mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting an uplink signal, comprising: when an uplink signal to be transmitted is detected, judging whether there is at least one unsheltered antenna array in a plurality of antenna arrays (1, 2), wherein the plurality of antenna arrays (1, 2) are arranged in a terminal, and the unsheltered antenna array is an antenna array of which all antennas (21 - 26) are not sheltered; when it is judged that there is at least one unsheltered antenna array in the plurality of antenna arrays (1, 2), selecting an antenna array from the at least one unsheltered antenna array; and transmitting the uplink signal via the selected antenna array, characterized in that after judging whether there is at least one unsheltered antenna array in a plurality of antenna arrays (1, 2) when an uplink signal to be transmitted is detected, further comprising: when it is judged that there is no unsheltered antenna array in the plurality of antenna arrays (1, 2), determining that the plurality of antenna arrays (1, 2) are sheltered, wherein the sheltered antenna array is an antenna array of which one or more antennas are sheltered; determining the number of the one or more antennas sheltered in each of the plurality of antenna arrays (1, 2); and selecting an antenna array with a minimum number from the plurality of antenna arrays as the selected antenna array. when an uplink signal to be transmitted is detected, judging whether there is at least one unsheltered antenna array in a plurality of antenna arrays (1, 2), wherein the plurality of antenna arrays (1, 2) are arranged in a terminal, and the unsheltered antenna array is an antenna array of which all antennas (21 - 26) are not sheltered; when it is judged that there is at least one unsheltered antenna array in the plurality of antenna arrays (1, 2), selecting an antenna array from the at least one unsheltered antenna array; and transmitting the uplink signal via the selected antenna array, characterized in that after judging whether there is at least one unsheltered antenna array in a plurality of antenna arrays (1, 2) when an uplink signal to be transmitted is detected, further comprising: when it is judged that there is no unsheltered antenna array in the plurality of antenna arrays (1, 2), determining that the plurality of antenna arrays (1, 2) are sheltered, wherein the sheltered antenna array is an antenna array of which one or more antennas are sheltered; determining the number of the one or more antennas sheltered in each of the plurality of antenna arrays (1, 2); and selecting an antenna array with a minimum number from the plurality of antenna arrays as the selected antenna array. when it is judged that there is no unsheltered antenna array in the plurality of antenna arrays (1, 2), determining that the plurality of antenna arrays (1, 2) are sheltered, wherein the sheltered antenna array is an antenna array of which one or more antennas are sheltered; determining the number of the one or more antennas sheltered in each of the plurality of antenna arrays (1, 2); and selecting an antenna array with a minimum number from the plurality of antenna arrays as the selected antenna array.
Recording device for detecting a forest stand, comprising a telescopic rod on which at least one laser scanner is arranged, wherein the laser scanner is located at an upper end of the telescopic rod and an anchorage is provided at an opposite lower end of the telescopic rod, wherein the anchorage is designed to secure the recording device in a ground, wherein the recording device has an inertial measuring unit, IMU, and the IMU is provided at the upper end of the telescopic rod in a substantially play-free arrangement with the laser scanner, characterised in that the telescopic rod has at least one joint (G; 14; 17) which serves to pivot the upper end of the telescopic rod with the laser scanner relative to the anchorage.
A method of freeze point suppression cycle control comprising: forming a liquid in a tank through combining a freeze point suppressant and a solid, wherein the freeze point suppressant melts the solid to form the liquid; pumping the liquid from the tank to a first sensor wherein the liquid includes a mixture of the melted solid and the freeze point suppressant; determining an indicator value of a freeze point suppressant property of the liquid utilizing the first sensor; controlling a flow of the liquid to a separator utilizing a flow controller based on at least the determined indicator value of the freeze point suppressant property of the liquid, wherein the separator forms a concentrated freeze point suppressant from the liquid; forming a concentrated freeze point suppressant from the liquid utilizing the separator; determining an indicator value of a freeze point suppressant property of the concentrated freeze point suppressant utilizing a second sensor; controlling further the flow of the liquid to the separator utilizing the flow controller based on at least the determined indicator value of the freeze point suppressant property of the concentrated freeze point suppressant flowing the concentrated freeze point suppressant from the separator to the tank. forming a liquid in a tank through combining a freeze point suppressant and a solid, wherein the freeze point suppressant melts the solid to form the liquid; pumping the liquid from the tank to a first sensor wherein the liquid includes a mixture of the melted solid and the freeze point suppressant; determining an indicator value of a freeze point suppressant property of the liquid utilizing the first sensor; controlling a flow of the liquid to a separator utilizing a flow controller based on at least the determined indicator value of the freeze point suppressant property of the liquid, wherein the separator forms a concentrated freeze point suppressant from the liquid; forming a concentrated freeze point suppressant from the liquid utilizing the separator; determining an indicator value of a freeze point suppressant property of the concentrated freeze point suppressant utilizing a second sensor; controlling further the flow of the liquid to the separator utilizing the flow controller based on at least the determined indicator value of the freeze point suppressant property of the concentrated freeze point suppressant flowing the concentrated freeze point suppressant from the separator to the tank.
