mhurhangee/ep-ind-claims huggingface dataset:
A structure of connection among a circuit body, a bus bar and an electronic element, the connection structure comprising: a circuit body configured by a flexible board on which a wiring pattern (204a, 204b) is provided; a bus bar attached to a mounting surface of the circuit body; and an electronic element attached to the mounting surface so as to connect the bus bar and the wiring pattern, wherein the bus bar has a connection piece projecting from a bus bar body and extending along the mounting surface toward the main line disposed on the circuit body; wherein the connection piece is fixed to the mounting surface so that a restricted area using the stiffness of the connection piece and which restricts deformation of the mounting surface is formed in a periphery of the connection piece; and wherein the electronic element is arranged in the restricted area and is fixed to the mounting surface; characterized in that the connection piece of the bus bar has a first portion extending in a direction along the mounting surface and a pair of second portions (252b, 252c) extending in a direction intersecting with the first portion and along the mounting surface; and wherein the first portion and the pair of second portions (252b, 252c) are fixed to the mounting surface so that the restricted area is formed in a part sandwiched between the pair of second portions (252b, 252c). a circuit body configured by a flexible board on which a wiring pattern (204a, 204b) is provided; a bus bar attached to a mounting surface of the circuit body; and an electronic element attached to the mounting surface so as to connect the bus bar and the wiring pattern, wherein the bus bar has a connection piece projecting from a bus bar body and extending along the mounting surface toward the main line disposed on the circuit body; wherein the connection piece is fixed to the mounting surface so that a restricted area using the stiffness of the connection piece and which restricts deformation of the mounting surface is formed in a periphery of the connection piece; and wherein the electronic element is arranged in the restricted area and is fixed to the mounting surface; characterized in that the connection piece of the bus bar has a first portion extending in a direction along the mounting surface and a pair of second portions (252b, 252c) extending in a direction intersecting with the first portion and along the mounting surface; and wherein the first portion and the pair of second portions (252b, 252c) are fixed to the mounting surface so that the restricted area is formed in a part sandwiched between the pair of second portions (252b, 252c).
A welding-type power supply comprising: a controller, having a preregulator control output and an output converter control output; a preregulator disposed to receive a range of inputs voltages and to receive the preregulator control output, and to provide a preregulator output signal, wherein the preregulator includes a plurality of stacked boost circuits, wherein a stacked boost circuit includes two switches, two diodes and two capacitors in a series arrangement, whereby the collector of one switch is connected to the emitter of the other switch, and each switch has an inductor associated therewith; a preregulator bus, disposed to receive the preregulator output signal; and an output converter, disposed to receive the preregulator bus and to receive the output converter control output, and to provide a welding type power output, wherein the output converter includes at least one stacked inverter circuit. a controller, having a preregulator control output and an output converter control output; a preregulator disposed to receive a range of inputs voltages and to receive the preregulator control output, and to provide a preregulator output signal, wherein the preregulator includes a plurality of stacked boost circuits, wherein a stacked boost circuit includes two switches, two diodes and two capacitors in a series arrangement, whereby the collector of one switch is connected to the emitter of the other switch, and each switch has an inductor associated therewith; a preregulator bus, disposed to receive the preregulator output signal; and an output converter, disposed to receive the preregulator bus and to receive the output converter control output, and to provide a welding type power output, wherein the output converter includes at least one stacked inverter circuit.
Plug connector having at least one insertion funnel, which is arranged in front of a fitting opening in each case, for fitting the plug connector with an electrical contact which has at least one coding lug on its outer circumference, wherein at least one coding cutout is provided at the base of the insertion funnel for rotationally orienting the electrical contact within the fitting opening, characterized in that the insertion funnel is formed by at least two funnel segments (5a, 5b; 15a-15d) which adjoin one another in the circumferential direction and which each have, in the circumferential direction, a curvature which decreases in the direction (9; 19) of the at least one coding cutout, so that the translatory insertion movement of the contact is automatically also converted into a rotary movement by means of the circumferential curvature of the funnel segments (5a, 5b; 15a-15d) since a torque is exerted onto the contact when the said contact is inserted in the direction of the at least one coding cutout.
