mhurhangee/ep-ind-claims huggingface dataset:
A sample cell for a respired gas sensor, the sample cell comprising: a single-piece injection molded main body defining a gas flow path including (i) an optical sampling bore with opposite inlet and outlet ends, (ii) a gas inlet lumen connected with the inlet end of the optical sampling bore, and (iii) a gas outlet lumen connected with the outlet end of the optical sampling bore, wherein the optical sampling bore defines an optical axis, and the gas inlet lumen and the gas outlet lumen are parallel to each other and are both orthogonal to the optical axis; an inlet optical window attached to the single-piece injection molded main body and covering the inlet end of the optical sampling bore, the inlet optical window being oriented transverse to the optical axis; and an outlet optical window attached to the single-piece injection molded main body and covering the outlet end of the optical sampling bore, the outlet optical window being oriented transverse to the optical axis. a single-piece injection molded main body defining a gas flow path including (i) an optical sampling bore with opposite inlet and outlet ends, (ii) a gas inlet lumen connected with the inlet end of the optical sampling bore, and (iii) a gas outlet lumen connected with the outlet end of the optical sampling bore, wherein the optical sampling bore defines an optical axis, and the gas inlet lumen and the gas outlet lumen are parallel to each other and are both orthogonal to the optical axis; an inlet optical window attached to the single-piece injection molded main body and covering the inlet end of the optical sampling bore, the inlet optical window being oriented transverse to the optical axis; and an outlet optical window attached to the single-piece injection molded main body and covering the outlet end of the optical sampling bore, the outlet optical window being oriented transverse to the optical axis.
A method for wireless communications, comprising: synchronizing clear channel assessment, CCA, slots across a plurality of apparatuses, performing a CCA for an unlicensed spectrum in a current gating interval to determine whether the unlicensed spectrum is available for a transmission in a next transmission interval; and gating OFF the transmission in the unlicensed spectrum for the next transmission interval when the determination is that the unlicensed spectrum is unavailable. synchronizing clear channel assessment, CCA, slots across a plurality of apparatuses, performing a CCA for an unlicensed spectrum in a current gating interval to determine whether the unlicensed spectrum is available for a transmission in a next transmission interval; and gating OFF the transmission in the unlicensed spectrum for the next transmission interval when the determination is that the unlicensed spectrum is unavailable.
A display device, comprising: a touch panel for displaying images; a position detection unit for detecting XY coordinates of two touched positions on the touch panel; a computation unit that when the XY coordinates of the two touched positions have been detected twice, computes differentials of X-direction distances and of Y-direction distances of the two touched positions from a former coordinate detection to a latter coordinate detection; the display device being characterised by a control execution unit that controls a first control subject in accordance with the differential of the X-direction distances computed by the computation unit, and controlling a second control subject in accordance with the differential of the Y-direction distances computed by the computation unit; wherein, the first and second control subjects represent each a control process, and the control execution unit further is adapted to control the first control subject and the second control subject, simultaneously, after the operation of detecting the two touched positions twice; and the first control subject is different from the second control subject. a touch panel for displaying images; a position detection unit for detecting XY coordinates of two touched positions on the touch panel; a computation unit that when the XY coordinates of the two touched positions have been detected twice, computes differentials of X-direction distances and of Y-direction distances of the two touched positions from a former coordinate detection to a latter coordinate detection; the display device being characterised by a control execution unit that controls a first control subject in accordance with the differential of the X-direction distances computed by the computation unit, and controlling a second control subject in accordance with the differential of the Y-direction distances computed by the computation unit; wherein,
Air spring with a rolling lobe, which has at least one bead-shaped plugging edge and one rolling piston, particularly for utility vehicles, with the following features: - the rolling piston is formed as one piece and its inner space is in permanent air exchange with the airspace enclosed by the rolling lobe, - the rolling lobe has a sealing bead with an unstretchable bead core at least at its plugging edge that is to be connected to the rolling piston, - the attachment of the plugging edge with position securing and seal to the rolling piston is disposed on the inner side of the rolling piston edge. - the rolling piston is formed as one piece and its inner space is in permanent air exchange with the airspace enclosed by the rolling lobe, - the rolling lobe has a sealing bead with an unstretchable bead core at least at its plugging edge that is to be connected to the rolling piston, - the attachment of the plugging edge with position securing and seal to the rolling piston is disposed on the inner side of the rolling piston edge.
