mhurhangee/ep-ind-claims huggingface dataset:
A User Equipment, UE, having a connected state and an idle state, the UE comprising: means for logging measurements in the idle state for sending a report for the measurements to a base station; means for receiving, from the base station, a message for triggering to send the report for the measurements; and means for sending the report for the measurements to the base station, in the connected state, wherein the report includes UE measurements for at least one of intra-frequency, inter-frequency, and/or inter-radio access technology, inter-RAT, and a cell identity for a cell to which the measurements relate. means for logging measurements in the idle state for sending a report for the measurements to a base station; means for receiving, from the base station, a message for triggering to send the report for the measurements; and means for sending the report for the measurements to the base station, in the connected state, wherein the report includes UE measurements for at least one of intra-frequency, inter-frequency, and/or inter-radio access technology, inter-RAT, and a cell identity for a cell to which the measurements relate.
A method for simultaneously fixing and staining cells, preferably in vitro, the method comprising: initially incubating the cells in a solution including a Ln Zn 16 (HA ligand) 16 metallacrown complex, wherein the HA ligand is a hydroximate ligand; exposing the incubating cells to ultraviolet light; and continuing to incubate the cells in the solution after UV light exposure. initially incubating the cells in a solution including a Ln Zn 16 (HA ligand) 16 metallacrown complex, wherein the HA ligand is a hydroximate ligand; exposing the incubating cells to ultraviolet light; and continuing to incubate the cells in the solution after UV light exposure.
A twin-shaft vacuum pump comprising: a pumping chamber; two rotatable shafts each mounted on bearings; each of said two rotatable shafts comprising at least one rotor element, said rotor elements being within said pumping chamber and said two rotatable shafts extending beyond said pumping chamber to a support member; said support member comprising mounting means for mounting said bearings at a predetermined distance from each other, said predetermined distance defining a distance between said two shafts; and at least one thermal path along structural elements connecting said pumping chamber and said mounting means; a thermal break in at least one of said at least one thermal path for impeding thermal conductivity between said pumping chamber and said mounting means, such that said pumping chamber and mounting means can be maintained at different temperatures; the twin-shaft vacuum pump being characterised by thermal break comprising a portion of said thermal path where at least one physical property is different to a physical property of an adjoining portion of said thermal path such that thermal conductance of said thermal break portion is more than 20% lower than said thermal conductance of an equivalent thermal path length of said adjoining portion; wherein said thermal break comprises a hollow portion of each of said rotatable shafts between said pumping chamber and said bearing. a pumping chamber; two rotatable shafts each mounted on bearings; each of said two rotatable shafts comprising at least one rotor element, said rotor elements being within said pumping chamber and said two rotatable shafts extending beyond said pumping chamber to a support member; said support member comprising mounting means for mounting said bearings at a predetermined distance from each other, said predetermined distance defining a distance between said two shafts; and at least one thermal path along structural elements connecting said pumping chamber and said mounting means; a thermal break in at least one of said at least one thermal path for impeding thermal conductivity between said pumping chamber and said mounting means, such that said pumping chamber and mounting means can be maintained at different temperatures; the twin-shaft vacuum pump being characterised by thermal break comprising a portion of said thermal path where at least one physical property is different to a physical property of an adjoining portion of said thermal path such that thermal conductance of said thermal break portion is more than 20% lower than said thermal conductance of an equivalent thermal path length of said adjoining portion; wherein said thermal break comprises a hollow portion of each of said rotatable shafts between said pumping chamber and said bearing.
A variable die assembly, comprising: a die body having an inner portion and an outer portion; an adjustment sleeve having an inner portion and an outer portion; and a filter screen; characterized in that at least a portion of the outer portion of the die body and a portion of the inner portion of the adjustment sleeve are cylindrical and correspondingly threaded, wherein a gear mounted on a portion of the outer surface of said adjustment sleeve is provided, and wherein said filter screen is secured in said adjustment sleeve, whereby movement of said adjustment sleeve relative to said die body also moves the filter screen for dynamically controlling pressure applied to material passing through the filter screen. a die body having an inner portion and an outer portion; an adjustment sleeve having an inner portion and an outer portion; and a filter screen; characterized in that at least a portion of the outer portion of the die body and a portion of the inner portion of the adjustment sleeve are cylindrical and correspondingly threaded, wherein a gear mounted on a portion of the outer surface of said adjustment sleeve is provided, and wherein said filter screen is secured in said adjustment sleeve, whereby movement of said adjustment sleeve relative to said die body also moves the filter screen for dynamically controlling pressure applied to material passing through the filter screen.
