mhurhangee/ep-ind-claims huggingface dataset:
A computerized method for measuring water having high purity, comprising: collecting temperature measurements and resistivity measurements over a prescribed time interval from a temperature sensor and a resistivity sensor exposed to a water source; determining at least one of a midpoint for temperature (T mid) and a midpoint for resistivity (R mid), over the prescribed time interval; determining a collected R/T slope from the collected temperature measurements and the collected resistivity measurements, in which the collected R/T slope is indicative of the change in resistivity versus change in temperature as measured over the prescribed time interval; comparing the collected R/T slope to a standardized R/T slope at a temperature value corresponding to a midpoint temperature of the temperature measurements over the prescribed time interval; and providing a compensated measurement for resistivity or conductivity of the water source based on the comparing. collecting temperature measurements and resistivity measurements over a prescribed time interval from a temperature sensor and a resistivity sensor exposed to a water source; determining at least one of a midpoint for temperature (T mid) and a midpoint for resistivity (R mid), over the prescribed time interval; determining a collected R/T slope from the collected temperature measurements and the collected resistivity measurements, in which the collected R/T slope is indicative of the change in resistivity versus change in temperature as measured over the prescribed time interval; comparing the collected R/T slope to a standardized R/T slope at a temperature value corresponding to a midpoint temperature of the temperature measurements over the prescribed time interval; and providing a compensated measurement for resistivity or conductivity of the water source based on the comparing.
A method of calculating a process capacity at a specific temperature of a lithium secondary battery, characterised in that correction to a process capacity (Q 3) at a specific temperature (T 2) is performed using a value (Q 1 - Q 2) obtained by subtracting a charge capacity (Q 2) during a shipping charge from a discharge capacity (Q 1) measured at an arbitrary discharge temperature (T 1). characterised in that correction to a process capacity (Q 3) at a specific temperature (T 2) is performed using a value (Q 1 - Q 2) obtained by subtracting a charge capacity (Q 2) during a shipping charge from a discharge capacity (Q 1) measured at an arbitrary discharge temperature (T 1).
A microparticle pharmaceutical preparation for use in treating feline chronic gingivo-stomatitis (FCGS) through oral administration of said microparticle pharmaceutical preparation, comprising: i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of a typical domestic feline subject and that disintegrates in basic conditions of intestinal portions of said alimentary canal; and ii. mTOR inhibiting nanoparticles dispersed within said solid excipient matrix, said mTOR inhibiting nanoparticles comprising pharmaceutically active cores; iii. said pharmaceutically active cores comprising a pharmaceutically active mTOR inhibiting compound; iv. said mTOR inhibiting nanoparticles further comprising an aqueous-soluble, amphoteric compound; v. said amphoteric, aqueous-soluble compound comprising sodium cholate; vi. orally administering said microparticle pharmaceutical preparation to a feline subject having FCGS; and vii. repeating oral administration of said microparticle pharmaceutical preparation to said feline subject multiple times per week over a multi-week duration, in amounts such that said feline subject ingests said pharmaceutically active compound in amounts and over durations that are efficacious for reducing the severity of FCGS in said feline subject. i. a solid excipient matrix comprising a polymer composition that remains intact when exposed to acidic conditions of the alimentary canal of a typical domestic feline subject and that disintegrates in basic conditions of intestinal portions of said alimentary canal; and ii. mTOR inhibiting nanoparticles dispersed within said solid excipient matrix, said mTOR inhibiting nanoparticles comprising pharmaceutically active cores; iii. said pharmaceutically active cores comprising a pharmaceutically active mTOR inhibiting compound; iv. said mTOR inhibiting nanoparticles further comprising an aqueous-soluble, amphoteric compound; v. said amphoteric, aqueous-soluble compound comprising sodium cholate; vi. orally administering said microparticle pharmaceutical preparation to a feline subject having FCGS; and vii. repeating oral administration of said microparticle pharmaceutical preparation to said feline subject multiple times per week over a multi-week duration, in amounts such that said feline subject ingests said pharmaceutically active compound in amounts and over durations that are efficacious for reducing the severity of FCGS in said feline subject.
