mhurhangee/patent-ind-claim-en huggingface dataset:
A network node (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) for forwarding traffic through a network interconnecting one or more other nodes (I-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) by one or more network segments, the network node (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) comprising: a local controller (C2, J-C2, PC2, 1004, 1006) configured to receive a plurality of end-to-end forwarding topologies with accompanying constraints, each end-to-end forwarding topology identifying one or more network segments for forwarding the traffic through the network and the accompanying constraints defining one or more datagrams to which the corresponding forwarding topology applies, the local controller (C2, J-C2, PC2, 1004, 1006) being configured to deterministically apply or remove the forwarding topologies, to or from, hardware or software components of the associated node (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) based on an availability of the network segments to deterministically arrive at a consistent end-to-end forwarding configuration for the network as a function of a current network state representing an operational status of all of the network segments in the network , wherein each of the one or more other nodes (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) has an associated local controller (C2, J-C2, PC2, 1004, 1006); and a switch configured to forward the traffic through the network in accordance with the consistent end-to-end forwarding configuration, the switch including at least one of: a packet switch , a circuit switch , and an optical switch. a local controller (C2, J-C2, PC2, 1004, 1006) configured to receive a plurality of end-to-end forwarding topologies with accompanying constraints, each end-to-end forwarding topology identifying one or more network segments for forwarding the traffic through the network and the accompanying constraints defining one or more datagrams to which the corresponding forwarding topology applies, the local controller (C2, J-C2, PC2, 1004, 1006) being configured to deterministically apply or remove the forwarding topologies, to or from, hardware or software components of the associated node (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) based on an availability of the network segments to deterministically arrive at a consistent end-to-end forwarding configuration for the network as a function of a current network state representing an operational status of all of the network segments in the network , wherein each of the one or more other nodes (1-22, 710.1-710.n, 1010, 1012, 1404, 1406, 1408, 1410) has an associated local controller (C2, J-C2, PC2, 1004, 1006); and a switch configured to forward the traffic through the network in accordance with the consistent end-to-end forwarding configuration, the switch including at least one of: a packet switch , a circuit switch , and an optical switch. a packet switch , a circuit switch , and an optical switch.
An energy module for a utility vehicle, preferably a truck or a bus, comprising: a plurality of high-voltage energy storages ; a cooling system for cooling the high-voltage energy storages ; and a support structure supporting the plurality of high-voltage energy storages and the cooling system and configured to be attached to a vehicle frame of the utility vehicle from below; characterised in that the support structure elastically supports and/or decouples the plurality of high-voltage energy storages and/or the cooling system from a base frame of the support structure . a plurality of high-voltage energy storages ; a cooling system for cooling the high-voltage energy storages ; and a support structure supporting the plurality of high-voltage energy storages and the cooling system and configured to be attached to a vehicle frame of the utility vehicle from below; characterised in that the support structure elastically supports and/or decouples the plurality of high-voltage energy storages and/or the cooling system from a base frame of the support structure .
A packaging for vehicle battery covers, comprising at least: - a sheet or tray, provided on one of its faces with two or more recesses (2a, 2c; 2b, 2d), each recess configured to house and fasten therein a respective cover , wherein each recess comprises a support surface for receiving a respective cover , characterized in that - the support surface of at least one first recess is arranged at a depth less than the depth of the support surface of a recess arranged in a position adjacent to the first recess , so that when a first cover is arranged in the first recess and another respective cover in the adjacent recess , the two covers (20a, 20b; 20c, 20d) are arranged at different heights, superimposed on each other, and - the support surface of the first recess is offset in both the directions of the longitudinal "X" and transverse "Y" axes with respect to the support surface of the adjacent recess ; so that when a respective cover is arranged in the first recess and another respective cover in the adjoining recess there is a partial overlap in the "X-Y" plane of these two adjacent covers (20a, 20b; 20c, 20d), which prevents the rotation of these two covers (20a, 20b; 20c, 20d) inside the packaging and fastens each cover (20a, 20b; 20c, 20d) in the "X-Y" plane in the packaging . - a sheet or tray, provided on one of its faces with two or more recesses (2a, 2c; 2b, 2d), each recess configured to house and fasten therein a respective cover , wherein each recess comprises a support surface for receiving a respective cover , characterized in that - the support surface of at least one first recess is arranged at a depth less than the depth of the support surface of a recess arranged in a position adjacent to the first recess , so that when a first cover is arranged in the first recess and another respective cover in the adjacent recess , the two covers (20a, 20b; 20c, 20d) are arranged at different heights, superimposed on each other, and - the support surface of the first recess is offset in both the directions of the longitudinal "X" and transverse "Y" axes with respect to the support surface of the adjacent recess ;