A method comprising: obtaining a set of raw data relating to activity of one or more users in a communication network, wherein the communication network is managed by a network operator, wherein the raw data represents traffic information and service access information; processing the obtained set of raw data in accordance with at least one data isolation policy maintained by the network operator to generate a first set of data comprising at least a portion of the set of raw data with sensitive data associated with the one or more users removed; a second set of data comprising the sensitive data removed from the set of raw data; and a third set of data comprising a mapping between portions of the set of raw data and the first set of data, wherein the raw data is divided into sensitive data, processed data, and the data reflecting the mapping relationship according to the at least one data isolation policy; authenticate a third party and an application executable by the third party, wherein an application programming interface, API, of the communication network is invocable by the application; authorize the third party and the application by determining a final access right, wherein the final access right is determined by determining an intersection between the access rights of the third party and the application according to access policies of the third party and the application; exposing the first set of data to the third party according to the final access right; and isolating the second set of data and the third set of data from the third party; wherein one or more of the steps are performed by a processing device.
An optical fiber comprising a center core, a center of which extends along a predetermined axis, a side core provided on an outer peripheral surface of the center core, and a cladding provided on an outer peripheral surface of the side core, wherein in an index profile defined by relative index differences with respect to a refractive index of the cladding, of respective portions along a reference line perpendicular to the predetermined axis, a region corresponding to the center core has a peak part including a position where the relative index difference is maximum, and a tail part, the tail part including a part in which the relative index difference decreases continuously from the peak part toward the cladding, and a ring part having a discontinuously projecting shape of the relative index difference, wherein when a is a radius along the reference line from the center of the center core to an outside of the ring part and c is a radius along the reference line from the center of the center core to a position where the relative index difference is maximum in the side core, the index profile has a shape in which c/a is in a range of 2.25 to 2.50, the radius a being defined as a position where a derivative value of the relative index difference with respect to radius is negative and where an absolute value of said derivative value becomes maximum, so as to realize a first dispersion value in a range of 2.0 to 5.5 ps/nm/km at a wavelength of 1530 nm, a second dispersion value in a range of 4.5 to 6.0 ps/nm/km at a wavelength of 1565 nm, a third dispersion value in a range of 8.5 to 11.2 ps/nm/km at a wavelength of 1625 nm, a cable cutoff wavelength in a range of not more than 1.45 μm, a bending loss at a diameter of 20 mm in a range of not more than 20 dB/m at a wavelength of 1550 nm, and an effective area in a range of 64 to 75 μm 2 at the wavelength of 1550 nm; wherein a maximum Δ1 of the relative index difference in the peak part is in a range of 0.55 to 0.70%, wherein a minimum Δ2 of the relative index difference between the center core and the side core is in a range of 0.0 to 0.10%, wherein a maximum Δ3 of the relative index difference in the side core is in a range of 0.14 to 0.21%, and wherein the radius a is in a range of 2.0 to 3.0 μm.
A system for progressive playback of a media file, comprising: a media server; a client (16, 18, 22); and a network; wherein the client and the media server are configured to communicate via the network using an HTTP protocol; wherein the client is configured to obtain an index included in the media file to determine byte ranges of the media file and to send requests for determined byte ranges of the media file to the media server; wherein the server is configured to provide requested byte ranges of the media file to the client; and wherein the client is configured to: maintain a mask indicating the byte ranges of the media file that have been downloaded; receive a user instruction concerning the playback of the media file; identify that a byte range required to play the media in accordance with the user instruction has already been downloaded using the mask; and request only the byte ranges of the media file that have not been downloaded and that are required to comply with the user instruction, wherein the media file is formatted using a container format that utilizes chunks so that each of the requested byte ranges corresponds to at least one chunk. a media server; a client (16, 18, 22); and a network; wherein the client is configured to obtain an index included in the media file to determine byte ranges of the media file and to send requests for determined byte ranges of the media file to the media server; wherein the server is configured to provide requested byte ranges of the media file to the client; and wherein the client is configured to: maintain a mask indicating the byte ranges of the media file that have been downloaded; receive a user instruction concerning the playback of the media file; identify that a byte range required to play the media in accordance with the user instruction has already been downloaded using the mask; and request only the byte ranges of the media file that have not been downloaded and that are required to comply with the user instruction, wherein the media file is formatted using a container format that utilizes chunks so that each of the requested byte ranges corresponds to at least one chunk. maintain a mask indicating the byte ranges of the media file that have been downloaded; receive a user instruction concerning the playback of the media file; identify that a byte range required to play the media in accordance with the user instruction has already been downloaded using the mask; and request only the byte ranges of the media file that have not been downloaded and that are required to comply with the user instruction, wherein the media file is formatted using a container format that utilizes chunks so that each of the requested byte ranges corresponds to at least one chunk.
