mhurhangee/ep-ind-claims huggingface dataset:
An automatic dishwasher detergent, comprising a packaging means and two liquid cleaning agents A and B that are present in this packaging means and separated from one another, which cleaning agents are of the composition: A: - from 10 to 55 wt.% builder(s); - from 0.1 to 15 wt.% enzyme preparation(s); - from 0.001 to 30 wt.% bleach activator; - from 20 to 70 wt.% water; and B: - from 50 to 99.9 wt.% water; - from 0.1 to 50 wt.% oxygen bleaching agent; - at most 8.0 wt.% further ingredients, characterized in that the liquid cleaning agents A and B have a pH (20 °C) of less than 9. A: - from 10 to 55 wt.% builder(s); - from 0.1 to 15 wt.% enzyme preparation(s); - from 0.001 to 30 wt.% bleach activator; - from 20 to 70 wt.% water; and - from 10 to 55 wt.% builder(s); - from 0.1 to 15 wt.% enzyme preparation(s); - from 0.001 to 30 wt.% bleach activator; - from 20 to 70 wt.% water; and B: - from 50 to 99.9 wt.% water; - from 0.1 to 50 wt.% oxygen bleaching agent; - at most 8.0 wt.% further ingredients, - from 50 to 99.9 wt.% water; - from 0.1 to 50 wt.% oxygen bleaching agent; - at most 8.0 wt.% further ingredients,
Use of a carbon catalyst which is obtained by a method comprising carbonizing a raw material including an organic substance containing a nitrogen atom, and one or more kinds of transition metals belonging to the fourth period of Group 3 to Group 12 of the periodic table, wherein the total amount of the transition metals to the amount of the raw material is 1 to 20% by mass, for hydrogen production by thermal decomposition of a hydrocarbon compound and/or an oxygen-containing organic compound.
A thermoelectric element comprising: a first substrate; a first insulating layer disposed on the first substrate; a plurality of first electrodes disposed on the first insulating layer; a plurality of thermoelectric legs (240, 250)) disposed on the plurality of first electrodes and including P type and N type semiconductors; a plurality of second electrodes disposed on the plurality of thermoelectric legs (240, 250); a second insulating layer disposed on the plurality of second electrodes; and a second substrate disposed on the second insulating layer, wherein the first substrate includes a first region in which the plurality of first electrodes and the plurality of second electrodes are vertically overlapped, wherein the first substrate includes a first outer periphery, a second outer periphery, a third outer periphery perpendicular to the first outer periphery and a fourth outer periphery parallel to the first outer periphery, characterised in that at least one of the plurality of first electrodes includes an extension portion extending from the first region toward a first outer periphery of the first substrate, wherein a shortest distance between the first region and the first outer periphery is 1.2 to 2.5 times a shortest distance (A1, A2) between an end of the extension portion and the first outer periphery. a first substrate; a first insulating layer disposed on the first substrate; a plurality of first electrodes disposed on the first insulating layer; a plurality of thermoelectric legs (240, 250)) disposed on the plurality of first electrodes and including P type and N type semiconductors; a plurality of second electrodes disposed on the plurality of thermoelectric legs (240, 250); a second insulating layer disposed on the plurality of second electrodes; and a second substrate disposed on the second insulating layer, wherein the first substrate includes a first region in which the plurality of first electrodes and the plurality of second electrodes are vertically overlapped, wherein the first substrate includes a first outer periphery, a second outer periphery, a third outer periphery perpendicular to the first outer periphery and a fourth outer periphery parallel to the first outer periphery, characterised in that at least one of the plurality of first electrodes includes an extension portion extending from the first region toward a first outer periphery of the first substrate, wherein a shortest distance between the first region and the first outer periphery is 1.2 to 2.5 times a shortest distance (A1, A2) between an end of the extension portion and the first outer periphery.
