mhurhangee/ep-ind-claims huggingface dataset:
An elevator apparatus, comprising: a car; a brake device for braking running of the car; and a brake control device for controlling the brake device, wherein the brake control device is arranged to monitor a speed of the car and a degree of deceleration of the car at a time of emergency braking of the car, characterised in that, the brake control device generates, at a time when the degree of deceleration of the car reaches a preset target deceleration, a target speed pattern for decelerating the car from a speed of the car at that time. a car; a brake device for braking running of the car; and a brake control device for controlling the brake device,
A method of controlling a hybrid-electric aircraft powerplant comprising: for a hybrid-electric aircraft powerplant having a thermal engine and an electric motor, running a first control loop for command of the thermal engine based on an error between a total response commanded for the hybrid-electric aircraft powerplant (MrqTot) and torque feedback from the thermal engine (MfbTM); running a second control loop in parallel with the first control loop for commanding the thermal engine based on an error between a maximum thermal engine output (MrqTMmax) and torque feedback from the thermal engine (MfbTM); using a low selector between the first control loop and the second control loop to command the thermal engine with the lower of responses commanded from the first and second control loops (114, 116); running a third control loop in parallel with the first and second control loops (114, 116) for commanding engine/propeller speed, wherein the third control loop outputs a speed control enable or disable status; using a high selector between output of the third control loop and the low selector; and running a fourth control loop in parallel with the first, second, and third control loops (114, 116, 120) for commanding the electric motor with non-zero demand when the second control loop is above control to add response from the electric motor to response from the thermal engine to achieve the total response commanded for the hybrid-electric aircraft powerplant (MrqTot). for a hybrid-electric aircraft powerplant having a thermal engine and an electric motor, running a first control loop for command of the thermal engine based on an error between a total response commanded for the hybrid-electric aircraft powerplant (MrqTot) and torque feedback from the thermal engine (MfbTM); running a second control loop in parallel with the first control loop for commanding the thermal engine based on an error between a maximum thermal engine output (MrqTMmax) and torque feedback from the thermal engine (MfbTM); using a low selector between the first control loop and the second control loop to command the thermal engine with the lower of responses commanded from the first and second control loops (114, 116); running a third control loop in parallel with the first and second control loops (114, 116) for commanding engine/propeller speed, wherein the third control loop outputs a speed control enable or disable status; using a high selector between output of the third control loop and the low selector; and running a fourth control loop in parallel with the first, second, and third control loops (114, 116, 120) for commanding the electric motor with non-zero demand when the second control loop is above control to add response from the electric motor to response from the thermal engine to achieve the total response commanded for the hybrid-electric aircraft powerplant (MrqTot).
Method for controlling a battery charger for a motor vehicle, the battery charger comprising an input filter connecting a three-phase power supply circuit to a series chopper, a boost circuit being connected on the one hand to the series chopper, and on the other hand to the battery, the series chopper comprising three phases, namely a high phase whose voltage is the greatest of the three phases, a low phase whose voltage is the smallest of the three phases, and an intermediate phase, characterized in that it comprises the following steps: the threshold voltage at the output of the series chopper is determined on the basis of the difference between a battery current measurement and a battery current request, the output voltage of the series chopper is kept constant, and the switches of the boost stage are controlled in such a way that they are kept open, the output voltage of the series chopper being kept constant by executing the following steps: the high and low switches of the intermediate phase of the series chopper are controlled so as to close, if the threshold voltage at the output of the series chopper is lower than the voltage of the low phase, the chopping of the high switch of the low phase is controlled so as to take place with a first duty cycle; otherwise, the high switch of the low phase is closed and the chopping of the low switch of the high phase is controlled so as to take place with a second duty cycle. the threshold voltage at the output of the series chopper is determined on the basis of the difference between a battery current measurement and a battery current request, the output voltage of the series chopper is kept constant, and the switches of the boost stage are controlled in such a way that they are kept open, the output voltage of the series chopper being kept constant by executing the following steps: the high and low switches of the intermediate phase of the series chopper are controlled so as to close, if the threshold voltage at the output of the series chopper is lower than the voltage of the low phase, the chopping of the high switch of the low phase is controlled so as to take place with a first duty cycle; otherwise, the high switch of the low phase is closed and the chopping of the low switch of the high phase is controlled so as to take place with a second duty cycle. the high and low switches of the intermediate phase of the series chopper are controlled so as to close, if the threshold voltage at the output of the series chopper is lower than the voltage of the low phase, the chopping of the high switch of the low phase is controlled so as to take place with a first duty cycle; otherwise, the high switch of the low phase is closed and the chopping of the low switch of the high phase is controlled so as to take place with a second duty cycle.
