mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining intermodulation distortion, IMD, present in an uplink, UL, channel received by a network node in a wireless communication network, the method comprising: for each of a plurality of time-period pairs comprising a first time period and a second time period, performing the following operations: for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; based on the measured first difference and the measured second parameters for the respective time-period pairs, determining a predictive model for an IMD signal, associated with the second DL channels, that can be received by the network node in the UL channel. for each of a plurality of time-period pairs comprising a first time period and a second time period, performing the following operations: for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; for each of the first and second time periods, measuring a first parameter for an UL channel received by the network node during that particular time period; for each of the first and second time periods, measuring a second parameter for each of a plurality of second downlink, DL, channels transmitted by the network node during that particular time period; characterized in that for the UL channel, determining a measured first difference between the first parameter measured during the first time period and the first parameter measured during the second time period; based on the measured first difference and the measured second parameters for the respective time-period pairs, determining a predictive model for an IMD signal, associated with the second DL channels, that can be received by the network node in the UL channel.
A single-use test-strip for the quantitative determination of sodium concentration and creatinine concentration in a patient's urine sample, said test-strip comprising: - a substrate which either is electrically insulating or which has an electrically insulating layer applied thereon, - an electrode assembly applied on said substrate or on said electrically insulating layer, if present, said electrode assembly comprising at least - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - an interface for electrically connecting said electrode assembly to a read out-meter device. - a substrate which either is electrically insulating or which has an electrically insulating layer applied thereon, - an electrode assembly applied on said substrate or on said electrically insulating layer, if present, said electrode assembly comprising at least - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - one sodium-selective working electrode; - one creatinine-selective working electrode; - either one joint reference electrode for both said sodium-selective working electrode and said creatinine-selective working electrode, or a reference electrode for said sodium-selective working electrode and a separate reference electrode for said creatinine-selective working electrode; - optionally; one or two neutral electrodes for measuring and eliminating interferences, - an interface for electrically connecting said electrode assembly to a read out-meter device.
A support device, preferably for a hand-held shower, comprising - a support slider , displaceable along a support bar , having a releasable clamping device for fixing the support slider on the support bar, wherein the clamping device comprises two clamping jaws capable of being expanded elastically from a clamping position reducing a clamping gap to a sliding position increasing the clamping gap, which jaws encompass the support bar at least partially and define a clamping gap between them, and - an operating unit which, in an operative position, retains the clamping jaws in the clamping gap increasing sliding position, while the clamping jaws assume their clamping position in an initial position of the operating unit, characterized in that - the operating unit includes a wedge element extending displaceably into the clamping gap , or - the operating unit includes an eccentric rotational element , with the eccentric motion of said element acting on the clamping jaws. - a support slider , displaceable along a support bar , having a releasable clamping device for fixing the support slider on the support bar, wherein the clamping device comprises two clamping jaws capable of being expanded elastically from a clamping position reducing a clamping gap to a sliding position increasing the clamping gap, which jaws encompass the support bar at least partially and define a clamping gap between them, and - an operating unit which, in an operative position, retains the clamping jaws in the clamping gap increasing sliding position, while the clamping jaws assume their clamping position in an initial position of the operating unit, - the operating unit includes a wedge element extending displaceably into the clamping gap , or - the operating unit includes an eccentric rotational element , with the eccentric motion of said element acting on the clamping jaws.
An inspection apparatus , comprising: a stage on which an inspection object is loaded; and a probe configured to: obtain an optical image of the inspection object ; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, wherein the probe or the stage is movable to obtain the optical interference data about the inspection object of the selected area, wherein the probe includes: an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer , and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector . a stage on which an inspection object is loaded; and a probe configured to: obtain an optical image of the inspection object ; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, obtain an optical image of the inspection object ; obtain optical interference data about the inspection object of an area that is selected from the optical image; and measure a distance between the probe and a surface of the inspection object in a predetermined direction, wherein the probe or the stage is movable to obtain the optical interference data about the inspection object of the selected area, wherein the probe includes: an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer , and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector . an optical imaging device configured to obtain the optical image; an optical interference detector configured to obtain the optical interference data; and a light guide including a magnification changer , and wherein a position of the probe or the stage is adjustable on a z-axis based on the measured distance such that the surface of the inspection object is located within a measurement range in a z-axis direction of the optical interference detector .
An image bearer comprising: an elastic layer ; first fine particles having a volume resistivity lower than a volume resistivity of the elastic layer , the first fine particles dispersed on a surface of the image bearer ; characterized by second fine particles having a volume resistivity lower than the volume resistivity of the first fine particles , the second fine particles dispersed on the surface of the image bearer ; wherein a mixture ratio of the first fine particles is from 40% to 50%, wherein the mixture ratio is a ratio of areas where the first fine particles exist on the image bearer . an elastic layer ; first fine particles having a volume resistivity lower than a volume resistivity of the elastic layer , the first fine particles dispersed on a surface of the image bearer ; characterized by second fine particles having a volume resistivity lower than the volume resistivity of the first fine particles , the second fine particles dispersed on the surface of the image bearer ; wherein a mixture ratio of the first fine particles is from 40% to 50%, wherein the mixture ratio is a ratio of areas where the first fine particles exist on the image bearer .
