mhurhangee/ep-ind-claims huggingface dataset:
A kit containing a pharmaceutical medicament, said kit comprising: a) In a first unit form, a composition comprising 1.0 mg/mL of recombinant Factor VIIa, 2.34 mg/mL of sodium chloride, 1.47 mg/mL of calcium chloride, 2H 2 O, 0.07 mg/mL of polysorbate 80, 0.5 mg/mL of methionine, 25 mg/mL of mannitol, 10 mg/mL of sucrose, wherein the composition has a moisture content of not more than 3%; and container means for containing said first unit form; and, b) in a second unit form, an administration vehicle comprising from 0.5 mg/mL to 3 mg/mL of L-histidine suitable for keeping the pH of said composition at pH 6.0 when dissolved in aqueous solvent; and container means for containing said second unit form. a) In a first unit form, a composition comprising 1.0 mg/mL of recombinant Factor VIIa, 2.34 mg/mL of sodium chloride, 1.47 mg/mL of calcium chloride, 2H 2 O, 0.07 mg/mL of polysorbate 80, 0.5 mg/mL of methionine, 25 mg/mL of mannitol, 10 mg/mL of sucrose, wherein the composition has a moisture content of not more than 3%; and container means for containing said first unit form; and, 1.0 mg/mL of recombinant Factor VIIa, 2.34 mg/mL of sodium chloride, 1.47 mg/mL of calcium chloride, 2H 2 O, 0.07 mg/mL of polysorbate 80, 0.5 mg/mL of methionine, 25 mg/mL of mannitol, 10 mg/mL of sucrose, b) in a second unit form, an administration vehicle comprising from 0.5 mg/mL to 3 mg/mL of L-histidine suitable for keeping the pH of said composition at pH 6.0 when dissolved in aqueous solvent; and container means for containing said second unit form.
Signal processing apparatus (30, 40, 50) for generating a range-Doppler map, the apparatus comprising: a two-dimensional fast Fourier transform compute unit for computing a range-Doppler map, the range-Doppler map including a plurality of points, each point having a range value and a Doppler speed value; and a first memory for storing a first range-Doppler map output by the two-dimensional FFT unit; characterised in that the apparatus further comprises: a first warping unit for applying a shift in range to each point in the stored range-Doppler map; and a first integrator for adding a current range-Doppler map, output by the two-dimensional FFT compute unit, and a shifted version of a previous range-Doppler map output by the first warping unit; wherein the shift in range is proportional to the period of time between the current range-Doppler map and to the stored range-Doppler map and the Doppler speed of each point. a two-dimensional fast Fourier transform compute unit for computing a range-Doppler map, the range-Doppler map including a plurality of points, each point having a range value and a Doppler speed value; and a first memory for storing a first range-Doppler map output by the two-dimensional FFT unit; a first warping unit for applying a shift in range to each point in the stored range-Doppler map; and a first integrator for adding a current range-Doppler map, output by the two-dimensional FFT compute unit, and a shifted version of a previous range-Doppler map output by the first warping unit; wherein the shift in range is proportional to the period of time between the current range-Doppler map and to the stored range-Doppler map and the Doppler speed of each point.
Delivery device for dosing an operating/auxiliary medium into an exhaust tract of an internal combustion engine, having a valve assembly (22, 76) which has an intake-side valve and has a pressure-side valve, which valves have respective spring-loaded pistons. (84, 94), wherein the pistons (84, 94) have respective flexible sealing lips and delimit an element space (98, 100) which is able to be subjected to pressure by a delivery diaphragm and through which the operating/auxiliary medium is delivered, characterized in that the sealing lips, on valve plates (120, 122) of the pistons (84, 94), surround a roughened region.
