mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a device in a wireless communication system, the method comprising: receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with one of four CS indexes based on a third 1-bit value of the 3-bit RI. receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with one of four CS indexes based on a third 1-bit value of the 3-bit RI. the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with one of four CS indexes based on a third 1-bit value of the 3-bit RI.
A method for controlling an unmanned aerial vehicle, comprising: obtaining (101, 201) meteorological data in a current location of the UAV when the UAV is in a first flight state, wherein the first flight state represents a steady flight state or a take-off preparing state of the UAV; determining a flight hazard level of the UAV based on the meteorological data obtained, wherein the flight hazard level represents a hazard level caused to a flight of the UAV by different weather conditions; and controlling (103, 204) the UAV to switch to a second flight state when the flight hazard level is a first preset level, wherein the first preset level represents a level where the UAV cannot fly safely and the second flight state represents an emergency flight state or a take-off suspended state of the UAV; the method being characterized in that the step of determining a flight hazard level of the UAV based on the meteorological data obtained comprises: computing a meteorological hazard index in the current location of the UAV based on the meteorological data; and determining the flight hazard level corresponding to the meteorological hazard index by inquiring into a preset list, wherein the preset list is used to record the flight hazard level and the meteorological hazard index corresponding to the flight hazard level. obtaining (101, 201) meteorological data in a current location of the UAV when the UAV is in a first flight state, wherein the first flight state represents a steady flight state or a take-off preparing state of the UAV; determining a flight hazard level of the UAV based on the meteorological data obtained, wherein the flight hazard level represents a hazard level caused to a flight of the UAV by different weather conditions; and controlling (103, 204) the UAV to switch to a second flight state when the flight hazard level is a first preset level, wherein the first preset level represents a level where the UAV cannot fly safely and the second flight state represents an emergency flight state or a take-off suspended state of the UAV; the method being characterized in that the step of determining a flight hazard level of the UAV based on the meteorological data obtained comprises: computing a meteorological hazard index in the current location of the UAV based on the meteorological data; and determining the flight hazard level corresponding to the meteorological hazard index by inquiring into a preset list, wherein the preset list is used to record the flight hazard level and the meteorological hazard index corresponding to the flight hazard level. computing a meteorological hazard index in the current location of the UAV based on the meteorological data; and determining the flight hazard level corresponding to the meteorological hazard index by inquiring into a preset list, wherein the preset list is used to record the flight hazard level and the meteorological hazard index corresponding to the flight hazard level.
Mechanical switch, in particular light switch and/or roller shutter switch and/or thermostat switch, comprising: a switching contact arrangement, in particular a monostable, bistable or tristable switching contact arrangement, and a base carrier, in which the switching contact arrangement is received, wherein the base carrier further comprises a guide device, wherein the mechanical switch comprises an operator control mechanism which is guided in the guide device and is suitable for assuming an operator control position as a result of an external mechanical action in order to cause a change in state of the switching contact arrangement, and for assuming an inoperative position when the external mechanical action is absent, wherein the base carrier further has a receiving device for receiving an electromechanical actuator unit, which is designed in such a way that an electromechanical actuator unit received in the receiving device can be supplied with voltage in order to cause a change in state of the switching contact arrangement by means of the electromechanical actuator unit independently of an external mechanical action on the operator control mechanism, wherein the switching contact arrangement is decoupled from the operator control mechanism when the operator control mechanism assumes the inoperative position, characterized in that the receiving device comprises a first plug-in connecting device which can be connected to a second plug-in connecting device of the electromechanical actuator unit in order to supply the electromechanical actuator unit received in the receiving device with voltage. a switching contact arrangement, in particular a monostable, bistable or tristable switching contact arrangement, and a base carrier, in which the switching contact arrangement is received, wherein the base carrier further comprises a guide device, wherein the mechanical switch comprises an operator control mechanism which is guided in the guide device and is suitable for assuming an operator control position as a result of an external mechanical action in order to cause a change in state of the switching contact arrangement, and for assuming an inoperative position when the external mechanical action is absent, wherein the base carrier further has a receiving device for receiving an electromechanical actuator unit, which is designed in such a way that an electromechanical actuator unit received in the receiving device can be supplied with voltage in order to cause a change in state of the switching contact arrangement by means of the electromechanical actuator unit independently of an external mechanical action on the operator control mechanism, wherein the switching contact arrangement is decoupled from the operator control mechanism when the operator control mechanism assumes the inoperative position, characterized in that the receiving device comprises a first plug-in connecting device which can be connected to a second plug-in connecting device of the electromechanical actuator unit in order to supply the electromechanical actuator unit received in the receiving device with voltage.
