mhurhangee/ep-ind-claims huggingface dataset:
A toy gun gas cartridge loading device adapted to be housed in a loading device housing of a toy gun body when attached to the toy gun body comprising: a gas cartridge; a loading device coupling valve being located at a tip of the toy gun gas cartridge loading device and adapted to be coupled to a gun body coupling valve of the toy gun body; and a loading device second lock adapted to be housed in the loading device housing when the end of the toy gun gas cartridge loading device is housed in the loading device housing of the toy gun body, and located on a lateral side of the toy gun gas cartridge loading device and designed to be engaged with a gun body first lock of the gun body and designed to be locked with a gun body second lock of the gun body, wherein the loading device second lock is configured to engage with the gun body first lock when the toy gun gas cartridge loading device is housed in the loading device housing and is configured to disengage with the gun body first lock when the gun body first lock is pushed; the loading device second lock is further configured to be engaged with the gun body second lock after the toy gun gas cartridge loading device slightly moves down when the lateral side of the toy gun gas cartridge loading device is disengaged from the gun body first lock; and the loading device second lock is configured to be operable to be disengaged from the gun body second lock to detach the toy gun gas cartridge loading device from the toy gun body. a gas cartridge; a loading device coupling valve being located at a tip of the toy gun gas cartridge loading device and adapted to be coupled to a gun body coupling valve of the toy gun body; and a loading device second lock adapted to be housed in the loading device housing when the end of the toy gun gas cartridge loading device is housed in the loading device housing of the toy gun body, and located on a lateral side of the toy gun gas cartridge loading device and designed to be engaged with a gun body first lock of the gun body and designed to be locked with a gun body second lock of the gun body, wherein the loading device second lock is configured to engage with the gun body first lock when the toy gun gas cartridge loading device is housed in the loading device housing and is configured to disengage with the gun body first lock when the gun body first lock is pushed; the loading device second lock is further configured to be engaged with the gun body second lock after the toy gun gas cartridge loading device slightly moves down when the lateral side of the toy gun gas cartridge loading device is disengaged from the gun body first lock; and the loading device second lock is configured to be operable to be disengaged from the gun body second lock to detach the toy gun gas cartridge loading device from the toy gun body.
A resource configuration method, applied to a communications apparatus, and comprising: receiving resource configuration information sent by a network device, wherein the resource configuration information comprises indication information used to indicate a time domain period, indication information used to indicate a transmission occasion determining manner, and a time domain resource allocation parameter, wherein the transmission occasion determining manner comprises a first transmission occasion determining manner or a second transmission occasion determining manner; and determining, based on the resource configuration information, time domain positions of N transmission occasions within the time domain period, wherein in case the transmission occasion determining manner indicated by indication information is the second transmission occasion determining manner, each transmission occasion of the N transmission occasions is located in a candidate transmission occasion among M candidate transmission occasions, and all symbols of each transmission occasion of the N transmission occasions are consecutive and locate in a same slot, wherein the M candidate transmission occasions are determined according to the time domain resource allocation parameter. receiving resource configuration information sent by a network device, wherein the resource configuration information comprises indication information used to indicate a time domain period, indication information used to indicate a transmission occasion determining manner, and a time domain resource allocation parameter, wherein the transmission occasion determining manner comprises a first transmission occasion determining manner or a second transmission occasion determining manner; and determining, based on the resource configuration information, time domain positions of N transmission occasions within the time domain period, wherein in case the transmission occasion determining manner indicated by indication information is the second transmission occasion determining manner, each transmission occasion of the N transmission occasions is located in a candidate transmission occasion among M candidate transmission occasions, and all symbols of each transmission occasion of the N transmission occasions are consecutive and locate in a same slot, wherein the M candidate transmission occasions are determined according to the time domain resource allocation parameter.