A method for the monitoring and/or location of water losses in a water pipeline network with a plurality of hydrographs, comprising at least the following steps: - positioning of measuring units at selected points of the pipeline network, wherein a measuring unit consists of two sensors (3, 4) operating simultaneously as transmitter and receiver, which are mounted along the pipe axis on the outer surface of a pipe, preferably on the bore centre line, characterised in that the method comprises at least the further following steps: - measurement of the flow velocity of the fluid in the pipe with the aid of the ultrasound measurement method, wherein a first ultrasound pulse is transmitted through the fluid in the flow direction, and a second ultrasound pulse is transmitted against the flow direction, the sensors (3, 4) operate alternately as transmitter and receiver and the flow velocity is determined from the time difference Δt between the sound signals in the flow direction and the sound signals against the flow direction, - transfer of the measured data to a database of a central computer unit with the aid of a data transfer module attached onto the measuring unit in question, and - evaluation of the measured data in the central computer unit, in that the measured data of the hydrographs with the characteristic night minimum are evaluated, wherein the hydrographs are investigated for the minimum measured values, the, preferably five, lowest values are determined, and the water movements thus identified during the low consumption night hours indicate leakage losses. - positioning of measuring units at selected points of the pipeline network, wherein a measuring unit consists of two sensors (3, 4) operating simultaneously as transmitter and receiver, which are mounted along the pipe axis on the outer surface of a pipe, preferably on the bore centre line, characterised in that the method comprises at least the further following steps: - measurement of the flow velocity of the fluid in the pipe with the aid of the ultrasound measurement method, wherein a first ultrasound pulse is transmitted through the fluid in the flow direction, and a second ultrasound pulse is transmitted against the flow direction, the sensors (3, 4) operate alternately as transmitter and receiver and the flow velocity is determined from the time difference Δt between the sound signals in the flow direction and the sound signals against the flow direction, - transfer of the measured data to a database of a central computer unit with the aid of a data transfer module attached onto the measuring unit in question, and - evaluation of the measured data in the central computer unit, in that the measured data of the hydrographs with the characteristic night minimum are evaluated, wherein the hydrographs are investigated for the minimum measured values, the, preferably five, lowest values are determined, and the water movements thus identified during the low consumption night hours indicate leakage losses.
An apparatus for in-mold labeling an injection-molded product, the injection-molded product having a plurality of corresponding mold cavities, each of the mold cavities having a tightly contoured target area for location of a label thereon, at least a portion of each target area having a semi-circular cross-section, the apparatus comprising: a label holder including a label magazine comprising a plurality of label storage stations, a handling tool configured to simultaneously draw a plurality of labels from the label holder and to place each of the labels into the target area of one of the mold cavities, a selectively activatable suction port located in the target area of each of the mold cavities, and a pin (140; 160) disposed in the suction port of each mold cavity while the suction port is activated, wherein each pin has a position relative to the suction port in which the pin supports the label and each pin comprises a plurality of body portions (146, 148, 152, 154, 156) of different cross-section, one or more of said body portions having a plurality of contact points spaced from each other and arranged to center the pin in the suction port, characterised in that at least one of the body portions has a modified circular, triangular or D-shaped cross-section. a label holder including a label magazine comprising a plurality of label storage stations, a handling tool configured to simultaneously draw a plurality of labels from the label holder and to place each of the labels into the target area of one of the mold cavities, a selectively activatable suction port located in the target area of each of the mold cavities, and a pin (140; 160) disposed in the suction port of each mold cavity while the suction port is activated, wherein each pin has a position relative to the suction port in which the pin supports the label and each pin comprises a plurality of body portions (146, 148, 152, 154, 156) of different cross-section, one or more of said body portions having a plurality of contact points spaced from each other and arranged to center the pin in the suction port, characterised in that at least one of the body portions has a modified circular, triangular or D-shaped cross-section.
A high rebaudioside C-content non-genetically modified stevia plant having a rebaudioside C content of 15% by weight or more in a dried leaf, and having in the genome the polymorphism shown in SEQ ID NO: 1.
A method for producing a glycoconjugate, the method comprising: (i) providing a genetically modified E. coli cell of LacZ -, LacY + genotype comprising a gene encoding a glycosyl transferase enzyme that is able to transfer the glycosyl residue of an activated sugar nucleotide to an internalized acceptor, wherein the glycosyl transferase is a fucosyl transferase, and/or a sialyl transferase, and/or an N-acetylglucosaminyl transferase and/or a galactosyl transferase, and the activated sugar nucleotide is GDP-Fuc, CMP-sialic acid, UDP-GlcNAc or UDP-Gal, (ii) culturing said genetically modified cell in the presence of an exogenous acceptor which is a compound of formula 7 wherein n is an integer from 2 to 10, inducing (a) internalization of the exogenous acceptor by the genetically modified cell, and (b) formation of said glycoconjugate from said internalized acceptor molecule by a glycosyl transfer mediated by said glycosyl transferase enzyme expressed by said cell, and then (iii) collecting said glycoconjugate from the fermentation broth, wherein the glycoconjugate produced by the method is a fucosylated and/or sialylated and/or N-acetylglucosaminylated and/or galactosylated compound of formula 7a wherein n is as defined above and Y is a human milk oligosaccharide glycosyl residue. (i) providing a genetically modified E. coli cell of LacZ -, LacY + genotype comprising a gene encoding a glycosyl transferase enzyme that is able to transfer the glycosyl residue of an activated sugar nucleotide to an internalized acceptor, wherein the glycosyl transferase is a fucosyl transferase, and/or a sialyl transferase, and/or an N-acetylglucosaminyl transferase and/or a galactosyl transferase, and the activated sugar nucleotide is GDP-Fuc, CMP-sialic acid, UDP-GlcNAc or UDP-Gal, (ii) culturing said genetically modified cell in the presence of an exogenous acceptor which is a compound of formula 7 wherein n is an integer from 2 to 10, inducing (a) internalization of the exogenous acceptor by the genetically modified cell, and (b) formation of said glycoconjugate from said internalized acceptor molecule by a glycosyl transfer mediated by said glycosyl transferase enzyme expressed by said cell, and then (a) internalization of the exogenous acceptor by the genetically modified cell, and (b) formation of said glycoconjugate from said internalized acceptor molecule by a glycosyl transfer mediated by said glycosyl transferase enzyme expressed by said cell, and then (iii) collecting said glycoconjugate from the fermentation broth, wherein the glycoconjugate produced by the method is a fucosylated and/or sialylated and/or N-acetylglucosaminylated and/or galactosylated compound of formula 7a wherein n is as defined above and Y is a human milk oligosaccharide glycosyl residue.