A method of distributed file deletion, performed by a storage system, the method comprising: receiving, at the storage system, from a source external to the storage system, a request to delete a parent directory and contents of the parent directory; adding the parent directory to a first set, listed in a memory in the storage system; operating on the first set, by examining the parent directory in the first set to identify subdirectories and files within the parent directory, adding each identified subdirectory to the first set as a directory, and adding the identified files and the examined parent directory to a second set listed in the memory; deleting records and data of files listed in the second set, and records of directories listed in the second set, without concern for order as soon as all subdirectories within the parent directory have been identified. receiving, at the storage system, from a source external to the storage system, a request to delete a parent directory and contents of the parent directory; adding the parent directory to a first set, listed in a memory in the storage system; operating on the first set, by examining the parent directory in the first set to identify subdirectories and files within the parent directory, adding each identified subdirectory to the first set as a directory, and adding the identified files and the examined parent directory to a second set listed in the memory; deleting records and data of files listed in the second set, and records of directories listed in the second set, without concern for order as soon as all subdirectories within the parent directory have been identified.
A rotary table assembly of a stuffed food forming machine, comprising: a rotary table body and shaping molds evenly distributed on the rotary table body; and, characterized in that the rotary table body defines an opening configured for dough residue to to fall into and collecting the dough residue, and wherein a distance between an internal side of one of the shaping molds and a center of the rotary table body is configured to be larger than a distance between an internal side of the opening and the center of the rotary table body. a rotary table body and shaping molds evenly distributed on the rotary table body; and, characterized in that the rotary table body defines an opening configured for dough residue to to fall into and collecting the dough residue, and wherein a distance between an internal side of one of the shaping molds and a center of the rotary table body is configured to be larger than a distance between an internal side of the opening and the center of the rotary table body.
A sheet takeout device, comprising: a feeding section for holding the plurality of sheets and having a bottom wall with which a plurality of stacked sheets come in contact with one of their sides; a takeout section configured to take out the tipmost sheet by suction from the plurality of sheets held in the feeding section, and to send out the tipmost sheet in a sending direction; and an air blowout section (91a, 91b) configured to blow out air toward a region between the one side of the sheet to be sucked by the takeout section and the one side of the sheet next to the sheet to be sucked; wherein the air blowout section (91a, 91b) includes at least a first air blowout portion which is arranged at a position corresponding to a backward portion of the sheet in the sending direction, and a second air blowout portion which is arranged at a position corresponding to a forward portion of the sheet in the sending direction characterized in that the feeding section includes a preventing portion which prevents blowup of the sheet caused by blowout of the air from the air blowout section (91a, 91b), at a position opposite to the bottom wall across the sheet. a feeding section for holding the plurality of sheets and having a bottom wall with which a plurality of stacked sheets come in contact with one of their sides; a takeout section configured to take out the tipmost sheet by suction from the plurality of sheets held in the feeding section, and to send out the tipmost sheet in a sending direction; and an air blowout section (91a, 91b) configured to blow out air toward a region between the one side of the sheet to be sucked by the takeout section and the one side of the sheet next to the sheet to be sucked; wherein the air blowout section (91a, 91b) includes at least a first air blowout portion which is arranged at a position corresponding to a backward portion of the sheet in the sending direction, and a second air blowout portion which is arranged at a position corresponding to a forward portion of the sheet in the sending direction characterized in that the feeding section includes a preventing portion which prevents blowup of the sheet caused by blowout of the air from the air blowout section (91a, 91b), at a position opposite to the bottom wall across the sheet.
