mhurhangee/ep-ind-claims huggingface dataset:
A step-type vehicle expansion water tank, wherein the step-type vehicle expansion water tank comprises a water-tank body, an interior of the water-tank body is separated by two water separating plates of different heights into a higher chamber, a middle chamber and a lower chamber, the chambers have tops that are communicated and bottoms that are individually provided with a water outlet, and a filling port is provided at a top of the water-tank body, the step-type vehicle expansion water tank is characterized in that: each of the tops of the higher chamber, the middle chamber and the lower chamber is provided with a water blocking plate for closing the chambers, and the water blocking plate is provided with at least one water-level balancing port; and the water blocking plates at the tops of the higher chamber, the middle chamber and the lower chamber are horizontally provided and have heights that are sequentially reduced, to present a step-type structure. each of the tops of the higher chamber, the middle chamber and the lower chamber is provided with a water blocking plate for closing the chambers, and the water blocking plate is provided with at least one water-level balancing port; and the water blocking plates at the tops of the higher chamber, the middle chamber and the lower chamber are horizontally provided and have heights that are sequentially reduced, to present a step-type structure.
A method of controlling a pumping device associated with a sealed and thermally insulative tank, said tank containing a liquefied gas having a liquid phase and a vapor phase and including walls having a multilayer structure comprising a sealing membrane in contact with the liquefied gas and a thermally insulative barrier (3, 6) disposed between the sealing membrane and a supporting structure, said thermally insulative barrier (3, 6) including solid materials and a gas phase, said pumping device including a vacuum pump (14, 16) connected to the thermally insulative barrier (3, 6) in order to place the gas phase at a negative relative pressure, said method comprising the steps of: - measuring a pressure P1 of the gas phase of the thermally insulative barrier (3, 6); - determining a setpoint pressure P c1; - controlling the vacuum pump (14, 16) so as to slave the pressure P 1 of the gas phase of the thermally insulative barrier (3, 6) to the setpoint pressure P c1, the said method being characterized in that the setpoint pressure P c1 is determined by means of an equation P c1 = f 1, f 1 being an increasing monotonous function and T being a variable representing a measured temperature of the liquid phase of the liquefied gas or a minimum temperature threshold liable to be reached by the liquid phase of the liquefied gas and corresponding to an operating state of a device for cooling the liquefied gas. - measuring a pressure P1 of the gas phase of the thermally insulative barrier (3, 6); - determining a setpoint pressure P c1; - controlling the vacuum pump (14, 16) so as to slave the pressure P 1 of the gas phase of the thermally insulative barrier (3, 6) to the setpoint pressure P c1, the said method being characterized in that the setpoint pressure P c1 is determined by means of an equation P c1 = f 1, f 1 being an increasing monotonous function and T being a variable representing a measured temperature of the liquid phase of the liquefied gas or a minimum temperature threshold liable to be reached by the liquid phase of the liquefied gas and corresponding to an operating state of a device for cooling the liquefied gas.
A charge-time calculation method for calculating a total charge time for charging a battery to a predetermined target state of charge by a charge power output from a charger comprising: detecting a battery temperature showing temperature of the battery and a battery surrounding temperature showing surrounding temperature of the battery by using a temperature sensor (14, 15); detecting a voltage of the battery by using a voltage sensor; calculating a state of charge of the battery based on the voltage of the battery; calculating a chargeable power of the battery based on the voltage of the battery and charge upper-limit voltage of the battery; comparing the chargeable power and outputtable power of the charger to set a lower power as a first charge power; calculating time from start of charging to a first timing that is a timing at which the battery temperature reaches a predetermined limit temperature as a first charge time, based on the battery temperature, the battery surrounding temperature, and a charge current when charging with the first charge power; calculating a second charge power limited according to the battery temperature after the first timing; calculating a second charge time that is a charge time after the first timing based on the state of the battery when the first timing is reached and the second charge power by referencing a map showing correspondence between the charge power, the state of charge, the battery temperature, and the charge time of the battery; and calculating time obtained by adding the second charge time to the first charge time until the first timing is reached as the total charge time. detecting a battery temperature showing temperature of the battery and a battery surrounding temperature showing surrounding temperature of the battery by using a temperature sensor (14, 15); detecting a voltage of the battery by using a voltage sensor; calculating a state of charge of the battery based on the voltage of the battery; calculating a chargeable power of the battery based on the voltage of the battery and charge upper-limit voltage of the battery; comparing the chargeable power and outputtable power of the charger to set a lower power as a first charge power; calculating time from start of charging to a first timing that is a timing at which the battery temperature reaches a predetermined limit temperature as a first charge time, based on the battery temperature, the battery surrounding temperature, and a charge current when charging with the first charge power; calculating a second charge power limited according to the battery temperature after the first timing; calculating a second charge time that is a charge time after the first timing based on the state of the battery when the first timing is reached and the second charge power by referencing a map showing correspondence between the charge power, the state of charge, the battery temperature, and the charge time of the battery; and calculating time obtained by adding the second charge time to the first charge time until the first timing is reached as the total charge time.
