mhurhangee/ep-ind-claims huggingface dataset:
A vehicle power supply apparatus comprising: a generator installed in a vehicle; a high-voltage first battery connected to the generator and configured to store electric power generated by the generator; a DC-DC converter located between electrical equipment, and a node between the generator and the first battery; a second battery connected to the first battery via the DC-DC converter and having a lower voltage than the first battery; a control section configured to control operation of the DC-DC converter; a measurement section configured to measure a current and a voltage of a plurality of points for the first battery, in synchronization with control of the DC-DC converter by the control section; and a determination section configured to calculate an internal resistance of the first battery using a measurement result of the measurement section and compare the internal resistance with a first predetermined value to determine deterioration of the first battery, characterized in that for performing said control of the DC-DC converter the control section is configured to temporarily stop the DC-DC converter and charge the first battery with the electric power generated by the generator when a state of charge of the second battery is greater than or equal to a second predetermined value during vehicle deceleration, before said current and a voltage of a plurality of points for the first battery are measured. a generator installed in a vehicle; a high-voltage first battery connected to the generator and configured to store electric power generated by the generator; a DC-DC converter located between electrical equipment, and a node between the generator and the first battery; a second battery connected to the first battery via the DC-DC converter and having a lower voltage than the first battery; a control section configured to control operation of the DC-DC converter; a measurement section configured to measure a current and a voltage of a plurality of points for the first battery, in synchronization with control of the DC-DC converter by the control section; and a determination section configured to calculate an internal resistance of the first battery using a measurement result of the measurement section and compare the internal resistance with a first predetermined value to determine deterioration of the first battery, characterized in that for performing said control of the DC-DC converter the control section is configured to temporarily stop the DC-DC converter and charge the first battery with the electric power generated by the generator when a state of charge of the second battery is greater than or equal to a second predetermined value during vehicle deceleration, before said current and a voltage of a plurality of points for the first battery are measured.
An acoustical panel having a panel core comprising from about 7% to about 40% by weight of a ground renewable component having a particle size distribution wherein less than 5% of ground renewable component particles are retained by a first mesh screen having openings of about 0.312 inches (0.793 cm) and less than 5% of the particles pass through a second mesh screen having openings of about 0.059 inches (0.150 cm), from about 5% to about 40% by weight of one or more cellulosic fibers, from about 0.1% to about 95% of inorganic fibers selected from the group consisting of mineral wool, glass wool, rock wool and combinations thereof, from about 3% to about 80% of a filler and from about 1% to about 30% by weight of one or more binders, all weights based on dry panel weight, wherein said ground renewable component comprises rice hulls, buckwheat hulls, nut shells, including peanut and walnut shells, wheat chaff, oat husks, rye whisks, cotton seed hulls, coconut shells, corn bran, corn cobs, sunflower seeds, rice straw stalk, wheat straw stalk, barley straw stalk, oat straw stalk, rye straw stalk, Espart, sorghum stalks, reeds, bamboos, sisal, Sabai, ramie, bagasse, flax, kenaf, jute, hemp, abaca, saw dust, wood chips or combinations thereof.
A facility for producing domestic hot water, including at least: - a first heat exchanger and a second heat exchanger, - a first primary circuit including a hot-water production device and a pump for circulating hot water in the primary part of said first heat exchanger, hereinafter referred to as a heating exchanger, - a second primary circuit comprising an energy-recovery loop and being supplied with water coming from said energy-recovery loop, the second primary circuit further comprising a pump for circulating the water to the primary part of said second exchanger, hereinafter referred to as the preheating exchanger, and for looping back onto it, and - a secondary circuit including a DHW loop, a looping pump providing the circulation of the domestic hot water over the entire DHW loop, and a cold-water inlet, said cold water first of all passing, via a first branch, into the secondary circuit of the preheating exchanger of the second primary circuit in order to be preheated, and then, via a second branch, into the secondary circuit of the heating exchanger of the first primary circuit in order to arrive at the set temperature of the DHW, before being distributed in said DHW loop to the distribution point by a third branch of the secondary circuit, said facility being characterised in that it includes a recirculation module for taking off, downstream of said distribution point, some of the DHW from the DHW loop to allow permanent circulation of DHW in the secondary circuit of the heating exchanger. - a first heat exchanger and a second heat exchanger, - a first primary circuit including a hot-water production device and a pump for circulating hot water in the primary part of said first heat exchanger, hereinafter referred to as a heating exchanger, - a second primary circuit comprising an energy-recovery loop and being supplied with water coming from said energy-recovery loop, the second primary circuit further comprising a pump for circulating the water to the primary part of said second exchanger, hereinafter referred to as the preheating exchanger, and for looping back onto it, and - a secondary circuit including a DHW loop, a looping pump providing the circulation of the domestic hot water over the entire DHW loop, and a cold-water inlet, said cold water first of all passing, via a first branch, into the secondary circuit of the preheating exchanger of the second primary circuit in order to be preheated, and then, via a second branch, into the secondary circuit of the heating exchanger of the first primary circuit in order to arrive at the set temperature of the DHW, before being distributed in said DHW loop to the distribution point by a third branch of the secondary circuit,
