mhurhangee/ep-ind-claims huggingface dataset:
A device for fabricating a three-dimensional fabrication object, comprising: a fabrication part; a control unit; a flattening member whereby the control unit controls the flattening member to place powder in the fabrication part to form an excessively thick powder layer and remove the powder on a top surface side of the excessively thick powder layer multiple times to obtain a powder layer while moving in a direction orthogonal to a lamination direction of the powder layer; and a fabrication unit whereby the control unit controls the fabrication unit to bind the powder in the powder layer to form a laminar fabrication object, characterized in that the control unit is configured to control the flattening member such that an amount of a layer thickness of the powder removed for the last time is less than that for any other time and the flattening member decreases an amount of the powder removed as a number of removing increases. a fabrication part; a control unit; a flattening member whereby the control unit controls the flattening member to place powder in the fabrication part to form an excessively thick powder layer and remove the powder on a top surface side of the excessively thick powder layer multiple times to obtain a powder layer while moving in a direction orthogonal to a lamination direction of the powder layer; and a fabrication unit whereby the control unit controls the fabrication unit to bind the powder in the powder layer to form a laminar fabrication object, characterized in that the control unit is configured to control the flattening member such that an amount of a layer thickness of the powder removed for the last time is less than that for any other time and the flattening member decreases an amount of the powder removed as a number of removing increases.
A sample-and-hold device for an electrical signal including an input module having two inputs (E 1, E 2), including a first switching block including two input switches (16, 18), each input (E 1, E 2) of the input module being connected at the input of one of said input switches (16, 18), the input module being connected at the input of a first follow-and-hold module with two inputs (E 20.1; E 20.2) and two outputs (S 20.1; S 20.2), so as to alternately convey the signal from one of the two inputs (E 1, E 2) to one of the two inputs (E 20.1; E 20.2) of the first follow-and-hold module, characterized in that it includes: - a second follow-and-hold module connected in parallel with the first follow-and-hold module, said first follow-and-hold module and second follow-and-hold module being connected at the output of the first switching block, and - an output module including a second switching block including two output switches (30, 32), the outputs of said first follow-and-hold module and second follow-and-hold module being connected to the inputs of the output switches (30, 32) so as to perform time interleaving of the output signals of the first follow-and-hold module and the second follow-and-hold module, the device further including a first feedback loop connected between the outputs and the inputs of the first track-and-hold module, and a second feedback loop connected between the outputs and the inputs of the second track-and-hold module. characterized in that it includes: - a second follow-and-hold module connected in parallel with the first follow-and-hold module, said first follow-and-hold module and second follow-and-hold module being connected at the output of the first switching block, and - an output module including a second switching block including two output switches (30, 32), the outputs of said first follow-and-hold module and second follow-and-hold module being connected to the inputs of the output switches (30, 32) so as to perform time interleaving of the output signals of the first follow-and-hold module and the second follow-and-hold module, - a second follow-and-hold module connected in parallel with the first follow-and-hold module, said first follow-and-hold module and second follow-and-hold module being connected at the output of the first switching block, and - an output module including a second switching block including two output switches (30, 32), the outputs of said first follow-and-hold module and second follow-and-hold module being connected to the inputs of the output switches (30, 32) so as to perform time interleaving of the output signals of the first follow-and-hold module and the second follow-and-hold module, the device further including a first feedback loop connected between the outputs and the inputs of the first track-and-hold module, and a second feedback loop connected between the outputs and the inputs of the second track-and-hold module.
A method of statistical process control for semiconductor wafer fabrication comprising a plurality of fabrication processes, characterized by the following steps: obtaining a characteristic mass change distribution for each one of the plurality of fabrication processes; measuring a change in mass for each fabrication process for one or more monitored semiconductor wafers subjected to the plurality of fabrication processes; comparing each measured change in mass to the characteristic mass change distribution of its respective fabrication process; and generating for each monitored semiconductor wafer process control data representative of the position of each measured change in mass relative to its respective characteristic mass change distribution for each one of the plurality of fabrication processes completed for that monitored semiconductor wafer. obtaining a characteristic mass change distribution for each one of the plurality of fabrication processes; measuring a change in mass for each fabrication process for one or more monitored semiconductor wafers subjected to the plurality of fabrication processes; comparing each measured change in mass to the characteristic mass change distribution of its respective fabrication process; and generating for each monitored semiconductor wafer process control data representative of the position of each measured change in mass relative to its respective characteristic mass change distribution for each one of the plurality of fabrication processes completed for that monitored semiconductor wafer.
