mhurhangee/ep-ind-claims huggingface dataset:
A unit for charging a battery of a portable electric device, comprising: - a supply unit of electric energy - a compartment comprising a door, - at least one charging area arranged in the compartment, said charging area being equipped with coupling interfaces (18 1, 20 1, 18 2, 20 2, 18 3, 20 3; 34, 36) which are each adapted to allow a connection or a coupling between a portable electric device (25, 38) and the supply unit, at least two coupling interfaces (18 1, 20 1, 18 2, 20 2, 18 3, 20 3; 34, 36) each comprising a linking member (20 1, 20 2, 20 3; 36) to a cell phone (25, 38), - a selection means, adapted to allow the selection by a user of at least one among the coupling interfaces, and - a control unit which is adapted to control the supply unit of electric energy depending on the selection of the user, characterized in that at least one of the coupling interfaces comprises a first module disposed in at least one charging area and adapted to transmit to a second module, disposed in at least one portable electric device (25, 38), the electric energy by electromagnetic coupling. the control unit being adapted to permit the charging of the battery of the electronic device by electromagnetic coupling between the first module and the second module. - a supply unit of electric energy - a compartment comprising a door, - at least one charging area arranged in the compartment, said charging area being equipped with coupling interfaces (18 1, 20 1, 18 2, 20 2, 18 3, 20 3; 34, 36) which are each adapted to allow a connection or a coupling between a portable electric device (25, 38) and the supply unit, at least two coupling interfaces (18 1, 20 1, 18 2, 20 2, 18 3, 20 3; 34, 36) each comprising a linking member (20 1, 20 2, 20 3; 36) to a cell phone (25, 38), - a selection means, adapted to allow the selection by a user of at least one among the coupling interfaces, and - a control unit which is adapted to control the supply unit of electric energy depending on the selection of the user,
Internal combustion engine, comprising at least one cylinder head, at least one exhaust gas pipe with at least one flange, the flange having at least two flange fastening holes, at least two fastening bolts for fastening the exhaust gas pipe to the cylinder head of the internal combustion engine, it being possible for the exhaust gas pipe to be arranged such that it is connected detachably to the cylinder head by means of the fastening bolts, at least one spacer sleeve being arranged substantially between the head of the fastening bolt and the flange hole, characterized in that the spacer sleeve has at least one centring means.
A system for controlling an extraction of landfill gas flow from a plurality of wellheads (12a-12n) at a landfill, the system comprising: a first wellhead located at the landfill and having a first processor having a first rule set, and a first LFG flow control valve controllable by the first processor; a first communications module associated with the first wellhead; a second wellhead located at the landfill in a vicinity of the first wellhead and having a second processor and a second LFG flow control valve, the second processor having a second rule set and being operable to control the second LFG flow control valve; a second communications module associated with the second wellhead; the first and second processors operable to use their said rule sets to control the first and second LFG flow control valves, respectively, to control an LFG flow through their said first and second wellheads, respectively; and the second communications module being configured to share second operating information pertaining to an extraction of LFG from the second wellhead with the processor of the first wellhead, and the first communications module being configured to share first operating information concerning an extraction of LFG from the first wellhead with the processor of the second wellhead. a first wellhead located at the landfill and having a first processor having a first rule set, and a first LFG flow control valve controllable by the first processor; a first communications module associated with the first wellhead; a second wellhead located at the landfill in a vicinity of the first wellhead and having a second processor and a second LFG flow control valve, the second processor having a second rule set and being operable to control the second LFG flow control valve; a second communications module associated with the second wellhead; the first and second processors operable to use their said rule sets to control the first and second LFG flow control valves, respectively, to control an LFG flow through their said first and second wellheads, respectively; and the second communications module being configured to share second operating information pertaining to an extraction of LFG from the second wellhead with the processor of the first wellhead, and the first communications module being configured to share first operating information concerning an extraction of LFG from the first wellhead with the processor of the second wellhead.
A polyvalent influenza vaccine comprising a fusion protein set forth as SEQ ID NO:1 containing fragments of influenza A virus proteins H1, H3, H5, of influenza B virus haemagglutinin, flagellin components, connected via flexible links, wherein the flagellin components function as adjuvant.