A method of forming a graphene layer, the method comprising: forming a first graphene on a first region of an underlayer at a first temperature using a first source gas; and forming a second graphene on a second region adjacent to the first region of the underlayer at a second temperature using a second source gas one of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound containing nitrogen; wherein one of the first graphene and the second graphene is a P-type graphene, the other one of the first graphene and the second graphene is an N-type graphene formed from the source gas comprising a hydrocarbon compound containing nitrogen, and the first graphene and the second graphene together form a P-N junction, wherein: the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen. forming a first graphene on a first region of an underlayer at a first temperature using a first source gas; and forming a second graphene on a second region adjacent to the first region of the underlayer at a second temperature using a second source gas one of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound containing nitrogen; wherein one of the first graphene and the second graphene is a P-type graphene, the other one of the first graphene and the second graphene is an N-type graphene formed from the source gas comprising a hydrocarbon compound containing nitrogen, and the first graphene and the second graphene together form a P-N junction, wherein: the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen. the first source gas and the second source gas are the same as each other, and the first temperature and the second temperature are different from each other; or the first source gas and the second source gas are different from each other, the other of the first source gas and the second source gas being a source gas comprising a hydrocarbon compound not containing nitrogen.
An oral and dental care and cleaning agent, containing, based on the total weight thereof, a) from 0.001 to 1.5 wt.% tocopheryl acetate; b) from 0.05 to 5.0 wt.% sodium lauryl sulfate; c) from 0.05 to 5.0 wt.% cocamidopropyl betaine; d) from 0.01 to 2.0 wt.% sage leaf extract. a) from 0.001 to 1.5 wt.% tocopheryl acetate; b) from 0.05 to 5.0 wt.% sodium lauryl sulfate; c) from 0.05 to 5.0 wt.% cocamidopropyl betaine; d) from 0.01 to 2.0 wt.% sage leaf extract.
A method for cleaning exhaust gas generated in a processing process in a clean room/drying room, which exhaust gas is extracted from a process area and fed to at least one filter unit, wherein the process area is provided on a processing machine arranged in the clean room/drying room, clean air/dry air is removed from the clean room/drying room and fed to the process area as a volume flow that captures and takes away emissions generated in the process area, and wherein an additional portion (23, 24, 61) of the clean air/dry air is removed from the clean room/drying room and drawn upon to form at least one crossflow (14, 15), which is directed transversely against the volume flow and shields the process area against the clean room/drying room.
A device for breaking out at least one blank which is delimited by a break-out line, from a sheet whilst the sheet is conveyed, comprising - a breaking-out device for breaking at least one blank out of the sheet in a break-out zone, - a feed device for feeding a sheet to the breaking-out device in a feed direction (F Z), wherein the breaking-out device deflects the sheet out of the feed direction (F Z) and thus forms the break-out zone characterised in that the breaking-out device comprises at least one holding element which is arranged on a transport element and which in the break-out zone is movable along an arcuate path by way of the transport element, wherein the breaking-out device, by way of the at least one holding element, is capable of gripping a sheet edge of a fed sheet and deflecting the sheet out of its feed direction (F Z) by way of moving the at least one holding element along the arcuate path, by which means the at least one blank is broken out of the sheet. - a breaking-out device for breaking at least one blank out of the sheet in a break-out zone, - a feed device for feeding a sheet to the breaking-out device in a feed direction (F Z),
