mhurhangee/ep-ind-claims huggingface dataset:
Method for transmitting data via a wired data transmission channel and for assessing the transmission quality of the data transmission channel, wherein a transmitter sends a digital data stream to a receiver via the data transmission channel, wherein the symbols (21, 22) of the data stream are sent in a first clock, wherein the digital data stream received by the receiver is oversampled in an analog manner with a second clock, wherein for each symbol (21, 22) the sum of the sampled values is determined by an assessment unit, and for each symbol (21, 22) a result value is determined by a comparison unit, the result value being HIGH if the sum exceeds a lower threshold (E_lower) and does not reach an upper threshold (E_upper), and otherwise being LOW, wherein the input signal S_in(n) of the assessment unit is a digital data stream having a width of 1 bit, and the output signal (S_B) of the assessment unit is a digital data stream having a width of m bits, m being an integer greater than 1, wherein the second clock is faster than the first clock, wherein, once a specified number of HIGH result values belonging to symbols (21, 22) transmitted one directly after another over time has been exceeded, the output signal (S_B) indicates an error state and a moving average of the result values is monitored for an impermissible degree of deviation from a third threshold, wherein, once the error state has occurred, the receiver sends information to the transmitter so that the respective telegram is sent again, with the symbols (21, 22) being transmitted over an extended length of time, that is to say with a slower first clock. wherein a transmitter sends a digital data stream to a receiver via the data transmission channel, wherein the symbols (21, 22) of the data stream are sent in a first clock, wherein the digital data stream received by the receiver is oversampled in an analog manner with a second clock, wherein for each symbol (21, 22) the sum of the sampled values is determined by an assessment unit, and for each symbol (21, 22) a result value is determined by a comparison unit, the result value being HIGH if the sum exceeds a lower threshold (E_lower) and does not reach an upper threshold (E_upper), and otherwise being LOW, wherein the input signal S_in(n) of the assessment unit is a digital data stream having a width of 1 bit, and the output signal (S_B) of the assessment unit is a digital data stream having a width of m bits, m being an integer greater than 1, wherein the second clock is faster than the first clock, wherein, once a specified number of HIGH result values belonging to symbols (21, 22) transmitted one directly after another over time has been exceeded, the output signal (S_B) indicates an error state and a moving average of the result values is monitored for an impermissible degree of deviation from a third threshold, wherein, once the error state has occurred, the receiver sends information to the transmitter so that the respective telegram is sent again, with the symbols (21, 22) being transmitted over an extended length of time, that is to say with a slower first clock.
Superconductor structure comprising a plurality of band segments (2, 7a, 7b, 8a, 8b, 15) of band-shaped superconductor, wherein each band segment (2, 7a, 7b, 8a, 8b, 15) comprises a substrate and a superconducting layer deposited thereon, wherein the band segments (2, 7a, 7b, 8a, 8b, 15) are joined to one another with mutually facing superconducting layers, wherein mutually facing superconducting layers of joined band segments (2, 7a, 7b, 8a, 8b, 15) are joined to one another by one or more normally conducting layers, namely - one or more layers containing a noble metal, in particular silver-containing layers and/or - one or more copper-containing layers, in particular copper layers (14c, 14d), and wherein the substrates of the band segments (2, 7a, 7b, 8a, 8b, 15) are produced from metal, wherein a plurality of the band segments (2, 7a, 7b, 8a, 8b, 15) are each constituted as a linked band segment, wherein each linked band segment is joined to two further band segments (7a, 7b) such that - the superconducting layers of the two further band segments (7a, 7b) on the one hand and of the linked band segment on the other hand face one another, and - the further band segments (7a, 7b) together overlap at least 95% of the overall length of the linked band segment, wherein the superconductor structure comprises at least N sequential linked band segments with N≥5 such that at least one of the further band segments (7a, 7b) associated with each one of the sequential linked band segments is itself one of the sequential linked band segments, wherein the linked band segments each have a length of at least 100m and wherein the superconductor structure has an overall length of at least 1000m, preferably at least 2000 m. - one or more layers containing a noble metal, in particular silver-containing layers and/or - one or more copper-containing layers, in particular copper layers (14c, 14d), and wherein the substrates of the band segments (2, 7a, 7b, 8a, 8b, 15) are produced from metal, - the superconducting layers of the two further band segments (7a, 7b) on the one hand and of the linked band segment on the other hand face one another, and - the further band segments (7a, 7b) together overlap at least 95% of the overall length of the linked band segment,