A method of monitoring a temperature of a scene using a thermal imaging camera comprising: a) inputting a temperature threshold into the camera; b) inputting an amount of a time delay interval into a delay timer of the camera; c) buffering frames of infrared images of the scene in a short-term rolling buffer and capturing an infrared image of the scene from the rolling buffer; d) starting the delay timer, wherein capturing the infrared image from the rolling buffer triggers the delay timer to start; e) upon expiration of the time delay interval of the delay timer, detecting a heat pattern across the scene; f) if a temperature value within the detected heat pattern does not exceed the threshold, restarting the delay timer without capturing an infrared image from the rolling buffer; g) if a temperature value within the detected heat pattern exceeds the threshold, capturing another infrared image of the scene from the rolling buffer, and then restarting the delay timer; and h) repeating steps e-g a plurality of times according to a received duration input. a) inputting a temperature threshold into the camera; b) inputting an amount of a time delay interval into a delay timer of the camera; c) buffering frames of infrared images of the scene in a short-term rolling buffer and capturing an infrared image of the scene from the rolling buffer; d) starting the delay timer, wherein capturing the infrared image from the rolling buffer triggers the delay timer to start; e) upon expiration of the time delay interval of the delay timer, detecting a heat pattern across the scene; f) if a temperature value within the detected heat pattern does not exceed the threshold, restarting the delay timer without capturing an infrared image from the rolling buffer; g) if a temperature value within the detected heat pattern exceeds the threshold, capturing another infrared image of the scene from the rolling buffer, and then restarting the delay timer; and h) repeating steps e-g a plurality of times according to a received duration input.
An electrical discharge machining electrode wire, comprising: a core comprising copper or a copper alloy; and a covering layer covering a periphery of the core and including a zinc, wherein the covering layer comprises an inner layer including a γ-phase of copper-zinc based alloy expressed by Cu 5 Zn 8 and covering the periphery of the core, and an outer layer including an ε-phase of copper-zinc based alloy expressed by CuZn 5 and covering a periphery of the inner layer, wherein the amount of the γ-phase contained in the inner layer is not less than 85 mass% and the amount of the ε-phase contained in the outer layer is not less than 85 mass%, and wherein an γ-ray diffraction intensity of of the ε-phase is more than twice an x-ray diffraction intensity of of the γ-phase. a core comprising copper or a copper alloy; and a covering layer covering a periphery of the core and including a zinc,
A method of decoding a lossless variable bit-rate multi-channel audio bitstream, comprising: receiving a lossless VBR multi-channel audio bitstream as a sequence of frames including at least one independently decodable and losslessly reconstructable channel set including a plurality of audio channels for a multi-channel audio signal, each frame being segmented in segments and comprising a header including common header information including a number of segments and a number of samples per segment that minimises the frame payload subject to the constraints that each segment be less than a maximum payload size and decodable and losslessly reconstructable once the segment is unpacked, channel set header information including decorrelation coefficients for each said channel in each said channel set, and segment header information for each channel set including, for each segment, bytes consumed, at least one entropy code flag indicating a particular entropy coder and at least one coding parameter, and entropy coded compressed multi-channel audio signals stored in said number of segments; unpacking the header to extract the number of segments and number of samples per segment; unpacking the header for at least one said channel set to extract the entropy code flag and coding parameter and the entropy coded compressed multi-channel audio signals and perform an entropy decode on each segment in the frame using the selected entropy code and coding parameter to generate compressed-audio signals for each segment; and unpacking the header for at least one said channel set to extract decorrelation coefficients and perform decorrelation on the compressed audio signals to losslessly reconstruct PCM audio for each audio channel in each said channel set for each segment.
An apparatus comprising: a chamber; an inlet for admitting nanoscale particles dispersed within a fluid into the chamber; a template membrane containing nanopores, configured such that, in use, nanoscale particles passing through the template membrane are selectively deposited on a substrate received adjacent to the template membrane; a charging element, the charging element extending across the chamber and being located between the inlet and the template membrane such that, in use, the charging element can impose an electrical charge on the nanoscale particles admitted into the chamber; and a filter element, the filter element extending across the chamber and being located between the charging element and the template membrane such that, in use, a first electrical signal is applied to the filter element such that the nanoscale particles are attracted to the filter element. a chamber; an inlet for admitting nanoscale particles dispersed within a fluid into the chamber; a template membrane containing nanopores, configured such that, in use, nanoscale particles passing through the template membrane are selectively deposited on a substrate received adjacent to the template membrane; a charging element, the charging element extending across the chamber and being located between the inlet and the template membrane such that, in use, the charging element can impose an electrical charge on the nanoscale particles admitted into the chamber; and a filter element, the filter element extending across the chamber and being located between the charging element and the template membrane such that, in use, a first electrical signal is applied to the filter element such that the nanoscale particles are attracted to the filter element.
A milk meter for obtaining information about the volume and/or mass of milk provided by a milking machine when milking animals wherein the milk meter comprises at least one tubular measuring section through which, in use, milk to be measured flows, wherein the tubular measuring section is provided with at least one measuring electrode assembly (8, 10) for carrying out, per measuring electrode assembly, an impedance measurement on milk present in the measuring section, characterized in that the tubular measuring section at its inside at the location of the at least one measuring electrode assembly has an elongated slot-shaped cross section (9, 11) with at least two opposite long sides (12, 14) and, optionally, with short sides (16, 18), wherein each long side of two opposite long sides is provided with at least one measuring electrode of the at least one measuring electrode assembly.
