mhurhangee/ep-ind-claims huggingface dataset:
A coupling structure for coupling a UHV characterization instrument-interconnected in-situ reaction cell and a built-in mass spectrometer electro quadrupole, the coupling structure comprising an independent in-situ reaction cell, an in-situ reaction cell gas output pipeline connected to the independent in-situ reaction cell, and a vacuum buffer chamber, wherein the independent in-situ reaction cell connects with the vacuum buffer chamber; wherein a vacuum interconnecting transfer device is configured to transfer a sample to a sample chamber of a UHV characterization instrument through the vacuum interconnecting transfer device, and the vacuum buffer chamber is separated from the sample chamber by a 1 st gate valve; the sample chamber is configured to connect with a mass spectrometer electro quadrupole, and a 2 nd turbo molecular pump-mechanical pump set is configured on the sample chamber; characterized in that, the coupling structure comprises a stainless steel capillary pipeline, wherein one end of the stainless steel capillary pipeline is connected to the in-situ reaction cell gas output pipeline, and the other end of the stainless steel capillary pipeline is a sampling port; wherein the coupling structure is configured to divide a sampling gas flowing out of the sampling port into two gas paths, wherein, one gas path enters the vacuum buffer chamber through a valve with a low flow control ratio, and the other gas path enters the mass spectrometer electro quadrupole through a valve with a high flow control ratio. the coupling structure comprising an independent in-situ reaction cell, an in-situ reaction cell gas output pipeline connected to the independent in-situ reaction cell, and a vacuum buffer chamber, wherein the independent in-situ reaction cell connects with the vacuum buffer chamber; wherein a vacuum interconnecting transfer device is configured to transfer a sample to a sample chamber of a UHV characterization instrument through the vacuum interconnecting transfer device, and the vacuum buffer chamber is separated from the sample chamber by a 1 st gate valve; the sample chamber is configured to connect with a mass spectrometer electro quadrupole, and a 2 nd turbo molecular pump-mechanical pump set is configured on the sample chamber; characterized in that, the coupling structure comprises a stainless steel capillary pipeline, wherein one end of the stainless steel capillary pipeline is connected to the in-situ reaction cell gas output pipeline, and the other end of the stainless steel capillary pipeline is a sampling port; wherein the coupling structure is configured to divide a sampling gas flowing out of the sampling port into two gas paths, wherein, one gas path enters the vacuum buffer chamber through a valve with a low flow control ratio, and the other gas path enters the mass spectrometer electro quadrupole through a valve with a high flow control ratio.
Gripping device with a drive unit for providing a rotary movement, with at least one gripping element (11, 12) that is movable in an opening and/or closing movement, and with a converting mechanism which, for converting the rotary movement of the drive unit into the opening and/or closing movement of the at least one gripping element (11, 12), comprises at least one curved-track element, the at least one curved-track element comprising at least one pass-through curved track (17, 18) and the converting mechanism comprising an upper and a lower guiding element (19, 20), which are arranged on both sides of the curved-track element, characterised in that at least one of the guiding element (19, 20) comprises at least one pass-through guiding track (21, 22).
A method for signaling and controlling a power grid coupling a plurality of actuators (A, B, C) for providing power signals, the method comprising: - at a first actuator of the actuators (A, B, C), detecting a voltage problem, generating a communication signal (I B) based on the detected voltage problem and transmitting the generated communication signal (I B) over the power grid, and - at a second actuator (A, C) of the actuators (A, B, C), receiving the transmitted communication signal (I B), generating a control action (I A, I C) based on the received communication signal (I B) and transmitting the generated control action (I A, I C) over the power grid towards the first actuator, wherein, at at least two second actuators (A, C) of the plurality of actuators (A, B, C), the transmitted communication signal (I B) is received, a respective control action (I A, I C) is generated based on the respective received communication signal (I B) and the respective generated control action (I A, I C) is transmitted over the power grid towards the first actuator. - at a first actuator of the actuators (A, B, C), detecting a voltage problem, generating a communication signal (I B) based on the detected voltage problem and transmitting the generated communication signal (I B) over the power grid, and - at a second actuator (A, C) of the actuators (A, B, C), receiving the transmitted communication signal (I B), generating a control action (I A, I C) based on the received communication signal (I B) and transmitting the generated control action (I A, I C) over the power grid towards the first actuator,
Use of a compound having a molecular skeleton represented by the following general formula; in the formula, n is an integer of 2, 3, 4 or 5; k is an integer equal to or lower than n; Y is an atom selected from C, Si, Ge, Sn, Pb, N, P, As, Sb, Bi, 0, S, Se, Te and Po; and Z is hydrogen or hydroxyl, mercapto, amino, a halogen, an alkoxyl, an alkylthio, carbonyloxy or oxo group and may be the same as or different from one another; however, when Y is carbon, at least one of Z is a group having an aromatic ring or an unsaturated bond with a hydrolyzable metal compound comprising a metal atom and a hydrolyzable functional group bonded to the metal atom for promoting reaction, polymerization or crosslinking of the compound in the presence of oxygen by irradiation of light.