A method for scheduling a network communication in a Machine-to-Machine, M2M, communications network in order to avoid network overload, said M2M communications network comprising a Universal mobile telecommunications system Terrestrial Radio Access Network, UTRAN, an Evolved UTRAN, E-UTRAN, or a Global System for Mobile communications Edge Radio Access Network, GERAN,, the method comprising: receiving a network communication request where a M2M device is attempting communication; retrieving a network communication priority and device parameter; determining a scheduling priority based on the network communication request and based on the communication priority and the device parameter; and characterized in that said method further comprises assigning a communication time specifying when the network communication will be available based on the scheduling priority and resource utilization, wherein said resource utilization comprises statistics on network traffic and network control signalling indicating when there is sufficient capacity in the network to handle the communication request, wherein the statistics are collected by or stored in the communication network, wherein the network overload has not been reached when there is sufficient capacity in the network to handle the communication request, and wherein the resource utilization statistics are based on real time conditions. receiving a network communication request where a M2M device is attempting communication; retrieving a network communication priority and device parameter; determining a scheduling priority based on the network communication request and based on the communication priority and the device parameter; and characterized in that said method further comprises assigning a communication time specifying when the network communication will be available based on the scheduling priority and resource utilization, wherein said resource utilization comprises statistics on network traffic and network control signalling indicating when there is sufficient capacity in the network to handle the communication request, wherein the statistics are collected by or stored in the communication network, wherein the network overload has not been reached when there is sufficient capacity in the network to handle the communication request, and wherein the resource utilization statistics are based on real time conditions.
Signal processing apparatus, comprising: an input port for receiving dark-field signal data for different energy channels, the dark-field signal data corresponding to signals detected, in the different energy channels, at a detector after exposure to X-ray radiation from an X-ray source; log unit configured to logarithmize the dark-field signal data to obtain log-dark-field-signal data (l i); an optional linear transformer configured to transform the log-dark-field-signal data (l i); a signal integrator (SINT) configured to integrate the transformed log-dark-field signal data or the log-dark-field-signal data (l i) of the at least two energy channels into an energy weighted dark-field signal ( l̂) by using energy weights corresponding to the at least two energy channels, and an output port configured to output said energy weighted log-dark-field signal (l̂). an input port for receiving dark-field signal data for different energy channels, the dark-field signal data corresponding to signals detected, in the different energy channels, at a detector after exposure to X-ray radiation from an X-ray source; log unit configured to logarithmize the dark-field signal data to obtain log-dark-field-signal data (l i); an optional linear transformer configured to transform the log-dark-field-signal data (l i); a signal integrator (SINT) configured to integrate the transformed log-dark-field signal data or the log-dark-field-signal data (l i) of the at least two energy channels into an energy weighted dark-field signal ( l̂) by using energy weights corresponding to the at least two energy channels, and an output port configured to output said energy weighted log-dark-field signal (l̂).
A refrigerator comprising: a body comprising a storage compartment; a drawer insertable or withdrawable into or from the storage compartment; a support configured to support an item accommodated in the drawer; and a lifting device configured to lift the support with respect to the drawer, wherein the lifting device comprises: a driving part that provides a driving force to the support; at least one wire that transfers the driving force of the driving part to the support; and at least one pulley (240, 260, 280) that guides the at least one wire, wherein the driving part comprises a winding and unwinding device (223, 224) that winds or unwinds the at least one wire, and a driving motor that drives the winding and unwinding device (223, 224), wherein the winding and unwinding device (223, 224) comprises a first gear that receives the driving force of the driving motor and rotates forward, and a second gear that rotates backward interworking with the first gear, characterized in that the at least one wire comprises a first wire that is wound by the first gear and pulls the support to allow the support to move up, and a second wire that is wound by the second gear and pulls the support to allow the support to move down, and wherein the support is supported by the at least one wire when the at least one wire is wound by the winding and unwinding device (223, 224) to move up or move down. a body comprising a storage compartment; a drawer insertable or withdrawable into or from the storage compartment; a support configured to support an item accommodated in the drawer; and a lifting device configured to lift the support with respect to the drawer, wherein the lifting device comprises: a driving part that provides a driving force to the support; at least one wire that transfers the driving force of the driving part to the support; and at least one pulley (240, 260, 280) that guides the at least one wire, a driving part that provides a driving force to the support; at least one wire that transfers the driving force of the driving part to the support; and at least one pulley (240, 260, 280) that guides the at least one wire, wherein the driving part comprises a winding and unwinding device (223, 224) that winds or unwinds the at least one wire, and a driving motor that drives the winding and unwinding device (223, 224), wherein the winding and unwinding device (223, 224) comprises a first gear that receives the driving force of the driving motor and rotates forward, and a second gear that rotates backward interworking with the first gear, characterized in that the at least one wire comprises a first wire that is wound by the first gear and pulls the support to allow the support to move up, and a second wire that is wound by the second gear and pulls the support to allow the support to move down, and wherein the support is supported by the at least one wire when the at least one wire is wound by the winding and unwinding device (223, 224) to move up or move down.