An oral liquid pharmaceutical composition comprising: (a) phenylephrine or a pharmaceutically acceptable salt thereof; and (b) substantially aldehyde-free polyethylene glycol, wherein the substantially aldehyde-free polyethylene glycol has less than 10 ppm total aldehyde content and maintains said level of aldehyde content for at least six months; wherein the composition is buffered to maintain the pH below 5.4. (a) phenylephrine or a pharmaceutically acceptable salt thereof; and (b) substantially aldehyde-free polyethylene glycol, wherein the substantially aldehyde-free polyethylene glycol has less than 10 ppm total aldehyde content and maintains said level of aldehyde content for at least six months; wherein the composition is buffered to maintain the pH below 5.4.
A trifunctional crosslinking reagent of formula: wherein: X is a core structure of formula: the dotted lines represent the linkage of W 1, W 2, W 3 to groups S 1, S 2, S 3; W 1 is -NH-, -O-, -S-; W 2, W 3 are independently of each other a functional group selected from -COO-, -OOC-, -CONH-, -NHCO, -NH-, -O-, -S-; s is from 1 to 12; A is an affinity group, said affinity group allowing the separation and isolation of the trifunctional crosslinkers by means of an affinity purification method due to binding affinity for a particular binding partner; S 1, S 2, S 3 are independently of each other a spacer group selected from (i) a single bond or (ii) a straight-chain or branched, substituted or unsubstituted C alkylene, wherein one or more -CH 2 - groups may independently from each other be replaced by one or more bridging groups and/or an unsubstituted or substituted cycloalkyl, heterocycloalkyl, aryl, heteroaryl; with the proviso that heteroatoms are not directly linked to each other; L is a ligand-reactive group selected from the group consisting of -COOH, -NH 2, -OH, - SH, -CH=CH- and -CH=CH-COOH or an amine-reactive group selected from the group of aryl or alkyl activated carboxylic acid esters; Z is aryl or heteroaryl; and R N is a hydrazine-protecting group selected from hydrazones (R'R"C=NNH 2), said hydrazone being aldehyde or ketone hydrazone, said substituents R', R" being selected from hydrogen, substituted (C1-C6)alkyl, substituted aryl and substituted heteroaryl. X is a core structure of formula: the dotted lines represent the linkage of W 1, W 2, W 3 to groups S 1, S 2, S 3; W 1 is -NH-, -O-, -S-; W 2, W 3 are independently of each other a functional group selected from -COO-, -OOC-, -CONH-, -NHCO, -NH-, -O-, -S-; the dotted lines represent the linkage of W 1, W 2, W 3 to groups S 1, S 2, S 3; W 1 is -NH-, -O-, -S-; W 2, W 3 are independently of each other a functional group selected from -COO-, -OOC-, -CONH-, -NHCO, -NH-, -O-, -S-; s is from 1 to 12; A is an affinity group, said affinity group allowing the separation and isolation of the trifunctional crosslinkers by means of an affinity purification method due to binding affinity for a particular binding partner; S 1, S 2, S 3 are independently of each other a spacer group selected from (i) a single bond or (ii) a straight-chain or branched, substituted or unsubstituted C alkylene, wherein one or more -CH 2 - groups may independently from each other be replaced by one or more bridging groups and/or an unsubstituted or substituted cycloalkyl, heterocycloalkyl, aryl, heteroaryl; with the proviso that heteroatoms are not directly linked to each other; L is a ligand-reactive group selected from the group consisting of -COOH, -NH 2, -OH, - SH, -CH=CH- and -CH=CH-COOH or an amine-reactive group selected from the group of aryl or alkyl activated carboxylic acid esters; Z is aryl or heteroaryl; and R N is a hydrazine-protecting group selected from hydrazones (R'R"C=NNH 2), said hydrazone being aldehyde or ketone hydrazone, said substituents R', R" being selected from hydrogen, substituted (C1-C6)alkyl, substituted aryl and substituted heteroaryl.