A system, comprising: a container forming an interior cavity, the container comprising a flame resistant wall that separates the interior cavity into a first compartment and a second compartment; a fluid circuit disposed in the first compartment, the fluid circuit comprising a heat exchanger and a pressure reduction unit forming multiple pressure reducing stages to reduce pressure of incoming gas, the heat exchanger disposed upstream of the multiple pressure reducing stages; a heater disposed in the second compartment and coupled with the fluid circuit to receive gas as a fuel source; and a bleed-offline that couples the fluid circuit to the heater, the bleed-offline extending from the first compartment to the second compartment outside of the container. a container forming an interior cavity, the container comprising a flame resistant wall that separates the interior cavity into a first compartment and a second compartment; a fluid circuit disposed in the first compartment, the fluid circuit comprising a heat exchanger and a pressure reduction unit forming multiple pressure reducing stages to reduce pressure of incoming gas, the heat exchanger disposed upstream of the multiple pressure reducing stages; a heater disposed in the second compartment and coupled with the fluid circuit to receive gas as a fuel source; and a bleed-offline that couples the fluid circuit to the heater, the bleed-offline extending from the first compartment to the second compartment outside of the container.
An amplification system, comprising: a first amplifier (210, 310, 510) operable to receive an input source signal (205, 305, 505); a second amplifier (250, 350, 550) connected downstream from the first amplifier; a first impedance network Z1 coupling the second amplifier to a load (245, 345, 545); a second impedance network Z2 operative to provide negative feedback signal indicative of an output of the first amplifier to an input (V f) of the first amplifier; a third impedance network Z3 coupling the output of the first amplifier to the load at a common node with the first impedance network Z1; and a fourth impedance network Z4 operative to provide a negative feedback signal indicative of an output of the second amplifier to the input of the first amplifier; wherein all of said impedance networks Z1, Z2, Z3 and Z4 include resistors, capacitors, or network combinations thereof; characterized in that none of the impedance networks Z1, Z2, Z3 and Z4 includes a balancing inductor; and the impedance of the third impedance network is capacitive. a first amplifier (210, 310, 510) operable to receive an input source signal (205, 305, 505); a second amplifier (250, 350, 550) connected downstream from the first amplifier; a first impedance network Z1 coupling the second amplifier to a load (245, 345, 545); a second impedance network Z2 operative to provide negative feedback signal indicative of an output of the first amplifier to an input (V f) of the first amplifier; a third impedance network Z3 coupling the output of the first amplifier to the load at a common node with the first impedance network Z1; and a fourth impedance network Z4 operative to provide a negative feedback signal indicative of an output of the second amplifier to the input of the first amplifier; wherein all of said impedance networks Z1, Z2, Z3 and Z4 include resistors, capacitors, or network combinations thereof; characterized in that none of the impedance networks Z1, Z2, Z3 and Z4 includes a balancing inductor; and the impedance of the third impedance network is capacitive. wherein all of said impedance networks Z1, Z2, Z3 and Z4 include resistors, capacitors, or network combinations thereof; characterized in that none of the impedance networks Z1, Z2, Z3 and Z4 includes a balancing inductor; and the impedance of the third impedance network is capacitive.
An ear-worn electronic device, comprising: a housing configured for deployment at least partially within an ear of a wearer; a power source situated in the housing; a sensor situated in or on the housing and coupled to the power source, the sensor configured to generate a sensor signal (10, 12, 20, 22) in response to actively sensing motion of the wearer's head and relative motion between the sensor and skin of the wearer's ear resulting from the wearer's head motion; and a controller situated in the housing and coupled to the power source and the sensor, the controller configured to assess a physical fit of the device within the ear of the wearer using the sensor signal (10, 12, 20, 22). a housing configured for deployment at least partially within an ear of a wearer; a power source situated in the housing; a sensor situated in or on the housing and coupled to the power source, the sensor configured to generate a sensor signal (10, 12, 20, 22) in response to actively sensing motion of the wearer's head and relative motion between the sensor and skin of the wearer's ear resulting from the wearer's head motion; and a controller situated in the housing and coupled to the power source and the sensor, the controller configured to assess a physical fit of the device within the ear of the wearer using the sensor signal (10, 12, 20, 22).