An apparatus for underwater dredging comprising: a pipe ; and a dredging head ; wherein the pipe comprises a first aperture and a second aperture each disposed at opposing ends of the pipe , and the pipe further comprises a sidewall, at least one first sidewall aperture and at least one second sidewall aperture ; wherein the dredging head is circumferentially arranged on the sidewall of the pipe and comprises at least one input , at least one output and a plenum chamber ; wherein the at least one output is in fluid communication with the at least one first sidewall aperture ; and further comprising a first obstruction mechanism configured to selectively deter reverse fluid flow into the dredging head , wherein the first obstruction mechanism is configured to be selectively transformable between:- i) a first, obstructing, configuration in which at least reverse fluid flow through the dredging head is deterred; and ii) a second, open, configuration in which fluid flow through the dredging head is permitted; and characterised in that the apparatus further comprises at least one thruster tube , wherein the at least one thruster tube comprises a first thruster aperture , and a second thruster aperture , and further comprises a thruster disposed between the first thruster aperture and the second thruster aperture , wherein the at least one thruster tube is in fluid communication with the at least one second sidewall aperture . a pipe ; and a dredging head ; wherein the pipe comprises a first aperture and a second aperture each disposed at opposing ends of the pipe , and the pipe further comprises a sidewall, at least one first sidewall aperture and at least one second sidewall aperture ; wherein the dredging head is circumferentially arranged on the sidewall of the pipe and comprises at least one input , at least one output and a plenum chamber ; wherein the at least one output is in fluid communication with the at least one first sidewall aperture ; and further comprising a first obstruction mechanism configured to selectively deter reverse fluid flow into the dredging head , wherein the first obstruction mechanism is configured to be selectively transformable between:- i) a first, obstructing, configuration in which at least reverse fluid flow through the dredging head is deterred; and ii) a second, open, configuration in which fluid flow through the dredging head is permitted; and i) a first, obstructing, configuration in which at least reverse fluid flow through the dredging head is deterred; and ii) a second, open, configuration in which fluid flow through the dredging head is permitted; and characterised in that the apparatus further comprises at least one thruster tube , wherein the at least one thruster tube comprises a first thruster aperture , and a second thruster aperture , and further comprises a thruster disposed between the first thruster aperture and the second thruster aperture , wherein the at least one thruster tube is in fluid communication with the at least one second sidewall aperture .
A method performed by a transmitting node, comprising: scheduling a downlink transmission to a first user equipment, UE, according to a 5G radio access technology, RAT, over a first transmission interval having a predetermined length, wherein the first transmission interval comprises two or more subintervals of a predetermined, fixed duration; wherein the scheduling comprises sending a scheduling assignment to the first user equipment for the data transmission; starting the downlink transmission to the first UE in the first transmission interval; stopping the downlink transmission to the first UE prior to an end of the first transmission interval to create a first end of a transmission hole in the downlink transmission to the first UE; resuming the downlink transmission to the first UE at a second end of the transmission hole; and receiving an uplink transmission from a second UE, within the transmission hole according to the 5G RAT or transmitting a higher priority downlink transmission to the second UE in the transmission hole according to the 5G RAT. scheduling a downlink transmission to a first user equipment, UE, according to a 5G radio access technology, RAT, over a first transmission interval having a predetermined length, wherein the first transmission interval comprises two or more subintervals of a predetermined, fixed duration; wherein the scheduling comprises sending a scheduling assignment to the first user equipment for the data transmission; starting the downlink transmission to the first UE in the first transmission interval; stopping the downlink transmission to the first UE prior to an end of the first transmission interval to create a first end of a transmission hole in the downlink transmission to the first UE; resuming the downlink transmission to the first UE at a second end of the transmission hole; and receiving an uplink transmission from a second UE, within the transmission hole according to the 5G RAT or transmitting a higher priority downlink transmission to the second UE in the transmission hole according to the 5G RAT.
An oil drainback assembly for a bearing compartment of a gas turbine engine comprising: a shaft with a threaded section along an axis (A), and an oil distribution passage transverse to the axis (A); a head transverse to the threaded section , and a drain passage that extends through the head and into communication with the oil distribution passage ; a windage blocker that extends from the head ; characterised by a nut receivable onto the threaded section ; and a directional fitting receivable onto the shaft and retained by the nut . a shaft with a threaded section along an axis (A), and an oil distribution passage transverse to the axis (A); a head transverse to the threaded section , and a drain passage that extends through the head and into communication with the oil distribution passage ; a windage blocker that extends from the head ; characterised by a nut receivable onto the threaded section ; and a directional fitting receivable onto the shaft and retained by the nut .