An adsorption chiller comprising: an evaporator which generates cold heat by vaporizing a liquefied refrigerant, a first adsorption reaction section which adsorbs the vaporized refrigerant generated from the evaporator and then vaporizes the refrigerant again, a second adsorption reaction section which adsorbs the vaporized refrigerant generated from the first adsorption reaction section and then vaporizes the refrigerant again, and a condenser which cools and liquefies the vaporized refrigerant generated from the second adsorption reaction section to supply the refrigerant to the evaporator, wherein at least one of the first adsorption reaction section and the second adsorption reaction section includes at least two adsorption reactors (30, 50), a first coupling pipe which couples the two adsorption reactors (30, 50), and a first control valve which controls opening and closing of the first coupling pipe. an evaporator which generates cold heat by vaporizing a liquefied refrigerant, a first adsorption reaction section which adsorbs the vaporized refrigerant generated from the evaporator and then vaporizes the refrigerant again, a second adsorption reaction section which adsorbs the vaporized refrigerant generated from the first adsorption reaction section and then vaporizes the refrigerant again, and a condenser which cools and liquefies the vaporized refrigerant generated from the second adsorption reaction section to supply the refrigerant to the evaporator, wherein at least one of the first adsorption reaction section and the second adsorption reaction section includes at least two adsorption reactors (30, 50), a first coupling pipe which couples the two adsorption reactors (30, 50), and a first control valve which controls opening and closing of the first coupling pipe. at least two adsorption reactors (30, 50), a first coupling pipe which couples the two adsorption reactors (30, 50), and a first control valve which controls opening and closing of the first coupling pipe.
A composition, in particular a pharmaceutical composition, preferably for topical, in particular nasal, preferably intranasal, application, in particular for the treatment of rhinitis, wherein the composition contains, in combination and in effective, in particular pharmaceutically effective, quantities in each case: (a) xylometazoline, in particular in the form of its physiologically compatible salts, particularly preferably xylometazoline hydrochloride (component (a)); (b) pantothenol or its physiologically harmless esters (component (b)); (c) hyaluronic acid and/or a physiologically compatible hyaluronic acid salt (hyaluronate) (component (c)), wherein the hyaluronic acid and/or the physiologically compatible hyaluronic acid salt (component (c)) has a number-average molecular weight (molar mass) M n in the range of 0.5 MDa to 5 MDa and/or a weight-average molecular weight (molar mass) M w in the range of 0.6 MDa to 6 MDa. (a) xylometazoline, in particular in the form of its physiologically compatible salts, particularly preferably xylometazoline hydrochloride (component (a)); (b) pantothenol or its physiologically harmless esters (component (b)); (c) hyaluronic acid and/or a physiologically compatible hyaluronic acid salt (hyaluronate) (component (c)), wherein the hyaluronic acid and/or the physiologically compatible hyaluronic acid salt (component (c)) has a number-average molecular weight (molar mass) M n in the range of 0.5 MDa to 5 MDa and/or a weight-average molecular weight (molar mass) M w in the range of 0.6 MDa to 6 MDa.
Capillary-pumped heat pipe with re-entrant grooves, extending in a first longitudinal direction, comprising a sealed enclosure extending between a first longitudinal end, intended to be heated by a hot source SC to form, within the enclosure, an evaporator, and a second longitudinal end intended to be cooled by a cold source SF to form, within the enclosure, a condenser, the sealed enclosure delimiting an adiabatic zone between the evaporator and the condenser, the sealed enclosure comprising a stack of plates (20, 22) in a second direction, orthogonal to the first direction, including two closing plates and at least a number n of modules on top of each other, where n is an integer greater than or equal to 1, each module comprising at least one intermediate plate between the closing plates, the intermediate plate or plates comprising at least one first intermediate plate having at least one window, the edges of which partially delimit at least one vapour channel extending in the first direction between the evaporator and the condenser, in which the vapour is intended to flow, and, on at least one lateral side of the window in a third direction orthogonal to the first direction and the second direction, at least one structure, the edges of which partially delimit at least one liquid channel in the evaporator and the condenser, the heat pipe comprising, at least in the evaporator, at least one exchange zone that defines a liquid-vapour interface and is delimited between the at least one intermediate plate and at least one other intermediate plate or a closing plate, connecting the vapour channel(s) and the liquid channel(s), each exchange zone comprising at least one open connecting channel, characterized in that each of at least some of the open connecting channels of the evaporator accommodate an insert made of porous material which extends at least partially into the liquid channel(s) and into the vapour channel(s), the porous insert being designed to bring, by capillary action, the liquid from the liquid channel(s) to the vapour channel(s), in which the liquid evaporates.
An electronic apparatus comprising a control unit, peripheral circuits whose operations are controlled by the control unit, and a rechargeable battery for feeding operation power to the control unit and the peripheral circuits; characterized in that said electronic apparatus further comprising continuous initialization means for periodically outputting an initialization signal to the control unit during the period of time that the voltage fed to the control unit is equal to or less than the control unit operation-assured voltage below which the control unit may start abnormal routines, and is equal to or greater than the start voltage (Vx) for starting the operation of the control unit.
