mhurhangee/ep-ind-claims huggingface dataset:
A catalyst system for oxidative dehydrogenation, wherein a reactor is filled with a catalyst for oxidative dehydrogenation in an n-layer structure, wherein n is an integer of 2 or more, wherein the catalyst is diluted and the reactor is filled with the diluted catalyst so that each layer of the n-layer structure satisfies Equations 1 and 2 below: X wt % + Y wt % + Z wt % = 100 wt %, wherein X represents an amount of AB 2 O 4 and is 3 to 30, wherein AB 2 O 4 is a active ingredient of a catalyst, wherein A is one or more selected from the group consisting of copper (Cu), radium (Ra), barium (Ba), strontium (Sr), calcium (Ca), beryllium (Be), zinc (Zn), magnesium (Mg), manganese (Mn), cerium (Ce), zirconium (Zr), lanthanum (La), and cobalt (Co) and B is iron (Fe); Y is an amount of a porous support and is 20 to 97; and Z is an amount of one or more dilution fillers selected from alumina, silica, silicon carbide, zirconia, titania, and cordierite and is 0 to 77, wherein the diluted catalyst is a mixture of the dilution filler and the coating catalyst, the coating catalyst having a porous support coated with the active ingredient AB 2 O 4; X n > X n − 1, wherein, with respect to a direction in which reactants are fed into the reactor, X n represents X for an n-th layer, and X n-1 represents X for an (n-1)th layer, wherein at least one of the n layers has a Z value greater than 0, and wherein the porous support has a packing density of 0.8 to 1.5 g/cm 3. wherein the catalyst is diluted and the reactor is filled with the diluted catalyst so that each layer of the n-layer structure satisfies Equations 1 and 2 below: X wt % + Y wt % + Z wt % = 100 wt %, wherein X represents an amount of AB 2 O 4 and is 3 to 30, wherein AB 2 O 4 is a active ingredient of a catalyst, wherein A is one or more selected from the group consisting of copper (Cu), radium (Ra), barium (Ba), strontium (Sr), calcium (Ca), beryllium (Be), zinc (Zn), magnesium (Mg), manganese (Mn), cerium (Ce), zirconium (Zr), lanthanum (La), and cobalt (Co) and B is iron (Fe); Y is an amount of a porous support and is 20 to 97; and Z is an amount of one or more dilution fillers selected from alumina, silica, silicon carbide, zirconia, titania, and cordierite and is 0 to 77, wherein the diluted catalyst is a mixture of the dilution filler and the coating catalyst, the coating catalyst having a porous support coated with the active ingredient AB 2 O 4; X n > X n − 1, wherein, with respect to a direction in which reactants are fed into the reactor, X n represents X for an n-th layer, and X n-1 represents X for an (n-1)th layer, wherein at least one of the n layers has a Z value greater than 0, and
Electromagnetic assembly for an LLC resonant converter, comprising a ferrite structure, said ferrite structure comprising: - a first compartment housing a single-phase transformer, said single-phase transformer comprising a secondary winding wound around a first magnetic core and a primary winding wound around said secondary winding, - a second compartment housing the series inductance of said LLC resonant converter, the series inductance comprising a winding wound around a second magnetic core, said electromagnetic assembly being characterized in that said winding of said series inductance comprises a first coil wound around said second magnetic core and connected electrically to a terminal of said primary winding, the other terminal of said primary winding being connected electrically to a second coil of said series inductance, said second coil being wound around said first coil, the terminals of the series inductance and primary winding assembly being formed by a terminal of said first coil and a terminal of said second coil. - a first compartment housing a single-phase transformer, said single-phase transformer comprising a secondary winding wound around a first magnetic core and a primary winding wound around said secondary winding, - a second compartment housing the series inductance of said LLC resonant converter, the series inductance comprising a winding wound around a second magnetic core,
A luminaire comprising a light guide plate arrangement for interior illumination and for illuminating workplaces, in particular a suspended luminaire or a surface-mounted luminaire, which has at least one polished end face for coupling light by means of a plurality of LEDs contacting the respective end face, wherein the light guide plate which is configured as translucent and in particular as clearly transparent has, in at least two mutually parallel planes, a respective full-area dot matrix which effects light reflection and light scatter and which is formed by light decoupling elements, characterized in that the light guide plate is formed in two parts and comprises two mutually contacting individual light guide plates (6, 7) of which each is provided with a dot matrix at one of their surfaces; in that the individual light guide plates (6, 7) are arranged such that the dot matrixes are disposed at the upper side and at the lower side of the layered arrangement; and in that the dot matrixes disposed in different planes are configured to predefine the respective downwardly irradiated direct light and the upwardly irradiated indirect light portion, on the one hand, and are arranged following one another rotated relative to one another about a predefinable angle to achieve a masking effect at the room side, on the other hand.
