mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling, during an engine start, notably a motor vehicle engine start, an electromagnetic actuator of at least one valve, notably of the vehicle, the actuator comprising at least one actuating coil (5, 6) actuating a vane solid with a valve tappet, in which method, in order to achieve the phase of opening the valve, the coil (5, 6) is powered in order to bring the valve into an intermediate position between a position in which the valve is open and a position in which it is closed when a predefined condition is met.
A luminaire, having - a first light source, - a second light source, - a light-conducting element with a narrow side and a flat side and - a light emission surface, wherein the luminaire is designed in such a manner that a first light generated by the first light source enters via the narrow side into the light-conducting element, leaves the light-conducting element via the flat side and passing through an area of the light emission surface, is emitted into an outer area of the luminaire and a second light generated by the second light source is emitted bundled into the outer area of the luminaire, wherein the light-conducting element also has a further flat side, wherein the luminaire is designed in such a manner that the second light enters via the further flat side into the light-conducting element and at least partially passing through the area of the light emission surface, is emitted into the outer area of the luminaire, wherein the further flat side has a scattering element for diffuse scattering of the first light, wherein the luminaire is designed in such a manner that the second light at least partially enters into the light-conducting element next to the scattering element, characterized in that the scattering element is designed to be diffusely reflective on a side facing away from the first-mentioned flat side by metallization, painting, coating or imprinting for the second light. - a first light source, - a second light source, - a light-conducting element with a narrow side and a flat side and - a light emission surface,
A cleaning device for a combing segment consisting of comb clothing of a circular comb, which is mounted to rotate on a shaft on a combing machine, which combs out a fiber tuft protruding out of a nipping point of a nipper assembly, having at least one cleaning element arranged in the area of the enveloping circle of the combing segment of the circular comb for cleaning the comb clothing of the combing segment during a combing cycle, characterized in that at least one additional cleaning element is arranged in the area of the enveloping circle of the combing segment of the circular comb.
A method by an interfering base station, comprising: identifying a set of one or more user equipments, UEs (120, 120r, 120u, 120v, 120x, 120y), served by the interfering base station, BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), whose uplink, UL, transmissions may interfere with UL transmissions from one or more other UEs (120, 120r, 120u, 120v, 120x, 120y) served by a serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), wherein the identifying comprises receiving, from the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), a report indicating UEs (120, 120r, 120u, 120v, 120x, 120y) served by the interfering BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704) and detected by the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704); reserving a set of resources for use by the set of one or more UEs (120, 120r, 120u, 120v, 120x, 120y); and communicating the reserved set of resources to the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704). identifying a set of one or more user equipments, UEs (120, 120r, 120u, 120v, 120x, 120y), served by the interfering base station, BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), whose uplink, UL, transmissions may interfere with UL transmissions from one or more other UEs (120, 120r, 120u, 120v, 120x, 120y) served by a serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), wherein the identifying comprises receiving, from the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704), a report indicating UEs (120, 120r, 120u, 120v, 120x, 120y) served by the interfering BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704) and detected by the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704); reserving a set of resources for use by the set of one or more UEs (120, 120r, 120u, 120v, 120x, 120y); and communicating the reserved set of resources to the serving BS (110, 110a, 110b, 110c, 110x, 110y, 110z, 702, 704).
A system for determining a location of a critical component of an arrhythmogenic circuit of a heart, the system comprising: an input (20, 22) for receiving data for electrograms recorded at various locations of the heart while programmed ventricular pacing with extra stimuli was performed; and a processing unit for controlling the system, the processing unit being configured to identify sharp near-field potentials beyond a QRS complex for both a base train and the extra stimuli for at least two of the recorded electrograms; to obtain decrement values for at least two different locations of the heart where the decrement value for a given location of the heart is obtained by subtracting a time delay of the sharp near-field potential measured in response to the base train from a time delay of the sharp near-field potential measured in response to the extra stimuli in the recorded electrograms corresponding to the given location of the heart; to generate at least a portion of a decrement map using the decrement values obtained for the different locations of the heart; and to identify the location of the critical component of the arrhythmogenic circuit based on electrograms having significant decremental properties by identifying the decrement values obtained for the different locations of the heart that are a maximum local decrement or a particular decrement value that may be identified by comparison with a threshold. an input (20, 22) for receiving data for electrograms recorded at various locations of the heart while programmed ventricular pacing with extra stimuli was performed; and a processing unit for controlling the system, the processing unit being configured to identify sharp near-field potentials beyond a QRS complex for both a base train and the extra stimuli for at least two of the recorded electrograms; to obtain decrement values for at least two different locations of the heart where the decrement value for a given location of the heart is obtained by subtracting a time delay of the sharp near-field potential measured in response to the base train from a time delay of the sharp near-field potential measured in response to the extra stimuli in the recorded electrograms corresponding to the given location of the heart; to generate at least a portion of a decrement map using the decrement values obtained for the different locations of the heart; and to identify the location of the critical component of the arrhythmogenic circuit based on electrograms having significant decremental properties by identifying the decrement values obtained for the different locations of the heart that are a maximum local decrement or a particular decrement value that may be identified by comparison with a threshold.