A measurement apparatus for the measurement of a test antenna comprising: a movable stand for supporting the test antenna, a feed antenna having a plurality of radiating elements (250-1, 250-2,..., 250-N), wherein the movable stand is located at a predefined distance (d) from the feed antenna; and an antenna feed system having a plurality of adjustment components for adjusting the phase and amplitude of a wave front from the plurality of radiating elements (250-1, 250-2,..., 250-N), such that at the distance (d) the wave front is planar, the plurality of radiating elements (250-1, 250-2,..., 250-N) comprise at least a pair of radiating elements (250-1, 250-2,..., 250-N) for producing orthogonal polarisation components, the antenna feed system has a plurality of attenuators or gain elements (267-1, 267-2,..., 267-N) connected to the radiating elements, for adjusting the amplitude of the wave front from the plurality of radiating elements (250-1, 250-2,..., 250-N), the antenna feed system being configured to adjust a power distribution set by the plurality of attenuators or gain elements (267-1, 267-2,..., 267-N) such that a power is constant at least in a center portion of the feed antenna and is reduced at an edge of the feed antenna, wherein the feed antenna comprises between 15 and 30 radiating elements. a movable stand for supporting the test antenna, a feed antenna having a plurality of radiating elements (250-1, 250-2,..., 250-N), wherein the movable stand is located at a predefined distance (d) from the feed antenna; and an antenna feed system having a plurality of adjustment components for adjusting the phase and amplitude of a wave front from the plurality of radiating elements (250-1, 250-2,..., 250-N), such that at the distance (d) the wave front is planar, the plurality of radiating elements (250-1, 250-2,..., 250-N) comprise at least a pair of radiating elements (250-1, 250-2,..., 250-N) for producing orthogonal polarisation components, the antenna feed system has a plurality of attenuators or gain elements (267-1, 267-2,..., 267-N) connected to the radiating elements, for adjusting the amplitude of the wave front from the plurality of radiating elements (250-1, 250-2,..., 250-N), the antenna feed system being configured to adjust a power distribution set by the plurality of attenuators or gain elements (267-1, 267-2,..., 267-N) such that a power is constant at least in a center portion of the feed antenna and is reduced at an edge of the feed antenna, wherein the feed antenna comprises between 15 and 30 radiating elements.
A method or moving one or more loads (5, 15, 25, 35a, 35b. 45), in which method loads are moved along a channel (2, 12, 22. 32a, 32b, 49, 49') on or in fluid, wherein - the channel (2, 12, 22, 32a, 32b, 49, 49') extending substantially horizontally in lengthwise direction has a cross-section, which cross-section defines an open section (13, 33a, 33b) and a closed section (14, 34a, 34b), wherein the fluid ir the open section is directly in contact with surrounding air. and the fluid in the channel can flow from the open section to the closed section and vice versa through opening or openings located below the surface level of the fluid in the open section, and - the load or loads (5, 15, 25, 35a, 35b, 45) are moved by floating them at least partially inside the closed section. characterized in that - inside the closed section (14, 34a, 340) of the channel (2, 12, 22, 32a, 32b, 49, 49') is created partial vacuum or overpressure. - the channel (2, 12, 22, 32a, 32b, 49, 49') extending substantially horizontally in lengthwise direction has a cross-section, which cross-section defines an open section (13, 33a, 33b) and a closed section (14, 34a, 34b), wherein the fluid ir the open section is directly in contact with surrounding air. and the fluid in the channel can flow from the open section to the closed section and vice versa through opening or openings located below the surface level of the fluid in the open section, and - the load or loads (5, 15, 25, 35a, 35b, 45) are moved by floating them at least partially inside the closed section. characterized in that - inside the closed section (14, 34a, 340) of the channel (2, 12, 22, 32a, 32b, 49, 49') is created partial vacuum or overpressure.
A controller for use in a switched mode power converter, comprising: a comparator (127, 327, 582, 586, 589, 761, 782, 786, 789) coupled to compare an output sense signal (121, 326, 578, 780, 778) representative of an output of the switched mode power converter to a target output value (132, 332, 584, 587, 590, 751, 784, 787, 790) for the output of the power converter; a clock (129, 329, 529, 729) coupled to generate a clock signal (133, 333, 533, 733) having a clock frequency that varies in response to a difference between the output sense signal and the target output value; and a request control configured to generate a request signal (136, 336, 536, 736) that includes request events (142, 342, 742) that are generated in response to the comparison of the output sense signal and the target output value and indicate that a power switch (108, 508) of the switched mode power converter should be turned on, wherein the request events occur at a request frequency that is responsive to an output of the comparator and the clock signal to control an operational state of the power switch of the switched mode power converter, wherein a speed at which the request control updates the request frequency of the request signal to regulate the output of the power converter is responsive to the clock frequency of the clock signal. a comparator (127, 327, 582, 586, 589, 761, 782, 786, 789) coupled to compare an output sense signal (121, 326, 578, 780, 778) representative of an output of the switched mode power converter to a target output value (132, 332, 584, 587, 590, 751, 784, 787, 790) for the output of the power converter; a clock (129, 329, 529, 729) coupled to generate a clock signal (133, 333, 533, 733) having a clock frequency that varies in response to a difference between the output sense signal and the target output value; and a request control configured to generate a request signal (136, 336, 536, 736) that includes request events (142, 342, 742) that are generated in response to the comparison of the output sense signal and the target output value and indicate that a power switch (108, 508) of the switched mode power converter should be turned on, wherein the request events occur at a request frequency that is responsive to an output of the comparator and the clock signal to control an operational state of the power switch of the switched mode power converter, wherein a speed at which the request control updates the request frequency of the request signal to regulate the output of the power converter is responsive to the clock frequency of the clock signal.
