mhurhangee/ep-ind-claims huggingface dataset:
Switching device, suitable for direct current operation, comprising - a gas-tight encapsulated, electrically insulating housing which is able to be filled with an insulation gas, - at least one contact pair (15, 21) which is arranged in the housing and which has a fixed contact and a moving contact, wherein the two contacts (15, 21) are in contact with each other in a switched-on state of the switching device and are separated in a switched-off state of the switching device, - an arc driver arrangement (81, 82) which generates a magnetic field at least in the region of the contact pair (15, 21), as well as - a first arc guiding arrangement (41, 42), by means of which an arc occurring between the contacts (15, 21) having a first current direction is guided in the direction of an extinguishing region of the housing arranged at a distance from the contacts, wherein in the case of a switching device implemented with a double break, two moving contacts (21, 21') are arranged on a bridge switching element and the bridge switching element has an actuator, and wherein a second arc guiding arrangement (41', 42') is provided in such a way that an arc occurring between the contacts (15, 21) having a second current direction opposed to the first current direction is guided in the direction of the extinguishing region, characterised in that the fixed contact is connected to a housing base, wherein the housing base is arranged opposite the extinguishing region; and the actuator is guided through the housing base via a flexible gas seal. - a gas-tight encapsulated, electrically insulating housing which is able to be filled with an insulation gas, - at least one contact pair (15, 21) which is arranged in the housing and which has a fixed contact and a moving contact, wherein the two contacts (15, 21) are in contact with each other in a switched-on state of the switching device and are separated in a switched-off state of the switching device, - an arc driver arrangement (81, 82) which generates a magnetic field at least in the region of the contact pair (15, 21), as well as - a first arc guiding arrangement (41, 42), by means of which an arc occurring between the contacts (15, 21) having a first current direction is guided in the direction of an extinguishing region of the housing arranged at a distance from the contacts,
A gas distribution system having a gas mass flow sensor (106, 306, 406, 506) including a temperature-sensitive resistive element (130, 330, 430), a thermally conductive shell (128, 328, 428, 528) surrounding the resistive element, and heat-transfer control elements (134, 334, 434, 534, 244, 344, 550), wherein: a housing (126, 326, 426, 526) partially surrounds the shell and the heat-transfer control elements comprise flow guidance elements (134, 334, 434, 534) coupled to the housing, characterized in that: the shell includes a leading surface (136, 336, 436, 536) oriented substantially orthogonal to a direction of the gas flow path; the flow guidance elements have leading surfaces shaped as arc segments or as segments of an ellipse; the heat-transfer control elements are positioned and configured to focus heat transfer from the resistive element through the leading surface of the shell, so that a rate of heat transfer at areas other than the leading surface (136, 336, 436, 536) is independent from variations in gas flow configuration. a housing (126, 326, 426, 526) partially surrounds the shell and the heat-transfer control elements comprise flow guidance elements (134, 334, 434, 534) coupled to the housing, characterized in that: the shell includes a leading surface (136, 336, 436, 536) oriented substantially orthogonal to a direction of the gas flow path; the flow guidance elements have leading surfaces shaped as arc segments or as segments of an ellipse; the heat-transfer control elements are positioned and configured to focus heat transfer from the resistive element through the leading surface of the shell, so that a rate of heat transfer at areas other than the leading surface (136, 336, 436, 536) is independent from variations in gas flow configuration.
A support structure for a tarpaulin for vehicles, trailers, semi-trailers and containers, comprising two series of sliders configured to be arranged for sliding along respective side supports (A1, A2) of a loading compartment, a plurality of carrier ribs configured to support a tarpaulin, each carrier rib connecting two sliders of the two series, respectively, to each other, wherein adjacent sliders of each series are connected to each other by means of two arms (21, 22) respectively hinged to the adjacent sliders, wherein said two arms (21, 22) are hinged to each other, and wherein each of said two arms is formed from a folded rod and comprises a pair of longitudinal portions (21a, 22a) and transverse portions (21b, 21c-21d, 22b, 22c-22d), said structure being characterized in that said two arms (21, 22) comprise respective heads (23, 24) hinged to each other, each head (23, 24) having a rounded cross-sectional profile at the hinge, wherein each of said heads comprises a fastening part (23a, 23b) clamped around at least one transverse portion (21c-21d, 22c-22d) of the relevant arm (21, 22), wherein said heads are provided with respective cylindrical guides (23c, 24c) coupled to each other by a rotation pin, and wherein said structure further comprises a support mounted to the rotation pin, said support comprising fastening means for fastening the tarpaulin thereto. two series of sliders configured to be arranged for sliding along respective side supports (A1, A2) of a loading compartment, a plurality of carrier ribs configured to support a tarpaulin, each carrier rib connecting two sliders of the two series, respectively, to each other, wherein adjacent sliders of each series are connected to each other by means of two arms (21, 22) respectively hinged to the adjacent sliders, wherein said two arms (21, 22) are hinged to each other, and wherein each of said two arms is formed from a folded rod and comprises a pair of longitudinal portions (21a, 22a) and transverse portions (21b, 21c-21d, 22b, 22c-22d), said structure being characterized in that said two arms (21, 22) comprise respective heads (23, 24) hinged to each other, each head (23, 24) having a rounded cross-sectional profile at the hinge, wherein each of said heads comprises a fastening part (23a, 23b) clamped around at least one transverse portion (21c-21d, 22c-22d) of the relevant arm (21, 22), wherein said heads are provided with respective cylindrical guides (23c, 24c) coupled to each other by a rotation pin, and wherein said structure further comprises a support mounted to the rotation pin, said support comprising fastening means for fastening the tarpaulin thereto.