Method in vitro for measuring Telomere Associated Variables (TAVs) in an isolated biological test sample of a subject, wherein the method uses a set of standard isolated biological samples of known telomere length, and comprises the following steps: a) providing a first set of intensity values of known telomere length, by using a HT Q-FISH methodology, from the set of standard isolated biological samples; b) generating a standard curve correlating the first set of intensity values with the known telomere length from the set of standard isolated biological samples; c) providing a second set of intensity values, by using a HT Q-FISH methodology, from the isolated biological test sample; d) calculating the telomere lengths within the isolated biological test sample of a subject by interpolating the second set of intensity values into the standard curve; and e) calculating, in the isolated biological test sample, at least one of the TAVs selecting from the list consisting of: telomere length percentiles from 1th to 99th, percentages of telomeric length values that can be specified to a particular bp range or number, percentages of cells with specific telomere median or average value that can be specified to a particular bp value, median absolute deviation of the intensities of a sample, difference between the 99th and 1st percentile of the telomere length of the sample, interquartile of the telomere length of a sample, standard deviation of the median telomere length values, or any combinations thereof. a) providing a first set of intensity values of known telomere length, by using a HT Q-FISH methodology, from the set of standard isolated biological samples; b) generating a standard curve correlating the first set of intensity values with the known telomere length from the set of standard isolated biological samples; c) providing a second set of intensity values, by using a HT Q-FISH methodology, from the isolated biological test sample; d) calculating the telomere lengths within the isolated biological test sample of a subject by interpolating the second set of intensity values into the standard curve; and e) calculating, in the isolated biological test sample, at least one of the TAVs selecting from the list consisting of: telomere length percentiles from 1th to 99th, percentages of telomeric length values that can be specified to a particular bp range or number, percentages of cells with specific telomere median or average value that can be specified to a particular bp value, median absolute deviation of the intensities of a sample, difference between the 99th and 1st percentile of the telomere length of the sample, interquartile of the telomere length of a sample, standard deviation of the median telomere length values, or any combinations thereof.
A natural escapement for a horological movement performing a succession of operating cycles each composed of a first and a second alternation of a balance which comprises a balance wheel on an axis of which is adjusted a balance plate, this natural escapement comprising a first escapement wheel arranged to be driven by a second mobile, this first escapement wheel in turn driving a second escapement wheel arranged in the same plane as the first escapement wheel, the first and second escapement wheels (8, 10) forming a kinematic chain after which is disposed an anchor capable of pivoting around an anchor rod, characterised in that said anchor rod is located outside an angle (α) less than 180° and delimited by two straight lines which pass through the axis of the balance wheel and through a pivot axis of the first escapement wheel for one, and through the axis of the balance wheel and through a pivot axis of the second escapement wheel for the other.
Tool for assembling a specimen carrier assembly adapted for use in an electron imaging apparatus, the specimen carrier assembly comprising a specimen holder, an object grid containing the sample during measurement in the analytical apparatus, and a C-shaped resilient fixing ring for removably fixing the object grid into a groove of the specimen holder, characterized in that the tool comprises an elongate hollow handling device with a holding sleeve surrounding a cylindrical pin (11"); that the cylindrical pin (11") is translatory movable within the holding sleeve in both directions from a first position in which the pin (11") protrudes from the holding sleeve at its lower end to a second position in which the pin (11") is retracted into the holding sleeve, and back; and that the hollow handling device is designed and dimensioned in such a way that the C-shaped fixing ring can be pushed into the groove of the specimen holder by moving the cylindrical pin (11") into its first position. in that the tool comprises an elongate hollow handling device with a holding sleeve surrounding a cylindrical pin (11"); that the cylindrical pin (11") is translatory movable within the holding sleeve in both directions from a first position in which the pin (11") protrudes from the holding sleeve at its lower end to a second position in which the pin (11") is retracted into the holding sleeve, and back; and that the hollow handling device is designed and dimensioned in such a way that the C-shaped fixing ring can be pushed into the groove of the specimen holder by moving the cylindrical pin (11") into its first position.
A sound producing system, comprising: an electro-acoustic transducer having an electro-magnetic motor for moving a diaphragm of the transducer back and forth to create acoustic waves, the diaphragm having a surface that includes a surface of a cone of the diaphragm, a surface of a dust cap of the diaphragm and a portion of a surface of a surround of the diaphragm; and a solid gas impermeable cover that faces the diaphragm surface, the cover having a surface which faces the diaphragm surface, the cover surface having a contour which is the same as a contour of a portion of the diaphragm surface where the dust cap surface is located, wherein the system includes an exit for the acoustic waves to leave a volume defined between the diaphragm surface and the cover surface, wherein the cover comprises a magnetically permeable material. an electro-acoustic transducer having an electro-magnetic motor for moving a diaphragm of the transducer back and forth to create acoustic waves, the diaphragm having a surface that includes a surface of a cone of the diaphragm, a surface of a dust cap of the diaphragm and a portion of a surface of a surround of the diaphragm; and a solid gas impermeable cover that faces the diaphragm surface, the cover having a surface which faces the diaphragm surface, the cover surface having a contour which is the same as a contour of a portion of the diaphragm surface where the dust cap surface is located, wherein the system includes an exit for the acoustic waves to leave a volume defined between the diaphragm surface and the cover surface, wherein the cover comprises a magnetically permeable material.