A compound according to the formula: R 1 n -Ar-SO 2 NH-SO 2 -R 2 wherein each R 1 is independently chosen from the group consisting of metals, metal oxides, metal phosphates, metal phosphonates and inorganic particles, wherein n is 1, 2 or 3, wherein Ar is an aromatic group which may include heterocycles and polycycles and may be substituted, and wherein R 2 is a fluoropolymer. wherein each R 1 is independently chosen from the group consisting of metals, metal oxides, metal phosphates, metal phosphonates and inorganic particles, wherein n is 1, 2 or 3, wherein Ar is an aromatic group which may include heterocycles and polycycles and may be substituted, and wherein R 2 is a fluoropolymer.
A galvanic bath comprising aqueous solutions having an alkaline pH and comprising gold salts, copper salts and indium salts, organic polycarboxylic acid salts, organic amines, and possibly complexing agents, sulfurated compounds, surfactants and other metals, wherein the concentration of indium, calculated on the basis of the respective salts, ranges from 0.1 to 2 g/L; wherein said organic amines are selected in the group consisting of triethylenetetramine, diethylenetetramine, ethylenediamine and tetraethylenepentamine; said amines used in amounts ranging from 0.05 to 1 gL; said complexing agent are selected in the group consisting of ethylenediaminetetraacetic acid and salts thereof, etidronic acid and salts thereof, ethylenediamine tetramethyl phosphonic acid and salts thereof, iminodiacetic acid and salts thereof, nitrilotriphosphonic acid and salts thereof, and nitrilotriacetic acid and salts thereof; said sulfurated compounds are selected in the group consisting of organic thiols belonging to the classes of 2-(2-pyrazine)ethane thiol, mercaptotetrazoles, mercaptopyrimidines, mercaptopyrrols, mercaptoimidazoles and mercaptotriazoles, possibly containing a sulfur atom in the aromatic ring, possibly having a nitrogen ring condensed with a benzene ring, having one or more thio groups; said surfactants having both glossing and surfactant action and being those normally used within galvanic baths having matrices formed by said organic polycarboxylic acid salts; said surfactants used in an amount never greater than 0.005 L/L of a 10% w/v aqueous solution thereof; said other metals having glossing action are selected in the group consisting of silver, tellurium, bismuth, iron, zinc, iridium, rhenium, vanadium, molybdenum, tungsten in such a form so as to be soluble and stable under the working conditions in amounts between 0.005 and 0.2 g/L of element as such; said polycarboxylic acid salts having both buffer characteristics and complexing power, possibly in combination with the corresponding acids for creation of the expedient buffer, these acids and the respective salts are each used in an amount ranging from 30 to 150 g/L; characterized in that cyanide is not present in the matrix of the bath and its content in the galvanic solution is caused by its counterion function in the gold salts alone.
A method of combining a tufted brush head plate with a pre-moulded brush handle, by the following steps: a) Providing the tufted brush head plate, b) Providing the pre-moulded brush handle, c) Placing the brush head plate and the brush handle into a mould, and d) Joining the pre-made brush head plate and the pre-made brush handle together by over-moulding the area where seid pre-made parts have to be joined with an over-moulding material, wherein said over-moulding material is a resin, a normal plastic resin or a compatible thermoplastic elastomer and characterized in that the overmoulding material also forms on the brush head textures in the form of cleaning elements, whitening elements, cleaning fingers, cleaning lamels, scrapers, elastic tooth picks or tongue cleaners. a) Providing the tufted brush head plate, b) Providing the pre-moulded brush handle, c) Placing the brush head plate and the brush handle into a mould, and d) Joining the pre-made brush head plate and the pre-made brush handle together by over-moulding the area where seid pre-made parts have to be joined with an over-moulding material, wherein said over-moulding material is a resin, a normal plastic resin or a compatible thermoplastic elastomer and characterized in that the overmoulding material also forms on the brush head textures in the form of cleaning elements, whitening elements, cleaning fingers, cleaning lamels, scrapers, elastic tooth picks or tongue cleaners.
