mhurhangee/ep-ind-claims huggingface dataset:
A method for treating a paddy seed(s), said method comprising treating a paddy seed(s) using a paddy seed treatment agent comprising fenquinotrione or a salt thereof as a herbicidal active component.
The use of a composition comprising at least one metal sulfite and at least one metal hydroxymethane sulfinate wherein the weight ratio of metal sulfite to metal hydroxymethane sulfinate is in the range of 10:1 to 1:10, as reducing agent in emulsion polymerizations.
Holding device for cards and/or banknotes, comprising a housing which is open at the top and has a bottom, the bottom having side webs (10, 12) which project upwards and are arranged spaced apart from one another, and a clip being arranged in the housing in a non-positive and/or frictionally locking and/or positively locking manner, characterized in that the clip has at least one plug-in tongue for plugging into a slot of the housing, which plug-in tongue has a plug-in pin which tapers conically in the direction of its free end or is tapered in at least one direction.
A vertebral decompression device configured to surround a user's trunk, the device comprising: - upper support means configured to surround a first portion of the trunk; - lower support means configured to surround a second portion of the trunk; - elongation means mounted on the upper support means and the lower support means and configured to exert a separating force on the lower and upper support means tending to move the lower support means away from the upper support means; the device further including an electronic control system for controlling the elongation means in such a manner as to maintain a determined distraction force on the user's vertebral column, the elongation means comprising two pairs of actuators configured to extend on opposite sides of the trunk when the device is worn by the user, the actuators in a given pair being inclined relative to each other and in a V-arrangement, the device being characterized in that the tip of the V-shape points downwards. - upper support means configured to surround a first portion of the trunk; - lower support means configured to surround a second portion of the trunk; - elongation means mounted on the upper support means and the lower support means and configured to exert a separating force on the lower and upper support means tending to move the lower support means away from the upper support means;
A communication method between a base station, including a plurality of transmission antennas, and at least one mobile station, the method comprising at the base station: recognizing a channel between the base station and the at least one mobile station, the channel showing a variation over time; determining the variation of the channel based on a state of the channel measured from at least two points in time; updating a previous codebook of the base station to a new codebook based on a time correlation coefficient, the time correlation coefficient being generated based on a comparison of the first channel matrix generated at a first time with respect to the channel and a second channel matrix generated at a second time with respect to the channel using following equation: Θ i ′ = ρ ⋅ I 1 − ρ 2 ⋅ Θ i wherein ρ denotes the time correlation coefficient, Θ i ′ denotes an i-th new codeword matrix of the new codebook, and Θ i denotes an i-th previous codeword matrix of the previous codebook wherein I denotes an identity matrix of size MxM, M being the number of the plurality of transmission antennas. recognizing a channel between the base station and the at least one mobile station, the channel showing a variation over time; determining the variation of the channel based on a state of the channel measured from at least two points in time; updating a previous codebook of the base station to a new codebook based on a time correlation coefficient, the time correlation coefficient being generated based on a comparison of the first channel matrix generated at a first time with respect to the channel and a second channel matrix generated at a second time with respect to the channel using following equation: Θ i ′ = ρ ⋅ I 1 − ρ 2 ⋅ Θ i wherein ρ denotes the time correlation coefficient, Θ i ′ denotes an i-th new codeword matrix of the new codebook, and Θ i denotes an i-th previous codeword matrix of the previous codebook wherein I denotes an identity matrix of size MxM, M being the number of the plurality of transmission antennas.
Method for producing a fiber composite material component which has a fiber-reinforced base body and a short-fiber-reinforced flange region arranged on the base body, comprising: - producing or providing a base body blank which has one or more fiber structures and thermoplastic matrix material; - producing or providing one or more flange region blanks which have short fibers and a thermoplastic matrix material; and - forming and compressing the flange region blank or blanks while supplying heat for producing the flange region on the base body, wherein the forming and the compressing occurs in one working operation; - wherein the flange region has a material region which covers a face side of the base body. - producing or providing a base body blank which has one or more fiber structures and thermoplastic matrix material; - producing or providing one or more flange region blanks which have short fibers and a thermoplastic matrix material; and - forming and compressing the flange region blank or blanks while supplying heat for producing the flange region on the base body, wherein the forming and the compressing occurs in one working operation; - wherein the flange region has a material region which covers a face side of the base body.