A hair conditioning composition comprising by weight: from 1.0% to 10% of a cationic surfactant, wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt, wherein the mono-long alkyl quaternized ammonium salt is selected from the group consisting of behenyl trimethyl ammonium salt; stearyl trimethyl ammonium salt; cetyl trimethyl ammonium salt; and hydrogenated tallow alkyl trimethyl ammonium salt, wherein the total amount of cationic surfactant ranges from 1.0% to 10%; from 2.5% to 30% of a high melting point fatty compound wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof, wherein the total amount of high melting point fatty compound ranges from 2.5% to 30%; from 0.2% to 10% of a cyclic compound selected from the group consisting of a vitamin B3 compound, a xanthine compound, a salicylic acid ester, and mixtures thereof; from 0.1% to 15% of a compound having at least three large head groups, wherein the compound having at least three large head groups comprises trioctanoin or glycerol trioctanoate; wherein the total amount of the compound having at least three large head groups ranges from 0.1% to 15%; and an aqueous carrier. from 1.0% to 10% of a cationic surfactant, wherein the cationic surfactant comprises a mono-long alkyl quaternized ammonium salt, wherein the mono-long alkyl quaternized ammonium salt is selected from the group consisting of behenyl trimethyl ammonium salt; stearyl trimethyl ammonium salt; cetyl trimethyl ammonium salt; and hydrogenated tallow alkyl trimethyl ammonium salt, wherein the total amount of cationic surfactant ranges from 1.0% to 10%; from 2.5% to 30% of a high melting point fatty compound wherein the high melting point fatty compound has a melting point of 25°C or higher, wherein the high melting point fatty compound is selected from the group consisting of fatty alcohols, fatty acids, and mixtures thereof, wherein the total amount of high melting point fatty compound ranges from 2.5% to 30%; from 0.2% to 10% of a cyclic compound selected from the group consisting of a vitamin B3 compound, a xanthine compound, a salicylic acid ester, and mixtures thereof; from 0.1% to 15% of a compound having at least three large head groups, wherein the compound having at least three large head groups comprises trioctanoin or glycerol trioctanoate; wherein the total amount of the compound having at least three large head groups ranges from 0.1% to 15%; and an aqueous carrier.
A lighting system comprising: - a load comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load having a first forward voltage, and a first switch coupled in series with the first LED load; and - a second LED load, having a second forward voltage being different than the first forward voltage; wherein the input is coupled to the parallel configuration, the lighting system further comprising: - a switched mode power supply comprising: - a switching element; - an inductor; - a diode; - a set of output pins for coupling to the load; and - a capacitor coupled across the set of output pins; wherein the switched mode power supply is arranged to provide the voltage across the set of output pins; characterized in that: the lighting system comprises a further inductor coupled between one of the output pins and the input of the load. - a load comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load having a first forward voltage, and a first switch coupled in series with the first LED load; and - a second LED load, having a second forward voltage being different than the first forward voltage; wherein the input is coupled to the parallel configuration, the lighting system further comprising: - an input for receiving a voltage; and - a parallel configuration of: - a first LED load having a first forward voltage, and a first switch coupled in series with the first LED load; and - a second LED load, having a second forward voltage being different than the first forward voltage; - a first LED load having a first forward voltage, and a first switch coupled in series with the first LED load; and - a second LED load, having a second forward voltage being different than the first forward voltage; - a switched mode power supply comprising: - a switching element; - an inductor; - a diode; - a set of output pins for coupling to the load; and - a capacitor coupled across the set of output pins; - a switching element; - an inductor; - a diode; - a set of output pins for coupling to the load; and - a capacitor coupled across the set of output pins;
A method for receiving manifest information providing information about an adaptive data stream by a client from a broadcast network, the method comprising: accessing the broadcast network; receiving timing information comprising information for a specific entry point in a broadcast transport stream to check the manifest information; and acquiring the manifest information from a broadcasting channel based on the timing information, and wherein the manifest information comprises information about which media service is available and how to access the available media service and further comprises off-time information, wherein the off-time information comprises version information of a current adaptive data stream, NextManifestAddress information indicating an address of next manifest information, and NextManifestOfftime information indicating a time interval between the current manifest information and the next updated manifest information. accessing the broadcast network; receiving timing information comprising information for a specific entry point in a broadcast transport stream to check the manifest information; and acquiring the manifest information from a broadcasting channel based on the timing information, and wherein the manifest information comprises information about which media service is available and how to access the available media service and further comprises off-time information, wherein the off-time information comprises version information of a current adaptive data stream, NextManifestAddress information indicating an address of next manifest information, and NextManifestOfftime information indicating a time interval between the current manifest information and the next updated manifest information.
