mhurhangee/ep-ind-claims huggingface dataset:
A method of obtaining at least one Key Performance Indicator, KPI, for a communication session of a radio device, which communication session is moved from a first Radio Access Technology, RAT, to a second RAT, the method comprising: extracting first information from at least a first log associated with the first RAT by filtering information relating to communication sessions which have moved between RATs from other communication sessions in the first log, the first information comprising a session identifier, ID, and a first time stamp associated with the communication session; extracting second information from a second log associated with the second RAT by filtering information relating to communication sessions which have moved between RATs from other communication sessions in the second log, the second information comprising the session ID and a second time stamp associated with the communication session; merging information relating to the session of the extracted (S1, S2) first and second information with each other by means of the session ID and the first and second time stamps (25, 47), using a predetermined time offset for relating the first and second time stamps (25, 47) to each other; and determining the at least one KPI for the communication session based on the merged information. extracting first information from at least a first log associated with the first RAT by filtering information relating to communication sessions which have moved between RATs from other communication sessions in the first log, the first information comprising a session identifier, ID, and a first time stamp associated with the communication session; extracting second information from a second log associated with the second RAT by filtering information relating to communication sessions which have moved between RATs from other communication sessions in the second log, the second information comprising the session ID and a second time stamp associated with the communication session; merging information relating to the session of the extracted (S1, S2) first and second information with each other by means of the session ID and the first and second time stamps (25, 47), using a predetermined time offset for relating the first and second time stamps (25, 47) to each other; and determining the at least one KPI for the communication session based on the merged information.
A reverse osmosis system comprising: a pressure tank having a first end and a second end, the pressure tank has a first volume adjacent to the first end and a second volume adjacent to the second end and a third volume between the first volume and the second volume; a fluid passage fluidically coupling the second volume to the first volume; a plurality of membranes are disposed in the third volume within a membrane housing, said membranes generating permeate; a tube sheet (54, 56) preventing direct flow of brine between the second volume and third volume and ensuring that the brine passes through the membrane housings; a fluid distribution plate adjacent the first end of the pressure tank and separating the first volume and third volume; a permeate manifold receiving permeate from the membranes and fluidically communicating permeate out of the pressure tank; a feed line coupling feed fluid into the pressure tank; a feed manifold fluidically coupled to the feed line, the feed manifold has a plurality of outlets disposed adjacent to the end of the membrane housings nearest the first end 42 of the pressure tank within the third volume; a feed pump pressurizing the feedline; a circulation pump disposed within the pressure tank circulating brine fluid from the second volume through the fluid passage. a pressure tank having a first end and a second end, the pressure tank has a first volume adjacent to the first end and a second volume adjacent to the second end and a third volume between the first volume and the second volume; a fluid passage fluidically coupling the second volume to the first volume; a plurality of membranes are disposed in the third volume within a membrane housing, said membranes generating permeate; a tube sheet (54, 56) preventing direct flow of brine between the second volume and third volume and ensuring that the brine passes through the membrane housings; a fluid distribution plate adjacent the first end of the pressure tank and separating the first volume and third volume; a permeate manifold receiving permeate from the membranes and fluidically communicating permeate out of the pressure tank; a feed line coupling feed fluid into the pressure tank; a feed manifold fluidically coupled to the feed line, the feed manifold has a plurality of outlets disposed adjacent to the end of the membrane housings nearest the first end 42 of the pressure tank within the third volume; a feed pump pressurizing the feedline; a circulation pump disposed within the pressure tank circulating brine fluid from the second volume through the fluid passage.
Levelling system for adjusting a distance between a component and a surface, comprising a shaft for adjusting the distance, an anchor sleeve for anchoring in a component and a support body for resting on a surface, wherein, in operation, the shaft extends axially at least partially through the anchor sleeve and the shaft and the anchor sleeve are configured and connected to one another such that a rotation of the shaft leads to an axial relative movement of the anchor sleeve relative to the shaft, wherein the shaft has a first end and an opposite second end which, in operation, rests on the support body so that, in operation, the shaft can be rotated by an installer in order to adjust the distance until a desired distance is reached by the axial relative movement of a component anchored to the anchor sleeve relative to a surface comprising the support body resting thereon, wherein the anchor sleeve has a radially protruding stop for axially fixed anchoring of the anchor sleeve in a bore of a component and the levelling system is configured such that the anchor sleeve only needs to be inserted from below into the bore of the component to the stop so that the side of the component facing the surface abuts against the side of the stop facing away from the surface, wherein the support body has a central opening and the shaft has a centrally axially extending projection at the second end for connecting the projection to the support body, wherein the projection is designed such that, during production of the levelling system, the projection has first been passed through a narrowest region of the opening of the support body and the projection has then been widened such that that a diameter of the projection behind the narrowest region, which is enlarged as a result, is greater than the narrowest region of the opening of the support body.