A method for information interaction comprising the method steps: - Receiving an operation command from a client and inputting operating information according to the said operation command (step 401) at a secure device; - Judging whether a client user confirms the operating information (step 402); - Inputting of authorizing information at the secure device for obtaining of authentication of the user (step 507); wherein the process of obtaining the authentication of the user includes: - Accepting the authentication password inputted by the user; - Judging the authentication is OK, if the password is right (step 508); - Encrypting the operating information (Step 403) and - Sending the encrypted operating information to the client if the judging result is a YES (step 404). - Receiving an operation command from a client and inputting operating information according to the said operation command (step 401) at a secure device; - Judging whether a client user confirms the operating information (step 402); - Inputting of authorizing information at the secure device for obtaining of authentication of the user (step 507); wherein the process of obtaining the authentication of the user includes: - Accepting the authentication password inputted by the user; - Judging the authentication is OK, if the password is right (step 508); - Accepting the authentication password inputted by the user; - Judging the authentication is OK, if the password is right (step 508); - Encrypting the operating information (Step 403) and - Sending the encrypted operating information to the client if the judging result is a YES (step 404).
A temporary root canal sealer dispersion having a pH of at least 9 and comprising: (i) an aqueous dispersion medium comprising - an oligomer and/or polymer having Lewis basic groups, wherein the oligomer and/or polymer is a polyamine, or a polyethylene imine, and - optionally a hydroxide of an alkali metal and/or a hydroxide of an alkaline earth metal, and (ii) a dispersed phase comprising a radio-opaque filler, wherein the weight ratio of oligomer and/or polymer having Lewis basic groups to hydroxide of an alkali metal and/or hydroxide of an alkaline earth metal is at least 0.5 when said aqueous dispersion medium comprises a hydroxide of an alkali metal and/or a hydroxide of an alkaline earth metal, wherein oligomer has a weight average molecular weight, M w, of between 500 and 10,000 Da and the polymer has a weight average molecular weight, M w, of between 10,000 and 200,000 Da, wherein the oligomer and/or polymer is present in an amount of from 21 to 80 weight percent based on the total amount of the composition, wherein the radio-opaque filler is present in an amount of from 10 to 60 weight percent based on the total amount of the composition, and wherein water is present in an amount of from 20 to 80 weight percent based on the total amount of the composition. (i) an aqueous dispersion medium comprising - an oligomer and/or polymer having Lewis basic groups, wherein the oligomer and/or polymer is a polyamine, or a polyethylene imine, and - optionally a hydroxide of an alkali metal and/or a hydroxide of an alkaline earth metal, and - an oligomer and/or polymer having Lewis basic groups, wherein the oligomer and/or polymer is a polyamine, or a polyethylene imine, and - optionally a hydroxide of an alkali metal and/or a hydroxide of an alkaline earth metal, and (ii) a dispersed phase comprising a radio-opaque filler,
A transmitter system for a signal isolator system, comprising: an oscillator circuit coupled to an isolator device (340; 440; 540; 745, 750; 860) to supply a periodic signal to the isolator device for transmission across an isolation barrier of the isolator device, a control switch (345, 445, 545, 630, 740), coupled between the oscillator circuit and a voltage supply, the control switch having an input for an input signal to be transmitted by the system; and accelerating means (350, 450, 550, 560, 640, 650, 755, 760) for accelerating transition of the oscillator circuit on a transition between an ON state and an OFF state as determined by the input signal, wherein the accelerating means comprises a quenching switch (450, 560, 640, 755), coupled between two components of the oscillator, that becomes conductive during a transition from an ON state of the oscillator to an OFF state of the oscillator as determined by the input signal. an oscillator circuit coupled to an isolator device (340; 440; 540; 745, 750; 860) to supply a periodic signal to the isolator device for transmission across an isolation barrier of the isolator device, a control switch (345, 445, 545, 630, 740), coupled between the oscillator circuit and a voltage supply, the control switch having an input for an input signal to be transmitted by the system; and accelerating means (350, 450, 550, 560, 640, 650, 755, 760) for accelerating transition of the oscillator circuit on a transition between an ON state and an OFF state as determined by the input signal, wherein the accelerating means comprises a quenching switch (450, 560, 640, 755), coupled between two components of the oscillator, that becomes conductive during a transition from an ON state of the oscillator to an OFF state of the oscillator as determined by the input signal.