A device comprising a routing controller for routing messages to a plurality of node devices of a network, the routing controller comprising at least one global instance enabling the routing of messages to a routing set of node devices, at least one local instance for routing packets to a neighbor node device neighboring the device, the local instance being characterised in that the neighbor node device is selected regardless whether the neighbor node device belongs to the routing set of node devices, and wherein the routing controller is configured to use the local instance for routing of multicast messages to the node devices.
A method of operating a multi-cylinder internal combustion piston engine, the engine comprising a gaseous fuel feed system and a liquid fuel feed system, where the operation of the liquid fuel feed system is controlled by two actuation systems, a primary control unit and a secondary control unit for controlling the introduction of the liquid fuel, which are arranged in series in the liquid fuel feed system, in which method, while the engine is running (a) the engine is operated by combusting the gaseous fuel in all of the cylinders of the engine in gas-mode; (b) during the operation control parameters indicating the condition of the gas-mode combustion process are acquired from the engine indicating the combustion process with the gaseous fuel; (c) the control parameters are compared to their respective target values and (d) in case a difference between any of the acquired control parameters indicating the condition of the gas-mode combustion process and its target value is more than a predetermined difference in at least one of the cylinders of the engine, the introduction of the gaseous fuel to the at least one of the cylinders is stopped and subsequently the introduction of the liquid fuel to the at least one of the cylinders is commenced while in other cylinders of the engine combustion of the gaseous fuel is proceeded, characterized in that in the step (d) the at least one of the cylinders is transferred to diesel mode and that during the engine is operated by combusting the gaseous fuel in all of the cylinders of the engine the primary control unit of the liquid fuel feed system is continuously maintained at control position having been set to engine's current circumstances proportional to engine's load and the secondary control unit is set to maintain the liquid fuel system closed. (a) the engine is operated by combusting the gaseous fuel in all of the cylinders of the engine in gas-mode; (b) during the operation control parameters indicating the condition of the gas-mode combustion process are acquired from the engine indicating the combustion process with the gaseous fuel; (c) the control parameters are compared to their respective target values and (d) in case a difference between any of the acquired control parameters indicating the condition of the gas-mode combustion process and its target value is more than a predetermined difference in at least one of the cylinders of the engine, the introduction of the gaseous fuel to the at least one of the cylinders is stopped and subsequently the introduction of the liquid fuel to the at least one of the cylinders is commenced while in other cylinders of the engine combustion of the gaseous fuel is proceeded,
A method for processing data sending in a communication system, comprising: allocating, by a NodeB, pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, (201, 202) and a code word of code division multiplexing, CDM, orthogonal code words, and the code word is [1,0,1,0], [0,1,0,1], [1,0,-1,0], or [0,1,0,-1]; notifying, by the NodeB, a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is 2, where the OCC length equals 2 means the code word is orthogonal in a slot. allocating, by a NodeB, pilot resources to a user equipment, UE, according to a preset agreement, a transmission mode of the UE, and a number of spatial transmission layers of the UE; wherein the pilot resources include multiple resource elements, REs, (201, 202) and a code word of code division multiplexing, CDM, orthogonal code words, and the code word is [1,0,1,0], [0,1,0,1], [1,0,-1,0], or [0,1,0,-1]; notifying, by the NodeB, a pilot-resource information number corresponding to the pilot resources to the UE; wherein the pilot-resource information number identifies a combination of the number of transmission layers of the UE, pilot resource at each spatial transmission layer, and current pilot-resource use status of the communication system, and the current pilot-resource use status of the communication system includes a position of the pilot resource RE and an orthogonal cover code, OCC, length, and the OCC length is 2, where the OCC length equals 2 means the code word is orthogonal in a slot.
A refrigerator which includes a compressor, a condenser connected to the compressor, and an evaporator that is connected to the condenser and evaporates a refrigerant, and further includes, in a lower rear part, a machine compartment that contains the compressor, the condenser, and an air blower that generates air that cools the condenser and the compressor in this order, the refrigerator comprising: a base panel on which the condenser, the air blower, and the compressor contained in the machine compartment are mounted side by side in a left-right direction; characterized by a lateral rib which is in contact with the base panel and extends in the left-right direction and in an upright state with respect to the base panel, the lateral rib separating, in a front-rear direction, a front space and a rear space in which the condenser, the air blower, and the compressor contained in the machine compartment are provided, and being located in front of the rear space; a front air inlet which is provided on one of right and left sides of the lateral rib, and passes air in the front-rear direction; a front air outlet which is provided on the other of the right and left sides of the lateral rib, and passes air in the front-rear direction; a vertical rib which is in contact with the base panel, and separates the machine compartment in the left-right direction at a position ahead of the lateral rib; a bottom air inlet which is on the condenser side of the base panel and opens ahead of the lateral rib in a forward direction; and a bottom air outlet which is on the compressor side of the base panel and opens ahead of the lateral rib in the forward direction. a base panel on which the condenser, the air blower, and the compressor contained in the machine compartment are mounted side by side in a left-right direction; characterized by a lateral rib which is in contact with the base panel and extends in the left-right direction and in an upright state with respect to the base panel, the lateral rib separating, in a front-rear direction, a front space and a rear space in which the condenser, the air blower, and the compressor contained in the machine compartment are provided, and being located in front of the rear space; a front air inlet which is provided on one of right and left sides of the lateral rib, and passes air in the front-rear direction; a front air outlet which is provided on the other of the right and left sides of the lateral rib, and passes air in the front-rear direction; a vertical rib which is in contact with the base panel, and separates the machine compartment in the left-right direction at a position ahead of the lateral rib; a bottom air inlet which is on the condenser side of the base panel and opens ahead of the lateral rib in a forward direction; and a bottom air outlet which is on the compressor side of the base panel and opens ahead of the lateral rib in the forward direction.
