mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system, comprising: a hot box accommodating a fuel cell and a reformer; a start burner for heating the hot box so that the temperature of the hot box is raised to a reaction temperature in an initial operation; a first heat exchange portion which heats intaken outside air by using heat of the start burner or heat of exhaust gas, discharged out of the hot box, and supplies the heated air into the hot box; a second heat exchange portion generating steam using heat of the exhaust gas, discharged out of the hot box, to supply the steam, characterized by a combustion gas line provided to surround the inside of the hot box and connecting the first heat exchange portion with the start burner in order to heat the hot box using heat of the start burner, and being connected to the second heat exchange portion for using the discharged exhaust gas deprived of heat by the water in the second heat exchange portion in order to cool the hot box so as to maintain the reaction temperature of the fuel cell. a hot box accommodating a fuel cell and a reformer; a start burner for heating the hot box so that the temperature of the hot box is raised to a reaction temperature in an initial operation; a first heat exchange portion which heats intaken outside air by using heat of the start burner or heat of exhaust gas, discharged out of the hot box, and supplies the heated air into the hot box; a second heat exchange portion generating steam using heat of the exhaust gas, discharged out of the hot box, to supply the steam, characterized by a combustion gas line provided to surround the inside of the hot box and connecting the first heat exchange portion with the start burner in order to heat the hot box using heat of the start burner, and being connected to the second heat exchange portion for using the discharged exhaust gas deprived of heat by the water in the second heat exchange portion in order to cool the hot box so as to maintain the reaction temperature of the fuel cell.
A non-transitory computer-readable medium storing computer-executable instructions that, if executed, cause one or more processors to at least: receive a code trace segment associated with a request submitted to a particular application of a plurality of applications hosted in a computing environment, wherein the code trace segment documents at least one call to at least one component service of the particular application to respond to the request; select, by a load balancer, one of a plurality of trace processing entities based at least in part on a unique identifier of the request included in the code trace segment, wherein the plurality of trace processing entities index one or more code trace segments by respective unique identifiers of the one or more code trace segments; and forward the code trace segment to the selected one of the plurality of trace processing entities. receive a code trace segment associated with a request submitted to a particular application of a plurality of applications hosted in a computing environment, wherein the code trace segment documents at least one call to at least one component service of the particular application to respond to the request; select, by a load balancer, one of a plurality of trace processing entities based at least in part on a unique identifier of the request included in the code trace segment, wherein the plurality of trace processing entities index one or more code trace segments by respective unique identifiers of the one or more code trace segments; and forward the code trace segment to the selected one of the plurality of trace processing entities.
Method for operating a head-mounted display apparatus in a motor vehicle, in which the display apparatus is controlled to display a virtual environment within which a vehicle occupant wearing the display apparatus moves virtually in a manner which is adapted to a detected movement of the motor vehicle, characterised by the steps: - determining at least one potential stopping point of the motor vehicle; - as soon as a deceleration of the motor vehicle within a predetermined environment of the determined potential stopping point is detected: controlling the display apparatus to output a virtual enactment within the virtual environment which has the effect of a deceleration of the virtual movement within the virtual environment corresponding to the deceleration of the motor vehicle. - determining at least one potential stopping point of the motor vehicle; - as soon as a deceleration of the motor vehicle within a predetermined environment of the determined potential stopping point is detected: controlling the display apparatus to output a virtual enactment within the virtual environment which has the effect of a deceleration of the virtual movement within the virtual environment corresponding to the deceleration of the motor vehicle.
Compressed air supply device for vehicle compressed air units, comprising as components or assemblies at least an air drying device with an air drying cartridge, a valve device with a multiple circuit protective valve and possibly further valves as well, a pressure limiter, an electronic control and regulation unit and a plurality of housings or housing components (6, 20, 22, 36, 62) in which the aforesaid components or assemblies are accommodated, wherein at least one housing or housing component (20, 22, 36, 70) of the plurality of housings or housing components is made of plastic, characterised in that the air drying device is accommodated in a first housing or housing component of its own which is made of at least one metal, and wherein at least part of the valve device with the multiple circuit protective valve and any additional valves is/are arranged in at least one second housing or housing component in which at least the electronic control and regulation unit and the pressure limiter are also accommodated, wherein the at least one second housing or housing component is made of plastic, and wherein the at least one second housing or housing component is held between the first housing and a third housing or housing component which is made of at least one metal, such that a composite is formed of the first housing or housing component, the at least one second housing or housing component and the third housing or housing component.