A method for controlling a power mode of an electronic device having a display and a camera, the method comprising: operating the electronic device with the camera turned off; performing a particular function; turning on the camera based on a determination that no input event is received within a specified time period during the performing of the particular function; obtaining (309, 409) a current image from the camera; turning off the camera after obtaining the current image; determining (311, 411) whether the obtained image contains a specific pattern indicative of a human facial feature; and changing the power mode (315, 413) of the electronic device according to the determination outcome. operating the electronic device with the camera turned off; performing a particular function; turning on the camera based on a determination that no input event is received within a specified time period during the performing of the particular function; obtaining (309, 409) a current image from the camera; turning off the camera after obtaining the current image; determining (311, 411) whether the obtained image contains a specific pattern indicative of a human facial feature; and changing the power mode (315, 413) of the electronic device according to the determination outcome.
A hot forging die comprising: a base body made of a Ni-based superalloy having a composition consisting of, by mass, 10.3 to 11.0 % of W, 9.0 to 11.0 % of Mo, and 5.8 to 6.8 % of Al and balance of Ni with inevitable impurities; and a coating layer of inorganic material that is formed on at least one of a forming surface and a side surface of the die and is made of one or more of nitride, oxide, and carbide and contains 30 mass% or more in total of one or more of Si, Cr, and Al out of Si and metal elements. a base body made of a Ni-based superalloy having a composition consisting of, by mass, 10.3 to 11.0 % of W, 9.0 to 11.0 % of Mo, and 5.8 to 6.8 % of Al and balance of Ni with inevitable impurities; and a coating layer of inorganic material that is formed on at least one of a forming surface and a side surface of the die and is made of one or more of nitride, oxide, and carbide and contains 30 mass% or more in total of one or more of Si, Cr, and Al out of Si and metal elements.
A binaural hearing system comprising a left-ear hearing device, a right-ear hearing device and an auxiliary device, each of the hearing devices (L, R) being arrangeable at or in a corresponding ear of an individual, the hearing devices (L, R) and the auxiliary device being adapted to communicate with each other in a network by transmitting and receiving messages (34, 36, 37, 39, 42) within a predefined radio frequency range, the left-ear hearing device and the right-ear hearing device being adapted to alternatingly transmit beacon messages, the auxiliary device having a connected mode wherein it transmits data messages (36, 37) and a disconnected mode wherein it does not transmit data messages (36, 37), the auxiliary device being adapted to enable the connected mode in dependence on receiving beacon messages, to synchronise its transmission of data messages (36, 37) with received beacon messages and to enable the disconnected mode in dependence on not receiving beacon messages, characterised in that each of the left-ear hearing device and the right-ear hearing device is adapted to connect the auxiliary device to the network by executing an initialisation procedure, to maintain a record of connected auxiliary devices and to transmit information on connected auxiliary devices to the respective other hearing device (L, R).
A method of monitoring a patient, the method comprising: adhering an adherent device to a skin of the patient, the adherent device comprising an accelerometer (130, 134) and at least two measurement electrodes, the at least two measurement electrodes separated by a distance to define an electrode measurement axis, wherein the accelerometer (130, 134) is coupled to the adherent device with a predetermined orientation, the accelerometer (130, 134) comprises at least one accelerometer measurement axis sensitive to gravity, and the at least one accelerometer measurement axis is oriented with respect to the electrode measurement axis in a predetermined configuration, the method being characterized by: measuring an accelerometer signal when the device is adhered to the patient with the patient in a known position; and determining an orientation of the electrode measurement axis on the patient in response to the accelerometer signal measured with the patient in the known position. measuring an accelerometer signal when the device is adhered to the patient with the patient in a known position; and determining an orientation of the electrode measurement axis on the patient in response to the accelerometer signal measured with the patient in the known position.
