mhurhangee/ep-ind-claims huggingface dataset:
A mopping device comprising: a mopping portion; a fluid release device for releasing fluid to a surface to be mopped; a handle configured to be gripped by a user to control the mopping portion; a reservoir for storing fluid, wherein the reservoir includes a refillable collapsible bladder; a reservoir housing connected to the handle and having an end surface facing the mopping portion, the collapsible bladder being located within the reservoir housing; and a sprayer configured to dispense fluid in a plurality of streams behind or in front of the mopping portion, the sprayer being mounted on the end surface of the reservoir housing such that dispensing of fluid from the sprayer occurs at the end surface of the reservoir housing, wherein the bladder has a first opening at the top of the bladder and a second opening at the bottom of the bladder, the first opening being configured to allow the fluid to fill the bladder to an expanded state from a collapsed state and the second opening being configured to allow the fluid to flow into the sprayer such that the bladder collapses back to the collapsed state when drained of fluid. a mopping portion; a fluid release device for releasing fluid to a surface to be mopped; a handle configured to be gripped by a user to control the mopping portion; a reservoir for storing fluid, wherein the reservoir includes a refillable collapsible bladder; a reservoir housing connected to the handle and having an end surface facing the mopping portion, the collapsible bladder being located within the reservoir housing; and a sprayer configured to dispense fluid in a plurality of streams behind or in front of the mopping portion, the sprayer being mounted on the end surface of the reservoir housing such that dispensing of fluid from the sprayer occurs at the end surface of the reservoir housing, wherein the bladder has a first opening at the top of the bladder and a second opening at the bottom of the bladder, the first opening being configured to allow the fluid to fill the bladder to an expanded state from a collapsed state and the second opening being configured to allow the fluid to flow into the sprayer such that the bladder collapses back to the collapsed state when drained of fluid.
A method of synchronizing a clock of an electronic apparatus with a master clock, the method comprising the following steps performed by the electronic apparatus: receiving, at a first network interface of the electronic apparatus, at least one first synchronization message (43, 44) transmitted from a further apparatus over a first network, receiving, at a second network interface of the electronic apparatus, at least one second synchronization message (53, 54) transmitted from the further apparatus over a second network different from the first network, determining a first clock correction parameter (41; 83) from the at least one first synchronization message (43, 44) and determining a second clock correction parameter (51; 88) from the at least one second synchronization message (53, 54), and aligning the clock of the electronic apparatus with the master clock, wherein both the first clock correction parameter (41; 83) and the second clock correction parameter (51; 88) are used for the aligning, characterized by determining whether the first and second clock correction parameters (41, 51; 83, 88) have different signs; wherein, when the first and second clock correction parameters (41, 51; 83, 88) have different signs, averaging of the first clock correction parameter (41; 83) and the second clock correction parameter (51; 88) is performed to perform the aligning, and wherein, when the first and second clock correction parameters (41, 51; 83, 88) have equal signs, a clock correction parameter is set equal to one of the first clock correction parameter or the second clock correction parameter. receiving, at a first network interface of the electronic apparatus, at least one first synchronization message (43, 44) transmitted from a further apparatus over a first network, receiving, at a second network interface of the electronic apparatus, at least one second synchronization message (53, 54) transmitted from the further apparatus over a second network different from the first network, determining a first clock correction parameter (41; 83) from the at least one first synchronization message (43, 44) and determining a second clock correction parameter (51; 88) from the at least one second synchronization message (53, 54), and aligning the clock of the electronic apparatus with the master clock, wherein both the first clock correction parameter (41; 83) and the second clock correction parameter (51; 88) are used for the aligning, characterized by determining whether the first and second clock correction parameters (41, 51; 83, 88) have different signs; wherein, when the first and second clock correction parameters (41, 51; 83, 88) have different signs, averaging of the first clock correction parameter (41; 83) and the second clock correction parameter (51; 88) is performed to perform the aligning, and wherein, when the first and second clock correction parameters (41, 51; 83, 88) have equal signs, a clock correction parameter is set equal to one of the first clock correction parameter or the second clock correction parameter.
Residual-current circuit breaker with a first unit configured to detect a fault current within an electric power supply network and to output an analog fault current signal, wherein the first unit is connected by circuitry with first inputs of an electronic tripping system independent on line voltage and with second inputs of an electronic tripping system dependent on line voltage, wherein the residual-current circuit breaker comprises control means configured for damping the effect of the electronic tripping system independent on line voltage in the case of an electronic tripping system dependent on line voltage which works as predetermined, characterised in that the electronic tripping system dependent on line voltage comprises a second digital signal processing unit, and that the second digital signal processing unit is configured to output a predeterminably changing control signal to a control input of the electronic control system.