Aerosol dosing container for metered delivery of aerosol, comprising: - an aerosol container for receiving aerosol, said aerosol container defining an aerosol receiving space and having an aerosol container opening, - a container closure provided for the fluid-tight closure of the aerosol container opening, said container closure comprising an actuatable metering valve for the metered delivery of aerosol contained in the aerosol receiving space, - at least one stirring element extending in the aerosol receiving space and connected in a stationary manner to an inner side of the aerosol container and/or the container closure, wherein a positive-locking and/or frictionally engaged drive element is arranged on an outer side of the aerosol container for moving the aerosol metering container relative to the aerosol contained therein, so that, when the aerosol metering container is moved, the at least one stirring element moves relative to the aerosol contained in the aerosol receiving space in order to stir it. - an aerosol container for receiving aerosol, said aerosol container defining an aerosol receiving space and having an aerosol container opening, - a container closure provided for the fluid-tight closure of the aerosol container opening, said container closure comprising an actuatable metering valve for the metered delivery of aerosol contained in the aerosol receiving space, - at least one stirring element extending in the aerosol receiving space and connected in a stationary manner to an inner side of the aerosol container and/or the container closure,
A compound selected from the group consisting of: 1) diacerein, 2) rhein, 3) monoacetylrhein, and 4) a pharmaceutically acceptable salt thereof, and optionally a urate-lowering therapeutic agent, for use in the treatment and/or prevention of hyperuricemia or a metabolic disorder associated with hyperuricemia selected from the group consisting of acute gout, chronic gout, gout flares, uric acid nephrolithiasis, and gouty nephropathy, and wherein said use lowers blood levels of uric acid.
An input device for a device, the input device including at least two proximity detectors (410, 420) located remote from one another and a respective light source (411, 421), wherein the light source is configured to transmit light directed in free space with a plurality of different modulation frequencies to a sensing area, which when in use is reflected back via the free space to the respective proximity detector in the presence of an object in the vicinity of the sensing area, the at least two proximity detectors each comprising a Single Photon Avalanche Diode, wherein: a first proximity detector of the at least two proximity detectors is configured to produce an output indicative of a first distance, said first distance being the distance between said first proximity detector and said object; and a second proximity detector of the at least two proximity detectors is configured to produce an output indicative of a second distance, said second distance being the distance between said second proximity detector and said object; wherein a processor calculates a two dimensional position of the object based on the first distance, the second distance, and a distance between the first and second proximity detectors, said position giving rise to a control signal for controlling the device. a first proximity detector of the at least two proximity detectors is configured to produce an output indicative of a first distance, said first distance being the distance between said first proximity detector and said object; and a second proximity detector of the at least two proximity detectors is configured to produce an output indicative of a second distance, said second distance being the distance between said second proximity detector and said object; wherein a processor calculates a two dimensional position of the object based on the first distance, the second distance, and a distance between the first and second proximity detectors, said position giving rise to a control signal for controlling the device.
A dispenser, comprising: a dispenser body, comprising: a wall defining a space on an interior thereof; a fluid passage; and a cup spring; a cap attached to the dispenser body, wherein the cap at least partially defines the space forming a reservoir; and a base, comprising: a stem; a piston at an end of the stem wherein a dispensing chamber is defined by the stem, piston, and fluid passage; and at least one cup spring rib for expanding or deforming the cup spring upon actuation of the dispenser, wherein the dispenser body is displaced closer to the base or downward over the base, upon which the cup spring deforms or slides over the outer edges of the at least one cup spring rib. a dispenser body, comprising: a wall defining a space on an interior thereof; a fluid passage; and a cup spring; a wall defining a space on an interior thereof; a fluid passage; and a cup spring; a cap attached to the dispenser body, wherein the cap at least partially defines the space forming a reservoir; and a base, comprising: a stem; a piston at an end of the stem wherein a dispensing chamber is defined by the stem, piston, and fluid passage; and at least one cup spring rib for expanding or deforming the cup spring upon actuation of the dispenser, wherein the dispenser body is displaced closer to the base or downward over the base, upon which the cup spring deforms or slides over the outer edges of the at least one cup spring rib. a stem; a piston at an end of the stem wherein a dispensing chamber is defined by the stem, piston, and fluid passage; and at least one cup spring rib for expanding or deforming the cup spring upon actuation of the dispenser, wherein the dispenser body is displaced closer to the base or downward over the base, upon which the cup spring deforms or slides over the outer edges of the at least one cup spring rib.