A hollow barrier segment which is fillable with a ballasting material for use in assembling an array of hollow barrier segments attached end-to-end to form a barrier wall, the barrier segment comprising: a molded plastic container having outer walls defining an interior volume and having a first end and a second end; a plurality of connecting lugs disposed on each of said first and second ends, so that a plurality of barrier segments may be joined together end-to-end; the outer walls comprising side walls which extend beyond each of the first and second ends, to form a recess between the extended side walls on each of the first and second ends; the hollow barrier segment characterized in that there is a hand access opening disposed on a lower end of each extended side wall, for permitting access to a pin securing the connecting lugs, with the extended side walls of adjoining hollow barrier segments being in flush contact, wherein the connecting lugs each have a length, at least one-third of the length of each connecting lug being disposed between the extended side walls within the recess on either the first or the second end, so that no more than two-thirds of the length of each lug extends beyond the extended side walls of the barrier segment. a molded plastic container having outer walls defining an interior volume and having a first end and a second end; a plurality of connecting lugs disposed on each of said first and second ends, so that a plurality of barrier segments may be joined together end-to-end; the outer walls comprising side walls which extend beyond each of the first and second ends, to form a recess between the extended side walls on each of the first and second ends; the hollow barrier segment characterized in that there is a hand access opening disposed on a lower end of each extended side wall, for permitting access to a pin securing the connecting lugs, with the extended side walls of adjoining hollow barrier segments being in flush contact, wherein the connecting lugs each have a length, at least one-third of the length of each connecting lug being disposed between the extended side walls within the recess on either the first or the second end, so that no more than two-thirds of the length of each lug extends beyond the extended side walls of the barrier segment.
A cured product of a resin composition comprising: at least one compound selected from an acrylate compound and a methacrylate compound; and a compound having at least one thiol group, wherein a content of the compound having at least one thiol group in the cured product is 30 mass% or less, with respect to the entirety of the resin composition, and wherein the cured product has a secondary dispersion characteristic θ g,F of 0.65 or more, and wherein the secondary dispersion characteristic θ g,F is defined by: θ g,F = n g − nF / nF − nC with nF representing a refractive index at a wavelength of 486.1 nm, nC representing a refractive index at a wavelength of 656.3 nm, and n g representing a refractive index at a wavelength of 435.8 nm, and can be measured as described in the part " Measurement of Refractive Indices and Secondary Dispersion Characteristic (θ g,F)" of the description. at least one compound selected from an acrylate compound and a methacrylate compound; and a compound having at least one thiol group, wherein a content of the compound having at least one thiol group in the cured product is 30 mass% or less, with respect to the entirety of the resin composition, and wherein the cured product has a secondary dispersion characteristic θ g,F of 0.65 or more, and wherein the secondary dispersion characteristic θ g,F is defined by: θ g,F = n g − nF / nF − nC with nF representing a refractive index at a wavelength of 486.1 nm, nC representing a refractive index at a wavelength of 656.3 nm, and n g representing a refractive index at a wavelength of 435.8 nm, and can be measured as described in the part " Measurement of Refractive Indices and Secondary Dispersion Characteristic (θ g,F)" of the description.
A method for producing an inorganic compound represented by the following formula: M1 a M2 b AlSiX 3 where M1 represents an activation element containing at least Eu, M2 represents one or more selected from alkaline-earth metal elements, X represents one or more selected from the group consisting of O and N, and a and b each represent a positive number satisfying the inequalities 0 < a ≤ 0.1 and 0.8 ≤ a + b ≤ 1, the method comprising firing a feedstock prepared by mixing compounds serving as sources of Al, Si, the element represented by M1, and the element represented by M2, wherein the amount of Si in the feedstock is greater than one mole and less than 1.14 moles per mole of Al, wherein a source of the element represented by M1 is a halide.
A stabilization system comprising: a bone plate having an upper surface and a lower surface configured to be in contact with bone, the bone plate having an opening extending from the upper surface to the lower surface, the opening including a textured portion and non-textured portion, wherein the textured portion comprises a texture that is a non-threaded surface, wherein the textured portion includes a knurled cut design including a plurality of shallow knurled grooves set in a diamond pattern where each cut overlaps the next, and wherein the lower surface includes a one or more perimeter reliefs extending along a perimeter of the lower surface; and a fastener (30, 40) configured to be received by the opening and configured to be inserted into the bone, wherein the opening is configured to receive either a locking fastener or a compression fastener and wherein the opening is shaped such that the locking fastener may be inserted at different angles, the locking fastener having a threaded head portion configured to engage the textured portion and lock to the bone plate, and the compression fastener having a substantially smooth head portion configured to dynamically compress the bone. a bone plate having an upper surface and a lower surface configured to be in contact with bone, the bone plate having an opening extending from the upper surface to the lower surface, the opening including a textured portion and non-textured portion, wherein the textured portion comprises a texture that is a non-threaded surface, wherein the textured portion includes a knurled cut design including a plurality of shallow knurled grooves set in a diamond pattern where each cut overlaps the next, and wherein the lower surface includes a one or more perimeter reliefs extending along a perimeter of the lower surface; and a fastener (30, 40) configured to be received by the opening and configured to be inserted into the bone, wherein the opening is configured to receive either a locking fastener or a compression fastener and wherein the opening is shaped such that the locking fastener may be inserted at different angles, the locking fastener having a threaded head portion configured to engage the textured portion and lock to the bone plate, and the compression fastener having a substantially smooth head portion configured to dynamically compress the bone.