Method for operating a motor vehicle which has an autopilot system for the completely automatic driving of the motor vehicle, regarding which, as a function of a current and/or future operating situation, described by driving situation data and/or operating status data of the motor vehicle, and an item of system limits information describing the area of application of the autopilot system, an item of technical enabled status information is determined, wherein the motor vehicle comprises furthermore a display apparatus with a first output element displaying the enabled status of the autopilot system according to the technical enabled status information, characterised in that in addition to the technical enabled status information as a function of the operating situation and preferences with regard to the autopilot system and/or driver data describing the state of the driver with regard to the guidance of the vehicle, a driver-related item of recommendation information is determined, as a function of which a second output element (12, 13) of the display apparatus displaying an enabled status recommendation according to the recommendation information is actuated, wherein the enabled status information and the recommendation information are determined and updated in parallel in a cyclical manner.
A use of an epoxy-acrylic-based coating liquid containing FeF 3 iron fluoride and paint particles in an aqueous dispersion to form an anti-corrosion coating in an interior (b) of a pipe on a chemical basis, wherein the pipe that is to be coated on its inside comprises the inside (b) and further - an outside (a), - a first outer end (e 1) at the first end of the pipe and a second outer end (e 2) at the second end of the pipe, - a length, - a first inside diameter (D 1) at the first outer end (e 1) of the pipe and a second inside diameter (D 2) at the second outer end (e 2) of the pipe, and - a central axis, characterized in that the pipe is pivoted at an angle (α) of 1° < (α) < 30°, respectively an angle (β) of -30° < (β) < -1°, with respect to the horizontal line extending in parallel to the surface of the coating liquid, and the coating liquid is brought against the inside (b) in a turbulent flow. - an outside (a), - a first outer end (e 1) at the first end of the pipe and a second outer end (e 2) at the second end of the pipe, - a length, - a first inside diameter (D 1) at the first outer end (e 1) of the pipe and a second inside diameter (D 2) at the second outer end (e 2) of the pipe, and - a central axis,
A millimeter wave transmission device, comprising: a first signal generation unit for generating a millimeter wave signal by performing frequency conversion on an input signal (S in) to be transmitted; a second signal generation unit for demodulating the received millimeter wave signal and generating an output signal (S out) corresponding to the input signal (S in) to be transmitted; and a circuit board which is constituted by a dielectric material; wherein the circuit board includes the first signal generation unit and the second signal generation unit and wherein the circuit board is used as a millimeter wave transmission path between the first signal generation unit and the second signal generation unit; further comprising a first signal coupling unit for transmitting the millimeter wave signal generated by the first signal generation unit to one end of the circuit board; and a second signal coupling unit for receiving the millimeter wave signal from the other end of the circuit board, wherein the first signal coupling unit and the second signal coupling unit are each constituted by an antenna member (11, 12) having a predetermined length based on the millimeter wave signal wavelength, and arranged in a respective hole portion (10c, 10d) formed within the dielectric of the circuit board. a first signal generation unit for generating a millimeter wave signal by performing frequency conversion on an input signal (S in) to be transmitted; a second signal generation unit for demodulating the received millimeter wave signal and generating an output signal (S out) corresponding to the input signal (S in) to be transmitted; and a circuit board which is constituted by a dielectric material; wherein the circuit board includes the first signal generation unit and the second signal generation unit and wherein the circuit board is used as a millimeter wave transmission path between the first signal generation unit and the second signal generation unit; further comprising a first signal coupling unit for transmitting the millimeter wave signal generated by the first signal generation unit to one end of the circuit board; and a second signal coupling unit for receiving the millimeter wave signal from the other end of the circuit board, wherein the first signal coupling unit and the second signal coupling unit are each constituted by an antenna member (11, 12) having a predetermined length based on the millimeter wave signal wavelength, and arranged in a respective hole portion (10c, 10d) formed within the dielectric of the circuit board.
