mhurhangee/patent-ind-claim-en huggingface dataset:
A method for utilizing interfaces of a network access device, - wherein the network access device comprises a subscriber interface with at least one subscriber port and a network interface, the method comprising: - checking whether configuration data can be obtained via the network interface; - when the configuration data cannot be obtained from the network interface, checking a predefined condition at the subscriber interface; - when the predefined condition is fulfilled, enabling the subscriber interface for configuration purposes. - wherein the network access device comprises a subscriber interface with at least one subscriber port and a network interface, - checking whether configuration data can be obtained via the network interface; - when the configuration data cannot be obtained from the network interface, checking a predefined condition at the subscriber interface; - when the predefined condition is fulfilled, enabling the subscriber interface for configuration purposes.
An exhaust system comprising an oxidation catalyst and an emissions control device, wherein the oxidation catalyst is for treating an exhaust gas from a diesel engine, which oxidation catalyst comprises: a first washcoat region for adsorbing NO x , wherein the first washcoat region comprises a zeolite catalyst, wherein the zeolite catalyst comprises a noble metal, wherein the noble metal comprises palladium (Pd), and a zeolite, wherein the zeolite is a medium pore zeolite; a second washcoat region for oxidising nitric oxide (NO), wherein the second washcoat region comprises platinum (Pt) and a support material; and a substrate having an inlet end and an outlet end; wherein the first washcoat region for adsorbing NO x is disposed directly on to the substrate and the second washcoat region is disposed or supported on the substrate; and wherein the emissions control device is selected from the group consisting of a selective catalytic reduction (SCR) catalyst, a selective catalytic reduction filter catalyst (SCRF). wherein the oxidation catalyst is for treating an exhaust gas from a diesel engine, which oxidation catalyst comprises: a first washcoat region for adsorbing NO x , wherein the first washcoat region comprises a zeolite catalyst, wherein the zeolite catalyst comprises a noble metal, wherein the noble metal comprises palladium (Pd), and a zeolite, wherein the zeolite is a medium pore zeolite; a second washcoat region for oxidising nitric oxide (NO), wherein the second washcoat region comprises platinum (Pt) and a support material; and a substrate having an inlet end and an outlet end; a first washcoat region for adsorbing NO x , wherein the first washcoat region comprises a zeolite catalyst, wherein the zeolite catalyst comprises a noble metal, wherein the noble metal comprises palladium (Pd), and a zeolite, wherein the zeolite is a medium pore zeolite; a second washcoat region for oxidising nitric oxide (NO), wherein the second washcoat region comprises platinum (Pt) and a support material; and a substrate having an inlet end and an outlet end; wherein the first washcoat region for adsorbing NO x is disposed directly on to the substrate and the second washcoat region is disposed or supported on the substrate; and wherein the emissions control device is selected from the group consisting of a selective catalytic reduction (SCR) catalyst, a selective catalytic reduction filter catalyst (SCRF).
A method for monitoring a three-phase power network operated in a compensated manner for a tuning change of the arc suppression coil, wherein reference network parameters and a reference network frequency are ascertained for a tuned state, and a current network frequency for a current state is ascertained, and a reference characteristic variable is determined, which is proportional to a displacement voltage, using the reference network parameters for the current network frequency, and a current characteristic variable is determined, which is proportional to a displacement voltage, at the current network frequency, and a differential variable is determined from the reference characteristic variable and the current characteristic variable, from which a tuning change is identified when a predetermined threshold value is exceeded, and modified network parameters are ascertained. wherein reference network parameters and a reference network frequency are ascertained for a tuned state, and a current network frequency for a current state is ascertained, and a reference characteristic variable is determined, which is proportional to a displacement voltage, using the reference network parameters for the current network frequency, and a current characteristic variable is determined, which is proportional to a displacement voltage, at the current network frequency, and a differential variable is determined from the reference characteristic variable and the current characteristic variable, from which a tuning change is identified when a predetermined threshold value is exceeded, and modified network parameters are ascertained.