A method for adjusting a constant wavelength of a light-emitting diode, comprising; - control of the light-emitting diode by means of a preset current value; - measuring an actual prevailing temperature of a control unit arranged in the immediate vicinity of the driven light-emitting diode, exclusively characterised by: components are arranged between the light-emitting diode and the control unit; - providing an empirically determined wavelength variation of the light-emitting diode as a function of a temperature of the light-emitting diode; and - adjustment of the preset current value as a function of the actually prevailing temperature and the empirically determined wavelength variation for setting the constant wavelength of the light-emitting diode, wherein the adjustment of the preset current value is carried out by means of a stored error function and the error function determines the temperature of the light-emitting diode as a function of the actually prevailing temperature of the control unit. - control of the light-emitting diode by means of a preset current value; - measuring an actual prevailing temperature of a control unit arranged in the immediate vicinity of the driven light-emitting diode, exclusively characterised by: components are arranged between the light-emitting diode and the control unit; - providing an empirically determined wavelength variation of the light-emitting diode as a function of a temperature of the light-emitting diode; and - adjustment of the preset current value as a function of the actually prevailing temperature and the empirically determined wavelength variation for setting the constant wavelength of the light-emitting diode, wherein the adjustment of the preset current value is carried out by means of a stored error function and the error function determines the temperature of the light-emitting diode as a function of the actually prevailing temperature of the control unit.
An ion source comprising: a vacuum chamber having a cooling mechanism for cooling the vacuum chamber to a predetermined temperature by circulating a refrigerant; an ion generation container provided in the vacuum chamber, the ion generation container having a supply of a fluorine gas and an ion material member provided inside the ion generation container; an extraction electrode provided in the vacuum chamber and configured to extract ions generated in the ion generation container so as to generate an ion beam; and a shielding member provided inside the vacuum chamber in the vicinity of an inner wall of the vacuum chamber, and having a main body made of a conductive metal that blocks deposition of an insulating material on the inner wall of the vacuum chamber, wherein the main body of the shielding member is provided with a plurality of protruding support portions that is in contact with the inner wall of the vacuum chamber for supporting the main body so that the main body is fitted at a distance from the inner wall of the vacuum chamber. a vacuum chamber having a cooling mechanism for cooling the vacuum chamber to a predetermined temperature by circulating a refrigerant; an ion generation container provided in the vacuum chamber, the ion generation container having a supply of a fluorine gas and an ion material member provided inside the ion generation container; an extraction electrode provided in the vacuum chamber and configured to extract ions generated in the ion generation container so as to generate an ion beam; and a shielding member provided inside the vacuum chamber in the vicinity of an inner wall of the vacuum chamber, and having a main body made of a conductive metal that blocks deposition of an insulating material on the inner wall of the vacuum chamber, wherein the main body of the shielding member is provided with a plurality of protruding support portions that is in contact with the inner wall of the vacuum chamber for supporting the main body so that the main body is fitted at a distance from the inner wall of the vacuum chamber.
Emergency vehicle, in particular fire engine, with a driver's cab and a cab module located behind the former in the longitudinal direction of the vehicle and joined to the driver's cab, wherein at least one adhesive bond is provided to join the driver's cab to the cab module and wherein a fastening device is provided to join the driver's cab to the cab module and the at least one adhesive bond is formed between the fastening device and the driver's cab and/or between the fastening device and the cab module, wherein the fastening device is designed as a component separate both from the driver's cab and from the cab module, and wherein the fastening device has a frame-like fastening flange joined to the driver's cab on one side and to the cab module on the other side, wherein the at least one adhesive bond is formed between the driver's cab and the fastening flange and/or the cab module and the fastening flange, characterised in that the fastening flange and the driver's cab and/or the fastening flange and the cab module have several joint surfaces (52, 53, 54, 55) located opposite one another, which are at least partially designed as mutually bonded adhesive surfaces.
A radiation detection apparatus (1, 51, 71, 101, 131, 161) comprising: a shield body (10, 60, 110) including a pinhole formed on a front surface thereof and a slit unit formed on a back surface thereof, the shield body further including a detection element group placed therein, which includes a plurality of detection elements arranged on a support substrate (23, 150); a signal processing substrate which processes a detection signal respectively detected by each detection element, provided outside of the shield body (10, 60, 110); and a relay substrate configured to go through at least one slit of the slit unit and to connect each detection element with the signal processing substrate, characterized in that the signal processing substrate is provided outside of the shield body (10, 60, 110) and in the back surface of the slit unit and has a dimension larger than a width of the slit in the slit unit in a direction of the width of the slit, so as to shield each slit with the signal processing substrate against a gamma ray. a shield body (10, 60, 110) including a pinhole formed on a front surface thereof and a slit unit formed on a back surface thereof, the shield body further including a detection element group placed therein, which includes a plurality of detection elements arranged on a support substrate (23, 150); a signal processing substrate which processes a detection signal respectively detected by each detection element, provided outside of the shield body (10, 60, 110); and a relay substrate configured to go through at least one slit of the slit unit and to connect each detection element with the signal processing substrate, characterized in that the signal processing substrate is provided outside of the shield body (10, 60, 110) and in the back surface of the slit unit and has a dimension larger than a width of the slit in the slit unit in a direction of the width of the slit, so as to shield each slit with the signal processing substrate against a gamma ray.