A method for producing an alkene, characterized in that it comprises the conversion of a 3-hydroxyalkanoate into said alkene by (i) a first enzyme having an activity of converting the 3-hydroxyalkanoate into the corresponding 3-phosphonoxyalkanoate; and (ii) a second enzyme being different from the first enzyme and having an activity of converting said 3-phosphonoxyalkanoate into said alkene by decarboxylation and dephosphorylation. (i) a first enzyme having an activity of converting the 3-hydroxyalkanoate into the corresponding 3-phosphonoxyalkanoate; and (ii) a second enzyme being different from the first enzyme and having an activity of converting said 3-phosphonoxyalkanoate into said alkene by decarboxylation and dephosphorylation.
An apparatus comprising: a controller (102, 700) configured to be coupled to a system clock that generates a clock signal for a device (106, 600) that generates radiated electromagnetic interference, RE, (108, 608), the controller also configured to: determine a frequency span associated with the system clock, the frequency span having a minimum frequency and a maximum frequency; determine a frequency step size based on an intermediate frequency, IF, filter bandwidth, f BW,, the frequency step size f STEP is calculated as: f STEP = 1.5 × f BW to 2.5 × f BW; determine a number of frequency steps based on the frequency span and the frequency step size; determine a total cycle time, t CYCLE, for the system clock to cycle through the sequence of frequency steps, the total cycle time is calculated as t CYCLE = MAX 1.5 × t DWELL to 2.5 × t DWELL; 3 × t DECAY to 5 × t DECAY; determine a duration of each frequency step based on the number of frequency steps and the total cycle time; determine the sequence of frequency steps, by interleaving the frequency steps across the frequency span,each frequency step associated with a distinct frequency within the frequency span; and control the system clock to change a frequency of the clock signal through the sequence of frequency steps in order to reduce the RE generated at or by the device. determine a frequency span associated with the system clock, the frequency span having a minimum frequency and a maximum frequency; determine a frequency step size based on an intermediate frequency, IF, filter bandwidth, f BW,, the frequency step size f STEP is calculated as: f STEP = 1.5 × f BW to 2.5 × f BW; determine a number of frequency steps based on the frequency span and the frequency step size; determine a total cycle time, t CYCLE, for the system clock to cycle through the sequence of frequency steps, the total cycle time is calculated as t CYCLE = MAX 1.5 × t DWELL to 2.5 × t DWELL; 3 × t DECAY to 5 × t DECAY; determine a duration of each frequency step based on the number of frequency steps and the total cycle time; determine the sequence of frequency steps, by interleaving the frequency steps across the frequency span,each frequency step associated with a distinct frequency within the frequency span; and control the system clock to change a frequency of the clock signal through the sequence of frequency steps in order to reduce the RE generated at or by the device.
A method of manufacturing a smoking article that includes a functional segment, a tobacco rod, a cooling segment, and a filter segment, comprising preparing a segment A that includes a double-length functional segment, which has a double length of the functional segment, and tobacco rods at either end of the double-length functional segment, preparing a pair of the cooling segments and placing the cooling segments in contact with either end of the segment A to prepare a segment C; cutting and separating the segment C in the central part in the longitudinal direction to prepare a pair of segments D and inverting the segments D, thereby placing the segments D via a gap to align the longitudinal axes of the segments D and allow the cooling segments to face each other; preparing a double-length filter segment, which has a double length of the filter segment, and placing the double-length filter segment in the gap such that both ends of the double-length filter segment come into contact with the end on the cooling segment side of either of the segments D, thereby preparing a segment E; integrating the segment E by wrapping in one tipping paper to produce a double-length smoking article, which has a double length of the smoking article, and cutting the double-length smoking article in the central part in the longitudinal direction to yield smoking articles. preparing a segment A that includes a double-length functional segment, which has a double length of the functional segment, and tobacco rods at either end of the double-length functional segment, preparing a pair of the cooling segments and placing the cooling segments in contact with either end of the segment A to prepare a segment C; cutting and separating the segment C in the central part in the longitudinal direction to prepare a pair of segments D and inverting the segments D, thereby placing the segments D via a gap to align the longitudinal axes of the segments D and allow the cooling segments to face each other; preparing a double-length filter segment, which has a double length of the filter segment, and placing the double-length filter segment in the gap such that both ends of the double-length filter segment come into contact with the end on the cooling segment side of either of the segments D, thereby preparing a segment E; integrating the segment E by wrapping in one tipping paper to produce a double-length smoking article, which has a double length of the smoking article, and cutting the double-length smoking article in the central part in the longitudinal direction to yield smoking articles.