A decal marker used with a tire uniformity marking station which carries a decal tape, wherein the decal marker transfers a decal from the decal tape to a surface of the tire, comprising: a marking assembly frame movable between a retracted position and a marking position; a marker carried by said marking assembly frame, wherein said marker carries the decal tape, the decal tape having a membrane which carries decals; and characterised by a tape sensor assembly carried by said marker to detect an edge of one of the decals so that said marker properly positions the one decal for transfer to the surface, wherein the membrane includes a clear or relatively transparent membrane, and where the decals are relatively non-transparent decals that are separated by a predetermined distance. a marking assembly frame movable between a retracted position and a marking position; a marker carried by said marking assembly frame, wherein said marker carries the decal tape, the decal tape having a membrane which carries decals; and characterised by a tape sensor assembly carried by said marker to detect an edge of one of the decals so that said marker properly positions the one decal for transfer to the surface, wherein the membrane includes a clear or relatively transparent membrane, and where the decals are relatively non-transparent decals that are separated by a predetermined distance.
Method for communication based on an, in particular wireless, motor vehicle communication system interacting in an ad-hoc manner, wherein the communication is carried out between road users (H1-H7) among each other and/or between road users (H1-H7) and the traffic infrastructure, wherein a) in the near field of an intersection of traffic routes, in particular junctions or overlaps of traffic routes such as road or rail crossings, a radio transmission/radio reception device associated with a first road user continuously transmits a message to at least one radio transmission/radio reception device associated with a device of the traffic infrastructure, located in the radio coverage area of the first radio transmission/radio reception device, b) the transmission of the message is carried out in such a way that, based on the received message, at least one value correlating with a probability for the execution of the maneuver at the intersection is ascertained per possible maneuver at the intersection, c) a control of the road user is carried out based on the correlating value, characterized in that as a correlating value, the correlating value for each possible maneuver is calculated as a linear measure based on a fixed-location reference point, in particular, a stop line at the intersection. a) in the near field of an intersection of traffic routes, in particular junctions or overlaps of traffic routes such as road or rail crossings, a radio transmission/radio reception device associated with a first road user continuously transmits a message to at least one radio transmission/radio reception device associated with a device of the traffic infrastructure, located in the radio coverage area of the first radio transmission/radio reception device, b) the transmission of the message is carried out in such a way that, based on the received message, at least one value correlating with a probability for the execution of the maneuver at the intersection is ascertained per possible maneuver at the intersection, c) a control of the road user is carried out based on the correlating value, characterized in that
A method for joining a centralized cluster, wherein the method comprises: receiving, by a personal basic service set control point /access point, PCP/AP, a directional multi-gigabit beacon frame DMG Beacon frame sent by a first synchronization access point S-AP, wherein the DMG Beacon frame comprises cluster information of the first S-AP; measuring, by the PCP/AP, according to the cluster information of the first S-AP, signal quality and a state of each beacon scheduled service period Beacon SP comprised in a beacon interval BI of the first S-AP; if a Beacon SP whose state is an idle state is obtained by means of measurement, associating the first S-AP with the PCP/AP as a non-personal basic service set control point PCP/non-access point AP station, and receiving by the PCP/AP an announce frame sent by the first S-AP, wherein the Announce frame comprises cluster information of a second S-AP and an available cluster offset bitmap of the first S-AP, the second S-AP is another S-AP, except the first S-AP, on each channel in a channel group in which the first S-AP is located, and the available cluster offset bitmap of the first S-AP is used to store the state of each Beacon SP comprised in the BI of the first S-AP; selecting, by the PCP/AP, a S-AP from the first S-AP and the second S-AP as a to-be-joined S-AP according to the available cluster offset bitmap of the first S-AP, the signal quality and the state of each Beacon SP comprised in the BI of the first S-AP, and the cluster information of the second S-AP; and joining, by the PCP/AP, a centralized cluster of the to-be-joined S-AP. receiving, by a personal basic service set control point /access point, PCP/AP, a directional multi-gigabit beacon frame DMG Beacon frame sent by a first synchronization access point S-AP, wherein the DMG Beacon frame comprises cluster information of the first S-AP; measuring, by the PCP/AP, according to the cluster information of the first S-AP, signal quality and a state of each beacon scheduled service period Beacon SP comprised in a beacon interval BI of the first S-AP; if a Beacon SP whose state is an idle state is obtained by means of measurement, associating the first S-AP with the PCP/AP as a non-personal basic service set control point PCP/non-access point AP station, and receiving by the PCP/AP an announce frame sent by the first S-AP, wherein the Announce frame comprises cluster information of a second S-AP and an available cluster offset bitmap of the first S-AP, the second S-AP is another S-AP, except the first S-AP, on each channel in a channel group in which the first S-AP is located, and the available cluster offset bitmap of the first S-AP is used to store the state of each Beacon SP comprised in the BI of the first S-AP; selecting, by the PCP/AP, a S-AP from the first S-AP and the second S-AP as a to-be-joined S-AP according to the available cluster offset bitmap of the first S-AP, the signal quality and the state of each Beacon SP comprised in the BI of the first S-AP, and the cluster information of the second S-AP; and joining, by the PCP/AP, a centralized cluster of the to-be-joined S-AP.