A rotary tablet press, comprising a rotatably driven rotor having a die plate with die bores and a plurality of upper and lower punches revolving with the die plate for producing tablets in the die bores , wherein the die plate of the rotor is assigned a scraper which steers tablets which are produced in the die bores and ejected by the lower punches from the die bores , from the upper side of the die plate into a satisfactory channel , wherein in the rotational direction of the rotor a reject channel is arranged upstream of the satisfactory channel , a sorting apparatus being assigned to said reject channel for sorting tablets into the reject channel , wherein an inspection apparatus is additionally arranged on the rotary tablet press, said inspection apparatus inspecting at least one property of the tablets produced in the die bores and producing a reject signal for a control apparatus when the inspected property of a tablet deviates inadmissibly from a nominal value, so that the control apparatus actuates the sorting apparatus in order to sort the relevant tablet, characterized in that a first vacuum apparatus is arranged in the reject channel such that tablets conducted by the sorting apparatus in the direction of the reject channel are discharged by the vacuum produced by the first vacuum apparatus through the reject channel , and characterized in that a second vacuum apparatus is arranged in the satisfactory channel such that tablets conducted by the scraper in the direction of the satisfactory channel are suctioned from the die plate by the vacuum produced by the second vacuum apparatus and discharged through the satisfactory channel .
A converter for driving a load (R5), comprising: an input line (Vbus) for receiving power; a power inductor (L2) coupled with the input line; a main switch (Q1) for controlling, at a switching frequency, the path of current flow through the power inductor (L2) and power commutation thereof so as to provide an output; a hysteretic control circuit for turning off the power commutation when a feedback signal relating to the output reaches an upper threshold of the hysteresis control, and for turning on the power commutation when the feedback signal relating to the output drops to a lower threshold of the hysteresis control, wherein the hysteretic control circuit provides a burst signal (Vsch) for switching on and off of the power commutation to implement a burst mode operation with a burst frequency lower than the switching frequency, wherein the converter further comprises an adjusting circuit adapted to: detect the burst signal (Vsch); characterized in that the adjusting circuit is further adapted to adjust the upper threshold and/or the lower threshold in dependence on the detected burst signal. an input line (Vbus) for receiving power; a power inductor (L2) coupled with the input line; a main switch (Q1) for controlling, at a switching frequency, the path of current flow through the power inductor (L2) and power commutation thereof so as to provide an output; a hysteretic control circuit for turning off the power commutation when a feedback signal relating to the output reaches an upper threshold of the hysteresis control, and for turning on the power commutation when the feedback signal relating to the output drops to a lower threshold of the hysteresis control, wherein the hysteretic control circuit provides a burst signal (Vsch) for switching on and off of the power commutation to implement a burst mode operation with a burst frequency lower than the switching frequency, wherein the converter further comprises an adjusting circuit adapted to: detect the burst signal (Vsch); characterized in that the adjusting circuit is further adapted to adjust the upper threshold and/or the lower threshold in dependence on the detected burst signal. detect the burst signal (Vsch); characterized in that the adjusting circuit is further adapted to adjust the upper threshold and/or the lower threshold in dependence on the detected burst signal.
A wind energy farm comprising at least one first wind turbine and at least one second wind turbine , each wind turbine comprising a tower mounted on a foundation, and at least one rotor with a hub carrying a set of wind turbine blades , wherein said at least one first wind turbine is provided with at least three stay cables , each stay cable being connected at one end to the tower of said at least one first wind turbine and at the other end to a stay cable foundation, wherein at least one of the stay cable foundations and the foundation of one of said at least one second wind turbines of the wind energy farm are combined into a single combination foundation, characterized in that the wind turbines are horizontal axis wind turbines, in that the at least one first wind turbine has a higher hub height than the at least one second wind turbine , and in that the wind energy farm comprises at least one wind turbine cluster, each wind turbine cluster comprising one first wind turbine and at least one second wind turbine , wherein the first wind turbine and each of the at least one second wind turbines of a wind turbine cluster are arranged with a distance (d) between them, wherein the distance (d) between the first wind turbine and each of the at least one second wind turbines of a wind turbine cluster is between 1.1 and 3.0 times a rotor diameter of the wind turbines .