A composition, comprising: a) one or more precursors selected from the group consisting of polysilanes, polygermanes, and polygermasilanes, in an amount of from 1 to 40% by weight of the composition, wherein the polysilanes, polygermanes, and polygermasilanes are species having (i) at least 15 silicon and/or germanium atoms and (ii) hydrogen and an atomic purity of greater than 90% with respect to silicon, germanium and hydrogen; and b) a solvent in which the one or more precursors is soluble, wherein: the composition has a viscosity in a range of from 2 to 100 cP, the viscosity, the amount of the one or more precursors in the composition, and evaporation rate of the composition are sufficient to form a feature with a predetermined cross-sectional profile and/or shape by printing the composition, and when the composition is exposed to UV irradiation, (i) the one or more precursors oligomerize, polymerize, and/or cross-link to form higher molecular weight derivative species, and/or (ii) the viscosity increases, an average molecular weight of the one or more precursors increases, and/or a volatility of the one or more precursors decreases. a) one or more precursors selected from the group consisting of polysilanes, polygermanes, and polygermasilanes, in an amount of from 1 to 40% by weight of the composition, wherein the polysilanes, polygermanes, and polygermasilanes are species having (i) at least 15 silicon and/or germanium atoms and (ii) hydrogen and an atomic purity of greater than 90% with respect to silicon, germanium and hydrogen; and b) a solvent in which the one or more precursors is soluble, wherein: the composition has a viscosity in a range of from 2 to 100 cP, the viscosity, the amount of the one or more precursors in the composition, and evaporation rate of the composition are sufficient to form a feature with a predetermined cross-sectional profile and/or shape by printing the composition, and when the composition is exposed to UV irradiation, (i) the one or more precursors oligomerize, polymerize, and/or cross-link to form higher molecular weight derivative species, and/or (ii) the viscosity increases, an average molecular weight of the one or more precursors increases, and/or a volatility of the one or more precursors decreases. the composition has a viscosity in a range of from 2 to 100 cP, the viscosity, the amount of the one or more precursors in the composition, and evaporation rate of the composition are sufficient to form a feature with a predetermined cross-sectional profile and/or shape by printing the composition, and when the composition is exposed to UV irradiation, (i) the one or more precursors oligomerize, polymerize, and/or cross-link to form higher molecular weight derivative species, and/or (ii) the viscosity increases, an average molecular weight of the one or more precursors increases, and/or a volatility of the one or more precursors decreases.
A charging apparatus comprising a charging unit configured to supply an electric power to a rechargeable battery (10, 30) to charge the rechargeable battery (10, 30), a fan configured to send air to the rechargeable battery (10, 30), and a control unit adapted to activate the fan and to deactivate the fan 853) when a predetermined maximum cooling period (Tm) is elapsed from completion of charging the rechargeable battery (10, 30) by the charging unit, characterized in that the control unit is adapted to activate the fan when a predetermined cooling-execution condition is satisfied after initiation of charging the rechargeable battery (10, 30) by the charging unit and to deactivate the fan when a predetermined maximum cooling period of time (Tm) is elapsed from completion of charging the rechargeable battery (10, 30) by the charging unit even when the predetermined cooling-execution condition has been satisfied after completion of charging the rechargeable battery (10, 30) by the charging unit, and the charging apparatus further comprises an information obtaining unit configured to obtain a cooling-performance information that represents coolability of the rechargeable battery (10, 30) and is preliminarily stored in the battery, and a setting unit configured to set the maximum cooling period of time (Tm) based upon the cooling-performance information obtained by the information obtaining unit.
A vibration damper and/or absorber including a first member having a bearing region and a friction contact region, and a second member including a body which is mounted on the bearing region for axial displacement with respect to the first member along an axis, the second member including a resilient member which extends axially from the body and which has a friction surface which resiliently engages the contact region of the first member, whereby relative linear displacement between the first and second members is opposed by frictional contact between the friction surface and the contact region, and characterised in that the resilient member constitutes a first resilient finger extending axially from the body in a first direction and in which the contact region constitutes a first contact region situated axially on one side of the bearing region, the body being provided with at least one second resilient member aligned with the or each respective first resilient member and extending axially from the body in a second direction opposite to the first direction and contacting a second contact region of the first member, situated axially on the other side of the bearing region.
A method of correcting a response of an instrument comprising: determining an inverse convolution function, the inverse convolution function being in the time domain; recording a response of an instrument to an exhaust sample as a function of time; and convolving the recorded response with the inverse convolution function, the result being a convolution corrected instrument response. determining an inverse convolution function, the inverse convolution function being in the time domain; recording a response of an instrument to an exhaust sample as a function of time; and convolving the recorded response with the inverse convolution function, the result being a convolution corrected instrument response.