Rotation device for the production of rotationally moulded mouldings, consisting of a receiving device, which is designed as a sphere, for at least one negative casting mould, a holding device for the receiving device and a drive unit for the rotational movement, characterized in that a. the receiving device for receiving at least one negative casting mould is held by a holding device with the arrangement of at least one supporting and guiding element and is set into rotation by a single drive element which is arranged in the rotation device and is connected in a force-transmitting manner to the receiving device, and/or in that b. the receiving device for receiving at least one negative casting mould is held by a holding device with the arrangement of at least one supporting and guiding element and is set into rotation by a drive element which is arranged in the rotation device and is connected in a force-transmitting manner to the receiving device, wherein the receiving device is held by means of the holding device in such a manner that it remains fixed in position during the rotation. a. the receiving device for receiving at least one negative casting mould is held by a holding device with the arrangement of at least one supporting and guiding element and is set into rotation by a single drive element which is arranged in the rotation device and is connected in a force-transmitting manner to the receiving device, and/or in that b. the receiving device for receiving at least one negative casting mould is held by a holding device with the arrangement of at least one supporting and guiding element and is set into rotation by a drive element which is arranged in the rotation device and is connected in a force-transmitting manner to the receiving device, wherein the receiving device is held by means of the holding device in such a manner that it remains fixed in position during the rotation.
A method of synthesizing a glycidyl azide homopolymer, comprising: contacting a glycidyl azide monomer, an initiator, and a Lewis acid sufficient to form the glycidyl azide homopolymer; wherein the glycidyl azide homopolymer is directly polymerized from the glycidyl azide monomer and wherein the ratio of initiator to Lewis acid ranges from 1:1 to 1:10. contacting a glycidyl azide monomer, an initiator, and a Lewis acid sufficient to form the glycidyl azide homopolymer; wherein the glycidyl azide homopolymer is directly polymerized from the glycidyl azide monomer and wherein the ratio of initiator to Lewis acid ranges from 1:1 to 1:10.
A high protection UVA/UVB cosmetic or pharmaceutical composition, characterized by comprising: (a) 24 to 45.5 % by weight of physical filter selected from the group comprising titanium dioxide particles, zinc oxide particles, a benzotriazole-based compound particles and mixtures thereof; (b) 6 to 10% by weight of a non-animal hectorite dispersion, and (c) optionally, 2 to 20% by weight of a sensory modifier selected from the group comprising: silicones, esters, silica and mixtures thereof, wherein all percentages are based on the total weight of the high protection UVA / UVB composition; wherein the composition is a topical composition. (a) 24 to 45.5 % by weight of physical filter selected from the group comprising titanium dioxide particles, zinc oxide particles, a benzotriazole-based compound particles and mixtures thereof; (b) 6 to 10% by weight of a non-animal hectorite dispersion, and (c) optionally, 2 to 20% by weight of a sensory modifier selected from the group comprising: silicones, esters, silica and mixtures thereof,
A decorative element arranged to be installed on an element of a vehicle passenger compartment, including a support and a film including strass bonded on the support and characterized in that it further includes a coating element applied to the support and turned down on the support so as to at least partially cover the film including strass.