A method for generating an analytical artifact used for investigating a technical system of interest comprised of components having associated machine readable functional descriptions including port definitions and component failure modes of components of the system of interest, characterised in that the method comprises generating automatically the analytical artifact by processing the machine readable functional descriptions in response to at least one system evaluation criterion, wherein generating automatically the analytical artifact comprises generating a Markov chain, wherein the Markov chain is generated by - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest. the method comprises generating automatically the analytical artifact by processing the machine readable functional descriptions in response to at least one system evaluation criterion, wherein generating automatically the analytical artifact comprises generating a Markov chain, wherein the Markov chain is generated by - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest. - transforming the at least one system evaluation criterion into one or more corresponding relevant system states representing corresponding state patterns at ports forming a system boundary of the system of interest and - generating the Markov chain on the basis of the relevant system states and on the basis of the component failure modes of the components of the system of interest.
An encrypting method having a countermeasure function against power analyzing attacks for performing an exponential remainder calculation y=a d (mod n) from an u-bit exponent d= (d u-1,..., d 0) 2, input data a, and a modulo n, characterised by: calculating a'=a 2 (mod n); calculating y=(a') f (mod n) with f= (d u-1, d u-2,..., d 1) 2; calculating y=yxa (mod n) when d 0 =1; and outputting y=a d (mod n). calculating a'=a 2 (mod n); calculating y=(a') f (mod n) with f= (d u-1, d u-2,..., d 1) 2; calculating y=yxa (mod n) when d 0 =1; and outputting y=a d (mod n).
DC-to-DC converter comprising a primary side and a secondary side, which is coupled galvanically to the primary side, wherein the primary side has at least one inductor (12, 21) and the secondary side has at least two secondary capacitors (50, 54) connected in series, wherein a controllable or regulatable electronic switching device is arranged between the primary side and the secondary side, said switching device charging, in switching-dependent fashion in a first operating mode, the secondary capacitors (50, 54) successively via the inductor (12, 21) and ending the respective charging operation for example at the zero crossing of the respective charge current (I 1, I 2), characterized in that the primary side has two input connections (5, 6), to which a primary capacitor is connected, and in that the switching device, in a second operating mode, charges the primary capacitor via the at least one inductor (12, 21) by means of successive discharge of the secondary capacitors (50, 54), wherein the respective charge current (I 1, I 2) is disconnected for example at its zero crossing by the switching device.
Arrangement of a loading floor inside a luggage compartment of a motor vehicle comprising seats that can be retracted between a usage position and a stowed position in which the backrest of the seats is in the extension of the floor, the luggage compartment being delimited by side walls, by the row of retractable seats at the front and by a luggage compartment door at the rear, the floor comprising a front panel located behind the row of seats and having a transverse front edge and a transverse rear edge, and a rear panel having a transverse front edge and a transverse rear edge and located in front of the luggage compartment door, the front panel bearing against a portion of a rear face of the backrest when the seats are in the retracted position, the front panel bearing against a portion of a rear face of the backrest when the seats are in the retracted position, means for supporting attachment zones of the front panel being provided on trim elements carried by the side walls of the luggage compartment, the attachment zones being formed by an end portion of the front panel extending from a side edge of said panel, characterized in that, irrespective of the position of the seats, the front panel is in the horizontal position, its front edge being arranged along the backrest of the seats when the seats are in the usage position, and the front panel bearing against a portion of a rear face of the backrest when the seats are in the retracted position, the support means being formed by cavities arranged in the trim elements carried by the side walls of the luggage compartment and lying in the extension of the floor in the horizontal position, each cavity receiving an attachment zone of the front panel.