A method for machine to machine, M2M, communication management in a cellular system, wherein the cellular system comprises a plurality of devices using the M2M communication, wherein the devices are configured to perform measurements, the method comprising: - providing at least one interface for communication between the devices and a network element (107,201) of the cellular system and/or between a management unit of the devices and the network element (107,201); - receiving, by the network element (107,201), information valid for a future time interval from the devices via the at least one interface, wherein the information is indicative of a prediction of the measurements to be performed by the devices in the future time interval; - using the received information to reconfigure by the network element (107,201) the devices to perform in the future time interval at least part of the measurements; the devices are configured to each perform a measurement of the measurements covering a respective area of the cellular system, the method further comprises determining by the network element dependency values between the predicted measurements, wherein the reconfiguration is performed using the determined dependency values, wherein each area comprises two or more subareas, wherein the measurements are performed in N subareas, wherein a determined dependency value is indicative of a correlation level between two predicted measurements in two of the N subareas, wherein in response to a determination that the determined dependency value is different from a predefined threshold value the reconfiguring comprises controlling the devices to perform the at least part of the measurements in the N subareas excluding a first subarea of the two subareas, and using the measurement in the second subarea of the two subareas as a measurement in the first subarea. - providing at least one interface for communication between the devices and a network element (107,201) of the cellular system and/or between a management unit of the devices and the network element (107,201); - receiving, by the network element (107,201), information valid for a future time interval from the devices via the at least one interface, wherein the information is indicative of a prediction of the measurements to be performed by the devices in the future time interval; - using the received information to reconfigure by the network element (107,201) the devices to perform in the future time interval at least part of the measurements;
A process for extracting a polar lipid-rich extract from a marine animal material comprising: contacting said marine animal material with a concentrated protic solvent under conditions such that polar lipids are preferentially extracted to form a slurry comprising a polar lipid solution and biological residue material; separating said polar lipid solution from said biological residue material to provide a separated polar lipid solution; adding an aqueous solution to said polar lipid solution to dilute said protic solvent so that said polar lipid solution separates into an upper phase comprising diluted protic solvent and a lower polar lipid-rich bottom phase, comprising adding said aqueous solution to dilute the concentration of said protic solvent to 50% to 70% w/w when combined with the moisture in said marine animal material; and isolating said polar lipid-rich bottom phase to provide said polar lipid-rich extract. contacting said marine animal material with a concentrated protic solvent under conditions such that polar lipids are preferentially extracted to form a slurry comprising a polar lipid solution and biological residue material; separating said polar lipid solution from said biological residue material to provide a separated polar lipid solution; adding an aqueous solution to said polar lipid solution to dilute said protic solvent so that said polar lipid solution separates into an upper phase comprising diluted protic solvent and a lower polar lipid-rich bottom phase, comprising adding said aqueous solution to dilute the concentration of said protic solvent to 50% to 70% w/w when combined with the moisture in said marine animal material; and isolating said polar lipid-rich bottom phase to provide said polar lipid-rich extract.
A blood treatment apparatus, comprising: a blood treatment unit configured to receive untreated blood and fresh blood treatment fluid, and emit treated blood and used blood treatment fluid, the blood being passed on a blood side of a semi-permeable membrane structure and the blood treatment fluid being passed on a fluid side of said structure, a pair of fluid pumps (14, 15) configured to pass blood treatment fluid through the blood treatment unit, characterized in that it further comprises a pair of blood pumps (1a, 1b) configured to extract untreated blood from a blood source, pass extracted blood through the blood treatment unit and deliver treated blood to a target vessel, and in that the fluid pumps (14, 15) are configured to control the operation of the blood pumps (1a, 1b) via the blood treatment fluid, the apparatus is configured to operate according to a cyclic process of which during a first phase the untreated blood is extracted from the blood source, and during a second phase the treated blood is delivered to the target vessel, and the apparatus comprises a flow control means (Rb, Rf; 16a, 16b; Rf1, Rf2; V 11, V 12, V 21, V 22) configured to control a trans-membrane flow between the blood side and the fluid side of the blood treatment unit. a blood treatment unit configured to receive untreated blood and fresh blood treatment fluid, and emit treated blood and used blood treatment fluid, the blood being passed on a blood side of a semi-permeable membrane structure and the blood treatment fluid being passed on a fluid side of said structure, a pair of fluid pumps (14, 15) configured to pass blood treatment fluid through the blood treatment unit, characterized in that it further comprises a pair of blood pumps (1a, 1b) configured to extract untreated blood from a blood source, pass extracted blood through the blood treatment unit and deliver treated blood to a target vessel, and in that the fluid pumps (14, 15) are configured to control the operation of the blood pumps (1a, 1b) via the blood treatment fluid, the apparatus is configured to operate according to a cyclic process of which during a first phase the untreated blood is extracted from the blood source, and during a second phase the treated blood is delivered to the target vessel, and the apparatus comprises a flow control means (Rb, Rf; 16a, 16b; Rf1, Rf2; V 11, V 12, V 21, V 22) configured to control a trans-membrane flow between the blood side and the fluid side of the blood treatment unit.