A patch-like infusion or self-injection device, comprising: a body having a reservoir disposed therein for containing a medicament; one or more microneedles for penetrating the skin of a patient, the one or more microneedle being in fluid communication with the reservoir; a pressurization unit; a plunger movable within the body under a force of the pressurization unit for contacting the reservoir; and indicator means visible outside the device for indicating that delivery of the medicament is substantially complete; wherein motion of the plunger activates the indicator means, and wherein the indicator means converts the motion of the plunger into motion of the indicator means visible from outside the device; wherein the indicator means comprises an end-of-dose indicator (124, 360, 372) that converts the motion of the plunger into motion of the end-of-dose indicator visible from outside the device; characterized in that the end-of-dose indicator comprises: a main body; and a signaling post (352, 368, 392) connected with the main body; wherein upon the plunger reaching an end of its travel stroke, the plunger contacts the end-of-dose indicator due to a force of the pressurization unit, and a pressure of the plunger against the end-of-dose indicator induces the signaling post to extend outside the device. a body having a reservoir disposed therein for containing a medicament; one or more microneedles for penetrating the skin of a patient, the one or more microneedle being in fluid communication with the reservoir; a pressurization unit; a plunger movable within the body under a force of the pressurization unit for contacting the reservoir; and indicator means visible outside the device for indicating that delivery of the medicament is substantially complete; wherein motion of the plunger activates the indicator means, and wherein the indicator means converts the motion of the plunger into motion of the indicator means visible from outside the device; wherein the indicator means comprises an end-of-dose indicator (124, 360, 372) that converts the motion of the plunger into motion of the end-of-dose indicator visible from outside the device; characterized in that the end-of-dose indicator comprises: a main body; and a signaling post (352, 368, 392) connected with the main body; a main body; and a signaling post (352, 368, 392) connected with the main body; wherein upon the plunger reaching an end of its travel stroke, the plunger contacts the end-of-dose indicator due to a force of the pressurization unit, and a pressure of the plunger against the end-of-dose indicator induces the signaling post to extend outside the device.
Method for operating an internal combustion engine, wherein, in the exhaust-gas tract of the internal combustion engine, there are arranged a catalytic converter and a heat exchanger, in which, in one operating phase, at least a partial stream is extracted from the exhaust gas upstream of the catalytic converter in a flow direction and is fed to the heat exchanger, and, during this operating phase, the catalytic converter is flowed through by that exhaust gas which has previously transferred a part of the heat energy in the heat exchanger to the engine oil, wherein, to compensate for the reduced heat energy, said catalytic converter is heated by means of an electrical heater, characterized in that, in this operating phase, at least a partial stream of the exhaust gas is fed to the heat exchanger whilst bypassing a turbine of an exhaust-gas turbocharger, and in that the internal combustion engine has at least two cylinder banks which are each assigned at least one catalytic converter in the exhaust-gas tract, wherein at least a partial stream of the exhaust gas of one cylinder bank is, after passing through the heat exchanger, fed to the catalytic converter assigned to the other cylinder bank.
A printing device (100, 300) comprising: a droplet generator (210, 310) for generating a droplet of printing fluid; a droplet detector (120, 320) for detecting a generated droplet of printing fluid, the droplet detector being moveable along an axis (x); and a controller to: cause the droplet detector (120, 320) to be positioned at a known location along the axis (x), cause the droplet generator (210, 310) to generate a droplet; and receive a measurement signal from the droplet detector (120, 320); wherein the printing device (100, 300) is characterized in that the controller is to determine a location of the droplet generator (210, 310) based on the received measurement signal and the known location. a droplet generator (210, 310) for generating a droplet of printing fluid; a droplet detector (120, 320) for detecting a generated droplet of printing fluid, the droplet detector being moveable along an axis (x); and a controller to: cause the droplet detector (120, 320) to be positioned at a known location along the axis (x), cause the droplet generator (210, 310) to generate a droplet; and receive a measurement signal from the droplet detector (120, 320); cause the droplet detector (120, 320) to be positioned at a known location along the axis (x), cause the droplet generator (210, 310) to generate a droplet; and receive a measurement signal from the droplet detector (120, 320); wherein the printing device (100, 300) is characterized in that the controller is to determine a location of the droplet generator (210, 310) based on the received measurement signal and the known location.