Traction battery for a battery-electric powered mobile working machine, in particular a counterbalance forklift truck, which traction battery is configured as a high-power battery and has a battery tray which contains all of the components of the high-powered battery, characterized in that at least one wall surface of the battery tray has such a large wall thickness composed of heavy material, and as a result forms an additional weight, that the traction battery has substantially the same total weight as a lead-acid traction battery with the same external dimensions.
A resin terminal platform that supports a terminal fitting having (i) a wire connection portion to be connected to a wire and (ii) a terminal main body that extends in a direction intersecting the wire connection portion, the resin terminal platform comprising: a platform main body including: (i) a support-receiving portion that is supported by a support portion formed on a metal bracket, (ii) a terminal fixing portion that is positioned at a side opposite to the support-receiving portion and fixes the terminal main body of the terminal fitting, and (iii) a surface portion that is arranged at a side intersecting the terminal fixing portion and the support-receiving portion, and that extends along the wire connection portion of the terminal fitting, and a first partition wall that extends to the surface portion of the platform main body and is arranged facing a tip end of the support portion, wherein the first partition wall is configured to extend out from the platform main body, and a tip end of the first partition wall abuts against the support portion of the bracket to discourage incorrect assembly under the condition that the terminal platform and the bracket are assembled in a reversed orientation that is opposite to a normal orientation. a platform main body including: (i) a support-receiving portion that is supported by a support portion formed on a metal bracket, (ii) a terminal fixing portion that is positioned at a side opposite to the support-receiving portion and fixes the terminal main body of the terminal fitting, and (iii) a surface portion that is arranged at a side intersecting the terminal fixing portion and the support-receiving portion, and that extends along the wire connection portion of the terminal fitting, and (i) a support-receiving portion that is supported by a support portion formed on a metal bracket, (ii) a terminal fixing portion that is positioned at a side opposite to the support-receiving portion and fixes the terminal main body of the terminal fitting, and (iii) a surface portion that is arranged at a side intersecting the terminal fixing portion and the support-receiving portion, and that extends along the wire connection portion of the terminal fitting, and a first partition wall that extends to the surface portion of the platform main body and is arranged facing a tip end of the support portion,
A clamping device (1; 16; 22; 32) with a) a movable clamping element (2; 17; 25, 26; 38) for clamping a workpiece with a certain clamping force, b) an electric motor (10; 18; 31; 33) for the mechanical drive of the clamping element (2; 17; 25, 26; 38), and c) a first spring element (9; 30; 39) which is loaded during a clamping procedure and relaxed during an unclamping procedure d) a control unit which controls the electric motor (10; 18; 31; 33), wherein the control unit executes the following steps: d1) measuring an electrical operating variable of the electric motor (10; 18; 31; 33) as a measure for the clamping force, d2) checking the measured electrical operating variable for a change which is caused by the movable clamping element running onto the workpiece to be clamped, and d3) switching off the electric motor (10; 18; 31; 33) when a certain clamping force has been reached, characterized in that the control unit carries out following steps: d4) counting the revolutions of the electric motor (10; 18; 31; 33) starting from the running onto the workpiece, and d5) calculating the clamping force from the number of revolutions of the electric motor (10; 18; 31; 33) and a predetermined spring characteristic. a) a movable clamping element (2; 17; 25, 26; 38) for clamping a workpiece with a certain clamping force, b) an electric motor (10; 18; 31; 33) for the mechanical drive of the clamping element (2; 17; 25, 26; 38), and c) a first spring element (9; 30; 39) which is loaded during a clamping procedure and relaxed during an unclamping procedure d) a control unit which controls the electric motor (10; 18; 31; 33), wherein the control unit executes the following steps: d1) measuring an electrical operating variable of the electric motor (10; 18; 31; 33) as a measure for the clamping force, d2) checking the measured electrical operating variable for a change which is caused by the movable clamping element running onto the workpiece to be clamped, and d3) switching off the electric motor (10; 18; 31; 33) when a certain clamping force has been reached, characterized in that the control unit carries out following steps: d4) counting the revolutions of the electric motor (10; 18; 31; 33) starting from the running onto the workpiece, and d5) calculating the clamping force from the number of revolutions of the electric motor (10; 18; 31; 33) and a predetermined spring characteristic. d1) measuring an electrical operating variable of the electric motor (10; 18; 31; 33) as a measure for the clamping force, d2) checking the measured electrical operating variable for a change which is caused by the movable clamping element running onto the workpiece to be clamped, and d3) switching off the electric motor (10; 18; 31; 33) when a certain clamping force has been reached, d4) counting the revolutions of the electric motor (10; 18; 31; 33) starting from the running onto the workpiece, and d5) calculating the clamping force from the number of revolutions of the electric motor (10; 18; 31; 33) and a predetermined spring characteristic.