An air conditioner, comprising: an outdoor unit having a compressor configured to pressurize and discharge a refrigerant, a plurality of outdoor heat exchangers (3a, 3b) configured to exchange heat between outside air and the refrigerant, and first channel switching means configured to switch a channel on the basis of an operation form; and a plurality of indoor units (53a, 53b), each having an indoor heat exchanger (32a, 32b) configured to exchange heat between air in a space to be air-conditioned and the refrigerant and indoor flow-rate control means (31a, 31b), both being connected by a pipeline so as to constitute a refrigerant circuit, wherein a bypass pipeline configured to divide the refrigerant discharged from said compressor and allows each refrigerant to flow into each of the outdoor heat exchangers (3a, 3b) connected in parallel; and a plurality of second channel switching means (12a, 12b), each configured to perform switching such that either the refrigerant having passed through the bypass pipeline or the refrigerant from said indoor unit (53a, 53b) is made to flow into each of said outdoor heat exchangers (3a, 3b) are provided in said outdoor unit, characterized by comprising control means configured to allow the refrigerant having passed through said bypass pipeline to sequentially flow into each outdoor heat exchanger (3a, 3b) so as to defrost one of the plurality of outdoor heat exchanger (3a, 3b) by controlling switching of each second channel switching means (12a, 12b). an outdoor unit having a compressor configured to pressurize and discharge a refrigerant, a plurality of outdoor heat exchangers (3a, 3b) configured to exchange heat between outside air and the refrigerant, and first channel switching means configured to switch a channel on the basis of an operation form; and a plurality of indoor units (53a, 53b), each having an indoor heat exchanger (32a, 32b) configured to exchange heat between air in a space to be air-conditioned and the refrigerant and indoor flow-rate control means (31a, 31b), both being connected by a pipeline so as to constitute a refrigerant circuit, wherein a bypass pipeline configured to divide the refrigerant discharged from said compressor and allows each refrigerant to flow into each of the outdoor heat exchangers (3a, 3b) connected in parallel; and a plurality of second channel switching means (12a, 12b), each configured to perform switching such that either the refrigerant having passed through the bypass pipeline or the refrigerant from said indoor unit (53a, 53b) is made to flow into each of said outdoor heat exchangers (3a, 3b) are provided in said outdoor unit, characterized by comprising control means configured to allow the refrigerant having passed through said bypass pipeline to sequentially flow into each outdoor heat exchanger (3a, 3b) so as to defrost one of the plurality of outdoor heat exchanger (3a, 3b) by controlling switching of each second channel switching means (12a, 12b).