A method for scintillation event localization in a radiation particle detector, comprising the steps of: - providing a plurality of scintillator element locations (2, 2') configured to emit a burst of photons responsive to a radiation particle being absorbed at the scintillator element location (2, 2'), - detecting a burst of photons emitted by a scintillator element location (2, 2') with a photosensor, wherein the photosensor comprises an array of single photon avalanche diodes configured to break down responsive to impingement of a photon; - acquiring breakdown data indicative of which of the single photon avalanche diodes are in breakdown, characterized in that the method further comprises the steps of: - providing predetermined photosensor sensitivity data (20, 40) which assign single photon avalanche diodes to groups, wherein each group is assigned to exactly one scintillator element location (2, 2'), and - determining the number of single photon avalanche diodes in breakdown for each group individually to identify the scintillator element location (2, 2') that emitted the burst of photons. - providing a plurality of scintillator element locations (2, 2') configured to emit a burst of photons responsive to a radiation particle being absorbed at the scintillator element location (2, 2'), - detecting a burst of photons emitted by a scintillator element location (2, 2') with a photosensor, wherein the photosensor comprises an array of single photon avalanche diodes configured to break down responsive to impingement of a photon; - acquiring breakdown data indicative of which of the single photon avalanche diodes are in breakdown, - providing predetermined photosensor sensitivity data (20, 40) which assign single photon avalanche diodes to groups, wherein each group is assigned to exactly one scintillator element location (2, 2'), and - determining the number of single photon avalanche diodes in breakdown for each group individually to identify the scintillator element location (2, 2') that emitted the burst of photons.
A multimodal imaging apparatus, comprising: a rotatable gantry system positioned at least partially around a patient support; a first source of radiation coupled to the rotatable gantry system, the first source of radiation configured for imaging radiation; a second source of radiation coupled to the rotatable gantry system, the second source of radiation configured for imaging radiation and therapeutic radiation, wherein the second source of radiation has an energy level more than the first source of radiation; and a first radiation detector (24; 34) coupled to the rotatable gantry system and positioned to receive radiation from at least one of the first source of radiation or the second source of radiation; wherein a first measured projection data from the first source of radiation comprises more attenuation than a second measured projection data from the second source of radiation, and wherein a first attenuation estimate associated with the first measured projection data is based on the second measured projection data. a rotatable gantry system positioned at least partially around a patient support; a first source of radiation coupled to the rotatable gantry system, the first source of radiation configured for imaging radiation; a second source of radiation coupled to the rotatable gantry system, the second source of radiation configured for imaging radiation and therapeutic radiation, wherein the second source of radiation has an energy level more than the first source of radiation; and a first radiation detector (24; 34) coupled to the rotatable gantry system and positioned to receive radiation from at least one of the first source of radiation or the second source of radiation; wherein a first measured projection data from the first source of radiation comprises more attenuation than a second measured projection data from the second source of radiation, and wherein a first attenuation estimate associated with the first measured projection data is based on the second measured projection data.
A transmission method using a codebook in a multiple-input multiple output system, comprising the steps of: mapping multiple codewords to multiple layers; mapping the multiple layers to multiple antennas using a precoding matrix selected from a rank-3 codebook which is designed to map the codewords to different antennas; and transmitting the codewords through paths formed by mapping the layers and the antennas, wherein the precoding matrix of the rank-3 codebook is designed to equalize transmit power ratios between the antennas, and characterized in that the rank-3 codebook is: mapping multiple codewords to multiple layers; mapping the multiple layers to multiple antennas using a precoding matrix selected from a rank-3 codebook which is designed to map the codewords to different antennas; and transmitting the codewords through paths formed by mapping the layers and the antennas, wherein the precoding matrix of the rank-3 codebook is designed to equalize transmit power ratios between the antennas, and characterized in that the rank-3 codebook is:
A method for detecting polarization scrambling of a polarization multiplexed optical signal comprising: receiving a polarization multiplexed optical signal associated with an optical network and including a scrambled polarization orientation, the polarization orientation scrambled according to a scrambling frequency and as a function of a master clock associated with the optical network; receiving clock information associated with the master clock over an optical supervisory channel; detecting the polarization scrambling of the received optical signal; generating a polarization signal indicating the scrambling of the received optical signal according to the detected polarization scrambling and based on the received clock information; and descrambling the optical signal according to the polarization scrambling as indicated by the polarization signal. receiving a polarization multiplexed optical signal associated with an optical network and including a scrambled polarization orientation, the polarization orientation scrambled according to a scrambling frequency and as a function of a master clock associated with the optical network; receiving clock information associated with the master clock over an optical supervisory channel; detecting the polarization scrambling of the received optical signal; generating a polarization signal indicating the scrambling of the received optical signal according to the detected polarization scrambling and based on the received clock information; and descrambling the optical signal according to the polarization scrambling as indicated by the polarization signal.