A method for detecting inversions in a selected mitotic chromosome, comprising the steps of: generating a pair of single-stranded sister chromatids from said selected chromosome, each sister chromatid having a length of DNA and a series of target DNA sequences that span a portion of the length of the DNA of the chromatid; generating a plurality of non-repetitive probes, wherein each of the probes is single-stranded, unique to one specific chromatid and identical to at least a portion of a target DNA sequence, each of the probes having at least one label, thereby permitting detection thereof; hybridizing the probes to the sister chromatids, wherein a probe set has the ability to cover a specified chromatid from end to end; and detecting the hybridized probes; whereby if no inversion exists, all of the probes will hybridize to one of the sister chromatids, and whereby if an inversion exists, at least one of the probes will hybridize to the other sister chromatid at the same location as the inversion. generating a pair of single-stranded sister chromatids from said selected chromosome, each sister chromatid having a length of DNA and a series of target DNA sequences that span a portion of the length of the DNA of the chromatid; generating a plurality of non-repetitive probes, wherein each of the probes is single-stranded, unique to one specific chromatid and identical to at least a portion of a target DNA sequence, each of the probes having at least one label, thereby permitting detection thereof; hybridizing the probes to the sister chromatids, wherein a probe set has the ability to cover a specified chromatid from end to end; and detecting the hybridized probes; whereby if no inversion exists, all of the probes will hybridize to one of the sister chromatids, and whereby if an inversion exists, at least one of the probes will hybridize to the other sister chromatid at the same location as the inversion.
A hydraulic percussive arrangement comprising a displaceable piston arranged within a casing, in which casing the following are arranged along the piston: a first chamber connected to a return line for hydraulic oil, a bushing on a first side of the first chamber and separated from the first chamber by a first gap between the casing and the piston, and a second chamber with a higher pressure of hydraulic oil than that of the first chamber and arranged on a second side of the first chamber, separated from the first chamber by a second gap between the casing and the piston, characterised in that a third chamber is fixed arranged between the second gap and the first chamber and in that the third chamber is connected to the first chamber not only by a first passage but also by a third gap between the casing and the piston.
A medical apparatus comprising: an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; an output controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam when the target position identified by the identifier is settled within an irradiation permission range; a display controller configured to cause a display to display an interface image for receiving an instruction to start each of a preparation stage of a therapy and an irradiation stage of the therapeutic beam; and an input operation acquirer configured to acquire a selection operation performed by a user in the interface image, wherein medical apparatus is configured so that, when the interface image for receiving an instruction to start the preparation stage of the therapy is operated, the display controller causes the display to display the target position and the irradiation permission range on the fluoroscopic image, and when the interface image for receiving an instruction to start the irradiation stage of the therapeutic beam is operated, the output controller is configured to output the irradiation permission signal to the therapeutic device; and wherein selection operation provides selecting between a marker tracking operation and a markerless tracking operation. an acquirer configured to acquire a fluoroscopic image of an object from an imager which performs imaging by irradiating the object with an electromagnetic wave to generate the fluoroscopic image; an identifier configured to identify a target position of the object in the fluoroscopic image; an output controller configured to output an irradiation permission signal to a therapeutic device which irradiates the object with a therapeutic beam when the target position identified by the identifier is settled within an irradiation permission range; a display controller configured to cause a display to display an interface image for receiving an instruction to start each of a preparation stage of a therapy and an irradiation stage of the therapeutic beam; and an input operation acquirer configured to acquire a selection operation performed by a user in the interface image, wherein medical apparatus is configured so that, when the interface image for receiving an instruction to start the preparation stage of the therapy is operated, the display controller causes the display to display the target position and the irradiation permission range on the fluoroscopic image, and when the interface image for receiving an instruction to start the irradiation stage of the therapeutic beam is operated, the output controller is configured to output the irradiation permission signal to the therapeutic device; and wherein selection operation provides selecting between a marker tracking operation and a markerless tracking operation.
A knit design system that comprises: a color monitor; a manual input device; and a display controller configured to perform display on the color monitor and to interpret an input from the manual input device; and that is configured to output design data for designating stitch numbers, a stitch type, and connection relationship between stitches in a course direction and a wale direction of a knit fabric, based on inputs of shape data for defining a shape of the knit fabric, gauges of stitches in the course direction and the wale direction, and a knit structure, characterized in that the knit design system further comprises: a calculation unit configured to obtain calculation values of a size of a knit fabric after completion that vary depending on the knit structure, based on the design data that is output, or knit data obtained by converting the design data into data for driving a knitting machine, by considering a change of an array of stitches due to the interaction between the stitches; and a design correction unit configured to compare the shape data of the knit fabric with the calculation values of the size of the knit fabric, and to correct the shape data of the knit fabric, the design data, or the knit data so that an error is reduced. a calculation unit configured to obtain calculation values of a size of a knit fabric after completion that vary depending on the knit structure, based on the design data that is output, or knit data obtained by converting the design data into data for driving a knitting machine, by considering a change of an array of stitches due to the interaction between the stitches; and a design correction unit configured to compare the shape data of the knit fabric with the calculation values of the size of the knit fabric, and to correct the shape data of the knit fabric, the design data, or the knit data so that an error is reduced.