mhurhangee/ep-ind-claims huggingface dataset:
A resin impregnation measurement device comprising: a jig configured to be disposed between a skin and a stringer, the stringer including coupling portions coupled to the skin and a protrusion that protrudes away from the skin, the jig being formed into an inner surface shape of the protrusion, the jig comprising outer surfaces comprising a first facing surface that is to face an inner surface of the protrusion and a second facing surface that is to face the skin, and a resin impregnation sensor disposed on the first facing surface or the second facing surface of the jig. a jig configured to be disposed between a skin and a stringer, the stringer including coupling portions coupled to the skin and a protrusion that protrudes away from the skin, the jig being formed into an inner surface shape of the protrusion, the jig comprising outer surfaces comprising a first facing surface that is to face an inner surface of the protrusion and a second facing surface that is to face the skin, and a resin impregnation sensor disposed on the first facing surface or the second facing surface of the jig.
A piezoelectric/electrostrictive ceramic composition with the composition represented by the general formula: x(Bi 1/2 Na 1/2)TiO 3 -y(Bi 1/2 K 1/2)TiO 3 -zBaTiO 3 (x + y + z = 1) wherein at least one kind among Bi, Na and K as A-site elements is allowed to become deficient from stoichiometry in which a point (x, y, z) representing content ratios x, y and z of (Bi 1/2 Na 1/2)TiO 3, (Bi 1/2 K 1/2)TiO 3 and BaTiO 3 is within a range, also including a border line, of a quadrangle ABCD with a point A (x = 0.93, y = 0, z = 0.07), a point B (x = 0.86, y = 0, z = 0.14), a point C (x = 0.74, y = 0.20, z = 0.06) and a point D (x = 0.80, y = 0.20, z = 0.00) as vertices in a ternary phase diagram, and thus a stoichiometrically deficient amount of the A-site elements is adjusted to at least 2 mol% to at most 6 mol%, wherein the ceramic has the composition: (Bi 0.5x+0.5y-p Na 0.5x-q K 0.5y-r Ba z)TiO 3-δ where: x + y + z = 1 0.02 ≤ p + q + r ≤ 0.06 0 ≤ p 0 ≤ q 0 ≤ r.
A receiver for receiving signals from plural frequency bands and plural communication protocols, comprising: modular radio frequency ("RF") circuitry having at least one separate and selectable RF path (301, 302, 303), said RF path having a predetermined frequency band; intermediate frequency ("IF") circuitry having at least one separate and selectable synthesizing path (320, 321, 322), said synthesizing path corresponding to a selectable RF path, said IF circuitry producing one or more common IF signals; a converter for digitizing said one or more common IF signals; and common digital circuitry for receiving and processing said digitized IF signals, wherein components of said selectable RF and synthesizing paths are field-configurable as a function of said plural communication protocols and configured to search for signals of plural communication protocols simultaneously and the common digital circuitry is configured to determine the type of received signal utilizing modulation recognition and envelope recognition. modular radio frequency ("RF") circuitry having at least one separate and selectable RF path (301, 302, 303), said RF path having a predetermined frequency band; intermediate frequency ("IF") circuitry having at least one separate and selectable synthesizing path (320, 321, 322), said synthesizing path corresponding to a selectable RF path, said IF circuitry producing one or more common IF signals; a converter for digitizing said one or more common IF signals; and common digital circuitry for receiving and processing said digitized IF signals, wherein components of said selectable RF and synthesizing paths are field-configurable as a function of said plural communication protocols and configured to search for signals of plural communication protocols simultaneously and the common digital circuitry is configured to determine the type of received signal utilizing modulation recognition and envelope recognition.