A method for preparing cellulose ether, comprising steps of: bringing pulp into continuous contact with an alkali metal hydroxide solution in a screw conveyor contactor to generate a contact mixture; draining the contact mixture; and etherifying the alkali cellulose prepared in the draining step with an etherifying agent to produce cellulose ether; wherein a weight ratio of alkali metal hydroxide contained by a cake obtained in the step of draining to a solid portion contained by the pulp is 0.3 to 1.5. bringing pulp into continuous contact with an alkali metal hydroxide solution in a screw conveyor contactor to generate a contact mixture; draining the contact mixture; and etherifying the alkali cellulose prepared in the draining step with an etherifying agent to produce cellulose ether; wherein a weight ratio of alkali metal hydroxide contained by a cake obtained in the step of draining to a solid portion contained by the pulp is 0.3 to 1.5.
A marine utility anode sled, comprising: at least two generally parallel lateral members having lateral member centerlines and made of an anodic material; at least two generally parallel longitudinal members attached to reside generally perpendicular to the lateral members and having longitudinal member centerlines above the lateral member centerlines of the lateral members and made of an anodic material; and at least one electrical cable in electrical communication with the anodic material of both the lateral members and longitudinal members. at least two generally parallel lateral members having lateral member centerlines and made of an anodic material; at least two generally parallel longitudinal members attached to reside generally perpendicular to the lateral members and having longitudinal member centerlines above the lateral member centerlines of the lateral members and made of an anodic material; and at least one electrical cable in electrical communication with the anodic material of both the lateral members and longitudinal members.
Sensor, comprising at least one pressure sensor and at least one temperature measurement sensing device for detecting a temperature, wherein the sensor has a sensor body for holding the pressure sensor and the temperature measurement sensing device, wherein the temperature measurement sensing device (124, 140) has at least one connection line in the form of a wire, characterized in that the sensor is of modular construction and comprises a contact-making module, which is formed separately from the sensor body, for making electrical contact with the temperature measurement sensing device, wherein the contact-making module comprises at least one connecting element and at least one plug contact pin, wherein the plug contact pin is surrounded by the connecting element in at least one connecting region, and wherein the plug contact pin is electrically connected to the connection line in the connecting region.
A pulse generator, comprising: charging circuitry configured to provide electrical power to the pulse generator; communication circuitry configured to conduct wireless telecommunications with external programming devices (22, 23), the telecommunications containing programming instructions sent from the external programming devices (22, 23); and stimulation circuitry configured to generate electrical pulses based on the programming instructions; wherein the electrical pulses include a first component (1050, 1051) that is paresthesia-inducing and having a fixed frequency, and a second component (1001, 1002, 1003) that is non-paresthesia-inducing; characterized in that a lower limit of the spread-spectrum frequency range (f2-F3) is greater than the fixed frequency, and in that the second component (1001, 1002, 1003) has a spread-spectrum frequency range (f2-f3), wherein the spread-spectrum frequency range is configured such that, for each pulse of the second component, a value of a time interval separating said pulse from a preceding pulse of the second component is different from a value of a time interval separating said pulse from a subsequent pulse of the second component. charging circuitry configured to provide electrical power to the pulse generator; communication circuitry configured to conduct wireless telecommunications with external programming devices (22, 23), the telecommunications containing programming instructions sent from the external programming devices (22, 23); and stimulation circuitry configured to generate electrical pulses based on the programming instructions; wherein the electrical pulses include a first component (1050, 1051) that is paresthesia-inducing and having a fixed frequency, and a second component (1001, 1002, 1003) that is non-paresthesia-inducing; characterized in that a lower limit of the spread-spectrum frequency range (f2-F3) is greater than the fixed frequency, and in that the second component (1001, 1002, 1003) has a spread-spectrum frequency range (f2-f3), wherein the spread-spectrum frequency range is configured such that, for each pulse of the second component, a value of a time interval separating said pulse from a preceding pulse of the second component is different from a value of a time interval separating said pulse from a subsequent pulse of the second component.
A transdermal therapeutic system having a system support, having at least one advancing element which is embedded in the system support and having at least one active substance reservoir which is elastically deformable in at least some regions and which is embedded in the advancing element, wherein the system support comprises a bearing surface on an application side of the transdermal therapeutic system which can be faced towards the skin, characterized in that the system support is configured as a concave body which delimits an interior of the system support on five sides, wherein the advancing element which can come into contact with the skin of the patient is disposed in the interior, wherein the active substance reservoir protrudes out of the advancing element from the bearing surface and wherein the advancing element comprises a swelling body which can be expanded by liquid uptake, wherein the system support is configured so as to be resistant to deformation at least in some regions.