A computerized method for providing database-based redundancy in a telecommunications network, the computerized method comprising: receiving, by a computing system, network element data from a first compute instance, the first compute instance hosting at least a portion of a network element instance, the network element data including identification information and state information associated with the network element instance; creating, by the computing system, a composite key based on the network element data, the composite key including: a network element identifier, ID, the network element ID associated with the identification information, and a table ID associated with a categorization of the state information; storing, by the computing system, the composite key and associated state information as records in a database associated with the computing system; determining, by the computing system, a failure associated with the first compute instance; determining, by the computing system, a distribution key associated with the network element ID associated with the network element instance; and transmitting, by the computing system, activation data to a second compute instance, the activation data associated with instructions to retrieve, from the database, records associated with the distribution key associated with the network element ID including state information to recreate the network element instance on the second compute instance. receiving, by a computing system, network element data from a first compute instance, the first compute instance hosting at least a portion of a network element instance, the network element data including identification information and state information associated with the network element instance; creating, by the computing system, a composite key based on the network element data, the composite key including: a network element identifier, ID, the network element ID associated with the identification information, and a table ID associated with a categorization of the state information;
Installation for cleaning filters, in particular made of textile filter materials, having a compressor by means of which a cleaning gas can be compressed up to a cleaning pressure and can be passed into a pressure vessel, wherein a cleaning pipe is connected to the pressure vessel by means of which the cleaning gas can be blown into a filter via nozzle openings, characterized in that a membrane valve operating principally in the subcritical range relative to the cleaning pressure of the compressor is provided, wherein the compressor can generate a cleaning pressure between 2 bar to 4 bar in the pressure vessel, and in the pressure vessel during a cleaning process the pressure drops by 0.5 bar to 2.5 bar and after the cleaning process is increased again to the original cleaning pressure by the compressor, and the opening and closing of the membrane valve takes place in a time interval of less than 0.2 s, wherein the membrane valve is connected on the side facing away from the pressure vessel via a line (32, 36) to a pressurized additional storage device and the pressure in the additional storage device is held substantially at the cleaning pressure by the compressor and the membrane valve is connected on the side facing away from the pressure container to a ventable line wherein a 3/2-way valve is provided at the ventable line and the 3/2-way valve is connected with a first connection to a substantially pressureless container or output and is connected with a second connection to the additional storage device.
A process for the production of a masterbatch which comprises the following components: at least one lactam and at least one fiber material, which comprises compounding components and in an extruder with shear rate at least 500 s -1, and wherein the extruder comprises at least the following sections: a first section, a second section, and a third section, where a first temperature prevails in the first section of the extruder, a second temperature prevails in the second section, and a third temperature prevails in the third section, where the second temperature is in the range from 105 to 220°C. at least one lactam and at least one fiber material, a first section, a second section, and a third section,
Method for guiding an operator to a position on a mobile working machine or a device which is coupled to said mobile working machine, which position is to be located for fault-remedying, defect-eliminating or maintenance work, comprising the following steps: ascertaining data in respect of the position that is to be located on the working machine or on the device which is coupled to said working machine using a diagnosis system, and transmitting the data in respect of the position that is to be located to a portable device, characterized by the step of outputting direction instructions, which are based on the data, by virtue of the portable device for the purpose of guiding the portable device to the position that is to be located, wherein the step of outputting direction instructions includes direction instructions which lead the portable device to a reference point first being output, the situation of the reference point being reached by means of the portable device being verified and finally direction instructions which guide the portable device from the reference point to the position that is to be located being output by the portable device. ascertaining data in respect of the position that is to be located on the working machine or on the device which is coupled to said working machine using a diagnosis system, and transmitting the data in respect of the position that is to be located to a portable device, characterized by the step of outputting direction instructions, which are based on the data, by virtue of the portable device for the purpose of guiding the portable device to the position that is to be located, wherein the step of outputting direction instructions includes direction instructions which lead the portable device to a reference point first being output, the situation of the reference point being reached by means of the portable device being verified and finally direction instructions which guide the portable device from the reference point to the position that is to be located being output by the portable device.