Method for the preparation of a copper-exchanged zeolite material comprising the steps of providing a dry mixture containing a) a zeolite starting material that exhibit ion exchange capacity and b) one or more metal compounds; heating the mixture in a gaseous atmosphere containing ammonia to a temperature of between 150°C and 250°C and for a time sufficient to initiate and perform a solid state ion exchange of ions of the metal compound and ions of the zeolite; and obtaining the copper-exchanged zeolite material, wherein the zeolite starting material is ZSM-5 in the H-form and the one or more metal compounds are Cu oxide and/or Cu oxide.
A cartridge bearing assembly for rotatably coupling a shaft with a housing, the housing having a bore, the cartridge bearing assembly comprising; a bearing having a central axis (Ac) and opposing first and second axial ends (12a, 12b), the bearing including first and second, axially spaced inner rings (16, 18) disposeable upon the shaft, at least one outer ring disposed circumferentially about the two inner rings (16, 18), and first and second sets of rolling elements (22, 24), the first set of rolling elements being disposed between the first inner ring and the at least one outer ring so as to form a first bearing subassembly and the second set of rolling elements being disposed between the second inner ring and the at least one outer ring so as to form a second bearing subassembly; and a carrier including a first tubular portion disposed generally about the bearing first axial end and a second tubular portion disposed generally about the bearing second axial end, the first and second tubular portions (32, 34) being coupled together to enclose the bearing, the carrier being at least partially disposeable within the housing bore so as to couple the bearing with the housing; and an annular connector having a first axial end engaged with the first inner ring and a second axial end engaged with the second inner ring so as to couple the first and second inner rings (16, 18), the connector having an axial length (L A) selected to establish a preload within the first bearing subassembly and a preload within the second bearing subassembly, wherein each one of the first and second tubular portions (32, 34) includes a radially-outwardly extending coupler flange (66, 68), the two coupler flanges (66, 68) being disposed against each other and coupled together so as to retain the bearing disposed within the carrier, at least one of the two coupler flanges (66, 68) being attached to the housing so as to connect the cartridge bearing assembly with the housing, characterized in that each one of the first and second tubular portions (32; 34) has an axial length (L T1, L T2), the axial length (L T2) of the second tubular portion being substantially greater than the axial length (L T1) of the first tubular portion, the first tubular portion being disposed externally of the housing and the second tubular portion being disposed within the housing bore, when the cartridge bearing assembly is connected with the housing.
Sensor system for determining at least one rotation property of an element rotating about at least one axis of rotation, wherein the sensor system has at least one encoder wheel which can be connected to the rotating element, wherein the encoder wheel has an encoder wheel profile, wherein the sensor system comprises at least one position sensor and at least one phase sensor, wherein the sensor system has at least one digital interface and at least one incremental interface, wherein the sensor system is configured to output at least one absolute position signal generated by means of the position sensor via the digital interface and to output at least one incremental signal generated by means of the phase sensor via the incremental interface, and wherein the sensor system furthermore comprises at least one control unit, wherein the control unit is configured to capture the position signal and the incremental signal via the interfaces (150, 152), and wherein the control unit is furthermore configured to determine at least one second position signal with the aid of the absolute position signal and the incremental signal, characterized in that the control unit is configured to form a difference D between the absolute position signal and the second position signal, wherein the control unit is configured to determine the rotation property from the absolute position signal if the difference D is less than a threshold value D S, wherein the control unit is configured to determine the rotation property from the second position signal if the difference D is greater than the threshold value D S.