A method comprising: receiving (810, 910, 1010, 1110), by an apparatus, an indication of a subcarrier spacing associated with a transmission time unit, TTU; and transmitting or receiving (815, 915, 1015, 1115), by the apparatus, an orthogonal frequency division multiplexing, OFDM, signal according to the subcarrier spacing and the TTU, wherein the TTU comprises one long symbol duration and a plurality of short symbol durations, each short symbol duration having a same time length, and the subcarrier spacing is a 2 n multiple of 15 kHz, where n is a positive integer and 2 n is a scaling factor, and wherein each short symbol duration comprises a respective short cyclic prefix, CP, part and a respective useful OFDM signal part, and the duration of each short CP part is a 1/2 n multiple of 144 * 1/30.72 μs, and the duration of each useful OFDM signal part is the 1/2 n multiple of 2048 * 1/30.72 μs, where 1/2 n is a reciprocal of the 2 n scaling factor, and wherein the one long symbol duration comprises a long CP part and a useful OFDM signal part, and the duration of the long CP part is 16 * 1/30.72 μs larger than duration of the short CP part, and the duration of the useful OFDM signal part is the 1/2 n multiple of 2048 * 1/30.72 μs. receiving (810, 910, 1010, 1110), by an apparatus, an indication of a subcarrier spacing associated with a transmission time unit, TTU; and transmitting or receiving (815, 915, 1015, 1115), by the apparatus, an orthogonal frequency division multiplexing, OFDM, signal according to the subcarrier spacing and the TTU, wherein the TTU comprises one long symbol duration and a plurality of short symbol durations, each short symbol duration having a same time length, and the subcarrier spacing is a 2 n multiple of 15 kHz, where n is a positive integer and 2 n is a scaling factor, and wherein each short symbol duration comprises a respective short cyclic prefix, CP, part and a respective useful OFDM signal part, and the duration of each short CP part is a 1/2 n multiple of 144 * 1/30.72 μs, and the duration of each useful OFDM signal part is the 1/2 n multiple of 2048 * 1/30.72 μs, where 1/2 n is a reciprocal of the 2 n scaling factor, and wherein the one long symbol duration comprises a long CP part and a useful OFDM signal part, and the duration of the long CP part is 16 * 1/30.72 μs larger than duration of the short CP part, and the duration of the useful OFDM signal part is the 1/2 n multiple of 2048 * 1/30.72 μs.
A method of providing a user interface, UI, the method comprising: detecting a motion of a device having a motion sensing unit while the UI is displayed on a touch screen; identifying a type and a size of the detected motion (operation S1610); comparing the size of the detected motion to a predetermined first threshold (operation S1620), the size of the detected motion being a value of at least one parameter of the detected motion, the parameter being selected from a group including a direction of the detected motion, a speed of the detected motion, a degree of a shake involved in the detected motion, a degree of a rotation involved in the detected motion, and the width of the detected motion; in response to the size of the detected motion exceeding the predetermined first threshold, performing a function mapped to the detected motion (operation S1630); in response to the size of the detected motion not exceeding the predetermined first threshold, outputting an effect that is relevant to the function (operation S1650); characterised in that, in a case in which there are multiple functions that can be performed in response to the size of the detected motion exceeding the predetermined first threshold, the performing comprises performing a function that is selected from among the multiple functions by touching an icon displayed on the touch screen while the motion is detected, in response to the size of the detected motion exceeding the predetermined first threshold. detecting a motion of a device having a motion sensing unit while the UI is displayed on a touch screen; identifying a type and a size of the detected motion (operation S1610); comparing the size of the detected motion to a predetermined first threshold (operation S1620), the size of the detected motion being a value of at least one parameter of the detected motion, the parameter being selected from a group including a direction of the detected motion, a speed of the detected motion, a degree of a shake involved in the detected motion, a degree of a rotation involved in the detected motion, and the width of the detected motion; in response to the size of the detected motion exceeding the predetermined first threshold, performing a function mapped to the detected motion (operation S1630); in response to the size of the detected motion not exceeding the predetermined first threshold, outputting an effect that is relevant to the function (operation S1650);
A process for producing liquid products from a biomass-containing feedstock comprising the steps of: a) devolatilizing the feedstock in a pre-reactor vessel containing hydrogen and a solid bed material that is a sorbent, to produce a pre-reactor vapor stream comprising entrained solid particles; and b) hydropyrolyzing at least a portion of the pre-reactor vapor stream in a hydropyrolysis reactor vessel containing hydrogen and a deoxygenating catalyst, producing a hydropyrolysis reactor output comprising at least one non-condensable gas, a partially deoxygenated hydropyrolysis product and char particles wherein the sorbent has the capacity to adsorb corrosive species, poisons of the deoxygenating catalyst, or a combination thereof, and wherein the pre-reactor vessel is a separate vessel from the hydropyrolysis reactor vessel, the process further comprising: c) removing substantially all of the char particles from the hydropyrolysis reactor output to provide a purified hydropyrolysis reactor vapor stream having a reduced char content; and d) hydroconverting at least a portion of the purified hydropyrolysis reactor vapor stream in a hydroconversion reactor vessel containing hydrogen and a hydroconversion catalyst, producing a hydroconversion reactor output; and e) recovering a substantially fully deoxygenated hydrocarbon liquid and a gaseous mixture from the hydroconversion reactor output. a) devolatilizing the feedstock in a pre-reactor vessel containing hydrogen and a solid bed material that is a sorbent, to produce a pre-reactor vapor stream comprising entrained solid particles; and b) hydropyrolyzing at least a portion of the pre-reactor vapor stream in a hydropyrolysis reactor vessel containing hydrogen and a deoxygenating catalyst, producing a hydropyrolysis reactor output comprising at least one non-condensable gas, a partially deoxygenated hydropyrolysis product and char particles wherein the sorbent has the capacity to adsorb corrosive species, poisons of the deoxygenating catalyst, or a combination thereof, and wherein the pre-reactor vessel is a separate vessel from the hydropyrolysis reactor vessel, wherein the sorbent has the capacity to adsorb corrosive species, poisons of the deoxygenating catalyst, or a combination thereof, and wherein the pre-reactor vessel is a separate vessel from the hydropyrolysis reactor vessel, c) removing substantially all of the char particles from the hydropyrolysis reactor output to provide a purified hydropyrolysis reactor vapor stream having a reduced char content; and d) hydroconverting at least a portion of the purified hydropyrolysis reactor vapor stream in a hydroconversion reactor vessel containing hydrogen and a hydroconversion catalyst, producing a hydroconversion reactor output; and e) recovering a substantially fully deoxygenated hydrocarbon liquid and a gaseous mixture from the hydroconversion reactor output.