An image forming apparatus comprising: an image forming portion for forming an image on a recording material; and a fixing portion including a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein the image forming apparatus includes a temperature sensing circuit to which the temperature sensing element is electrically connected, a surface of the heater on a side where the temperature sensing element is provided is in contact with an inner surface of the film, the heating element is provided in a primary side circuit which is electrically connected to a commercial power supply, characterised in that the temperature sensing circuit is electrically insulated from both of the primary side circuit and a secondary side circuit which is electrically insulated from the primary side circuit. an image forming portion for forming an image on a recording material; and a fixing portion including a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein a tubular film and a heater including a substrate, a heating element provided on the substrate, and a temperature sensing element (T1, T2, T3) provided on a surface of the substrate opposite to a surface on which the heating element is provided, wherein the fixing portion fixes the image formed on the recording material to the recording material with heat from the heater which is controlled according to a sensed temperature by the temperature sensing element, wherein the image forming apparatus includes a temperature sensing circuit to which the temperature sensing element is electrically connected, a surface of the heater on a side where the temperature sensing element is provided is in contact with an inner surface of the film, the heating element is provided in a primary side circuit which is electrically connected to a commercial power supply, characterised in that the temperature sensing circuit is electrically insulated from both of the primary side circuit and a secondary side circuit which is electrically insulated from the primary side circuit.
A method for transmitting and receiving, by a terminal, a signal for location estimation in a wireless communication system, the method comprising: receiving a downlink, DL, positioning reference signal, PRS, from each of a serving base station and reference base stations; measuring a phase difference between sinusoidal components included in the DL PRS for each of the serving base station and the reference base stations; generating an uplink, UL, PRS based on the measured phase differences; and transmitting the UL PRS to the serving base station, wherein the terminal reports the phase difference measured for the serving base station and the phase differences measured for the reference base stations to the serving base station through the transmitting of the UL PRS. receiving a downlink, DL, positioning reference signal, PRS, from each of a serving base station and reference base stations; measuring a phase difference between sinusoidal components included in the DL PRS for each of the serving base station and the reference base stations; generating an uplink, UL, PRS based on the measured phase differences; and transmitting the UL PRS to the serving base station, wherein the terminal reports the phase difference measured for the serving base station and the phase differences measured for the reference base stations to the serving base station through the transmitting of the UL PRS.
A method for transmitting a long distance communication on a telecommunications network, the method comprising: receiving a long distance communication originating from a communication device (218, 220) associated with the telecommunications network; detecting a plurality of regionally independent tandem switches (204, 206) communicably connected to the telecommunications network, the plurality of regionally independent tandem switches (204, 206) associated with a voice over IP network and configured to receive and process long distance communications transmitted on the voice over IP network; receiving a status message from at least one of the plurality of regionally independent tandem switches (204, 206), the status message including operational information about the at least one of the plurality of regionally independent tandem switches (204, 206); selecting at least one of the plurality of regionally independent tandem switches (204, 206) to route the long distance communication based on a status of the tandem switches (204, 206), the regionally independent switches configured to route calls to a plurality of regions; and transmitting the long distance communication to the selected at least one of the plurality of regionally independent tandem switches (204, 206). receiving a long distance communication originating from a communication device (218, 220) associated with the telecommunications network; detecting a plurality of regionally independent tandem switches (204, 206) communicably connected to the telecommunications network, the plurality of regionally independent tandem switches (204, 206) associated with a voice over IP network and configured to receive and process long distance communications transmitted on the voice over IP network; receiving a status message from at least one of the plurality of regionally independent tandem switches (204, 206), the status message including operational information about the at least one of the plurality of regionally independent tandem switches (204, 206); selecting at least one of the plurality of regionally independent tandem switches (204, 206) to route the long distance communication based on a status of the tandem switches (204, 206), the regionally independent switches configured to route calls to a plurality of regions; and transmitting the long distance communication to the selected at least one of the plurality of regionally independent tandem switches (204, 206).