A device for scanning a plurality of computerized devices connected to a network, said device comprising: a questioning module adapted to provide a plurality of computerized devices to be questioned; an agentless module adapted to provide a plurality of threads, each thread of said agentless module is configured to be associated with at least one of said plurality of computerized devices, and each thread of said agentless module is adapted to invoke and configure one or more remote access processes to question without using an agent said at least one computerized device associated with said thread, and wherein said questioning module is adapted to utilize a plurality of threads of said agentless module to thereby configure a plurality of remote access processes to remotely scan in parallel and without using an agent at least two of said plurality of remote computerized devices. a questioning module adapted to provide a plurality of computerized devices to be questioned; an agentless module adapted to provide a plurality of threads, each thread of said agentless module is configured to be associated with at least one of said plurality of computerized devices, and each thread of said agentless module is adapted to invoke and configure one or more remote access processes to question without using an agent said at least one computerized device associated with said thread, and wherein said questioning module is adapted to utilize a plurality of threads of said agentless module to thereby configure a plurality of remote access processes to remotely scan in parallel and without using an agent at least two of said plurality of remote computerized devices.
A drillable bridge plug comprising: a mandrel; at least one slip assembly disposed on the mandrel and having one or more gripping teeth, wherein the slip assembly is comprised of at least two slip bodies being movable away from the mandrel, wherein the gripping teeth have a first outer diameter; and a standoff device comprising at least one of a slip retaining band (77, 79) and a slip shroud disposed on the at least one slip assembly and being expandable with the movement of the at least two slip bodies away from the mandrel, wherein the slip retaining band (77, 79) or slip shroud secures the slip bodies to the mandrel and has a second outer diameter greater than the first outer diameter. a mandrel; at least one slip assembly disposed on the mandrel and having one or more gripping teeth, wherein the slip assembly is comprised of at least two slip bodies being movable away from the mandrel, wherein the gripping teeth have a first outer diameter; and a standoff device comprising at least one of a slip retaining band (77, 79) and a slip shroud disposed on the at least one slip assembly and being expandable with the movement of the at least two slip bodies away from the mandrel, wherein the slip retaining band (77, 79) or slip shroud secures the slip bodies to the mandrel and has a second outer diameter greater than the first outer diameter.
A system for adding a liquid to a carrier gas comprising: a carrier gas line configured to direct a carrier gas from a source to a place of use; a vaporizing device located within the carrier gas line, the vaporizing device comprising a heating device configured to heat a liquid to a vapor and to release the vapor at an outlet of the heating device; a sensor configured to detect at least one of a temperature of at least one system component, a power usage of at least one system component, a gas flow through at least one system component, and a liquid flow through at least one system component; a controller configured to receive a signal from the sensor and further configured to control the system in response to the signal; a pump configured to provide liquid to the vaporizing device and to be responsive to the controller; and wherein the carrier gas within the carrier gas line flows past the outlet of the heating device, thereby forming a mixture of the vapor and the carrier gas, characterized in that the controller and the sensor are configured to detect a variation in a gas flow in the system by monitoring at least one of a temperature and a power consumption of the heating device; and in that the controller is further configured to calibrate the system and to control a speed of the pump based on the signal received by the controller. a carrier gas line configured to direct a carrier gas from a source to a place of use; a vaporizing device located within the carrier gas line, the vaporizing device comprising a heating device configured to heat a liquid to a vapor and to release the vapor at an outlet of the heating device; a sensor configured to detect at least one of a temperature of at least one system component, a power usage of at least one system component, a gas flow through at least one system component, and a liquid flow through at least one system component; a controller configured to receive a signal from the sensor and further configured to control the system in response to the signal; a pump configured to provide liquid to the vaporizing device and to be responsive to the controller; and wherein the carrier gas within the carrier gas line flows past the outlet of the heating device, thereby forming a mixture of the vapor and the carrier gas, characterized in that the controller and the sensor are configured to detect a variation in a gas flow in the system by monitoring at least one of a temperature and a power consumption of the heating device; and in that the controller is further configured to calibrate the system and to control a speed of the pump based on the signal received by the controller.
Capacitor DC-link arrangement, in particular for high current ripple applications, the capacitor DC-link arrangement comprising: a substrate such as a PCB-based substrate, a first terminal and a second terminal which are both arranged on the substrate, wherein the first terminal and the second terminal each comprise a contact area (6; 6') to which the terminals of the ceramic capacitor elements are connected, a plurality of ceramic capacitor elements, wherein: - each of the ceramic capacitor elements is connected as well to the first terminal and the second terminal, - the plurality of ceramic capacitor elements are connected in parallel, - the ceramic capacitor elements are arranged and connected in a similar current path, and a plurality of strengthening bus bars (11, 12, 13; 11', 12', 13'), wherein the strengthening bus bars (11, 12, 13; 11', 12', 13') are arranged on and/or along the contact areas (6; 6'). a substrate such as a PCB-based substrate, a first terminal and a second terminal which are both arranged on the substrate, wherein the first terminal and the second terminal each comprise a contact area (6; 6') to which the terminals of the ceramic capacitor elements are connected, a plurality of ceramic capacitor elements, wherein: - each of the ceramic capacitor elements is connected as well to the first terminal and the second terminal, - the plurality of ceramic capacitor elements are connected in parallel, - the ceramic capacitor elements are arranged and connected in a similar current path, and - each of the ceramic capacitor elements is connected as well to the first terminal and the second terminal, - the plurality of ceramic capacitor elements are connected in parallel, - the ceramic capacitor elements are arranged and connected in a similar current path, and a plurality of strengthening bus bars (11, 12, 13; 11', 12', 13'), wherein the strengthening bus bars (11, 12, 13; 11', 12', 13') are arranged on and/or along the contact areas (6; 6').
