to the water and/or sludge and/or sediment of step a) and/or by adding a mixture comprising the at least one surface-treated calcium carbonate of step b) and the at least one phyllosilicate of step c) to the water and/or sludge and/or sediment of step a).
Furniture system comprising a guiding bracket, a first furniture part and a second furniture part, wherein the first furniture part is movable in view of the second furniture part along a sliding direction, and wherein the guiding bracket comprises a through-going passage forming part of a guide and having an extension coinciding with the sliding direction, and an attachment protrusion having an extension in a direction transverse the sliding direction; the second furniture part comprises a recess arranged to lockingly receive the attachment protrusion of the guiding bracket; and the first furniture part comprises a rail arranged to extend through the through-going passage of the guiding bracket and to be slidable along said through-going passage thereby allowing the first furniture part to be movable in view of the second furniture part along the sliding direction. the guiding bracket comprises a through-going passage forming part of a guide and having an extension coinciding with the sliding direction, and an attachment protrusion having an extension in a direction transverse the sliding direction; the second furniture part comprises a recess arranged to lockingly receive the attachment protrusion of the guiding bracket; and the first furniture part comprises a rail arranged to extend through the through-going passage of the guiding bracket and to be slidable along said through-going passage thereby allowing the first furniture part to be movable in view of the second furniture part along the sliding direction.