A transmission apparatus comprising: a communication unit configured to transmit a transmission signal from the transmission apparatus to a reception apparatus via wireless communication; and a signal processing unit configured to generate the transmission signal in which transmission information of a sensor is spread by using a spreading code selected according to identification information of the transmission apparatus, in order to enable the reception apparatus to acquire the identification information on the basis of an estimation result of the spreading code used for the transmission signal, wherein the signal processing unit is configured to generate the transmission signal by dividing the transmission information into transmission information pieces to be stored in the fields of a wireless frame of the transmission signal, said wireless frame including a preamble field, a Sync Frame Detect, SFD, field and a sensor information field and said transmission information pieces including a preamble, a SFD and sensor information, dividing the identification information into identification information pieces based on the number of transmission information pieces of the transmission information, selecting a spreading code for each identification information piece of the divided identification information, spreading each of the preamble, the SFD and the sensor information of the divided transmission information by using the selected spreading codes, and combining the spread transmission information pieces of the divided transmission information. a communication unit configured to transmit a transmission signal from the transmission apparatus to a reception apparatus via wireless communication; and a signal processing unit configured to generate the transmission signal in which transmission information of a sensor is spread by using a spreading code selected according to identification information of the transmission apparatus, in order to enable the reception apparatus to acquire the identification information on the basis of an estimation result of the spreading code used for the transmission signal, wherein the signal processing unit is configured to generate the transmission signal by dividing the transmission information into transmission information pieces to be stored in the fields of a wireless frame of the transmission signal, said wireless frame including a preamble field, a Sync Frame Detect, SFD, field and a sensor information field and said transmission information pieces including a preamble, a SFD and sensor information, dividing the identification information into identification information pieces based on the number of transmission information pieces of the transmission information, selecting a spreading code for each identification information piece of the divided identification information, spreading each of the preamble, the SFD and the sensor information of the divided transmission information by using the selected spreading codes, and combining the spread transmission information pieces of the divided transmission information.
Heat exchanger in which circulates a heat-transfer fluid, this exchanger comprising at least one three-dimensional structure (2 to 7) defining exchange surfaces with said fluid and triangular shaped channels (C, c) for the passage of said fluid, wherein at least one of said channels, extending in a first direction, presents a non-constant section in this direction and according to the thickness of the exchanger, to create turbulences in the flow of said fluid, characterised in that said at least one three-dimensional structure (2 to 6) comprises at least two three-dimensional elements (21, 22; 31, 32; 41, 42; 51, 52; 61, 62; 71, 72), each of them defining adjacent protruding parts (211, 221; 311, 321; 411, 421; 511, 521; 611, 621; 711, 721) extending according to a second determined direction and according to a period P, each protruding part being defined by two plane parts forming a non-nil angle γ and connected by an edge, said at least two elements being located in the same plane and offset with respect to one another according to said second direction.
A wireless communication system, comprising: two or more subsystems, each of the two or more subsystems including a master and two or more slaves, the master being configured to define a super frame for wireless communication in conformity with a time division multiple access scheme, the super frame including three or more frames including one head frame and two or more subsequent frames, each of the three or more frames including three or more time slots including one first time slot allocated to the master, and two or more second time slots individually allocated to the two or more slaves, the master being configured to send a wireless signal at the first time slot and to wait for a wireless signal at the two or more second time slots, each of the two or more slaves being configured to send a wireless signal at an allocated second time slot of the two or more second time slots, the master being configured to send a synchronization signal at the first time slot of the head frame, each of the two or more slaves being configured to, when receiving the synchronization signal, send a response signal at the allocated second time slot of the head frame, the master being configured to, when failing to receive the response signal from at least one of the two or more slaves, perform a change process to change the super frame from a current super frame to a new super frame, and the master being configured to, in the change process, define the new super frame such that the position of the head frame of the new super frame coincides with the position of a reference frame selected from the two or more subsequent frames of the current super frame.