A rotor vane for a turbine engine, comprising a body locally defining a blade provided at the radially outer end with a blade tip (33, 330), and at least one sealing element connected with an area of the blade tip (33, 330) by means of a mechanical link which can move between a rest position and an active position, wherein the sealing element radially protrudes from the blade tip (33, 330), characterised in that the movable mechanical link comprises an articulation.
A method for configuring measurement gap, comprising: determining an aggregation state of component carriers which will be configured for a terminal by a network side; sending, measurement capability information under the aggregation configuration state of component carriers which will be configured for the terminal to the network side, according to the aggregation state of the component carriers which will be configured for the terminal, so that the network side performs measurement gap configuration according to the measurement capability information. determining an aggregation state of component carriers which will be configured for a terminal by a network side; sending, measurement capability information under the aggregation configuration state of component carriers which will be configured for the terminal to the network side, according to the aggregation state of the component carriers which will be configured for the terminal, so that the network side performs measurement gap configuration according to the measurement capability information.
Plastic bottle equipped with a tamper-proof device after its opening, comprising a neck having an external screw thread with the lowest thread, and a circumferential projection under the external screw thread, a cap in plastic, having - a cap skirt with a central symmetry axis (y) and an internal threading corresponding to the external screw thread of the neck, and - a ring nut separable from the cap skirt during a first opening, positioned between the lowest thread of the external screw thread and a circumferential projection in the neck, and provided with a plurality of holes, at least a slide in the cap skirt, characterized in that the cap further comprises a pin designed to connect the ring nut to the cap skirt, the pin being manually slidable in the slide along a sliding direction parallel to the central symmetry axis (y) of the cap, the pin having a weakened section in the direction of its length, an arrow-tip end, and an elongated projection for the manual sliding of the pin in the slide, the pin being suitable to be inserted in one of the plurality of holes intended to receive and retain the arrow-tip end of the pin, said one of the plurality of holes preventing the release of the pin except by breakage of the weakened tract of the pin during the rotation of the cap in an attempt of opening the bottle. a neck having an external screw thread with the lowest thread, and a circumferential projection under the external screw thread, a cap in plastic, having - a cap skirt with a central symmetry axis (y) and an internal threading corresponding to the external screw thread of the neck, and - a ring nut separable from the cap skirt during a first opening, positioned between the lowest thread of the external screw thread and a circumferential projection in the neck, and provided with a plurality of holes, - a cap skirt with a central symmetry axis (y) and an internal threading corresponding to the external screw thread of the neck, and - a ring nut separable from the cap skirt during a first opening, positioned between the lowest thread of the external screw thread and a circumferential projection in the neck, and provided with a plurality of holes, at least a slide in the cap skirt, characterized in that the cap further comprises a pin designed to connect the ring nut to the cap skirt, the pin being manually slidable in the slide along a sliding direction parallel to the central symmetry axis (y) of the cap, the pin having a weakened section in the direction of its length, an arrow-tip end, and an elongated projection for the manual sliding of the pin in the slide, the pin being suitable to be inserted in one of the plurality of holes intended to receive and retain the arrow-tip end of the pin, said one of the plurality of holes preventing the release of the pin except by breakage of the weakened tract of the pin during the rotation of the cap in an attempt of opening the bottle.
A gas turbine engine comprising: a fan rotor (85;306); a lower speed compressor rotor (90;302) and a higher speed compressor rotor, and a lower speed turbine rotor and a higher speed turbine rotor, said lower speed turbine rotor rotating said lower speed compressor rotor (90;302), and rotating a gear reduction (88;304) to, in turn, rotate said fan rotor (85;306), and said higher speed turbine rotor rotating said higher speed compressor rotor; and a generator (102;106;309) driven to rotate with one of said lower speed turbine rotor and said fan rotor; characterised in that said generator is located in a nose cone, and wherein heat generated by said generator in use provides an anti-icing feature for said nose cone. a fan rotor (85;306); a lower speed compressor rotor (90;302) and a higher speed compressor rotor, and a lower speed turbine rotor and a higher speed turbine rotor, said lower speed turbine rotor rotating said lower speed compressor rotor (90;302), and rotating a gear reduction (88;304) to, in turn, rotate said fan rotor (85;306), and said higher speed turbine rotor rotating said higher speed compressor rotor; and a generator (102;106;309) driven to rotate with one of said lower speed turbine rotor and said fan rotor; characterised in that said generator is located in a nose cone, and wherein heat generated by said generator in use provides an anti-icing feature for said nose cone.