A method of rapidly determining an average yield of milk production per pumping session of a nursing mother using a breastpump, comprising the steps of: measuring the volume of milk expressed from the mother using the breastpump, the milk being produced in at least three pumping sessions, where a first pumping session is the first milk expression for a day or a first pumping session in a period of time wherein there is an initial high volume milk output in a breastpumping session relative to pumping session following thereafter in said period of time, a second pumping session next occurs after said first pumping session, and a following pumping session is after said second session on the same day and using the milk volume measured in said following session as an average yield of milk production per pumping session. measuring the volume of milk expressed from the mother using the breastpump, the milk being produced in at least three pumping sessions, where a first pumping session is the first milk expression for a day or a first pumping session in a period of time wherein there is an initial high volume milk output in a breastpumping session relative to pumping session following thereafter in said period of time, a second pumping session next occurs after said first pumping session, and a following pumping session is after said second session on the same day and using the milk volume measured in said following session as an average yield of milk production per pumping session.
A warehouse for seasoning hard cheese wheels comprising: - a marking station comprising a marking device configured to impress a long-lasting, unique and machine-readable mark on respective hard cheese wheels; - an accumulation station configured for a provisional storage of said cheese wheels, wherein said accumulation station comprises a fixed structure with housing stations for said cheese wheels and/or at least one conveyor belt, said accumulation station acting as a buffer for the subsequent machinery; - a plurality of racks comprising respective seasoning shelves for said cheese wheels; - a cheese wheel gripping machine movable between said racks to automatically position one or more of said cheese wheels on said seasoning shelves; - movement means to automatically move one or more of said cheese wheels between said accumulation station or said marking station and said cheese wheel gripping machine, said cheese wheel gripping machine automatically collecting or receiving the cheese wheels from said movement means. - a marking station comprising a marking device configured to impress a long-lasting, unique and machine-readable mark on respective hard cheese wheels; - an accumulation station configured for a provisional storage of said cheese wheels, wherein said accumulation station comprises a fixed structure with housing stations for said cheese wheels and/or at least one conveyor belt, said accumulation station acting as a buffer for the subsequent machinery; - a plurality of racks comprising respective seasoning shelves for said cheese wheels; - a cheese wheel gripping machine movable between said racks to automatically position one or more of said cheese wheels on said seasoning shelves; - movement means to automatically move one or more of said cheese wheels between said accumulation station or said marking station and said cheese wheel gripping machine, said cheese wheel gripping machine automatically collecting or receiving the cheese wheels from said movement means.
A tire comprising at least: a tread in contact with a road surface; and a reinforcing belt disposed inside in a tire radial direction of the tread, wherein a circumferential groove extending along the tire circumferential direction is formed on the tread, the reinforcing belt has a reinforcing cord wound around a tire circumferential direction, the tensile strength at break of the reinforcing cord is 10 cN/dtex or more, the reinforcing cord has an elongation at break of 13% or less, the reinforcing belt is formed by a cord unit in which a plurality of the reinforcing cords are arranged along the tire width direction and are wound around the tire circumferential direction, and the width of the cord unit in the tire width direction is narrower than the width of the circumferential groove in the tire width direction, a ratio (GW/W) of the width of the circumferential groove to the unit width is 2.5 or more to 20.0 or less, and a number of the reinforcing cords driven is 2 pieces/mm 2 or less for the cross sectional area of the cord unit as the product of the unit width and a unit height of the cord unit, wherein a crossing belt layer formed by a pair of crossing belts (51, 52) is disposed inside in the tire radial direction of the reinforcing belt, the crossing belt layer has a belt cord inclined with respect to tire width direction, and the belt cord is formed of an organic fiber or steel. a tread in contact with a road surface; and a reinforcing belt disposed inside in a tire radial direction of the tread, wherein a circumferential groove extending along the tire circumferential direction is formed on the tread, the reinforcing belt has a reinforcing cord wound around a tire circumferential direction, the tensile strength at break of the reinforcing cord is 10 cN/dtex or more, the reinforcing cord has an elongation at break of 13% or less, the reinforcing belt is formed by a cord unit in which a plurality of the reinforcing cords are arranged along the tire width direction and are wound around the tire circumferential direction, and the width of the cord unit in the tire width direction is narrower than the width of the circumferential groove in the tire width direction, a ratio (GW/W) of the width of the circumferential groove to the unit width is 2.5 or more to 20.0 or less, and a number of the reinforcing cords driven is 2 pieces/mm 2 or less for the cross sectional area of the cord unit as the product of the unit width and a unit height of the cord unit, wherein a crossing belt layer formed by a pair of crossing belts (51, 52) is disposed inside in the tire radial direction of the reinforcing belt, the crossing belt layer has a belt cord inclined with respect to tire width direction, and the belt cord is formed of an organic fiber or steel.