A method of modifying a balloon of a catheter assembly, comprising: (a) providing a balloon comprising an inner layer made of a non-porous material and an outer layer made of a porous material; (b) (i) firstly inflating the balloon from a collapsed configuration to an inflated state; and secondly applying a substance to the balloon; or (ii) firstly applying a substance to the balloon; and secondly inflating the balloon from a collapsed configuration to an inflated state, in either alternative the substance being in a fluid form or carried by a fluid carrier and the inflated state of the balloon being either maintained at the same or generally same level during the application of the substance to the balloon or else increased or decreased, wherein the substance is deposited within the outer layer of the balloon; and (c) contemporaneously with the application of the substance to the balloon, drying the balloon by blowing a gas at the balloon with a flow speed of from about 300 feet/minute (91.5 meters/minute) to about 10,000 feet/minute (3047.85 meters/minute) for a duration of about 1 second to about 100 seconds, the gas having a temperature of from about 25oC to about 200oC, wherein the substance and the gas are applied in a number of cycles until a desired amount of substance is retained by the balloon. (a) providing a balloon comprising an inner layer made of a non-porous material and an outer layer made of a porous material; (b) (i) firstly inflating the balloon from a collapsed configuration to an inflated state; and secondly applying a substance to the balloon; or (ii) firstly applying a substance to the balloon; and secondly inflating the balloon from a collapsed configuration to an inflated state, in either alternative the substance being in a fluid form or carried by a fluid carrier and the inflated state of the balloon being either maintained at the same or generally same level during the application of the substance to the balloon or else increased or decreased, wherein the substance is deposited within the outer layer of the balloon; and (i) firstly inflating the balloon from a collapsed configuration to an inflated state; and secondly applying a substance to the balloon; or (ii) firstly applying a substance to the balloon; and secondly inflating the balloon from a collapsed configuration to an inflated state, (c) contemporaneously with the application of the substance to the balloon, drying the balloon by blowing a gas at the balloon with a flow speed of from about 300 feet/minute (91.5 meters/minute) to about 10,000 feet/minute (3047.85 meters/minute) for a duration of about 1 second to about 100 seconds, the gas having a temperature of from about 25oC to about 200oC,
A hanger for hanging an item, comprising a support-engaging portion, and a deformable elongate member, the elongate member comprising a connection mechanism (18 and 24) such that the elongate member can be deformed back upon itself and connected to itself to form a loop, the end of the elongate member distal from the support-engaging portion is narrower than the span of the support engaging portion, and the elongate member comprises two pre-determined weakened regions (26a and 26b), characterised in that when the elongate member is in its deformed state, the loop is a triangular loop and the elongate member is folded back upon itself at the weakened regions (26a and 26b) to define between the two weakened regions (26a and 26b) a substantially flat spacer at the intended lower end of the triangular loop so that an item rests upon the substantially flat spacer when in use.
Hand-guided working implement with a blowpipe, in which a fan is located, wherein the fan delivers a working airflow through the blowpipe, wherein the fan comprises at least one impeller driven to rotate about an axis of rotation by a drive motor and at least one diffuser held stationary in the blowpipe of the working implement, wherein the diffuser is located downstream of the impeller relative to the direction of flow of the working airflow through the blowpipe, wherein the drive motor is an electric motor, wherein the drive motor is located in a motor compartment in the blowpipe and an annular space through which the working airflow flows is formed between the blowpipe and the motor compartment, wherein the working implement has a take-off opening for cooling air for the drive motor downstream of the diffuser, and wherein the motor compartment has at least one discharge opening (23, 33, 53, 63) for cooling air, which is located upstream of the take-off opening relative to the direction of flow of the working airflow through the blowpipe, characterised in that the annular space is connected to the motor compartment via the take-off opening, and in that the take-off opening and the discharge opening (23, 33, 53, 63) are arranged such that in operation the pressure (p 5) at the take-off opening is higher than the pressure (p 2, p a) at the discharge opening (23, 33, 53, 63).
An apparatus comprising at least one processor and at least one non-transitory memory including computer program code instructions, the computer program code instructions configured to, when executed, cause the apparatus to at least: receive first sensor data from a first vehicle traveling along a road segment in an environment, wherein the first sensor data comprises perspective image data of the environment and wherein the first sensor data comprises a location and a heading; retrieve a satellite image associated with the location and heading; apply a deep neural network to regress a bird's eye view image from the perspective image data using the satellite image; apply a Generative Adversarial Network to the regressed bird's eye view image using the satellite image as a target of the GAN to obtain a stabilized bird's eye view image; derive values of a homography matrix between the sensor data and the stabilized bird's eye view image; and store the derived values of the homography matrix. receive first sensor data from a first vehicle traveling along a road segment in an environment, wherein the first sensor data comprises perspective image data of the environment and wherein the first sensor data comprises a location and a heading; retrieve a satellite image associated with the location and heading; apply a deep neural network to regress a bird's eye view image from the perspective image data using the satellite image; apply a Generative Adversarial Network to the regressed bird's eye view image using the satellite image as a target of the GAN to obtain a stabilized bird's eye view image; derive values of a homography matrix between the sensor data and the stabilized bird's eye view image; and store the derived values of the homography matrix.