A filtering apparatus for filtering an ultrasound signal, the ultrasound signal being influenced by an electrical unit and comprising a first part comprising information about an object from which the ultrasound signal has been received and a second part not comprising information about the object, characterized in that the filtering apparatus comprises: - a fundamental frequency providing unit configured to provide a fundamental frequency of the influence by the electrical unit on the ultrasound signal, determined by cross correlating two consecutive sub-parts of the second part of the ultrasound signal, - a correction signal determination unit configured to determine a correction signal based on the fundamental frequency, - a correction unit configured to correct the first part of the ultrasound signal based on the determined correction signal for filtering the influence of the electrical unit out of the ultrasound signal. - a fundamental frequency providing unit configured to provide a fundamental frequency of the influence by the electrical unit on the ultrasound signal, determined by cross correlating two consecutive sub-parts of the second part of the ultrasound signal, - a correction signal determination unit configured to determine a correction signal based on the fundamental frequency, - a correction unit configured to correct the first part of the ultrasound signal based on the determined correction signal for filtering the influence of the electrical unit out of the ultrasound signal.
Device for the secure transmission of data between a mobile participant that has at least one transmission device and a stationary receiver, wherein the mobile participant is able to switch between a plurality of radio cells (Cell 1, Cell 2, Cell 3) and each radio cell (Cell 1, Cell 2, Cell 3) has at least one transmission device (AP1, AP2, AP3), wherein the at least one transmission device (AP1 to AP3) of each radio cell is furthermore connected in a wired manner to at least one network (LAN A, LAN B), wherein the stationary receiver is likewise connected in a wired manner to the at least one network (LAN A, LAN B), and the device is designed such that both the wireless transmission between the mobile participant and its respectively associated transmission device (AP1 to AP3) of the radio cell and the wired transmission of data between the transmission device (AP1 to AP3) of the radio cell and the at least one associated network (LAN A, LAN B) takes place redundantly, and the stationary receiver is redundantly connected in a wired manner to the network (LAN A, LAN B).
A trailer arranged for loading and transporting a load such as an intermodal container, wherein said trailer comprises: - a front end arrangement arranged for coupling said trailer to a towing vehicle for towing said trailer and arranged for supporting a part said load; - a rear end arrangement arranged for supporting another part of said load at a side of said load facing away from said front end arrangement and comprising wheels for supporting said rear end arrangement on a ground surface; - a loading arrangement arranged for loading said load onto said trailer in a loading direction that is transverse to a towing direction of said trailer; - a frame connecting said front end arrangement to said rear end arrangement; characterized in that the trailer comprises: - a height adjustment arrangement arranged for varying a height (h) of said frame above said ground surface, wherein said height adjustment arrangement is arranged for moving said frame between a first height position wherein said frame is resting on said ground surface for said loading of said load onto said trailer and a second height position wherein said frame is in a raised position for said transporting, by said trailer, of said load. - a front end arrangement arranged for coupling said trailer to a towing vehicle for towing said trailer and arranged for supporting a part said load; - a rear end arrangement arranged for supporting another part of said load at a side of said load facing away from said front end arrangement and comprising wheels for supporting said rear end arrangement on a ground surface; - a loading arrangement arranged for loading said load onto said trailer in a loading direction that is transverse to a towing direction of said trailer; - a frame connecting said front end arrangement to said rear end arrangement; - a height adjustment arrangement arranged for varying a height (h) of said frame above said ground surface, wherein said height adjustment arrangement is arranged for moving said frame between a first height position wherein said frame is resting on said ground surface for said loading of said load onto said trailer and a second height position wherein said frame is in a raised position for said transporting, by said trailer, of said load.
A method of producing a heat transfer tube with a tube body having a composition consisting of: 0.3 mass% or more and less than 0.8 mass% of Mn; more than 0.1 mass% and less than 0.32 mass% of Si; 0.3 mass% or less of Fe; 0.06 mass% or more and 0.3 mass% or less of Ti; 0.05 mass% or less of Cu, less than 0.05 mass% of Mg, and less than 0.03 mass% of Cr; and Al balance including inevitable impurities, a ratio of a Mn content to a Si content, Mn%/Si%, exceeding 2.5; and a Zn-containing layer provided to an outer surface of the tube body, the method comprising the step of performing a homogenization treatment in which an ingot of the aluminum alloy having the composition is kept at a temperature of 450-650°C for 2-24 hours after being casted, wherein a heating rate from a room temperature to 450°C is 50-180°C/h; a heating rate from 450°C to a temperature of the homogenization treatment is 10-80°C/h; and a cooling rate from the temperature of the homogenization treatment to 200°C is 50-400°C/h, in the homogenization treatment, 3000/mm2 or less of intermetallic compound precipitates whose size is 1.0 μm or more in a circle equivalent diameter are precipitated in the heat transfer tube after a brazing heat treatment or a Zn diffusing treatment of the heat transfer tube, and the brazing heat treatment or the Zn diffusing treatment is performed on the heat transfer tube at 610°C or lower.