Modulator unit for modulating the polarization of an optical signal, including: a light source ; a polarization-dependent phase modulator ; a reflector ; wherein the light source is designed to output an optical signal and emit it as an input signal in the direction of the polarization-dependent phase modulator , wherein the optical signal contains a first polarization component having a first polarization direction and a second polarization component having a second polarization direction; wherein the polarization-dependent phase modulator is designed to modulate a first phase of the first polarization component of the input signal in the first polarization direction and to pass on the input signal thus modulated to the reflector ; characterized in that the reflector is designed to retroreflect the received optical signal in the direction of the polarization-dependent phase modulator and at the same time to change its polarization, so that the first polarization component having the first polarization direction receives the second polarization direction and the second polarization component having the second polarization direction receives the first polarization direction; wherein the polarization-dependent phase modulator is designed to modulate a second phase of the second polarization component of the retroreflected optical signal in the first polarization direction; wherein the modulator unit is designed to output the optical signal thus modulated as a polarization-modulated output signal . a light source ; a polarization-dependent phase modulator ; a reflector ; wherein the light source is designed to output an optical signal and emit it as an input signal in the direction of the polarization-dependent phase modulator , wherein the optical signal contains a first polarization component having a first polarization direction and a second polarization component having a second polarization direction; wherein the polarization-dependent phase modulator is designed to modulate a first phase of the first polarization component of the input signal in the first polarization direction and to pass on the input signal thus modulated to the reflector ; characterized in that the reflector is designed to retroreflect the received optical signal in the direction of the polarization-dependent phase modulator and at the same time to change its polarization, so that the first polarization component having the first polarization direction receives the second polarization direction and the second polarization component having the second polarization direction receives the first polarization direction; wherein the polarization-dependent phase modulator is designed to modulate a second phase of the second polarization component of the retroreflected optical signal in the first polarization direction; wherein the modulator unit is designed to output the optical signal thus modulated as a polarization-modulated output signal .
Generator of inerting gas from a flow of air, in a system for inerting at least one fuel tank of an aircraft, the generator comprising a circuit with an air inlet and means for distributing the flow of air towards a plurality of air separation modules arranged in parallel on the air circuit to deplete the air of oxygen and generate, at the outlet, an inerting gas enriched in nitrogen, and also comprising a unit for controlling the distribution means programmed to selectively supply with air just one, a part, or all of the air separation modules according to the flight phase of the aircraft, wherein when just one or a part of the air separation modules are supplied with air, the control unit is programmed to supply with air, out of the plurality of air separation modules , the air separation module(s) having the lowest number of cumulative operating hours, and/or the air separation module(s) having the best performance, said generator of inerting gas comprises at least one oxygen analyser , and means for directing the inerting gas at the outlet of each air separation module towards the oxygen analyser characterised in that the oxygen analyser is used to measure the performance of each air separation module independently of each other.
Pipetting device with housing , in particular pipetting robot, comprising: a lower housing part with a housing bottom , a lower rear side , a lower front side and lower side walls connecting the lower front side and the lower rear side , wherein the lower housing part is designed such that it can be positioned directly on a position surface, in particular a work surface of a table or the like; an upper housing part with a housing roof , an upper rear side , an upper front side and upper side walls connecting the upper front side and the upper rear side ; wherein the housing bottom comprises at least one support surface on which a pipetting device accommodated in the housing is supported; wherein the upper housing part and the lower housing part are designed such that the upper housing part can be arranged on the lower housing part independently of the pipetting device received in the lower housing part or can be removed therefrom. a lower housing part with a housing bottom , a lower rear side , a lower front side and lower side walls connecting the lower front side and the lower rear side , wherein the lower housing part is designed such that it can be positioned directly on a position surface, in particular a work surface of a table or the like; an upper housing part with a housing roof , an upper rear side , an upper front side and upper side walls connecting the upper front side and the upper rear side ; wherein the housing bottom comprises at least one support surface on which a pipetting device accommodated in the housing is supported; wherein the upper housing part and the lower housing part are designed such that the upper housing part can be arranged on the lower housing part independently of the pipetting device received in the lower housing part or can be removed therefrom.