A cooling device comprising: - a duct with one opened end and another opened end, the duct having a tubular shape; - a fan disposed inside the duct, the fan being configured to send air present inside the duct in an air-sending direction, the air-sending direction being a direction connecting both ends (51, 52) of the duct; - a heat sink disposed outside the duct, the heat sink comprising a base part having an opposed surface opposed to a mouth of the another end of the duct, and heat-sink fins comprising a plurality of thin plates extending from the opposed surface along the air-sending direction, the plurality of thin plates being apart from each other by a predetermined distance; - a heat source in contact with the base part; - a heat pipe connected to the heat source or the heat sink; and - heat-pipe fins disposed between the fan and the one end of the duct inside the duct, the heat-pipe fins comprising a plurality of thin plates extending from the heat pipe along the air-sending direction, the plurality of thin plates being apart from each other by a predetermined distance; - wherein the fan is disposed between the heat pipe fins and the heat sink. - a duct with one opened end and another opened end, the duct having a tubular shape; - a fan disposed inside the duct, the fan being configured to send air present inside the duct in an air-sending direction, the air-sending direction being a direction connecting both ends (51, 52) of the duct; - a heat sink disposed outside the duct, the heat sink comprising a base part having an opposed surface opposed to a mouth of the another end of the duct, and heat-sink fins comprising a plurality of thin plates extending from the opposed surface along the air-sending direction, the plurality of thin plates being apart from each other by a predetermined distance; - a heat source in contact with the base part; - a heat pipe connected to the heat source or the heat sink; and - heat-pipe fins disposed between the fan and the one end of the duct inside the duct, the heat-pipe fins comprising a plurality of thin plates extending from the heat pipe along the air-sending direction, the plurality of thin plates being apart from each other by a predetermined distance; - wherein the fan is disposed between the heat pipe fins and the heat sink.
An exhaust gas purification device of a motor vehicle, including a selective catalytic reduction catalyst, a nitrogen oxide absorber disposed upstream of the selective catalytic reduction catalyst, and an injection controller of reducing agent of nitrogen oxide in the selective catalytic reduction catalyst, characterized in that the controller is configured to implement the following steps: - applying a calculation model delivering a value indicative of a speed of storage of nitrogen oxides in the nitrogen oxide absorber, - using the value indicative of a speed of storage of nitrogen oxides to obtain a value indicative of a speed of reduction of nitrogen oxides in the selective catalytic reduction catalyst, - determining a necessary rate of injection of reducing agent in the selective catalytic reduction catalyst to maintain a quantity of reducing agent present in the selective catalytic reduction catalyst in the presence of the speed of reduction of nitrogen oxides indicated by the value indicative of a speed of reduction of nitrogen oxides thus obtained, and, - controlling an injection of reducing agent of nitrogen oxides in the selective catalytic reduction catalyst according to the rate of injection thus determined. - applying a calculation model delivering a value indicative of a speed of storage of nitrogen oxides in the nitrogen oxide absorber, - using the value indicative of a speed of storage of nitrogen oxides to obtain a value indicative of a speed of reduction of nitrogen oxides in the selective catalytic reduction catalyst, - determining a necessary rate of injection of reducing agent in the selective catalytic reduction catalyst to maintain a quantity of reducing agent present in the selective catalytic reduction catalyst in the presence of the speed of reduction of nitrogen oxides indicated by the value indicative of a speed of reduction of nitrogen oxides thus obtained, and, - controlling an injection of reducing agent of nitrogen oxides in the selective catalytic reduction catalyst according to the rate of injection thus determined.