Method for detecting a crosstalk issue on a Digital Subscriber Line of a vectoring group, executed by a monitoring device, comprising: - receiving operational data representative of the Quiet Line Noise and the Active Line Noise of said Digital Subscriber Line, and - detecting a crosstalk issue in function of said Quiet Line Noise and/or the Active Line Noise, characterized in that detecting a crosstalk issue comprises: - determining successive values of a first metric (d t) representative of an average difference, for respective tones, between the Quiet Line Noise and the Active Line Noise, - in response to determining that the first metric (d t) is below a first threshold (th d) for a predetermined period of time, determining that said Digital Subscriber Line is affected by cross-talk. - receiving operational data representative of the Quiet Line Noise and the Active Line Noise of said Digital Subscriber Line, and - detecting a crosstalk issue in function of said Quiet Line Noise and/or the Active Line Noise, - determining successive values of a first metric (d t) representative of an average difference, for respective tones, between the Quiet Line Noise and the Active Line Noise, - in response to determining that the first metric (d t) is below a first threshold (th d) for a predetermined period of time, determining that said Digital Subscriber Line is affected by cross-talk.
A method of creating a mass-customized femoral bone base plate comprising: establishing anatomical landmarks across a plurality of bone models of a statistical atlas; and establishing instrument landmarks across the plurality of bone models of the statistical atlas, the method being characterized by: establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur, where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted. establishing anatomical landmarks across a plurality of bone models of a statistical atlas; and establishing instrument landmarks across the plurality of bone models of the statistical atlas, the method being characterized by: establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur, where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted. establishing definitions for a reference plane calculation across the plurality of bone models of the statistical atlas, where the reference plane represents a boundary of a prosthetic implant; establishing an attachment site for a mass-customized femoral bone base plate using the anatomical landmarks, the instrument landmarks, and the reference plane; and, fabricating the mass-customized femoral bone base plate configured to be attached to a femur, where the attachment sites of the mass-customized femoral bone base plate are predetermined to avoid impingement with the prosthetic implant when implanted.
A drive system of a synchronous electrical motor comprising: a synchronous electrical motor; a power converter that is connected to the synchronous electrical motor and that is constituted of a plurality of switching elements; a controller that controls the synchronous electrical motor by outputting a voltage instruction to the power converter; characterized by a voltage detection unit that detects induced voltages at respective open phases upon application of respective positive and negative pulse voltages between respective two phases out of three-phase windings of the synchronous electrical motor; an induced voltage difference calculating unit that calculates an induced voltage difference that is a difference between an induced voltage detected by the voltage detection unit at each of the open phases upon application of the positive voltage pulse between the corresponding two phases and an induced voltage detected by the voltage detection unit at the open phase upon application of the negative voltage pulse between the two phases; and a rotor position determining unit that determines a rotor position based on the induced voltage difference. a synchronous electrical motor; a power converter that is connected to the synchronous electrical motor and that is constituted of a plurality of switching elements; a controller that controls the synchronous electrical motor by outputting a voltage instruction to the power converter; characterized by a voltage detection unit that detects induced voltages at respective open phases upon application of respective positive and negative pulse voltages between respective two phases out of three-phase windings of the synchronous electrical motor; an induced voltage difference calculating unit that calculates an induced voltage difference that is a difference between an induced voltage detected by the voltage detection unit at each of the open phases upon application of the positive voltage pulse between the corresponding two phases and an induced voltage detected by the voltage detection unit at the open phase upon application of the negative voltage pulse between the two phases; and a rotor position determining unit that determines a rotor position based on the induced voltage difference.