An infusion pump automation system comprising: an infusion pump having an infusion pump user interface and associated infusion pump infusion state and infusion pump user interface state; a remote processor that is remote to the infusion pump comprising a controller interface and a controller coupled with the controller interface, wherein said controller is configured to bidirectionally communicate with the infusion pump, determine a current infusion state of the infusion pump derived from a current infusion pump user interface state, wherein the current infusion state is obtained via translation of the infusion pump user interface into data for transmission to the controller, accept a command to change the infusion state of the infusion pump, determine if the command to change the infusion state of the infusion pump is consistent with the current infusion state of the infusion pump and consistent with the current infusion pump user interface state, execute the command to change the infusion state of the infusion pump if the command to change the infusion state of the infusion pump is able to be successfully executed based on the command, the current infusion state of the infusion pump and the current infusion pump user interface state, and, confirm that the command is successfully executed. an infusion pump having an infusion pump user interface and associated infusion pump infusion state and infusion pump user interface state; a remote processor that is remote to the infusion pump comprising a controller interface and a controller coupled with the controller interface, wherein said controller is configured to bidirectionally communicate with the infusion pump, determine a current infusion state of the infusion pump derived from a current infusion pump user interface state, wherein the current infusion state is obtained via translation of the infusion pump user interface into data for transmission to the controller, accept a command to change the infusion state of the infusion pump, determine if the command to change the infusion state of the infusion pump is consistent with the current infusion state of the infusion pump and consistent with the current infusion pump user interface state, execute the command to change the infusion state of the infusion pump if the command to change the infusion state of the infusion pump is able to be successfully executed based on the command, the current infusion state of the infusion pump and the current infusion pump user interface state, and, confirm that the command is successfully executed.
A method for recovering gaseous dimethyl diselenide and dimethyl selenide comprising - culturing Pseudomonas stutzeri NT-I (Accession No. NITE BP-685) serving as a microorganism capable of producing gaseous selenium through reduction of a water-soluble selenium compound in the presence of an aqueous solution containing a water-soluble selenium compound at a temperature of 35°C to 40°C and at pH 7.0 to 9.4 under aeration conditions of 1L/minute to 5L/minute and stirring conditions of a stirring rate of 250 rpm or less, and - recovering the produced gaseous methylated selenium by bubbling the gaseous selenium into concentrated nitric acid or by activated carbon adsorption. - culturing Pseudomonas stutzeri NT-I (Accession No. NITE BP-685) serving as a microorganism capable of producing gaseous selenium through reduction of a water-soluble selenium compound in the presence of an aqueous solution containing a water-soluble selenium compound at a temperature of 35°C to 40°C and at pH 7.0 to 9.4 under aeration conditions of 1L/minute to 5L/minute and stirring conditions of a stirring rate of 250 rpm or less, and - recovering the produced gaseous methylated selenium by bubbling the gaseous selenium into concentrated nitric acid or by activated carbon adsorption.
A medical, in particular dental, device (1A, 1B) with a connecting end that can be releasably connected to a fluid source, with a fluid-operated dynamoelectric converter, and with a receptacle (27, 48) for the dynamoelectric converter, wherein the fluid-operated dynamoelectric converter comprises: a rotor having an impeller that can be put into rotation by a fluid and at least one magnetic element which is connected to the impeller, so that the magnetic element can also be put into rotation by the rotatable impeller, a stator with an electric winding which cooperates with the rotatable magnetic element, so that electricity can be generated in the electric winding, a sleeve, which surrounds at least parts of the rotor and/or of the stator, and a fluid line which is designed in one piece with the sleeve of the dynamoelectric converter and which protrudes at least at its end which faces away from the dynamoelectric converter beyond the connecting end of the medical, in particular dental, device (1A, 1B), wherein the dynamoelectric converter with the fluid line which is designed in one piece with the sleeve can be inserted into the receptacle (27, 48) of the medical, in particular dental, device (1A, 1B) by displacement or plugging it in, characterized by at least one groove, preferably ring-shaped or arc-shaped, which is provided on the outside of the sleeve of the dynamoelectric converter and which is connected to the fluid line which is designed in one piece with the sleeve of the dynamoelectric converter, so that a fluid that can be conducted in the fluid line can be conducted further in the groove.
A multi-inlet gas distributor for a fluidized bed chemical vapor deposition chamber, comprising: a distributor body having an inlet surface, an exit surface opposed to the inlet surface, and a side perimeter surface extending between and connecting the inlet surface to the exit surface; multiple-inlets evenly spaced from each other, wherein the multiple-inlets penetrate the distributor body from the inlet surface to a first depth; and cone-shaped apertures connecting to corresponding ones of the multiple-inlets at the first depth and extend from the first depth toward the exit surface, wherein an apex is formed on the exit surface at an intersection of the cone-shaped apertures, and a saddle is formed with an arch-shaped edge along the exit surface at an intersection of at least one of the cone-shaped apertures with the side perimeter surface. a distributor body having an inlet surface, an exit surface opposed to the inlet surface, and a side perimeter surface extending between and connecting the inlet surface to the exit surface; multiple-inlets evenly spaced from each other, wherein the multiple-inlets penetrate the distributor body from the inlet surface to a first depth; and cone-shaped apertures connecting to corresponding ones of the multiple-inlets at the first depth and extend from the first depth toward the exit surface, wherein an apex is formed on the exit surface at an intersection of the cone-shaped apertures, and a saddle is formed with an arch-shaped edge along the exit surface at an intersection of at least one of the cone-shaped apertures with the side perimeter surface.