Motor vehicle, comprising - a position capturing device for capturing positional information describing the position of a mobile end device, in particular a mobile telephone, assigned or able to be assigned to an occupant of the motor vehicle, within the motor vehicle, wherein - a control device communicating with the position capturing device as well as with vehicle systems of the motor vehicle by means of which, depending on the positional information, a setting of at least one operational parameter of at least one vehicle system can be undertaken, said setting transmitted by the mobile end device and taking place concerning the region within the motor vehicle described by the positional information and located, characterised in that - the position capturing device is configured to determine the positional information on basis of image data captured with a camera of the mobile end device and representing the interior or a part of the interior of the motor vehicle, which image data permit conclusions regarding the position of the occupant and/or of the mobile end device. - a position capturing device for capturing positional information describing the position of a mobile end device, in particular a mobile telephone, assigned or able to be assigned to an occupant of the motor vehicle, within the motor vehicle, wherein - a control device communicating with the position capturing device as well as with vehicle systems of the motor vehicle by means of which, depending on the positional information, a setting of at least one operational parameter of at least one vehicle system can be undertaken, said setting transmitted by the mobile end device and taking place concerning the region within the motor vehicle described by the positional information and located, characterised in that - the position capturing device is configured to determine the positional information on basis of image data captured with a camera of the mobile end device and representing the interior or a part of the interior of the motor vehicle, which image data permit conclusions regarding the position of the occupant and/or of the mobile end device.
A process for the manufacturing of high density polyethylene, comprising • performing first polymerization to form a first slurry in a first reactor; • transferring at least part of the first slurry from the first reactor into a second reactor; • performing second polymerization to form a second slurry in the second reactor; • transferring at least part of the second slurry from the second reactor to a third reactor; • performing post processing to the second slurry to form a third slurry in the third reactor, wherein the third reactor is fed only with the second slurry for the post processing and wherein the post processing is performed at a temperature of at most 60 °C, preferably 40-60 °C, more preferably 40-50 °C, most preferably 40-45 °C and wherein the post processing is performed at a pressure of 1.3 -4.0 bar (0.3-3.0 barg): • transferring the third slurry to a separating means; • separating the slurry into solid polymer product and liquids in the separating means; • transferring at least part of the liquids to a purification means and • separating wax from said at least part of the liquids in the purification means. • performing first polymerization to form a first slurry in a first reactor; • transferring at least part of the first slurry from the first reactor into a second reactor; • performing second polymerization to form a second slurry in the second reactor; • transferring at least part of the second slurry from the second reactor to a third reactor; • performing post processing to the second slurry to form a third slurry in the third reactor, wherein the third reactor is fed only with the second slurry for the post processing and wherein the post processing is performed at a temperature of at most 60 °C, preferably 40-60 °C, more preferably 40-50 °C, most preferably 40-45 °C and wherein the post processing is performed at a pressure of 1.3 -4.0 bar (0.3-3.0 barg): • transferring the third slurry to a separating means; • separating the slurry into solid polymer product and liquids in the separating means; • transferring at least part of the liquids to a purification means and • separating wax from said at least part of the liquids in the purification means.
A method of coding transform coefficients associated with residual video data in a video coding process, the method comprising: defining a context derivation neighborhood for one of a plurality of transform coefficients using a sliding window that includes a set of transform coefficients scanned prior to the one of the plurality of transform coefficients in a transform coefficient scan order, wherein the context derivation neighborhood indicates one or more transform coefficients of the plurality of transform coefficients from which a context is derived; determining the context for the one of the plurality of transform coefficients based on the context derivation neighborhood; and coding the one of the plurality of transform coefficients based on the determined context. defining a context derivation neighborhood for one of a plurality of transform coefficients using a sliding window that includes a set of transform coefficients scanned prior to the one of the plurality of transform coefficients in a transform coefficient scan order, wherein the context derivation neighborhood indicates one or more transform coefficients of the plurality of transform coefficients from which a context is derived; determining the context for the one of the plurality of transform coefficients based on the context derivation neighborhood; and coding the one of the plurality of transform coefficients based on the determined context.