A method of adjusting uplink transmission power of a user equipment, UE, in a wireless communication system, wherein the UE is configured to communicate through a primary cell, PCell, and at least one secondary cell, SCell, the method comprising: setting a maximum power value for uplink transmission by the UE; and adjusting a sum of transmission powers of uplink signals, including physical uplink control channel, PUCCH, signals, from the UE so as not to exceed the maximum power value, wherein the adjusting the sum of transmission powers comprises, in case of timing collision between the PUCCH signals, restricting transmission power of at least one of the PUCCH signals based on priorities if the non-adjusted sum of transmission powers of uplink signals from the UE exceeds the maximum power value, wherein the priorities include first priorities relating to types of control information carried by the PUCCH signals and second priorities relating to cells through which the PUCCH signals are transmitted, wherein the first priorities are first applied if the types of control information carried by the PUCCH signals have different priorities, and the second priorities are applied if the types of control information carried by the PUCCH signals have a same priority. setting a maximum power value for uplink transmission by the UE; and adjusting a sum of transmission powers of uplink signals, including physical uplink control channel, PUCCH, signals, from the UE so as not to exceed the maximum power value, wherein the adjusting the sum of transmission powers comprises, in case of timing collision between the PUCCH signals, restricting transmission power of at least one of the PUCCH signals based on priorities if the non-adjusted sum of transmission powers of uplink signals from the UE exceeds the maximum power value, wherein the priorities include first priorities relating to types of control information carried by the PUCCH signals and second priorities relating to cells through which the PUCCH signals are transmitted, wherein the first priorities are first applied if the types of control information carried by the PUCCH signals have different priorities, and the second priorities are applied if the types of control information carried by the PUCCH signals have a same priority.
A method for processing cell information in an Enhanced Forward Access Channel, E-FACH, state, implemented in a terminal and comprising: when the terminal in an E-FACH state determines that a working carrier frequency thereof is a subordinate carrier frequency, establishing a neighbor cell list for the terminal itself using cell information in received system information; or establishing a neighbor cell list for the terminal itself using cell information in received system information, and updating the established neighbor cell list according to cell information in a received measurement control message, wherein the step of establishing the neighbor cell list for the terminal itself using the cell information in the received system information comprises: adding, by the terminal, an intra-frequency cell in the cell information of the system information to an inter-frequency neighbor cell list of the terminal, adding, by the terminal, a cell having a same working frequency as that of the terminal itself in inter-frequency cells in the cell information of the system information to an intra-frequency neighbor cell list of the terminal itself, and adding, by the terminal, a cell having a different working frequency from that of the terminal itself in the inter-frequency cells to the inter-frequency neighbor cell list of the terminal itself. when the terminal in an E-FACH state determines that a working carrier frequency thereof is a subordinate carrier frequency, establishing a neighbor cell list for the terminal itself using cell information in received system information; or establishing a neighbor cell list for the terminal itself using cell information in received system information, and updating the established neighbor cell list according to cell information in a received measurement control message, wherein the step of establishing the neighbor cell list for the terminal itself using the cell information in the received system information comprises: adding, by the terminal, an intra-frequency cell in the cell information of the system information to an inter-frequency neighbor cell list of the terminal, adding, by the terminal, a cell having a same working frequency as that of the terminal itself in inter-frequency cells in the cell information of the system information to an intra-frequency neighbor cell list of the terminal itself, and adding, by the terminal, a cell having a different working frequency from that of the terminal itself in the inter-frequency cells to the inter-frequency neighbor cell list of the terminal itself.
A location analytics device comprising: a processing resource; and a memory resource storing machine readable instructions to cause the processing resource to: receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device. a processing resource; and a memory resource storing machine readable instructions to cause the processing resource to: receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device. receive from a reference client device, beacon sensor data associated with the reference client device, wherein the beacon sensor data comprises data received by the reference client device from beacon sensors; receive access point data associated with the reference client device, wherein the access point data comprises signal strength data from a plurality of access points for transmissions originating from the reference client device; generate a beacon sensor based network fingerprint by combining the beacon sensor data received from the reference client device and the access point data of the reference client device; and determine a location of a target client device using the beacon sensor based network fingerprint and the signal strength data from the target client device.