Method of manufacturing an ink-jet printhead comprising: - providing a silicon substrate including active ejecting elements; - providing a hydraulic structure layer for defining hydraulic circuits configured to enable a guided flow of ink; - providing a silicon orifice plate having a plurality of nozzles for ejection of the ink; - assembling the silicon substrate with the hydraulic structure layer and the silicon orifice plate; wherein providing the silicon orifice plate comprises: - providing a silicon wafer having a planar extension delimited by a first surface and a second surface on opposite sides of the silicon wafer; - performing a thinning step at the second surface so as to remove from the second surface a central portion having a preset height, the silicon wafer being formed, following the thinning step, by a base portion having a planar extension and a peripheral portion extending from the base portion, transversally with respect to the planar extension of the base portion; - forming in the silicon wafer a plurality of through holes, each defining a respective nozzle for ejection of the ink, wherein the silicon wafer is a silicon-on-insulator wafer, wherein the silicon-on-insulator wafer comprises a silicon device layer adjacent to the first surface, a silicon handle layer adjacent to the second surface and an insulator layer in-between. - providing a silicon substrate including active ejecting elements; - providing a hydraulic structure layer for defining hydraulic circuits configured to enable a guided flow of ink; - providing a silicon orifice plate having a plurality of nozzles for ejection of the ink; - assembling the silicon substrate with the hydraulic structure layer and the silicon orifice plate; - providing a silicon wafer having a planar extension delimited by a first surface and a second surface on opposite sides of the silicon wafer; - performing a thinning step at the second surface so as to remove from the second surface a central portion having a preset height, the silicon wafer being formed, following the thinning step, by a base portion having a planar extension and a peripheral portion extending from the base portion, transversally with respect to the planar extension of the base portion; - forming in the silicon wafer a plurality of through holes, each defining a respective nozzle for ejection of the ink,
A nanoparticle comprising an amount of at least one antigen and an amount of at least one antibody having specificity for the framework region of a kappa BCR light chain wherein the antigen and antibody are attached by biotinylation to the surface of the nanoparticle and wherein said antibody and said antigen are monobiotinylated.
A heat-producing fixing belt of a cylindrical shape comprising a heat-producing layer (24a3), an elastic layer (24a5), and a releasing layer (24a7) in this sequential order from the inner side, wherein: the heat-producing layer (24a3) contains a polyimide resin (24a32), and a pair of electrodes (24a1, 24a2) to supply power to the heat-producing layer (24a3) are provided on both ends of the cylindrical shape, characterized in that the heat-producing layer (24a3) further contains fabric (24a31) containing carbon fiber, the pair of electrodes(24a1, 24a2) makes contact with the fabric (24a31) containing carbon fiber, the size of the carbon fiber being 66 tex to 800 tex and the fabric (24a31) containing carbon fiber being textile having a warp density and a woof density of 7.5 yarns/25 mm to 22.5 yarns/25 mm. the heat-producing layer (24a3) contains a polyimide resin (24a32), and a pair of electrodes (24a1, 24a2) to supply power to the heat-producing layer (24a3) are provided on both ends of the cylindrical shape, characterized in that the heat-producing layer (24a3) further contains fabric (24a31) containing carbon fiber, the pair of electrodes(24a1, 24a2) makes contact with the fabric (24a31) containing carbon fiber, the size of the carbon fiber being 66 tex to 800 tex and the fabric (24a31) containing carbon fiber being textile having a warp density and a woof density of 7.5 yarns/25 mm to 22.5 yarns/25 mm.
A combustion system comprising: a combustor dome including a plurality of circumferentially spaced apart nozzles; a plurality of tiles mounted to the combustor dome to fluidly separate a downstream side of the combustor dome from an upstream side of the combustor dome; and wherein each tile is confined axially with the combustor dome, and wherein the tiles are confined axially by an outer bayonet ring proximate a radially outer perimeter defined by the tiles, and by an inner bayonet ring proximate a radially inner perimeter defined by the tiles, wherein each of the bayonet rings (162, 164) is interlocked with bayonet features in respective inner and outer rings of the combustor dome.