A testing device for testing the mechanical integrity of a hollow breakable item, the testing device comprising: - a squeezable element to radially abut with an inner face of a sidewall portion of the breakable item, - a holder having an abutment to axially engage with a proximal end of the breakable item, - a sleeve extending in an axial direction (1, 2) that is parallel to a longitudinal extension of the sleeve and wherein the sleeve is insertable into the hollow breakable item to receive the sidewall portion of the breakable item, and wherein the sleeve has a first contact surface to axially engage with the squeezable element, - a plunger displaceable in the axial direction (1, 2) relative to the sleeve and having a second contact surface to axially engage with the squeezable element, - wherein the squeezable element is axially squeezable by a relative axial displacement of plunger and sleeve to increase the squeezable element's radial expansion and to apply radially directed pressure to the breakable item's sidewall portion and wherein - the sleeve and the plunger axially extend through the holder, the testing device being characterized in that - the abutment comprises an annular seal with a distally facing abutment surface and that - the plunger comprises an axial bore to apply a negative pressure to the interior volume of the breakable item. - a squeezable element to radially abut with an inner face of a sidewall portion of the breakable item, - a holder having an abutment to axially engage with a proximal end of the breakable item, - a sleeve extending in an axial direction (1, 2) that is parallel to a longitudinal extension of the sleeve and wherein the sleeve is insertable into the hollow breakable item to receive the sidewall portion of the breakable item, and wherein the sleeve has a first contact surface to axially engage with the squeezable element, - a plunger displaceable in the axial direction (1, 2) relative to the sleeve and having a second contact surface to axially engage with the squeezable element, - wherein the squeezable element is axially squeezable by a relative axial displacement of plunger and sleeve to increase the squeezable element's radial expansion and to apply radially directed pressure to the breakable item's sidewall portion and wherein - the sleeve and the plunger axially extend through the holder, the testing device being characterized in that - the abutment comprises an annular seal with a distally facing abutment surface and that - the plunger comprises an axial bore to apply a negative pressure to the interior volume of the breakable item.
A method of detecting a ground fault in an induction furnace that has an induction furnace jacket with a refractory lining and an induction coil surrounding the refractory lining and at least one bath ground electrode in the lower part of the refractory lining as well as a ground fault detector, wherein upon detection of a ground fault by means of the ground fault detector the ground fault is localized by separating the at least one bath ground electrode from ground and then checking whether the ground fault exists further or not, and upon detection that the ground fault does not exist further determining a defect in the refractory lining and upon detection that the ground fault exists further determining whether the ground fault is caused by a defective magnetic yoke insulation by successively separating all the magnetic yokes from ground and checking whether the ground fault exists further or not after separation of one magnetic yoke.