Mobile cleaning device , in particular a cleaning robot, the mobile cleaning device being designed to autonomously clean a hob unit , characterised in that the mobile cleaning device has a sensor mechanism which is designed to detect dimensions of the hob unit in order to guide the mobile cleaning device over the hob unit in accordance with the detected dimensions.
An apparatus configured to convert sensing errors within a register file read path into sampling errors so that the errors are monitor-able from the register file read path, the apparatus comprising: at least one bitline (308a, 308b; LBL-0, LBL-1); and a register file circuit configured to operate with a decreased voltage guardband that compensates for an error in a signal provided in the at least one bitline (308a, 308b; LBL-0, LBL-1) during an access operation, the register file circuit being configured to operate with the decreased voltage guardband by detecting the error if the error occurs in response to the access operation, characterized in that the register file circuit includes: an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device differs from an output of the level-triggered clock-responsive device ; and the register file circuit is further configured to repeat the access operation if the error is detected to react to the detected error while the voltage guardband is decreased. at least one bitline (308a, 308b; LBL-0, LBL-1); and a register file circuit configured to operate with a decreased voltage guardband that compensates for an error in a signal provided in the at least one bitline (308a, 308b; LBL-0, LBL-1) during an access operation, the register file circuit being configured to operate with the decreased voltage guardband by detecting the error if the error occurs in response to the access operation, characterized in that the register file circuit includes: an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device differs from an output of the level-triggered clock-responsive device ; and an edge-triggered clock-responsive device (328; 508); and a level-triggered clock-responsive device (330; 510), the register file circuit being configured to detect the error if an output of the edge-triggered clock-responsive device differs from an output of the level-triggered clock-responsive device ; and the register file circuit is further configured to repeat the access operation if the error is detected to react to the detected error while the voltage guardband is decreased.
An air-conditioning apparatus comprising: an outdoor unit ; a plurality of indoor units connected to the outdoor unit via a first signal line ; and at least one remote controller connected to the plurality of indoor units via a second signal line , wherein the plurality of indoor units each include a remote controller power supply unit configured to supply power to the remote controller , the plurality of indoor units are divided into two or more groups, and one or more of the indoor units in each of the groups are connected to a different remote controller , characterized in that the plurality of indoor units are each allocated with an address having a ranking given according to a predetermined rule, and the outdoor unit instructs the indoor unit having the address of a first rank, out of the plurality of indoor units in each of the groups, to supply power to the remote controller . an outdoor unit ; a plurality of indoor units connected to the outdoor unit via a first signal line ; and at least one remote controller connected to the plurality of indoor units via a second signal line , wherein the plurality of indoor units each include a remote controller power supply unit configured to supply power to the remote controller , the plurality of indoor units are divided into two or more groups, and one or more of the indoor units in each of the groups are connected to a different remote controller , characterized in that the plurality of indoor units are each allocated with an address having a ranking given according to a predetermined rule, and the outdoor unit instructs the indoor unit having the address of a first rank, out of the plurality of indoor units in each of the groups, to supply power to the remote controller .