Bicycle sprocket assembly, comprising: - a plurality of sprockets of decreasing diameter configured to be mounted on a freewheel body of a bicycle hub, said plurality of sprockets including a first sprocket of larger diameter and a last sprocket of smaller diameter, wherein said last sprocket comprises a plurality of teeth and a plurality of throats, each throat (121 d) being arranged between two consecutive teeth, said throats comprising respective bottom surfaces substantially tangent to a first circumference having a first diameter; - a plurality of spacers arranged between said first sprocket and said last sprocket, said plurality of spacers including a last spacer arranged between said last sprocket and a second-last sprocket of said plurality of sprockets and having a radially inner surface (141 b) configured to be fitted onto a free end portion of said freewheel body; characterised in that said last spacer comprises a radially outer surface having a second diameter greater than said first diameter and including a plurality of recessed areas, each recessed area being positioned at a respective throat of said plurality of throats, wherein said recessed areas comprise respective, base surfaces substantially tangent to a second circumference having a third diameter smaller than or equal to said first diameter. - a plurality of sprockets of decreasing diameter configured to be mounted on a freewheel body of a bicycle hub, said plurality of sprockets including a first sprocket of larger diameter and a last sprocket of smaller diameter, wherein said last sprocket comprises a plurality of teeth and a plurality of throats, each throat (121 d) being arranged between two consecutive teeth, said throats comprising respective bottom surfaces substantially tangent to a first circumference having a first diameter; - a plurality of spacers arranged between said first sprocket and said last sprocket, said plurality of spacers including a last spacer arranged between said last sprocket and a second-last sprocket of said plurality of sprockets and having a radially inner surface (141 b) configured to be fitted onto a free end portion of said freewheel body;
A kit comprising antibodies to distinguish between a bacterial infection and a viral infection or bacterial or mixed infection, and a viral infection, wherein a first antibody of said antibodies binds to TNF-related apoptosis-inducing ligand (TRAIL) and a second antibody of said antibodies binds to C-reactive protein and a third antibody of said antibodies binds to interferon-γ-inducible protein 10 wherein said antibodies consist of said first antibody, said second antibody and said third antibody.
A cover device for movable plant or machine components, such as machine bellows, axle boots etc., wherein the cover device has a reinforcing element, wherein the reinforcing element has a plurality of threads or yarns, wherein the threads or yarns comprise a reticulated silicone rubber, wherein the cover device has at least one profile, which can be detachably fastened to the cover device, characterized in that, the profile has a groove, wherein the cover device can be fixed in the groove by a keder so that it is enclosed therein.
A coil component comprising: a first magnetic core including a columnar portion; a second magnetic core having a facing surface which faces one end surface of the columnar portion; a magnetic-gap layer which is constituted by a non-magnetic material, which is arranged between the facing surface and the one end surface, and which forms a magnetic gap between the facing surface and the one end surface; a coil through which the columnar portion is inserted; and a magnetic molded-body which is constituted by a magnetic material and which covers the first magnetic core and the coil, wherein when watching along the axial center direction of the columnar portion, the magnetic-gap layer protrudes to the periphery of the columnar portion, wherein the second magnetic core is a plate-shaped core and the facing surface is one of the main surfaces of the aforesaid plate-shaped core, characterized in that the magnetic molded-body covers the side circumferential surface of the plate-shaped core, the magnetic-gap layer is arranged also between the side circumferential surface of the plate-shaped core and the magnetic molded-body, and there is formed a magnetic gap also between the side circumferential surface of the plate-shaped core and the portion of the magnetic molded-body which corresponds to the side circumferential surface of the plate-shaped core. a first magnetic core including a columnar portion; a second magnetic core having a facing surface which faces one end surface of the columnar portion; a magnetic-gap layer which is constituted by a non-magnetic material, which is arranged between the facing surface and the one end surface, and which forms a magnetic gap between the facing surface and the one end surface; a coil through which the columnar portion is inserted; and a magnetic molded-body which is constituted by a magnetic material and which covers the first magnetic core and the coil, wherein when watching along the axial center direction of the columnar portion, the magnetic-gap layer protrudes to the periphery of the columnar portion, wherein the second magnetic core is a plate-shaped core and the facing surface is one of the main surfaces of the aforesaid plate-shaped core, characterized in that the magnetic molded-body covers the side circumferential surface of the plate-shaped core, the magnetic-gap layer is arranged also between the side circumferential surface of the plate-shaped core and the magnetic molded-body, and there is formed a magnetic gap also between the side circumferential surface of the plate-shaped core and the portion of the magnetic molded-body which corresponds to the side circumferential surface of the plate-shaped core.