An apparatus for reduction of transmitter originated common mode signal in a wired data communication link where common mode signal forming a source of electromagnetic radiation, the apparatus comprising: a digital front-end configured to generate a differential transmit signal (202a, 202b) based on transmit data, the digital front-end being further configured to pulse-shape the differential transmit signal (202a, 202b) by a pulse-shaping filter (212, 213) to obtain a pulse-shaped differential transmit signal (203a, 203b), wherein the digital front-end comprises a compensation filter configured to filter the differential transmit signal (202a, 202b) in order to reduce a common mode signal distortion; an analog front-end configured to convert the pulse-shaped differential transmit signal (203a, 203b) into an analog signal (204a, 204b) representing the pulse-shaped differential transmit signal (203a, 203b) for transmission over the wired data communication link; a common mode signal detector configured to detect a common mode signal in the analog signal (204a, 204b); and a filter coefficient determiner configured to determine filter coefficients of the compensation filter based on the detected common mode signal for common mode signal reduction, and to provide the filter coefficients to the compensation filter. a digital front-end configured to generate a differential transmit signal (202a, 202b) based on transmit data, the digital front-end being further configured to pulse-shape the differential transmit signal (202a, 202b) by a pulse-shaping filter (212, 213) to obtain a pulse-shaped differential transmit signal (203a, 203b), wherein the digital front-end comprises a compensation filter configured to filter the differential transmit signal (202a, 202b) in order to reduce a common mode signal distortion; an analog front-end configured to convert the pulse-shaped differential transmit signal (203a, 203b) into an analog signal (204a, 204b) representing the pulse-shaped differential transmit signal (203a, 203b) for transmission over the wired data communication link; a common mode signal detector configured to detect a common mode signal in the analog signal (204a, 204b); and a filter coefficient determiner configured to determine filter coefficients of the compensation filter based on the detected common mode signal for common mode signal reduction, and to provide the filter coefficients to the compensation filter.
Mounting assembly for mounting at least one cable on an electrically conductive structure, comprising a mounting bracket that comprises at least one mounting element receptacle adapted to receive at least one mounting element for mounting the mounting bracket to the structure and that further comprises at least one cable holder device receptacle adapted to receive at least one cable holder device for holding the at least one cable and the mounting assembly further comprising a cover that is mounted on the mounting bracket, wherein the mounting bracket and the cover are moveable relative to each other from a bracket mounting position to a cable mounting position, wherein in the bracket mounting position at least one mounting element receptacle is accessible from a cover side of the mounting bracket and at least one cable holder device receptacle is covered by the cover, and wherein in the cable mounting position all mounting element receptacles are covered by the cover and at least one cable holder device receptacle is accessible from a cover side of the mounting bracket.
An assembly for connecting a cross beam for receiving pivot pins to two lower longitudinal beams for a coach body of a rail vehicle, the assembly comprising the cross beam and both longitudinal beams, wherein the cross beam has a crossing section which connects the two longitudinal beams to each other in the area of the connection, and a longitudinal section which is suitable for extending to the front of the next coach, and the lower longitudinal beams consisting, as multi-chamber hollow profiles, of fibre composite material and being suitable for extending over the entire length of the coach body, characterized in that the number of chambers in the multi-chamber hollow profile is reduced in the area of the connection such that the wall material of at least one chamber has been removed in such a way that the webs to the adjacent chambers are exposed; one load distribution element or several load distribution elements are fixed to one or more of the exposed webs; the load distribution elements have toothed sections which engage in ideally shaped counter pieces at the ends of the crossing section of the cross beam; the cross beam is fixed by means of metallic connecting elements which protrude through the load distribution elements into one or more chambers of the respective lower longitudinal beam.
Tamper for ground compaction, comprising - a holding device for holding the tamper in a main working position; - an upper mass; - a lower mass which is arranged in the main working position underneath the upper mass, is coupled in a resiliently movable manner to the upper mass and has a ground contacting device which is oriented downwards in the main working position; - a vibration excitation device for producing a working movement of the lower mass, wherein the ground contacting device can be caused to perform an impacting movement which is directed downwards in the main working position; - a drive device, which comprises an electric motor, for driving the vibration excitation device; and comprising - an electrical energy store for supplying the electric motor with electrical energy; wherein - the energy store is arranged on the upper mass or on the lower mass in such a way as to be able to be decoupled from vibrations by means of a vibration decoupling device (10, 11); and wherein - the energy store is arranged in the region of a substantially vertical central axis of the tamper. - a holding device for holding the tamper in a main working position; - an upper mass; - a lower mass which is arranged in the main working position underneath the upper mass, is coupled in a resiliently movable manner to the upper mass and has a ground contacting device which is oriented downwards in the main working position; - a vibration excitation device for producing a working movement of the lower mass, wherein the ground contacting device can be caused to perform an impacting movement which is directed downwards in the main working position; - a drive device, which comprises an electric motor, for driving the vibration excitation device; and comprising - an electrical energy store for supplying the electric motor with electrical energy; wherein - the energy store is arranged on the upper mass or on the lower mass in such a way as to be able to be decoupled from vibrations by means of a vibration decoupling device (10, 11); and wherein - the energy store is arranged in the region of a substantially vertical central axis of the tamper.