Method of applying a component to an assembly by means of a manipulator, especially of uniformly pressing it on over an area, wherein the method has the following steps: - taking up the component to be applied by means of a first reduced pressure in a first interspace between a support element and the component, - moving the manipulator with component toward the assembly, - disposing the component on at least part of the area of the assembly by means of the manipulator, during which disposing a second reduced pressure is generated in a second interspace between the support element and the assembly, and - securing the component on the assembly by increasing the differential between the first and second reduced pressures. - taking up the component to be applied by means of a first reduced pressure in a first interspace between a support element and the component, - moving the manipulator with component toward the assembly, - disposing the component on at least part of the area of the assembly by means of the manipulator, during which disposing a second reduced pressure is generated in a second interspace between the support element and the assembly, and - securing the component on the assembly by increasing the differential between the first and second reduced pressures.
A method for receiving digital information at a first receiving device, the information received from a sending device via an information sharing system, the first receiving device including a computer processor, the method comprising: a. using a microphone of the first receiving device, receiving (210, 230) a sound signal emitted by the sending device, the sound signal indicating a request to transfer the digital information to the first receiving device, the sound signal including a sharing identifier; b. using the first receiving device, sending the sharing identifier to the information sharing system and receiving the digital information from the information sharing system, characterized by c. using the first receiving device, providing the location of the first receiving device to the information sharing system and wherein receiving the digital information from the information sharing system requires that the location of the first receiving device is within a specified geographic area. a. using a microphone of the first receiving device, receiving (210, 230) a sound signal emitted by the sending device, the sound signal indicating a request to transfer the digital information to the first receiving device, the sound signal including a sharing identifier; b. using the first receiving device, sending the sharing identifier to the information sharing system and receiving the digital information from the information sharing system, characterized by c. using the first receiving device, providing the location of the first receiving device to the information sharing system and wherein receiving the digital information from the information sharing system requires that the location of the first receiving device is within a specified geographic area.
A system comprising: an aliquotter module comprising a first track having an endless loop form; a second track having an endless loop form; a transport track; a first rotatable gateway device proximate the transport track and the first track; a second rotatable gateway device proximate the transport track and the second track; and a pipettor configured to aspirate a first aliquot volume of a sample in a primary sample container located in an aspiration position proximate the first track and dispense the first aliquot volume of the sample in a secondary sample container located in a dispensing position proximate the second track. a first track having an endless loop form; a second track having an endless loop form; a transport track; a first rotatable gateway device proximate the transport track and the first track; a second rotatable gateway device proximate the transport track and the second track; and a pipettor configured to aspirate a first aliquot volume of a sample in a primary sample container located in an aspiration position proximate the first track and dispense the first aliquot volume of the sample in a secondary sample container located in a dispensing position proximate the second track.
A method, comprising: identifying a set of bottleneck nodes in a wireless mesh network; calculating a cumulative buffer size for the set of bottleneck nodes; and distributing the cumulative buffer size between the set of bottleneck nodes wherein each node includes a buffer and the cumulative buffer size is a function of sizes of the buffers of the set of bottleneck nodes and wherein calculating the cumulative buffer size comprises selecting a cumulative buffer size larger than or equal to a product of a maximum packet rate and a one-way propagation delay, when data in the mesh network is a real-time traffic stream. identifying a set of bottleneck nodes in a wireless mesh network; calculating a cumulative buffer size for the set of bottleneck nodes; and distributing the cumulative buffer size between the set of bottleneck nodes wherein each node includes a buffer and the cumulative buffer size is a function of sizes of the buffers of the set of bottleneck nodes and wherein calculating the cumulative buffer size comprises selecting a cumulative buffer size larger than or equal to a product of a maximum packet rate and a one-way propagation delay, when data in the mesh network is a real-time traffic stream.