A switched capacitor voltage sensing circuit for sensing a differential voltage across two nodes that each have a non-zero common mode voltage, the voltage sensing circuit comprising: a voltage differential sensing circuit that includes an inverting amplifier configured to sense the differential voltage across the two nodes (1205, 1207) that each have the non-zero common mode voltage, the voltage differential sensing circuit having a positive input impedance that is imposed across the nodes when the voltage sensing circuit is connected to the nodes; and an impedance compensation circuit connected in parallel to the voltage differential sensing circuit configured to generate a compensation current that is delivered to the two nodes that substantially cancels the loading effect of the positive input impedance on the two nodes; characterised in that the voltage differential sensing circuit includes a first capacitance through which the voltage differential sensing circuit is configured to be connected to the nodes; and wherein the voltage differential sensing circuit includes a first electronic switch configured to be connected between the capacitance and one of the nodes and a second electronic switch separate from the first electronic switch configured to be connected between the capacitance and the other node. a voltage differential sensing circuit that includes an inverting amplifier configured to sense the differential voltage across the two nodes (1205, 1207) that each have the non-zero common mode voltage, the voltage differential sensing circuit having a positive input impedance that is imposed across the nodes when the voltage sensing circuit is connected to the nodes; and an impedance compensation circuit connected in parallel to the voltage differential sensing circuit configured to generate a compensation current that is delivered to the two nodes that substantially cancels the loading effect of the positive input impedance on the two nodes; characterised in that the voltage differential sensing circuit includes a first capacitance through which the voltage differential sensing circuit is configured to be connected to the nodes; and wherein the voltage differential sensing circuit includes a first electronic switch configured to be connected between the capacitance and one of the nodes and a second electronic switch separate from the first electronic switch configured to be connected between the capacitance and the other node.
A conductive resin composition, comprising: (a) a resin component, and (b) a fine carbon fiber dispersed in the resin component, wherein a graphite-net plane consisting solely of carbon atoms forms a temple-bell-shaped structural unit comprising closed head-top part and body-part with open lower-end, 2 to 30 of the temple-bell-shaped structural units are stacked sharing a common central axis to form an aggregate, and the aggregates are connected in head-to-tail style with a distance to form the fiber; wherein an angle θ formed by a generatrix of the body-part and a fiber axis is less than 15 °; and an end of the body-part of the aggregate has an outer diameter D of 5 to 40 nm and an inner diameter d of 3 to 30 nm, and an aspect ratio (L/D) of the aggregate is 2 to 150; provided that the conductive resin composition is not a composition consisting of 100 parts by weight of carbon-coated low-conductivity solid LiFePO4, 5 parts by weight of a binder PVDF, 5 parts by weight of fine short carbon fibers as an electrical conductivity assisting material, and 110 parts by weight of a solvent NMP, or a dried composition obtained from this composition; wherein the fine short carbon fibers consist of temple-bell-shaped structural units with the parameters D of 10.6 to 13.2 nm, L/D of 2.0 to 5.5, θ of 0.5° to 10°, and the stack number of the temple-bell-shaped structural units forming aggregates is from 10 to 20, and are obtained by using a ball mill with a diameter of 2 mm for 0, 1, 4, 8, 12, 16 and 20 hours; wherein L is the length of the aggregate; and wherein θ, D, d are averages of measured values at (1/4)L, (1/2)L and (3/4)L respectively from the head-top part side, from the head-top part of the aggregate and from the head-top part of the temple-bell-shaped structural unit aggregate. (a) a resin component, and (b) a fine carbon fiber dispersed in the resin component, wherein a graphite-net plane consisting solely of carbon atoms forms a temple-bell-shaped structural unit comprising closed head-top part and body-part with open lower-end, 2 to 30 of the temple-bell-shaped structural units are stacked sharing a common central axis to form an aggregate, and the aggregates are connected in head-to-tail style with a distance to form the fiber;
A process for the preparation of a compound represented by formula: comprising the steps of: a) reacting a compound of formula: or a salt thereof, with a sulfonating agent to form a compound of formula: or a salt thereof; b) reacting the compound of formula, or a salt thereof, with N-hydroxysuccinimide in the presence of a base to form a salt of the compound of formula; and c) purifying the salt of the compound of formula, by crystallization of the salt of the compound of formula in an organic solvent or a mixture of an organic solvent and water in the presence of an acid to form the neutral form of the compound of formula. a) reacting a compound of formula: or a salt thereof, with a sulfonating agent to form a compound of formula: or a salt thereof; b) reacting the compound of formula, or a salt thereof, with N-hydroxysuccinimide in the presence of a base to form a salt of the compound of formula; and c) purifying the salt of the compound of formula, by crystallization of the salt of the compound of formula in an organic solvent or a mixture of an organic solvent and water in the presence of an acid to form the neutral form of the compound of formula.
A lightning rod for protecting an antenna system, wherein the lightning rod includes a plurality of sections (110a, 110b, 110c), wherein each section of the plurality of sections (110a, 110b, 110c) extends in a longitudinal direction less than a quarter of a wavelength according to an operating frequency of the antenna system to be protected, wherein neighboring sections of the plurality of sections (110a, 110b, 110c) are inductively coupled, characterized in that the sections (110a, 110b, 110c) of the plurality of sections (110a, 110b, 110c) are inductively coupled by inductive coupling elements (120a, 120b), respectively, and the inductive coupling elements (120a, 120b) include air coils.