An audio encoding apparatus for performing a coding based on spectral band replication, comprising: a determination unit configured to determine whether a tone is included in a boundary between a low-frequency band that is a frequency bandwidth below a predetermined frequency of an input signal and a high-frequency band that is a frequency bandwidth above the predetermined frequency of the input signal; an encoding unit configured to suppress a tone in one of the low-frequency band and the high-frequency band, encode the input signal having the low-frequency band to generate a low-frequency code, and encode the input signal having the high-frequency band to generate a high-frequency code; and a multiplexing unit configured to generate an encoded stream by multiplexing the low-frequency code and the high-frequency code, wherein the determination unit is configured to determine whether the tone in one of the low-frequency band and the high-frequency band is suppressed, based on a comparison result of a bit rate of the input signal to be encoded with a threshold value. a determination unit configured to determine whether a tone is included in a boundary between a low-frequency band that is a frequency bandwidth below a predetermined frequency of an input signal and a high-frequency band that is a frequency bandwidth above the predetermined frequency of the input signal; an encoding unit configured to suppress a tone in one of the low-frequency band and the high-frequency band, encode the input signal having the low-frequency band to generate a low-frequency code, and encode the input signal having the high-frequency band to generate a high-frequency code; and a multiplexing unit configured to generate an encoded stream by multiplexing the low-frequency code and the high-frequency code, wherein the determination unit is configured to determine whether the tone in one of the low-frequency band and the high-frequency band is suppressed, based on a comparison result of a bit rate of the input signal to be encoded with a threshold value.
A haptic-tactile, motion or movement signal conversion system comprising: a capturing member configured to capture one or more effects of an event; a processor in communication with the capturing member and configured to provide a signal based on the one or more effects for transmission to a remote location; a receiver positioned at the remote location and configured to receive the signal; a signal conversion device in communication with the receiver and configured to convert the signal into a physical movement; characterised in a transmission member positioned adjacent to the signal conversion device and configured to transmit the physical movement from the signal conversion device to a signal conversion device user , wherein both the signal conversion device and the transmission member at least partially physically support the signal conversion device user and the transmission member is a separate physical object with respect to the signal conversion device and wherein the transmission member abuts the signal conversion device such that the signal conversion device user receives a haptic-tactile, motion or movement effect based on the one or more effects of the event. a capturing member configured to capture one or more effects of an event; a processor in communication with the capturing member and configured to provide a signal based on the one or more effects for transmission to a remote location; a receiver positioned at the remote location and configured to receive the signal; a signal conversion device in communication with the receiver and configured to convert the signal into a physical movement; characterised in a transmission member positioned adjacent to the signal conversion device and configured to transmit the physical movement from the signal conversion device to a signal conversion device user , wherein both the signal conversion device and the transmission member at least partially physically support the signal conversion device user and the transmission member is a separate physical object with respect to the signal conversion device and wherein the transmission member abuts the signal conversion device such that the signal conversion device user receives a haptic-tactile, motion or movement effect based on the one or more effects of the event.
A skin-mountable device comprising a surface carrying an adhesive layer for adhering the device to a skin region and a removable non-adhesive cover layer shaped as a loop having a first loop portion covering the entire adhesive layer and a second loop portion connected to the first loop portion by a loop return and returning over the first loop portion, the second loop portion containing a pull tab opposing said loop return and extending beyond said surface.
A method of making a prepreg comprising fibers and a binder composition, the method comprising: a) placing the fibers on a moving conveying belt and applying the binder composition to the fibers on the moving conveying belt to form a moving mass; and b) passing the moving mass through one or more pairs of opposed, compacting rolls, wherein the fibers and the binder composition are pressed into further contact while passing through the compacting rolls to form the prepreg, wherein the binder composition in the prepreg comprises monomers and/or oligomers of a polymer that are capable of polymerizing into the polymer under polymerization conditions. a) placing the fibers on a moving conveying belt and applying the binder composition to the fibers on the moving conveying belt to form a moving mass; and b) passing the moving mass through one or more pairs of opposed, compacting rolls, wherein the fibers and the binder composition are pressed into further contact while passing through the compacting rolls to form the prepreg, wherein the binder composition in the prepreg comprises monomers and/or oligomers of a polymer that are capable of polymerizing into the polymer under polymerization conditions.