A method of obtaining resource configuration, comprising: receiving, by a terminal, a non-anchor carrier resource configuration broadcasted by a network device, wherein the non-anchor carrier resource configuration comprises an uplink non-anchor carrier frequency list, an uplink non-anchor carrier resource configuration parameter list, a downlink non-anchor carrier frequency list and a downlink non-anchor carrier resource configuration parameter list; and determining, by the terminal, according to the non-anchor carrier resource configuration, resource information for performing random access, wherein the terminal monitors a physical downlink control channel, PDCCH, on an j-th non-anchor carrier when initiating the random access on an i-th non-anchor carrier, wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i. receiving, by a terminal, a non-anchor carrier resource configuration broadcasted by a network device, wherein the non-anchor carrier resource configuration comprises an uplink non-anchor carrier frequency list, an uplink non-anchor carrier resource configuration parameter list, a downlink non-anchor carrier frequency list and a downlink non-anchor carrier resource configuration parameter list; and determining, by the terminal, according to the non-anchor carrier resource configuration, resource information for performing random access, wherein the terminal monitors a physical downlink control channel, PDCCH, on an j-th non-anchor carrier when initiating the random access on an i-th non-anchor carrier, wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i. wherein i and j are integers greater than or equal to 1, and wherein j is a function of a maximum number of downlink non-anchor carriers, a maximum number of uplink non-anchor carriers, and a value of i.
Method for establishing a short-range radio link between a first device and a second device, - wherein a charger which is designed to charge a hearing device mediates the establishment of the short-range radio link, whereby the charger transmits coupling data of the first device for establishing the short-range radio link to the second device, so that the second device is coupled to the first device and the short-range radio link is established, characterized in that - the charger transmits the coupling data to the second device when the first device is connected to the charger and a switch of the charger is additionally actuated, - wherein the charger has a tray, and wherein the first device is connectable to the charger by inserting it into the tray, - wherein the switch is arranged in the tray and is actuatable by pressing the first device down into the tray. - wherein a charger which is designed to charge a hearing device mediates the establishment of the short-range radio link, whereby the charger transmits coupling data of the first device for establishing the short-range radio link to the second device, so that the second device is coupled to the first device and the short-range radio link is established, characterized in that - the charger transmits the coupling data to the second device when the first device is connected to the charger and a switch of the charger is additionally actuated, - wherein the charger has a tray, and wherein the first device is connectable to the charger by inserting it into the tray, - wherein the switch is arranged in the tray and is actuatable by pressing the first device down into the tray.
A non-woven mat comprised of a blend comprised of at least 60 percent by weight magnesium aluminum silicate glass fibers and at least 10 percent by weight fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof, based on the total weight of the mat, wherein the magnesium aluminum silicate glass fibers comprise Al 2 O 3 in a range from 10 to 30 percent by weight, SiO 2 in a range from 52 to 70 percent by weight, and MgO in a range from 1 to 12 percent by weight, based on the total weight of the magnesium aluminum silicate glass fiber, and wherein the non-woven mat is collectively comprised of at least 80 percent by weight of said magnesium aluminum silicate glass fibers and said fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof, based on the total weight of the mat, and wherein the magnesium aluminum silicate glass fibers and the fibers selected from the group consisting of amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, and mixtures thereof present in the blend collectively provide the non-woven mat with a Resiliency Value after three thermal cycles from 25°C to 700°C/400°C of the Real Condition Fixture Test at least 1.1 times greater than the Resiliency Value of a comparable non-woven mat consisting of any individual magnesium aluminum silicate glass fibers, amorphous refractory ceramic fibers, bio-soluble ceramic fibers, heat-treated silica fibers, present in the blend of fibers.
Internal combustion engine, preferably for a motor vehicle, comprising a coolant circuit operated by means of a coolant pump as the main coolant circuit for cooling the internal combustion engine, and comprising at least one secondary coolant circuit, that is branching off from the main coolant circuit and flowing again into the main coolant circuit, for cooling at least one further heat source and/or for heating at least one heat sink as at least one further component of the internal combustion engine or of a motor vehicle comprising the internal combustion engine, preferably for cooling an air compressor and/or a transmission oil cooler and/or a heating heat exchanger, wherein the coolant pump is coupled directly or indirectly to the crank drive of the internal combustion engine for a pump drive, wherein, in addition to the coolant pump of the main coolant circuit, at least one circulation pump, adapted to the cooling or heating requirement of at least one associated component (15, 16, 17), is arranged in the at least one secondary coolant circuit, and the at least one further component comprises a plurality of further components (15, 16, 17), characterised in that the plurality of further components (15, 16, 17) comprises the air compressor, the gear oil cooler and the heating heat exchanger, wherein the further components (15, 16, 17) are arranged hydraulically in parallel in such a way that these components (15, 16, 17) are each connected individually on the inlet side at coolant supply points (19, 19', 19") to the main cooling circuit. the coolant pump is coupled directly or indirectly to the crank drive of the internal combustion engine for a pump drive, wherein, in addition to the coolant pump of the main coolant circuit, at least one circulation pump, adapted to the cooling or heating requirement of at least one associated component (15, 16, 17), is arranged in the at least one secondary coolant circuit, and the at least one further component comprises a plurality of further components (15, 16, 17), characterised in that the plurality of further components (15, 16, 17) comprises the air compressor, the gear oil cooler and the heating heat exchanger, wherein the further components (15, 16, 17) are arranged hydraulically in parallel in such a way that these components (15, 16, 17) are each connected individually on the inlet side at coolant supply points (19, 19', 19") to the main cooling circuit.