A data transmission installation (320, 204, 205, 206) for forwarding data transmission frames, the data transmission installation comprising data receivers (321, 326) for receiving data transmission frames in the data transmission installation, data transmitters (322, 327) for sending data transmission frames from the data transmission installation, and a processor unit adapted to: - read control data from one or more received data transmission frames, the control data containing building and cancelling commands for logical data transmission tunnels determined on the basis of mobility of data terminals connected to a data transmission network, and - execute building and cancelling actions determined by the control data for logical data transmission tunnels, characterized in that the processor unit is further adapted to determine forwarding actions for a received second data transmission frame on the basis of forwarding control data contained in the second data transmission frame, the forwarding actions comprising a transmission of the second data transmission frame by way of one of following i-iii: i) a predetermined output port of the data transmission installation or ii) one of two mutually alternative predetermined output ports of the data transmission installation or iii) a logical data transmission tunnel commencing from the data transmission installation, wherein the determining of the forwarding actions comprise determining on the basis of the forwarding control data whether the forwarding actions comprise the transmission of the second data transmission frame by way of the logical data transmission tunnel, the data transmission installation being able to operate, via the predetermined output ports, as a part of a ring-shaped data transmission topology. - read control data from one or more received data transmission frames, the control data containing building and cancelling commands for logical data transmission tunnels determined on the basis of mobility of data terminals connected to a data transmission network, and - execute building and cancelling actions determined by the control data for logical data transmission tunnels,
An ultralight shoe, manufactured without an adhesive process, having an upper covering a top of a foot of a user, and a sole part making contact with a ground, the ultralight shoe comprising: the sole part comprising an insole making contact with a bottom of the foot, and an outsole, the outsole being coupled to the insole by injection molding; and the upper coupled to the insole by sewing and made of an elastic fabric having restoring elasticity ranging from 120% to 150%, wherein the sole part and the upper are coupled to each other without using an adhesive, characterized in that the insole is made of a fabric having a mesh structure, the outsole is made of a TPE (thermoplastic elastomer) based material, and the upper is coupled to the whole sole part by sewing. the sole part comprising an insole making contact with a bottom of the foot, and an outsole, the outsole being coupled to the insole by injection molding; and the upper coupled to the insole by sewing and made of an elastic fabric having restoring elasticity ranging from 120% to 150%, wherein the sole part and the upper are coupled to each other without using an adhesive, characterized in that the insole is made of a fabric having a mesh structure, the outsole is made of a TPE (thermoplastic elastomer) based material, and the upper is coupled to the whole sole part by sewing.
A control system for positioning a marker over a pre-existing roadway surface mark, the control system comprising: an electromagnetic radiation source attached to the marker for producing a longitudinal mark pattern on the roadway surface in the direction the marker is traveling; an imager for imaging both the pre-existing roadway surface mark and the mark pattern produced by the electromagnetic radiation source; a computer responsive to the imager for producing an error signal based upon the location difference between (a) the image of the pre-existing roadway surface mark and (b) the image of the mark pattern produced by the electromagnetic radiation source; and an actuator responsive to the error signal for positioning the marker over the pre-existing roadway mark. an electromagnetic radiation source attached to the marker for producing a longitudinal mark pattern on the roadway surface in the direction the marker is traveling; an imager for imaging both the pre-existing roadway surface mark and the mark pattern produced by the electromagnetic radiation source; a computer responsive to the imager for producing an error signal based upon the location difference between (a) the image of the pre-existing roadway surface mark and (b) the image of the mark pattern produced by the electromagnetic radiation source; and an actuator responsive to the error signal for positioning the marker over the pre-existing roadway mark.
A drive device for a dynamo-electric machine, comprising: a plurality of voltage generation devices for outputting arbitrary voltages to a plurality of dynamo-electric machines; and a control device for adjusting the output voltages of the voltage generation devices, wherein the control device is configured to acquire the temperature of each of the plurality of dynamo-electric machines, to select a relatively highly-efficient dynamo-electric machine from among the plurality of dynamo-electric machines based on each temperature, and to increase a torque command value of the selected dynamo-electric machine relative to the plurality of other dynamo-electric machines; characterized in that the dynamo-electric machines are permanent magnet synchronous motors, and wherein the control device is configured to select a motor with a relatively low temperature among the plurality of permanent magnet synchronous motors when the torque command value is large, and is configured to select a motor with a relatively high temperature among the plurality of permanent magnet synchronous motors when the torque command value is small. a plurality of voltage generation devices for outputting arbitrary voltages to a plurality of dynamo-electric machines; and a control device for adjusting the output voltages of the voltage generation devices, wherein the control device is configured to acquire the temperature of each of the plurality of dynamo-electric machines, to select a relatively highly-efficient dynamo-electric machine from among the plurality of dynamo-electric machines based on each temperature, and to increase a torque command value of the selected dynamo-electric machine relative to the plurality of other dynamo-electric machines; characterized in that the dynamo-electric machines are permanent magnet synchronous motors, and wherein the control device is configured to select a motor with a relatively low temperature among the plurality of permanent magnet synchronous motors when the torque command value is large, and is configured to select a motor with a relatively high temperature among the plurality of permanent magnet synchronous motors when the torque command value is small.