A valve controller for controlling a valve that comprises an actuator and a flow controlling unit, wherein the flow controlling unit comprises a first valve seat and a cooperating first disc that is mechanically coupled to the actuator, the valve controller comprising equipment (24, 34, 36, 48, 58) for controlling the function of at least one of the actuator and the flow controlling unit, the equipment (24, 34, 36, 48, 58) comprising one or more position sensors (34, 58), each of the one or more position sensors (34, 58) comprising an electrical input (33, 59) for supplying the sensor (34, 58) with power, the valve controller being configured to: obtaining one or more first parameter values indicative of a functionality of the equipment (24, 34, 36, 48, 58), wherein, for each of the one or more position sensors (34, 58), obtaining one or more first parameter values indicative of the functionality of the equipment comprises: measuring a voltage at the electrical input (33, 59) of the sensor (34, 58) with the sensor (34, 58) turned off, wherein the one or more first parameter values comprises the measured voltage; monitoring the equipment (24, 34, 36, 48, 58) during operation of the valve controller for determining one or more second parameter values indicative of the functionality of the equipment (24, 34, 36, 48, 58), wherein, for each of the one or more position sensors (34, 58), monitoring the equipment (24, 34, 36, 48, 58) comprises: turning off the sensor (34, 58), measuring an other voltage at the electrical input (33, 59) of the sensor (34, 58), wherein the one or more second parameter values comprises the measured other voltage; and determining if a change in functionality of the equipment (24, 34, 36, 48, 58) has occurred based on a comparison of the one or more second parameter values with the one or more first parameter values. obtaining one or more first parameter values indicative of a functionality of the equipment (24, 34, 36, 48, 58), wherein, for each of the one or more position sensors (34, 58), obtaining one or more first parameter values indicative of the functionality of the equipment comprises: measuring a voltage at the electrical input (33, 59) of the sensor (34, 58) with the sensor (34, 58) turned off, wherein the one or more first parameter values comprises the measured voltage; monitoring the equipment (24, 34, 36, 48, 58) during operation of the valve controller for determining one or more second parameter values indicative of the functionality of the equipment (24, 34, 36, 48, 58), wherein, for each of the one or more position sensors (34, 58), monitoring the equipment (24, 34, 36, 48, 58) comprises: turning off the sensor (34, 58), measuring an other voltage at the electrical input (33, 59) of the sensor (34, 58), wherein the one or more second parameter values comprises the measured other voltage; and determining if a change in functionality of the equipment (24, 34, 36, 48, 58) has occurred based on a comparison of the one or more second parameter values with the one or more first parameter values.
A communication system, comprising: a base band unit, BBU, at least two radio-frequency, RF, units; at least two antennas, each of which is connected with at least two RF units, so that a signal received from a same sector by each antenna is sent to the BBU via at least two RF units; wherein the BBU is connected with the at least two RF units, characterised in that the BBU comprises at least two base band processing units, and each of the at least two base band processing units is configured to process signals of a same sector which are received from at least two RF units; wherein the BBU further comprises a cross-connection matrix, connected with the at least two base band processing units and configured to interchange signals among the at least two base band processing units; wherein each of the at least two base band processing units comprises a forwarding subunit and a base band signal processing subunit, and the forwarding subunit is configured to: in an uplink receiving direction, aggregate signals of a same sector which are received from different RF units, and transfer the aggregated signals to a same base band signal processing subunit for processing; in a downlink transmitting direction, distribute base band data of the same sector processed by the base band signal processing subunit to corresponding RF units, and the base band signal processing subunit is configured to process the received signals of the same sector, and send the processed base band data of the same sector to the forwarding subunit; or wherein the BBU further comprises a forwarding unit, configured to, in an uplink receiving direction, aggregate signals of a same sector which are received from different RF units, and transfer the aggregated signals to a same base band signal processing unit for processing; and in a downlink transmitting direction, send base band data of the same sector processed by the base band processing unit to the corresponding RF units; wherein each base band processing unit is configured to process the received signals of the same sector, and send the processed base band data of the same sector to the forwarding unit.
A handheld device having a processor and a transceiver, the transceiver being electrically connected to the processor, wherein the processor generates an uplink signal, the uplink signal comprises an uplink dedicated physical data channel, UL DPDCH, including a first radio data frame, a second radio data frame, a third radio data frame and a fourth radio data frame, the four radio data frames are within two transmission time intervals, TTIs, wherein a complete dedicated traffic channel, DTCH, information data comprises two separate segments (X1, X2; Y1, Y2), the handheld device being characterized in that: the processor generates the uplink signal such that the UL DPDCH includes two separate segments (X1, X2) of a first dedicated traffic channel, DTCH, information data and first two separate segments (C1, C2) of a dedicated control channel, DCCH, information data carried in the first radio data frame and repeatedly carried in the second radio data frame, such that the data carried in the second radio data frame of the UL DPDCH is entirely the same as that carried in the first radio data frame of the UL DPDCH, two separate segments (Y1, Y2) of a second DTCH information data and last two separate segments (C3, C4) of the DCCH information data carried in the third radio data frame and repeatedly carried in the fourth radio data frame, such that the data carried in the fourth radio data frame of the UL DPDCH is entirely the same as that carried in the third radio data frame of the UL DPDCH, and the transceiver transmits the uplink signal to a base station.