A robot control method, comprising: determining, by a robot, a position when the robot is released from being hijacked based on relocalization operation; determining, by the robot, a task execution area according to environmental information around the position when the robot is released from being hijacked; and executing, by the robot, a task within the task execution area, characterized in that prior to the determining, by the robot, the task execution area according to the environmental information around the position when the robot is released from being hijacked, the robot control method further comprises: determining that the robot needs to execute the task at the position when the robot is released from being hijacked according to a difference between the position when the robot is released from being hijacked and a position when the robot is hijacked. determining, by a robot, a position when the robot is released from being hijacked based on relocalization operation; determining, by the robot, a task execution area according to environmental information around the position when the robot is released from being hijacked; and executing, by the robot, a task within the task execution area, characterized in that prior to the determining, by the robot, the task execution area according to the environmental information around the position when the robot is released from being hijacked, the robot control method further comprises: determining that the robot needs to execute the task at the position when the robot is released from being hijacked according to a difference between the position when the robot is released from being hijacked and a position when the robot is hijacked.
A system comprising: a main driver configured for rotating at a substantially constant rotational speed; a rotating load configured to be driven into rotation by the main driver; a controller, for controllably adjusting a load rotational speed; variable speed transmission being arranged between the main driver and the load and comprised of a speed summing gear arrangement having a first input shaft, a second input shaft and an output shaft; an auxiliary driver (243; 143), mechanically coupled to the second input shaft of the speed summing gear arrangement and configured rotate the second input shaft; wherein the auxiliary driver is a turbomachine wherein the first input shaft of the speed summing gear arrangement is drivingly coupled to the main driver; and wherein the output shaft of the speed summing gear arrangement is drivingly coupled to the rotating load; the speed of the output shaft being a combination of a speed of the main driver and of a speed of the auxiliary driver (243, 143); characterized in that the rotating load includes a compressor for processing a refrigerant fluid for the liquefaction of natural gas; and the system further comprising a closed thermodynamic circuit comprising a condenser or cooler, a pump and a heat exchanger such that working fluid circulating in the closed circuit converts heat from the heat exchanger into useful mechanical power available on an output shaft of the turbomachine, wherein waste heat is exploited to drive the auxiliary driver, wherein the turbomachine is arranged in the closed thermodynamic circuit. a main driver configured for rotating at a substantially constant rotational speed; a rotating load configured to be driven into rotation by the main driver; a controller, for controllably adjusting a load rotational speed; variable speed transmission being arranged between the main driver and the load and comprised of a speed summing gear arrangement having a first input shaft, a second input shaft and an output shaft; an auxiliary driver (243; 143), mechanically coupled to the second input shaft of the speed summing gear arrangement and configured rotate the second input shaft; wherein the auxiliary driver is a turbomachine wherein the first input shaft of the speed summing gear arrangement is drivingly coupled to the main driver; and wherein the output shaft of the speed summing gear arrangement is drivingly coupled to the rotating load; the speed of the output shaft being a combination of a speed of the main driver and of a speed of the auxiliary driver (243, 143); characterized in that the rotating load includes a compressor for processing a refrigerant fluid for the liquefaction of natural gas; and the system further comprising a closed thermodynamic circuit comprising a condenser or cooler, a pump and a heat exchanger such that working fluid circulating in the closed circuit converts heat from the heat exchanger into useful mechanical power available on an output shaft of the turbomachine, wherein waste heat is exploited to drive the auxiliary driver, wherein the turbomachine is arranged in the closed thermodynamic circuit.