A mouthwash whitening composition, comprising an orally acceptable vehicle, sodium carbonate, a source of hydrogen peroxide that provides hydrogen peroxide, and a cyclic anhydride that generates a peracid with the hydrogen peroxide provided by the source of hydrogen peroxide wherein the molar ratio of the cyclic anhydride to the hydrogen peroxide provided by the source of hydrogen peroxide is from 0.8:1 to 1.3:1; wherein the orally acceptable vehicle further comprises one or more ingredient selected from antibacterial agents, anticalculus agents, humectants, surfactants and cooling agents, and wherein the cyclic anhydride is not a polymer-based cyclic anhydride. wherein the molar ratio of the cyclic anhydride to the hydrogen peroxide provided by the source of hydrogen peroxide is from 0.8:1 to 1.3:1; wherein the orally acceptable vehicle further comprises one or more ingredient selected from antibacterial agents, anticalculus agents, humectants, surfactants and cooling agents, and
Base for an ironing station for placing an iron, with a receiving space extending in the transverse direction through the base for receiving an electric cable, characterised in that the receiving space is open in the manner of a tube at its opposing sides (24, 26) and in the circumferential direction is bounded by a wall formed by the base, wherein at least one body section is integrated for the releasable insertion of a housing part at least comprising an insert module with a cable drum.
A prepreg comprising: a primary prepreg composed of a reinforcing fiber, and a resin composition with which a reinforcing fiber layer formed from the reinforcing fiber has been impregnated; and a surface layer composed of a resin composition formed on one side or both sides of the primary prepreg, wherein the thickness of the surface layer is 2 to 30 μm, the thickness of the primary prepreg is 0.01 to 4.0 mm, and the resin composition is an epoxy resin composition which has a lowest viscosity obtained from a temperature-viscosity curve measured by using a rheometer at a rising rate of 2 degree C°/min as measured according to the description of 10 poise or more, containing at least an epoxy resin and a thermoplastic resin, and the resin composition is an epoxy resin composition containing at least an epoxy resin and 0.2 to 20 parts by mass of a conductive particle based on 100 parts by mass of the epoxy resin contained in the epoxy resin composition, in which a value of 50% particle diameter (D 50) in the particle size distribution measured of the conductive particle is less than 10 μm by using a laser diffraction scattering method. a primary prepreg composed of a reinforcing fiber, and a resin composition with which a reinforcing fiber layer formed from the reinforcing fiber has been impregnated; and a surface layer composed of a resin composition formed on one side or both sides of the primary prepreg, wherein the thickness of the surface layer is 2 to 30 μm, the thickness of the primary prepreg is 0.01 to 4.0 mm, and the resin composition is an epoxy resin composition which has a lowest viscosity obtained from a temperature-viscosity curve measured by using a rheometer at a rising rate of 2 degree C°/min as measured according to the description of 10 poise or more, containing at least an epoxy resin and a thermoplastic resin, and the resin composition is an epoxy resin composition containing at least an epoxy resin and 0.2 to 20 parts by mass of a conductive particle based on 100 parts by mass of the epoxy resin contained in the epoxy resin composition, in which a value of 50% particle diameter (D 50) in the particle size distribution measured of the conductive particle is less than 10 μm by using a laser diffraction scattering method.