A method of decoding video data comprising a multi-layer bitstream, the method comprising: decoding, from a video parameter set, VPS, data indicating an offset delay for decoding a current layer of the video data, relative to a reference layer; determining a location of a collocated reference sample associated with a reference picture included in the reference layer of the video data, based on a location of a sample of a current block in the current layer of the video data, and one or more scaled offset values, wherein the one or more scaled offset values indicate a difference in scale between the reference layer and the current layer; applying a clipping function to adjust the location of the collocated reference sample such that the location of the adjusted reference sample is clipped to a boundary of the reference picture, when the collocated reference sample is located outside the reference picture boundary; after adjusting the location of the collocated reference sample, determining a location of a collocated reference block of the video data in the reference layer which includes the adjusted reference sample; and decoding the current block of the video data in the current layer relative to the collocated reference block, wherein the current layer is decoded with the offset delay relative to the reference layer. decoding, from a video parameter set, VPS, data indicating an offset delay for decoding a current layer of the video data, relative to a reference layer; determining a location of a collocated reference sample associated with a reference picture included in the reference layer of the video data, based on a location of a sample of a current block in the current layer of the video data, and one or more scaled offset values, wherein the one or more scaled offset values indicate a difference in scale between the reference layer and the current layer; applying a clipping function to adjust the location of the collocated reference sample such that the location of the adjusted reference sample is clipped to a boundary of the reference picture, when the collocated reference sample is located outside the reference picture boundary; after adjusting the location of the collocated reference sample, determining a location of a collocated reference block of the video data in the reference layer which includes the adjusted reference sample; and decoding the current block of the video data in the current layer relative to the collocated reference block, wherein the current layer is decoded with the offset delay relative to the reference layer.
Method for determining at least one power contact resistance (LR+, LR-) between at least one pack power contact (2+, 2-) of a battery pack and at least one apparatus power contact (5+, 5-) of an electrically driven work apparatus or of a charging apparatus or at least one resistance value corresponding to the at least one power contact resistance, - wherein the at least one pack power contact (2+, 2-) and the at least one apparatus power contact (5+, 5-) touch one another and are loaded with a power current, and - wherein the battery pack and the work apparatus or the charging apparatus are electrically connected by means of a data communication line for transmitting a data communication signal, - wherein the method comprises: determining the at least one power contact resistance (LR+, LR-) or the at least one resistance value by means of comparing a signal voltage variable (SG+, SG-) of the data communication line and a power voltage variable (LG+, LG-) of the at least one pack power contact (2+, 2-) or of the at least one apparatus power contact (5+, 5-) with one another, wherein the signal voltage variable (SG+, SG-) or the power voltage variable (LG+, LG-) is dependent on at least one voltage drop (ΔU+, ΔU-) caused by the power current and the at least one power contact resistance (LR+, LR-). - wherein the at least one pack power contact (2+, 2-) and the at least one apparatus power contact (5+, 5-) touch one another and are loaded with a power current, and - wherein the battery pack and the work apparatus or the charging apparatus are electrically connected by means of a data communication line for transmitting a data communication signal, - wherein the method comprises: determining the at least one power contact resistance (LR+, LR-) or the at least one resistance value by means of comparing a signal voltage variable (SG+, SG-) of the data communication line and a power voltage variable (LG+, LG-) of the at least one pack power contact (2+, 2-) or of the at least one apparatus power contact (5+, 5-) with one another, wherein the signal voltage variable (SG+, SG-) or the power voltage variable (LG+, LG-) is dependent on at least one voltage drop (ΔU+, ΔU-) caused by the power current and the at least one power contact resistance (LR+, LR-).
An Inductively Coupled Power Transfer pick-up having a pick-up resonant circuit, the circuit including a capacitive element (22, 50) and an inductive element (10, 40) adapted to receive power from a magnetic field associated with a primary conductive path (6,70) to supply a load, a sensing means provided to sense a condition of the load, and a control means to control transfer of power to the pick-up, the pick-up being characterised in that: one of the capacitive element (22, 50) and the inductive element (10, 40) comprises a controlled reactive element (40, 50), the sensing means is configured to sense a power requirement of the load, and the control means is configured to selectively vary the resonant frequency of the pick-up resonant circuit in response to the load power requirement sensed by the sensing means by selectively electrically connecting the controlled reactive element (40, 50) to the pick-up resonant circuit in each cycle of the resonant circuit voltage or current to control the transfer of power to the pick-up resonant circuit dependant on the sensed load power requirement.