A method for switching a power supply for low current standby operation comprising: deactivating a first supply connected to a first supply node, in response to activating an enable signal; changing a second supply to a low power mode in response to activating the enable signal, wherein the second supply is connected to a second supply node; delaying connecting the first supply node to the second supply node until a first voltage (Vbos) of the first supply node is less than or equal to a positive offset above a second voltage (Vpre) of the second supply node; and disconnecting the first supply node from the second supply node before the first voltage (Vbos) of the first supply node discharges below a first supply minimum voltage greater than a minimum operating voltage of a device connected to the first supply node. deactivating a first supply connected to a first supply node, in response to activating an enable signal; changing a second supply to a low power mode in response to activating the enable signal, wherein the second supply is connected to a second supply node; delaying connecting the first supply node to the second supply node until a first voltage (Vbos) of the first supply node is less than or equal to a positive offset above a second voltage (Vpre) of the second supply node; and disconnecting the first supply node from the second supply node before the first voltage (Vbos) of the first supply node discharges below a first supply minimum voltage greater than a minimum operating voltage of a device connected to the first supply node.
A vibration damper which includes a damper mechanism having an elastic member that is expanded and compressed by a pulsation of a torque transmitted between an input shaft to which the torque is inputted from an engine and an output shaft, and an inertial body that is allowed to be rotated freely by the pulsation of the torque and that generates an inertial torque in a direction of suppressing the pulsation of torque when a rotational speed is changed, comprising: a first route which transmits the torque between the input shaft and the output shaft via the damper mechanism; a second route which transmits the torque between the input shaft and the output shaft while bypassing the damper mechanism; and a switching mechanism which switches a torque transmission route between the input shaft and the output shaft to any one of the first route and the second route, characterized in that the switching mechanism allows the inertial body to rotate freely in a case that the torque transmitting route between the input shaft and the output shaft is switched to the first route, and connects the inertial member to a member to which a torque is applied in a case that the torque transmitting route between the input shaft and the output shaft is switched to the second route so as to transmit the torque through the second route. a first route which transmits the torque between the input shaft and the output shaft via the damper mechanism; a second route which transmits the torque between the input shaft and the output shaft while bypassing the damper mechanism; and a switching mechanism which switches a torque transmission route between the input shaft and the output shaft to any one of the first route and the second route, characterized in that the switching mechanism allows the inertial body to rotate freely in a case that the torque transmitting route between the input shaft and the output shaft is switched to the first route, and connects the inertial member to a member to which a torque is applied in a case that the torque transmitting route between the input shaft and the output shaft is switched to the second route so as to transmit the torque through the second route.
Circuit (100, 101, 102) for determining a frequency ratio between a first input signal having a first frequency and a second input signal having a second frequency, wherein the circuit comprises: - a controlled fractional frequency divider arranged for generating a divided signal having a divided frequency being substantially the first frequency divided by a control signal; - a resonator arranged for being excited by an excitation signal having the divided frequency and is based on the divided signal, and generating the second input signal; - a frequency phase detector arranged for generating a phase difference signal based on a frequency phase difference between the divided frequency of the divided signal and the second frequency of the second input signal; and - a loop filter arranged for generating the control signal based on the phase difference signal; wherein a loop is formed by the controlled fractional frequency divider, the divided signal, the frequency phase detector, the phase difference signal, the loop filter and the control signal; wherein the loop filter filters the phase difference signal such that instability of the loop is prevented; and wherein the control signal is indicative of the frequency ratio. - a controlled fractional frequency divider arranged for generating a divided signal having a divided frequency being substantially the first frequency divided by a control signal; - a resonator arranged for being excited by an excitation signal having the divided frequency and is based on the divided signal, and generating the second input signal; - a frequency phase detector arranged for generating a phase difference signal based on a frequency phase difference between the divided frequency of the divided signal and the second frequency of the second input signal; and - a loop filter arranged for generating the control signal based on the phase difference signal; wherein a loop is formed by the controlled fractional frequency divider, the divided signal, the frequency phase detector, the phase difference signal, the loop filter and the control signal; wherein the loop filter filters the phase difference signal such that instability of the loop is prevented; and wherein the control signal is indicative of the frequency ratio.