A method of extracting liquid from a laundry load residing in a rotating drum of a laundry treating appliance during a rinsing phase of operation, the method comprising the following steps: a) supplying water into the drum; b) heating the supplied water to a predetermined temperature to form hot water; c) rotating the drum at a tumbling speed in the presence of the hot water; d) after rotating at the tumbling speed, rotating the drum at a spinning speed; characterized in that further comprises e) sensing a parameter indicative of a residual moisture content of the laundry load; and f) repeating at least steps b), c) and d) until the sensed parameter indicates a residual moisture content below a predetermined threshold. a) supplying water into the drum; b) heating the supplied water to a predetermined temperature to form hot water; c) rotating the drum at a tumbling speed in the presence of the hot water; d) after rotating at the tumbling speed, rotating the drum at a spinning speed; characterized in that further comprises e) sensing a parameter indicative of a residual moisture content of the laundry load; and f) repeating at least steps b), c) and d) until the sensed parameter indicates a residual moisture content below a predetermined threshold.
A heat exchanger comprising a first manifold and a second manifold connected by a bundle of tubes, configured to provide a first pass, a second pass and a third pass for a heat exchange fluid, wherein the heat exchanger comprises controlling means for directing the flow within the heat exchanger, adapted to switch between a first state, in which co-flow is enabled for the first and second passes (5, 6), both being in a counter-flow relation to the third pass, and a second state, in which co-flow is enabled for the second and third passes (6, 7), both being in a counter-flow relation to the first pass, characterized in that the heat exchanger further comprises a body connected fluidically to the first manifold so that it can receive the fluid from and distribute the fluid to the first pass, second pass and third pass, wherein the body comprises the controlling means. exchanger comprises controlling means for directing the flow within the heat exchanger, adapted to switch between a first state, in which co-flow is enabled for the first and second passes (5, 6), both being in a counter-flow relation to the third pass, and a second state, in which co-flow is enabled for the second and third passes (6, 7), both being in a counter-flow relation to the first pass, characterized in that the heat exchanger further comprises a body connected fluidically to the first manifold so that it can receive the fluid from and distribute the fluid to the first pass, second pass and third pass, wherein the body comprises the controlling means.
A method for transmitting, by a base station, a signal in a wireless communication system, comprising: precoding a signal using a matrix for precoding; mapping the precoded signal to resource elements; and transmitting the mapped signal to a user equipment, UE, wherein the matrix for precoding is calculated on a basis of a matrix H for horizontal antennas of the base station and a matrix V for vertical antennas of the base station, wherein the matrices H, V for the horizontal antennas and the vertical antennas respectively have cyclic delay values, wherein the matrix H for the horizontal antennas is obtained by sequentially multiplying matrices W H (i), D H (i) and U and the matrix V for the vertical antennas is obtained by sequentially multiplying matrices W V (i), D V (i) and U, wherein the matrices W H (i), D H (i), W V ( i) and D V (i) respectively have period values P WH, P vH, P WV and P vV and are cycled according to the respective period values, wherein i is an index being a natural number, and wherein the period values are set on a basis of variations in channels generated by the horizontal antennas and the vertical antennas of the base station. precoding a signal using a matrix for precoding; mapping the precoded signal to resource elements; and transmitting the mapped signal to a user equipment, UE, wherein the matrix for precoding is calculated on a basis of a matrix H for horizontal antennas of the base station and a matrix V for vertical antennas of the base station, wherein the matrices H, V for the horizontal antennas and the vertical antennas respectively have cyclic delay values, wherein the matrix H for the horizontal antennas is obtained by sequentially multiplying matrices W H (i), D H (i) and U and the matrix V for the vertical antennas is obtained by sequentially multiplying matrices W V (i), D V (i) and U, wherein the matrices W H (i), D H (i), W V ( i) and D V (i) respectively have period values P WH, P vH, P WV and P vV and are cycled according to the respective period values, wherein i is an index being a natural number, and wherein the period values are set on a basis of variations in channels generated by the horizontal antennas and the vertical antennas of the base station.