A powder mixture, especially for the remineralization of teeth, characterized in that the powder mixture comprises a carrier powder and a deposition powder, wherein the deposition powder is a phosphate powder which is intended for remineralization of the teeth, and comprises agglomerates of nanoparticles, a size of the agglomerate of the deposition powder being in a range of 1 to 10 μm and the carrier powder being a cleaning powder having an average particle size of between 10 and 100 μm, the average particle size of the carrier powder being larger than an average particle size of the deposition powder.
Method for improving a hybrid yeast strain of industrial interest, comprising: a) transferring the yeast from a rich medium to a sporulation medium, preferably without a fermentable carbon source or nitrogen source; b) incubating the yeasts in the sporulation medium for a length of time sufficient to induce the formation of Spo11-dependent double-strand breaks; c) placing the yeasts in contact with a source of carbon and nitrogen before the reductional chromosome segregation of the first meiotic division to obtain the recombinant yeasts; d) collecting the recombinant yeasts; and e) screening or selection of the recombinant yeasts in order to identify those having the desired improvement, the yeast strain of industrial interest being an organism whose genetic material has not been altered by transgenesis and/or the improved yeasts being organisms whose genetic material has not been altered by transgenesis, steps a) to d) or a) to e) being repeated at least once using one or more recombinant yeasts. a) transferring the yeast from a rich medium to a sporulation medium, preferably without a fermentable carbon source or nitrogen source; b) incubating the yeasts in the sporulation medium for a length of time sufficient to induce the formation of Spo11-dependent double-strand breaks; c) placing the yeasts in contact with a source of carbon and nitrogen before the reductional chromosome segregation of the first meiotic division to obtain the recombinant yeasts; d) collecting the recombinant yeasts; and e) screening or selection of the recombinant yeasts in order to identify those having the desired improvement,
An electrophoretic display comprising: a front and a rear electrode, at least one of the front and rear electrodes being transparent; and an encapsulated dispersion fluid containing a plurality of pigments positioned between the front and rear electrodes, the plurality of pigments comprising: (a) a first and a second type of pigment particle, the first type of pigment particle having a first color and a first charge polarity, the second type of pigment particle having a second color and a second charge polarity, the first color and second colors being different, the first and second charge polarity being the same; (b) a third type of organic pigment having a third color and third charge polarity, the third color being different from the first and second colors, and the third charge polarity being different from the first and second charge polarity; and (c) a fourth type of inorganic pigment particles the display being characterized in that both the first and second types of pigment particles are organic pigment particles, and at least one of the first and second types of organic pigment particles includes a silica coating and a polymeric stabilizer bonded to the silica coating. a front and a rear electrode, at least one of the front and rear electrodes being transparent; and an encapsulated dispersion fluid containing a plurality of pigments positioned between the front and rear electrodes, the plurality of pigments comprising: (a) a first and a second type of pigment particle, the first type of pigment particle having a first color and a first charge polarity, the second type of pigment particle having a second color and a second charge polarity, the first color and second colors being different, the first and second charge polarity being the same; (b) a third type of organic pigment having a third color and third charge polarity, the third color being different from the first and second colors, and the third charge polarity being different from the first and second charge polarity; and (c) a fourth type of inorganic pigment particles (a) a first and a second type of pigment particle, the first type of pigment particle having a first color and a first charge polarity, the second type of pigment particle having a second color and a second charge polarity, the first color and second colors being different, the first and second charge polarity being the same; (b) a third type of organic pigment having a third color and third charge polarity, the third color being different from the first and second colors, and the third charge polarity being different from the first and second charge polarity; and (c) a fourth type of inorganic pigment particles the display being characterized in that both the first and second types of pigment particles are organic pigment particles, and at least one of the first and second types of organic pigment particles includes a silica coating and a polymeric stabilizer bonded to the silica coating.