A pack for smoking articles comprising a lid and a body formed from a material having a thickness, the lid having a front wall with a lower front wall edge and a flap attached to a portion of said lower front wall edge by a fold-line , wherein the fold-line is linear, and said portion of the lower front wall edge to which the flap is attached is located between curved lower front wall edge sections, characterised in that at least a part of said fold-line being formed by partially cutting through the thickness of the material so that, when the flap is folded about said fold-line so as to lie against an inner surface of the lid front wall , said portion of the lower front wall edge to which the flap is attached is aligned with the remainder of the lower front wall edge , wherein the body comprises an upper edge having a similar profile to the lower front wall edge of the lid so that when the pack is in a closed position the upper edge of the body and the lower front wall edge abut across the width of the lid front wall .
An optical system , comprising: a first lens , a second lens, , a third lens and a fourth lens arranged in order from an object to an image side; a diaphragm , disposed between the third lens and the fourth lens ; an optical element , disposed at a position that is behind a rearmost final lens of the lenses, wherein: the optical element comprises a light diffusion surface , and a first distance (a) from a front surface of a forefront of the first lens to the diaphragm is greater than a second distance (b) from a photographing element disposed at a position behind the optical element to the diaphragm ; and an image restoration processing part , which performs image processing and restoration processing on image data acquired by the photographing element . a first lens , a second lens, , a third lens and a fourth lens arranged in order from an object to an image side; a diaphragm , disposed between the third lens and the fourth lens ; an optical element , disposed at a position that is behind a rearmost final lens of the lenses, wherein: the optical element comprises a light diffusion surface , and a first distance (a) from a front surface of a forefront of the first lens to the diaphragm is greater than a second distance (b) from a photographing element disposed at a position behind the optical element to the diaphragm ; and the optical element comprises a light diffusion surface , and a first distance (a) from a front surface of a forefront of the first lens to the diaphragm is greater than a second distance (b) from a photographing element disposed at a position behind the optical element to the diaphragm ; and an image restoration processing part , which performs image processing and restoration processing on image data acquired by the photographing element .
A door drive for driving a door, wherein the door drive includes at least one piston , wherein the door drive includes a housing , wherein the door drive includes at least one hydraulic compartment , wherein the one piston or at least one of the pistons is disposed in the hydraulic compartment or one of the hydraulic compartments , wherein the one piston or at least one of the pistons is displaceable along a displacement direction , wherein the one piston or at least one of the pistons is essentially cylindrically formed, wherein the one piston or at least one of the pistons includes two frontal faces , wherein the one piston or at least one of the pistons includes at least one hydraulic piston channel , wherein the one hydraulic piston channel or at least one of the hydraulic piston channels connects the two frontal faces to each other of the respective piston , wherein the one hydraulic piston channel or at least one of the hydraulic piston channels includes at least one hydraulic valve , wherein the one hydraulic valve or at least one of the hydraulic valves is able to regulate a fluid flow through the respective hydraulic piston channel , characterized in that the one hydraulic valve or at least one of the hydraulic valves includes at least one actuating element , wherein the one actuating element or at least one of the actuating elements is able to actuate the one hydraulic valve or at least one of the hydraulic valves , wherein the one actuating element or at least one of the actuating elements is electrically actuatable.
A method comprising: locating a version chain of a class for a serialized object in an instance block of an instance chain , wherein the version chain is a first hash chain including an immutable sequence of version blocks for different versions of the class, and wherein the instance chain is a second hash chain including an immutable sequence of instance blocks including the instance block, wherein the instance blocks record instances of serialized objects that are defined by the class of the version chain; comparing a class version of the serialized object to a current version of the class ; when the class version of the serialized object matches the current version of the class, loading a runtime object by deserializing the serialized object ; when the class version of the serialized object does not match the current version of the class: locating a version block in the version chain that matches the class version of the serialized object ; extracting one or more field values from the serialized object ; applying a converter function from the version block to the one or more field values to generate one or more converted field values ; and loading the runtime object that matches the current version with the one or more converted field values. locating a version chain of a class for a serialized object in an instance block of an instance chain , wherein the version chain is a first hash chain including an immutable sequence of version blocks for different versions of the class, and wherein the instance chain is a second hash chain including an immutable sequence of instance blocks including the instance block, wherein the instance blocks record instances of serialized objects that are defined by the class of the version chain; comparing a class version of the serialized object to a current version of the class ; when the class version of the serialized object matches the current version of the class, loading a runtime object by deserializing the serialized object ; when the class version of the serialized object does not match the current version of the class: locating a version block in the version chain that matches the class version of the serialized object ; extracting one or more field values from the serialized object ; applying a converter function from the version block to the one or more field values to generate one or more converted field values ; and loading the runtime object that matches the current version with the one or more converted field values. locating a version block in the version chain that matches the class version of the serialized object ; extracting one or more field values from the serialized object ; applying a converter function from the version block to the one or more field values to generate one or more converted field values ; and loading the runtime object that matches the current version with the one or more converted field values.