A display device, comprising: a display panel; an optical sheet positioned at a rear of the display panel; a guide panel positioned at a lateral side of at least one of the display panel and the optical sheet; and a back cover positioned at a rear of the guide panel, the back cover coupled to the guide panel, wherein the guide panel includes a guide latch assembly facing the back cover, and wherein the back cover includes a back cover latch assembly coupled to the guide latch assembly, characterized in that: the guide latch assembly includes a first rib and a second rib spaced apart from the first rib to form coupling spaces (211, 213, 214) with the first rib, wherein the second rib includes a protrusion protruded from an end portion of the second rib in an opposite direction to the first rib, wherein the back cover latch assembly includes: coupling ribs (311, 312, 313, 317) accommodated in the coupling spaces (211, 213, 214), and an engaging rib spaced apart from the coupling ribs (311, 312, 313, 317) and engaged with the protrusion. a display panel; an optical sheet positioned at a rear of the display panel; a guide panel positioned at a lateral side of at least one of the display panel and the optical sheet; and a back cover positioned at a rear of the guide panel, the back cover coupled to the guide panel, wherein the guide panel includes a guide latch assembly facing the back cover, and wherein the back cover includes a back cover latch assembly coupled to the guide latch assembly, characterized in that: the guide latch assembly includes a first rib and a second rib spaced apart from the first rib to form coupling spaces (211, 213, 214) with the first rib, wherein the second rib includes a protrusion protruded from an end portion of the second rib in an opposite direction to the first rib, wherein the back cover latch assembly includes: coupling ribs (311, 312, 313, 317) accommodated in the coupling spaces (211, 213, 214), and an engaging rib spaced apart from the coupling ribs (311, 312, 313, 317) and engaged with the protrusion. the guide latch assembly includes a first rib and a second rib spaced apart from the first rib to form coupling spaces (211, 213, 214) with the first rib, wherein the second rib includes a protrusion protruded from an end portion of the second rib in an opposite direction to the first rib, wherein the back cover latch assembly includes: coupling ribs (311, 312, 313, 317) accommodated in the coupling spaces (211, 213, 214), and an engaging rib spaced apart from the coupling ribs (311, 312, 313, 317) and engaged with the protrusion. coupling ribs (311, 312, 313, 317) accommodated in the coupling spaces (211, 213, 214), and an engaging rib spaced apart from the coupling ribs (311, 312, 313, 317) and engaged with the protrusion.
An oxazolidinone antibacterial compound [ - N- [[3-[4-fluoro-3-morpholino phenyl]-2-oxooxazolidin-5-yl] methyl] acetamide] of formula -I, a pharmaceutically acceptable salt, solvate, or hydrate thereof
A method of enhancing the detectability of a height change with an air pressure sensor, the air pressure sensor providing a height measurement, the height measurement including a measurement error depending on the orientation of the pressure sensor relative to the direction of gravity, the air pressure sensor being included in a sensor unit, the sensor unit being attachable to a person, the method comprising the steps of - determining a preferred orientation of the pressure sensor relative to the direction of gravity in which it provides a largest height measurement; characterized by the further steps of - determining a reference orientation of the sensor unit relative to the direction of gravity wherein said reference orientation corresponds to the orientation of the sensor unit when attached to the person while the person has a predetermined posture; - determining a relative orientation of the pressure sensor, the relative orientation corresponding to the orientation of the pressure sensor relative to the orientation of the sensor unit wherein the pressure sensor has the preferred orientation while the sensor unit has the reference orientation; mounting the pressure sensor in the relative orientation relative to the orientation of the sensor unit. - determining a preferred orientation of the pressure sensor relative to the direction of gravity in which it provides a largest height measurement; characterized by the further steps of - determining a reference orientation of the sensor unit relative to the direction of gravity wherein said reference orientation corresponds to the orientation of the sensor unit when attached to the person while the person has a predetermined posture; - determining a relative orientation of the pressure sensor, the relative orientation corresponding to the orientation of the pressure sensor relative to the orientation of the sensor unit wherein the pressure sensor has the preferred orientation while the sensor unit has the reference orientation; mounting the pressure sensor in the relative orientation relative to the orientation of the sensor unit.