An un-manned aerial vehicle for aligning a first directive antenna in a direction D1 towards a second antenna, the aerial device comprising: a docking interface arranged to attach the aerial vehicle to a first alignment device of the first directive antenna, an alignment actuator arranged to mechanically interface with the alignment device and to actuate alignment of the first directive antenna based on an alignment control signal, and a control unit configured to generate the alignment control signal. a docking interface arranged to attach the aerial vehicle to a first alignment device of the first directive antenna, an alignment actuator arranged to mechanically interface with the alignment device and to actuate alignment of the first directive antenna based on an alignment control signal, and a control unit configured to generate the alignment control signal.
A multilayer system comprising at least the following layers, a) a packing foil, b) on the packing foil a primer layer containing at least 5% by weight of at least one polymer containing carboxylic groups, wherein the at least one polymer has a carboxyl number of 50 to 200, wherein the carboxyl number of the at least one polymer containing carboxylic groups is measured by titration, and c) on the primer layer a gas barrier layer containing at least one polyvinyl alcohol and/or at least one copolymer containing polyvinyl alcohol. a) a packing foil, b) on the packing foil a primer layer containing at least 5% by weight of at least one polymer containing carboxylic groups, wherein the at least one polymer has a carboxyl number of 50 to 200, wherein the carboxyl number of the at least one polymer containing carboxylic groups is measured by titration, and c) on the primer layer a gas barrier layer containing at least one polyvinyl alcohol and/or at least one copolymer containing polyvinyl alcohol.
A staple cartridge assembly, comprising: a cartridge body, comprising: a deck; and a plurality of staples movable between unfired positions and fired positions; a layer of material, wherein said staples are configured to at least partially capture said layer when said staples are moved between said unfired positions and said fired positions; and characterised in that the cartridge assembly comprises a cushioning member at least partially extending around a peripheral portion of said layer such that the cushioning member provides a pliable edge that is configured to contact tissue. a cartridge body, comprising: a deck; and a plurality of staples movable between unfired positions and fired positions; a deck; and a plurality of staples movable between unfired positions and fired positions; a layer of material, wherein said staples are configured to at least partially capture said layer when said staples are moved between said unfired positions and said fired positions; and characterised in that the cartridge assembly comprises a cushioning member at least partially extending around a peripheral portion of said layer such that the cushioning member provides a pliable edge that is configured to contact tissue.
An array substrate, comprising: a base substrate; an active layer and a first transparent electrode, disposed on the base substrate, wherein the first transparent electrode is a common electrode; an etch stop layer disposed on the active layer, the etch stop layer configured to protect a portion of the active layer; a protection layer disposed on a gate insulating layer; and a gate electrode and source/drain electrodes (116, 117); wherein the active layer and the first transparent electrode have a same base material and are disposed on the same layer, wherein the gate insulating layer made of silicon oxide and/or nitride oxide is disposed on the active layer, the etch stop layer made of photoresist and the first transparent electrode; and wherein the gate electrode is disposed between the gate insulating layer and the protection layer and over the etch stop layer and the active layer, the source/drain electrodes (116, 117) are disposed on the protection layer and above a doped region of the active layer and electrically connected to the doped region of the active layer through via holes formed in the protection layer and the gate insulating layer. a base substrate; an active layer and a first transparent electrode, disposed on the base substrate, wherein the first transparent electrode is a common electrode; an etch stop layer disposed on the active layer, the etch stop layer configured to protect a portion of the active layer; a protection layer disposed on a gate insulating layer; and a gate electrode and source/drain electrodes (116, 117); wherein the active layer and the first transparent electrode have a same base material and are disposed on the same layer, wherein the gate insulating layer made of silicon oxide and/or nitride oxide is disposed on the active layer, the etch stop layer made of photoresist and the first transparent electrode; and wherein the gate electrode is disposed between the gate insulating layer and the protection layer and over the etch stop layer and the active layer, the source/drain electrodes (116, 117) are disposed on the protection layer and above a doped region of the active layer and electrically connected to the doped region of the active layer through via holes formed in the protection layer and the gate insulating layer.