Reproduction apparatus comprising a print unit comprising print elements for ejecting drops of marking material on a plurality of sheets, the print unit having two ends in a first direction perpendicular to a transport direction of the plurality of sheets, transport means for transporting the plurality of sheets towards the print unit in the transport direction, displacing means for displacing the sheets in the first direction, and control means for controlling the print unit, the transport means and the displacing means, characterized in that the displacing means is configured to displace the sheets in the first direction before arriving at the print unit towards such a position that at least one sheet aligns with one of the ends of the print unit and at least one sheet aligns with the other end of the print unit.
A method for deterring theft of a vehicle having a three-phase electric motor without a freewheel function, comprising the following steps in a vehicle anti-theft mode: when a motion of the vehicle is detected, triggering a braking by connecting by a control circuit first and second phases (b, c) of the three-phase motor continuously to a first supply line (Vss), whereby the first and second phases are short-circuited and cause an increased braking force of the motor; the method comprising the following steps: an initial step of removing a removable battery from the vehicle, whereby the control circuit is powered only by the rotation of the motor; using the motor in a generator mode to supply power to the control circuit in an initial phase of motor rotation caused by motion of the vehicle; and triggering braking when the power supply level of the control circuit reaches a first threshold (Vmin). when a motion of the vehicle is detected, triggering a braking by connecting by a control circuit first and second phases (b, c) of the three-phase motor continuously to a first supply line (Vss), whereby the first and second phases are short-circuited and cause an increased braking force of the motor; an initial step of removing a removable battery from the vehicle, whereby the control circuit is powered only by the rotation of the motor; using the motor in a generator mode to supply power to the control circuit in an initial phase of motor rotation caused by motion of the vehicle; and triggering braking when the power supply level of the control circuit reaches a first threshold (Vmin).
A fuel cell system comprising a drive motor, a fuel cell that supplies the drive motor with electric power, normal electric power generation means for performing normal electric power generation under a condition that the fuel cell not be warmed up, warm-up electric power generation means for performing warm-up electric power generation with lower electric power generation efficiency than the normal electric power generation to cause a system loss for warming up the fuel cell, and warm-up control means for controlling performance of warm-up electric power generation by the warm-up electric power generation means on a basis of a predetermined index on a necessity to warm up the fuel cell, characterized in that the warm-up control means controls an operation state of the fuel cell during warm-up electric power generation by the warm-up electric power generation means on a basis of a correlation between the system loss required for warm-up of the fuel cell by the warm-up electric power generation means and a warm-up output required for driving of a load including the drive motor during warm-up of the fuel cell, and the warm-up control means adjusts a magnitude of the system loss for the operation state of the fuel cell on a basis of a predetermined difference between an outside air temperature of the fuel cell and a temperature of the fuel cell itself for the operation state of the fuel cell, and controls the operation state of the fuel cell during warm-up electric power generation on a basis of the adjusted system loss and the warm-up output.
A method for adjusting the transmit power utilized by a mobile terminal for uplink transmissions, wherein the mobile terminal is configured with at least a first and a second uplink component carrier, the method comprising the following steps to be performed by the mobile terminal: determining a transmit power required for transmitting a transport block P PUSCH ( i) via a physical uplink shared channel on the first uplink component carrier, and determining a transmit power required for transmitting a random access preamble P PRACH ( i) via a physical random access channel on the second uplink component carrier; reducing (1604, 1605) the determined transmit power for the physical uplink shared channel transmission according to a prioritization between the transmit power for the physical uplink shared channel transmission and the transmit power for the physical random access channel transmission for the case that the maximum transmit power available to the mobile terminal for transmitting on the uplink component carriers within the transmission time interval i is exceeded, transmitting the transport block on the first uplink component carrier and simultaneously the random access preamble on the second uplink component carrier within a transmission time interval i, using the respective transmit powers. determining a transmit power required for transmitting a transport block P PUSCH ( i) via a physical uplink shared channel on the first uplink component carrier, and determining a transmit power required for transmitting a random access preamble P PRACH ( i) via a physical random access channel on the second uplink component carrier; reducing (1604, 1605) the determined transmit power for the physical uplink shared channel transmission according to a prioritization between the transmit power for the physical uplink shared channel transmission and the transmit power for the physical random access channel transmission for the case that the maximum transmit power available to the mobile terminal for transmitting on the uplink component carriers within the transmission time interval i is exceeded, transmitting the transport block on the first uplink component carrier and simultaneously the random access preamble on the second uplink component carrier within a transmission time interval i, using the respective transmit powers.