A vane strut positioning and securement system, comprising: a housing including a washer aperture defined in an inner diameter thereof, the washer aperture defined partially through a thickness of the housing, wherein the housing further includes a strut post opening defined through the housing from the inner diameter to an outer diameter of the housing; a vane strut defining a leading edge of a vane airfoil, the vane strut including a strut post disposed within the strut post opening, wherein the strut post includes threading on an outer surface thereof for mating with a locking nut to compress the vane strut to the housing, and; a vane strut washer; characterised in that the strut washer is disposed in a strut washer aperture and in that the system further comprises a lock washer disposed within the washer aperture of the housing, the lock washer for locking a vane strut orientation under compression against a vane strut washer, by at least one of the lock washer and the vane strut washer comprising a compression lock interface for compressing into and deforming a softer portion of the other of the lock washer and the vane strut washer which deforms under compression when a vane strut is secured to the housing in a predetermined orientation. a housing including a washer aperture defined in an inner diameter thereof, the washer aperture defined partially through a thickness of the housing, wherein the housing further includes a strut post opening defined through the housing from the inner diameter to an outer diameter of the housing; a vane strut defining a leading edge of a vane airfoil, the vane strut including a strut post disposed within the strut post opening, wherein the strut post includes threading on an outer surface thereof for mating with a locking nut to compress the vane strut to the housing, and; a vane strut washer; characterised in that the strut washer is disposed in a strut washer aperture and in that the system further comprises a lock washer disposed within the washer aperture of the housing, the lock washer for locking a vane strut orientation under compression against a vane strut washer, by at least one of the lock washer and the vane strut washer comprising a compression lock interface for compressing into and deforming a softer portion of the other of the lock washer and the vane strut washer which deforms under compression when a vane strut is secured to the housing in a predetermined orientation.
Pulsed laser emitter, capable of being implemented in a differential absorption lidar, comprising a laser cavity and at least two master lasers (41, 42, 43), said at least two lasers sequentially injecting master laser beams into said laser cavity, said laser cavity having a plurality of resonant eigenmodes that are spaced apart spectrally by Free Spectral Ranges, said emitter being adapted such that said at least two lasers sequentially inject, into said laser cavity, master laser beams of which the wavelengths are spectrally spaced apart by an integer number of Free Spectral Ranges of said cavity, characterised in that, for each master laser beam sequentially injected by one of said at least two master lasers (41, 42, 43), said laser emitter comprises first means for controlling the length of said laser cavity, capable of modifying said length of said laser cavity, such that the wavelength of one of said resonant eigenmodes of said laser cavity corresponds to the wavelength of said master laser beam injected into the cavity.
A pourable mixture for forming a thermal insulating and leveling layer, in particular for floor structures, said pourable mixture being hardened by a following hydraulic setting processes, wherein the mixture consists of: - an EPS dry mixture, consisting of - 24 wt.% expanded polystyrene in granular, free-flowing form, consisting of an EPS particle mixture comprising 50 wt.% freshly foamed polystyrene particles with a grain size of between 3 and 8 mm and a bulk density of between 10 and 11 kg/m 3 and 50 wt.% recycled, optionally comminuted EPS granules, in particular recycled, shredded EPS heat insulation boards or packaging styrene with a grain size between 0.1 and 9 mm and a bulk density between 12 and 18 kg/m 3, - 76 wt.% mineral binder dry mixture, wherein the mineral binder dry mixture consists of - 94 wt.% white cement, - 4 wt.% silica as adhesion promoter between the EPS particles and the white cement, and - 2 wt.% non-activated kaolin and wherein water is added to the EPS dry mixture in an amount of 33 wt.% - with respect to a resulting total weight of the pourable mixture after completion of a wet mixing process. - an EPS dry mixture, consisting of - 24 wt.% expanded polystyrene in granular, free-flowing form, consisting of an EPS particle mixture comprising 50 wt.% freshly foamed polystyrene particles with a grain size of between 3 and 8 mm and a bulk density of between 10 and 11 kg/m 3 and 50 wt.% recycled, optionally comminuted EPS granules, in particular recycled, shredded EPS heat insulation boards or packaging styrene with a grain size between 0.1 and 9 mm and a bulk density between 12 and 18 kg/m 3, - 76 wt.% mineral binder dry mixture, wherein the mineral binder dry mixture consists of - 94 wt.% white cement, - 4 wt.% silica as adhesion promoter between the EPS particles and the white cement, and - 2 wt.% non-activated kaolin and wherein water is added to the EPS dry mixture in an amount of 33 wt.% - with respect to a resulting total weight of the pourable mixture after completion of a wet mixing process.