A construct comprising: a polypeptide comprising a native VpreB sequence fused directly to a heterogeneous amino acid sequence, wherein the heterogeneous amino acid sequence is a λ5 sequence or an antibody light chain variable region sequence, conjugated to an antibody heavy chain sequence comprising a variable region, wherein the construct is capable of specifically binding to a target; wherein said native VpreB sequence is selected from the group consisting of VpreB1 of SEQ ID NO: 1, VpreB2 of SEQ ID NOS: 2 and 3, VpreB3 of SEQ ID NO: 4, and fragments thereof. a polypeptide comprising a native VpreB sequence fused directly to a heterogeneous amino acid sequence, wherein the heterogeneous amino acid sequence is a λ5 sequence or an antibody light chain variable region sequence, conjugated to an antibody heavy chain sequence comprising a variable region, wherein the construct is capable of specifically binding to a target; wherein said native VpreB sequence is selected from the group consisting of VpreB1 of SEQ ID NO: 1, VpreB2 of SEQ ID NOS: 2 and 3, VpreB3 of SEQ ID NO: 4, and fragments thereof.
A gypsum board comprising: (a) a set gypsum core disposed between two cover sheets; (b) the set gypsum core comprising a gypsum crystal matrix formed from at least water, stucco, and a foam; wherein: the foam is generated by inserting air into an aqueous mixture of a foaming agent comprising at least one alkyl sulfate, at least one alkyl ether sulfate, a fatty alcohol, and water. (a) a set gypsum core disposed between two cover sheets; (b) the set gypsum core comprising a gypsum crystal matrix formed from at least water, stucco, and a foam; wherein: the foam is generated by inserting air into an aqueous mixture of a foaming agent comprising at least one alkyl sulfate, at least one alkyl ether sulfate, a fatty alcohol, and water.
A polyethylene composition characterized in that it comprises a base resin and an inorganic mineral filler which is present in the composition in an amount of 1 to 50 wt% in respect to the weight of composition, wherein said base resin comprises: a) a first crosslinked polyethylene having a gel content (measured according to ASTM D 2765:2006) in the range of 5% to 80% in respect to the weight of crosslinked polyethylene, said crosslinked polyethylene being obtained from recycled waste, and b) a second polyethylene selected from virgin polyethylene and recycled polyethylene, or mixtures thereof. a) a first crosslinked polyethylene having a gel content (measured according to ASTM D 2765:2006) in the range of 5% to 80% in respect to the weight of crosslinked polyethylene, said crosslinked polyethylene being obtained from recycled waste, and b) a second polyethylene selected from virgin polyethylene and recycled polyethylene, or mixtures thereof.
Power conversion circuitry comprising: a power switch; gate driver control circuitry (234, 434, 520) configured to output a drive signal to a control terminal of the power switch (110, 111, 112, 210, 410, 510); a positive supply rail (236, 436, 536) and a negative supply rail (240, 440, 540) coupled to supply the gate driver control circuitry with a voltage; and voltage clamp circuitry (228, 428, 528) coupled between a control terminal of the power switch and a second terminal of the power switch, wherein the voltage clamp circuitry is coupled to the positive supply rail and the negative supply rail and is configured to sense that a) the voltage supplied by the positive supply rail is absent or below a voltage level defined between the positive supply rail and the negative supply and, in response, reversibly clamp the voltage between the control terminal and the second terminal to a clamped voltage level, wherein the clamped voltage level is a level at which the power switch is not biased into conduction, and b) the voltage supplied by the positive supply rail is above the defined voltage level and, in response, remove the clamping. a power switch; gate driver control circuitry (234, 434, 520) configured to output a drive signal to a control terminal of the power switch (110, 111, 112, 210, 410, 510); a positive supply rail (236, 436, 536) and a negative supply rail (240, 440, 540) coupled to supply the gate driver control circuitry with a voltage; and voltage clamp circuitry (228, 428, 528) coupled between a control terminal of the power switch and a second terminal of the power switch, wherein the voltage clamp circuitry is coupled to the positive supply rail and the negative supply rail and is configured to sense that a) the voltage supplied by the positive supply rail is absent or below a voltage level defined between the positive supply rail and the negative supply and, in response, reversibly clamp the voltage between the control terminal and the second terminal to a clamped voltage level, wherein the clamped voltage level is a level at which the power switch is not biased into conduction, and b) the voltage supplied by the positive supply rail is above the defined voltage level and, in response, remove the clamping. a) the voltage supplied by the positive supply rail is absent or below a voltage level defined between the positive supply rail and the negative supply and, in response, reversibly clamp the voltage between the control terminal and the second terminal to a clamped voltage level, wherein the clamped voltage level is a level at which the power switch is not biased into conduction, and b) the voltage supplied by the positive supply rail is above the defined voltage level and, in response, remove the clamping.