Electrical distribution device (DD) including: - at least one power controller (CAj) that can be connected to at least one electrical component (Oi), - at least one local controller (CL) that can interface at least one power controller (CAj) with at least one external calculator (CE), and - local power supply paths (VAk) that can supply said at least one power controller (CAj) and said at least one local controller (CL), characterised in that said at least one power controller (CAj) and said at least one local controller (CL) each include a DC/DC type local converter (CV1) that can be coupled to the local power supply paths (VAk), and the device further including an energy reservoir (RE) coupled to the local power supply paths (VAk), to the local converter (CV1) of said at least one power controller (CAj) and to the local converter (CV1) of said at least one local controller (CL). - at least one power controller (CAj) that can be connected to at least one electrical component (Oi), - at least one local controller (CL) that can interface at least one power controller (CAj) with at least one external calculator (CE), and - local power supply paths (VAk) that can supply said at least one power controller (CAj) and said at least one local controller (CL),
A filter device, comprising: - a substrate; - two or more surface acoustic wave resonators (X5) formed on a surface of the substrate ; - one or more non-serrated signal conductors formed on the surface of the substrate , wherein the one or more non-serrated signal conductors interconnect the surface acoustic wave resonators (X5); and - at least one ground conductor formed on the surface of the substrate , wherein at least a portion of an edge of the ground conductor is shaped as a plurality of serrations , characterized in that at least some of the serrations face the one or more non-serrated signal conductors . - a substrate; - two or more surface acoustic wave resonators (X5) formed on a surface of the substrate ; - one or more non-serrated signal conductors formed on the surface of the substrate , wherein the one or more non-serrated signal conductors interconnect the surface acoustic wave resonators (X5); and - at least one ground conductor formed on the surface of the substrate , wherein at least a portion of an edge of the ground conductor is shaped as a plurality of serrations , characterized in that at least some of the serrations face the one or more non-serrated signal conductors .
An audio processing device for performing combined active noise cancellation and noise compensation in a headphone, comprising: a selector configured to select one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and a noise compensation unit configured to compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal. a selector configured to select one of a plurality of first transfer functions based on at least one feature of at least one of an external noise and a content audio signal representing a sound to be reproduced through the headphone; and a noise compensation unit configured to compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and compute a second audio signal by applying the selected first transfer function to a first audio signal; and derive gains for the noise compensation at least based on the second audio signal, and wherein the at least one feature can be used to distinguish at least two of the first transfer functions, each of the first transfer functions is configured to transform the first audio signal to the second audio signal which is assumed as representing a version of the sound represented by the first audio signal, which arrives at an eardrum of a listener wearing the headphone, and the first audio signal is the content audio signal.
A water heating system (1 to 9) comprising: a refrigerant circuit that has a compressor and in which a refrigerant flows; and a water circuit in which water flows, wherein the refrigerant circuit and the water circuit share a water heat exchanger that heats water by using the refrigerant discharged from the compressor, wherein the water heat exchanger includes a first heat-exchanging unit in which the refrigerant and water at a water outlet portion of the water heat exchanger exchange heat with each other, and wherein the refrigerant circuit further has a heat radiator that is disposed between the compressor and the first heat-exchanging unit characterized in that the heat radiator is configured to radiate heat of the refrigerant discharged from the compressor to water that flows on an upstream side of the water outlet portion. a refrigerant circuit that has a compressor and in which a refrigerant flows; and a water circuit in which water flows, wherein the refrigerant circuit and the water circuit share a water heat exchanger that heats water by using the refrigerant discharged from the compressor, wherein the water heat exchanger includes a first heat-exchanging unit in which the refrigerant and water at a water outlet portion of the water heat exchanger exchange heat with each other, and wherein the refrigerant circuit further has a heat radiator that is disposed between the compressor and the first heat-exchanging unit characterized in that the heat radiator is configured to radiate heat of the refrigerant discharged from the compressor to water that flows on an upstream side of the water outlet portion.
A gripping and transporting device for gripping, holding, guiding and transporting in particular bottle-like containers which comprises a supporting plate and a positioning plate which are rotatable about a rotational axis of the device , wherein the device comprises at least one container gripping device having at least one first gripper arm pair , at least one second gripper arm pair , and a control cam as an opening or closing means for the gripper arm pairs of the at least one container gripping device , wherein the at least one first gripper arm pair is pivotably secured to the supporting plate and the at least one second gripper arm pair is pivotably secured to the positioning plate , wherein the gripper arm pairs of the at least one container gripping device can be moved from a gripping position into an open position or vice-versa by means of their control cams , wherein the supporting plate comprises a first hollow body , and wherein the positioning plate is adjustable in height along the rotational axis relative to the supporting plate , characterized in that the positioning plate comprises a second hollow body , the first and second hollow bodies being designed as hollow cylinders of the same height which are arranged coaxially with the rotational axis of the device and can be moved into each other upon the height of the positioning plate being adjusted, wherein the gripping and transporting device has a linear drive for adjusting the height of the positioning plate , wherein the linear drive is secured to the supporting plate within the first hollow body and fixedly connected to the second hollow body .