Quick coupler system for coupling a tool to a tool guide such as an excavator stick, having a coupler body and a coupler part which can be coupled thereto, wherein the coupler body has, in the region of opposite end faces, on the one hand a coupling receptacle for receiving a first locking part of the coupler part to be coupled and, on the other hand, a locking receptacle for receiving a second locking part of the coupler part to be coupled, wherein at least the locking receptacle is assigned at least one movable locking element for locking the second locking part, wherein said locking element being manually operable via an actuating gear arranged on the coupler body and having a rotatably mounted drive shaft which can be coupled with a hand tool, wherein both the locking element associated with the locking receptacle and a movable securing element, which is assigned to the coupling receptacle for securing the first locking part accommodated therein, can be actuated by the common drive shaft and are in each case articulated via an actuating link (17, 27) to a rotary actuating part (16, 26) connected fixedly in terms of rotation to the common drive shaft so that the locking element and the securing element move in opposite directions to one another by rotation of the common drive shaft in one direction of rotation, characterized in that the coupler body has a recess in a central section between its coupling and locking receptacles (6, 10) which is open towards the coupler part to be coupled, and the actuating gear is positioned next to the recess, leaving the recess free, and the coupler part has hydraulic and/or energy couplings between the two first and second locking parts (13, 14) which project towards the coupler body and can be brought into the recess of the coupler body.
A method of monitoring and controlling movement of a shopping cart, the method comprising: monitoring a location of a shopping cart via bi-directional radio frequency communications with a cart transceiver of the shopping cart, said cart transceiver comprising a microcontroller, an RF transceiver comprising a 2.4 GHz or 5.7-5.8 GHz transceiver, and a very low frequency receiver, said cart transceiver electrically coupled to a brake mechanism of the shopping cart; and automatically determining whether to activate the brake mechanism to inhibit the shopping cart from exiting a store based, at least in part, on whether the shopping cart passed through a checkout lane before proceeding to an exit of the store, as determined from said monitoring. monitoring a location of a shopping cart via bi-directional radio frequency communications with a cart transceiver of the shopping cart, said cart transceiver comprising a microcontroller, an RF transceiver comprising a 2.4 GHz or 5.7-5.8 GHz transceiver, and a very low frequency receiver, said cart transceiver electrically coupled to a brake mechanism of the shopping cart; and automatically determining whether to activate the brake mechanism to inhibit the shopping cart from exiting a store based, at least in part, on whether the shopping cart passed through a checkout lane before proceeding to an exit of the store, as determined from said monitoring.
A method for transferring signaling based immediate Minimization of Drive Test, MDT, configuration information, applied in an inter-Public Land Mobile Network, PLMN, handover process in a scenario of multiple PLMNs, comprising configuring an MDT-allowable list of a user equipment, the MDT-allowable list comprises one or more PLMNs in which the user equipment needs to perform MDT measurement; during a handover process of the user equipment, if it is determined that a target PLMN selected for the user equipment is the same as one PLMN in the MDT-allowable PLMN list of the user equipment, a source network device transmitting the immediate MDT configuration information of the user equipment to a target network device (303, 402, 503,602); characterized in that the target PLMN is selected by the source network device in following way: after selecting a target cell for the user equipment, the source network device acquiring information about PLMNs to which the target cell belongs, and selecting a PLMN from an intersection between the PLMNs to which the target cell belongs and an equivalent PLMN list allowed by the user equipment as the target PLMN.
A display system comprising: an inertial measuring system, IMS, configured to sense dynamics of an aircraft; a video camera configured to image an external scene outside the aircraft; a video display system inside the aircraft; an image processing sub-system comprising a video processor, the image processing sub-system configured to access an electronic model of the aircraft and compare the dynamics sensed by the IMS to the electronic model to generate a predicted movement of the aircraft, estimate a lag between a scene representing an image to be displayed if there were no lag and the external scene imaged by the video camera based on the predicted movement, and generate video signals that are pre-compensated for the lag to drive the video processor to display on the video display system a lag compensated video image of the external scene, the system further comprising a plurality of video cameras configured to image the external scene and a plurality of video processors and a plurality of video display systems, wherein the electronic model comprises responses of groups of seats within the aircraft to the dynamics of the aircraft, and wherein each group of seats is associated with an at least one video processor and an at least one video display system, the at least one video processor and the at least one video display system associated with each group of seats in communication with each other. an inertial measuring system, IMS, configured to sense dynamics of an aircraft; a video camera configured to image an external scene outside the aircraft; a video display system inside the aircraft; an image processing sub-system comprising a video processor, the image processing sub-system configured to access an electronic model of the aircraft and compare the dynamics sensed by the IMS to the electronic model to generate a predicted movement of the aircraft, estimate a lag between a scene representing an image to be displayed if there were no lag and the external scene imaged by the video camera based on the predicted movement, and generate video signals that are pre-compensated for the lag to drive the video processor to display on the video display system a lag compensated video image of the external scene, the system further comprising a plurality of video cameras configured to image the external scene and a plurality of video processors and a plurality of video display systems, wherein the electronic model comprises responses of groups of seats within the aircraft to the dynamics of the aircraft, and wherein each group of seats is associated with an at least one video processor and an at least one video display system, the at least one video processor and the at least one video display system associated with each group of seats in communication with each other.