A method comprising: monitoring a first event corresponding to a first parameter in a first database, wherein the first database is configured to operate a first switch operating traffic on a network, the first database periodically synching with a second database; monitoring a second parameter, corresponding to the first parameter, on the second database, wherein the second database is configured to operate a second switch on the network, the second switch configured to operate traffic on the network, and wherein both the first and the second switch are configured, via the first and second databases, respectively, to actively manage the network; determining that there is a deviation between the first and second parameter that exceeds a threshold amount; retrieving, from the first database, historical values of the first parameter; retrieving, from the second database, historical values of the second parameter; determining a historical comparison between the historical values of the first parameter and the historical values of the second parameter; comparing the historical comparison to the deviation; and transmitting an alert comprising the deviation and one or more of data corresponding to the first and second parameters, the historical values of the first and second parameters, and data corresponding to parameters related to the first and second parameter. monitoring a first event corresponding to a first parameter in a first database, wherein the first database is configured to operate a first switch operating traffic on a network, the first database periodically synching with a second database; monitoring a second parameter, corresponding to the first parameter, on the second database, wherein the second database is configured to operate a second switch on the network, the second switch configured to operate traffic on the network, and wherein both the first and the second switch are configured, via the first and second databases, respectively, to actively manage the network; determining that there is a deviation between the first and second parameter that exceeds a threshold amount; retrieving, from the first database, historical values of the first parameter; retrieving, from the second database, historical values of the second parameter; determining a historical comparison between the historical values of the first parameter and the historical values of the second parameter; comparing the historical comparison to the deviation; and transmitting an alert comprising the deviation and one or more of data corresponding to the first and second parameters, the historical values of the first and second parameters, and data corresponding to parameters related to the first and second parameter.
A semiconductor device comprising: a first processor that performs a predetermined interrupt in response to a first interrupt request; a plurality of circuit blocks (141, 142, 143, 144), each outputting an interrupt signal (161, 162, 163, 164); a first interrupt control circuit that receives the interrupt signals (161, 162, 163, 164) from the circuit blocks (141, 142, 143, 144) and outputs the first interrupt request to the first processor; and at least one interrupt monitoring circuit (131, 132) that corresponds to at least one of the interrupt signals (161, 162, 163, 164) and includes a setting circuit for setting a monitoring type (232, 233) and first and second monitoring periods, the monitoring type indicating whether to monitor an asserted state only, a negated state only, or both states of the corresponding interrupt signal, wherein if the set monitoring type (232, 233) indicates that at least the asserted state of the interrupt signal is to be monitored, the interrupt monitoring circuit (131, 132) monitors the asserted state, and if a first duration of the continuous asserted state exceeds a first monitoring period, the interrupt monitoring circuit (131, 132) detects the state as a failure, and wherein if the set monitoring type (232, 233) indicates that at least the negated state of the interrupt signal is to be monitored, the interrupt monitoring circuit (131, 132) monitors the negated state, and if a second duration of the continuous negated state exceeds a second monitoring period, the interrupt monitoring circuit (131, 132) detects the state as a failure. a first processor that performs a predetermined interrupt in response to a first interrupt request; a plurality of circuit blocks (141, 142, 143, 144), each outputting an interrupt signal (161, 162, 163, 164); a first interrupt control circuit that receives the interrupt signals (161, 162, 163, 164) from the circuit blocks (141, 142, 143, 144) and outputs the first interrupt request to the first processor; and at least one interrupt monitoring circuit (131, 132) that corresponds to at least one of the interrupt signals (161, 162, 163, 164) and includes a setting circuit for setting a monitoring type (232, 233) and first and second monitoring periods, the monitoring type indicating whether to monitor an asserted state only, a negated state only, or both states of the corresponding interrupt signal, wherein if the set monitoring type (232, 233) indicates that at least the asserted state of the interrupt signal is to be monitored, the interrupt monitoring circuit (131, 132) monitors the asserted state, and if a first duration of the continuous asserted state exceeds a first monitoring period, the interrupt monitoring circuit (131, 132) detects the state as a failure, and wherein if the set monitoring type (232, 233) indicates that at least the negated state of the interrupt signal is to be monitored, the interrupt monitoring circuit (131, 132) monitors the negated state, and if a second duration of the continuous negated state exceeds a second monitoring period, the interrupt monitoring circuit (131, 132) detects the state as a failure.
A device for measuring currents in power supply networks, the device having measuring current transformers and having a signal processing apparatus arranged on a printed circuit board and having screw fastenings for mounting the device, characterised in that cable ducts of the measuring current transformers are orientated parallel to a printed circuit board plane, wherein the printed circuit board has openings flush to the cable ducts of the measuring current transformers and the screw fastenings are constructed as fastening tabs having mounting holes, the spacings of which are dimensioned in such a manner that a standards-compliant mounting is possible and wherein the measuring current transformers are installed with the printed circuit board in a common housing, on the housing edges of which the fastening tabs of the screw fastening are integrally moulded.
A feed method for feeding at least one combustion chamber with at least a first propellant, the method comprising the following steps: pumping a main flow and a secondary flow of said first propellant by means of a first pump; heating at least said main flow of the first propellant in a heat exchanger downstream from said first pump; expanding at least a portion of said main flow of the first propellant, after said heating, in a first turbine driving the first pump; injecting said main flow of the first propellant downstream from the first turbine into the at least one combustion chamber; and off-loading said secondary flow of the first propellant downstream from the first pump but upstream from the first turbine, said off-loading being controlled in such a manner as to achieve equilibrium between power generated by the first turbine and power consumed by the first pump, thereby stopping the rise in speed of said first turbine and said first pump at a predetermined speed lower than a nominal speed. pumping a main flow and a secondary flow of said first propellant by means of a first pump; heating at least said main flow of the first propellant in a heat exchanger downstream from said first pump; expanding at least a portion of said main flow of the first propellant, after said heating, in a first turbine driving the first pump; injecting said main flow of the first propellant downstream from the first turbine into the at least one combustion chamber; and off-loading said secondary flow of the first propellant downstream from the first pump but upstream from the first turbine, said off-loading being controlled in such a manner as to achieve equilibrium between power generated by the first turbine and power consumed by the first pump, thereby stopping the rise in speed of said first turbine and said first pump at a predetermined speed lower than a nominal speed.
An injection device including an injection complete indicator for providing a kinetic impact indication, the device including: a housing; a plunger moveable in said housing between cocked and fired positions under the influence of a plunger drive source; an indicator element biased towards an injection complete indicating position by an indicator biasing means; a hold-release arrangement (34, 40, 41, 43), for holding said injection complete indicator with said biasing means acting on it, and responsive to arrival of said plunger at or near its fired position to release said indicator element for movement under the influence of said indicator biasing means to move to said injection complete indicating position to impact a stop to create said kinetic impact, characterised in that the injection complete indicator provides both a visual indication and a kinetic impact indication, and in that said movement makes the injection complete indicator additionally provide a visual indication. a housing; a plunger moveable in said housing between cocked and fired positions under the influence of a plunger drive source; an indicator element biased towards an injection complete indicating position by an indicator biasing means; a hold-release arrangement (34, 40, 41, 43), for holding said injection complete indicator with said biasing means acting on it, and responsive to arrival of said plunger at or near its fired position to release said indicator element for movement under the influence of said indicator biasing means to move to said injection complete indicating position to impact a stop to create said kinetic impact, characterised in that the injection complete indicator provides both a visual indication and a kinetic impact indication, and in that said movement makes the injection complete indicator additionally provide a visual indication.
A therapeutic device comprising: a first visual signalling element; a second visual signalling element positioned separately from the first visual signalling element; a third visual signalling element positioned between the first and second visual signalling elements; a control apparatus for controlling the first, second and third signalling elements; wherein the control apparatus is arranged to: for a first period of time, to alternately activate the first and second visual signalling elements; for a second period of time subsequent the first period of time, to activate the third visual signalling element; characterised in that the first, second and third visual signalling elements are regions of one or more visual display units, and wherein each region of the one or more visual display units is activated by displaying an image at a position within the region. a first visual signalling element; a second visual signalling element positioned separately from the first visual signalling element; a third visual signalling element positioned between the first and second visual signalling elements; a control apparatus for controlling the first, second and third signalling elements; for a first period of time, to alternately activate the first and second visual signalling elements; for a second period of time subsequent the first period of time, to activate the third visual signalling element;