A waste collection system, comprising at least one container in which waste can be accommodated, as well as a vehicle comprising a drivable substructure, a waste collection area on the substructure and a handling mechanism, which handling mechanism comprises an arm supported on the substructure with an arm driving device (18, 19, 23) for transferring a waste container close to a loading opening of the waste collection area, as well as means of tilting for tilting the container in relation to the waste collection area in connection with emptying the waste from the container into the loading opening of the waste collection area, which container and arm are provided with a connecting mechanism (17, 25, 32) for connecting the container to the arm, characterised in that the tilting means exhibit their own tilting driving means, in which the tilting means are supported directly on the substructure of the vehicle and the tilting driving means interacts directly with the substructure of the vehicle.
A nubuck-finished leather-like sheet comprising a non-woven fabric that is an entangled body of ultrafine filaments with a fineness of 2 dtex or less, and an elastic polymer that is polyurethane which is applied in the non-woven fabric, wherein the non-woven fabric includes, on one or both surfaces thereof, a napped surface having napped fibers, and the napped fibers are fixed to an acrylic resin on the napped surface while being in a state of lying down.
System for lubricating a two-stroke engine, the system at least comprising: - a two-stroke engine having a first inlet for a cylinder oil, and a second and third inlet for a system oil; - a sump for system oil used in the engine, the sump having an inlet and an outlet, the outlet being connected to the second and third inlets (22,23) of the engine; - an oil reservoir having a first outlet connected to the first inlet of the engine, a second outlet connected to the inlet of the sump and a first inlet connected to the outlet of the sump; and - a splitter connected to the outlet of the sump, the second and third inlets (22,23) of the engine, and the first inlet of the oil reservoir. - a two-stroke engine having a first inlet for a cylinder oil, and a second and third inlet for a system oil; - a sump for system oil used in the engine, the sump having an inlet and an outlet, the outlet being connected to the second and third inlets (22,23) of the engine; - an oil reservoir having a first outlet connected to the first inlet of the engine, a second outlet connected to the inlet of the sump and a first inlet connected to the outlet of the sump; and - a splitter connected to the outlet of the sump, the second and third inlets (22,23) of the engine, and the first inlet of the oil reservoir.
A reception method for receiving of a multicarrier signal consisting of a sequence of symbols in time, each symbol comprising a plurality of carriers carrying data, at least one of the symbols comprising at least one reference pilot, said reception method implements the following steps: - a first estimation of a propagation channel, from at least a first set of said data, according to a first estimating technique taking account of said reference pilot(s); said reception method being characterized in that it implements: - at least a second estimation of said propagation channel, from said first set, according to a second estimating technique distinct from said first technique, - comparison between said first and second estimations, outputting an error signal; - detection of the position of at least one interfering signal in said propagation channel, by analysis of at least one peak observed in said error signal, called error peak. - a first estimation of a propagation channel, from at least a first set of said data, according to a first estimating technique taking account of said reference pilot(s); - at least a second estimation of said propagation channel, from said first set, according to a second estimating technique distinct from said first technique, - comparison between said first and second estimations, outputting an error signal; - detection of the position of at least one interfering signal in said propagation channel, by analysis of at least one peak observed in said error signal, called error peak.
A system for adaptive user interfaces, comprising: a user interface output component configured to output a first user interface to at least one output device; an input device configured to receive input user actions from a user interacting with the first user interface; an input tracking component configured to register user actions received from the input device; a user experience learning component configured to assign one or more user groupings based on user interface interaction history and registered input actions, wherein the user experience learning component uses deep learning, machine learning or artificial intelligence with input factors including current usage factors, historical usage factors and a user profile; a user experience determination component configured to determine a user experience level, wherein the user experience level is determined from current session user interaction history, retrieved past session user interaction history, and user profile information; a user interface adaptive component configured to generate an adapted user interface based on the user experience level and the assigned grouping; wherein the user interface output component is configured to output the adapted user interface. a user interface output component configured to output a first user interface to at least one output device; an input device configured to receive input user actions from a user interacting with the first user interface; an input tracking component configured to register user actions received from the input device; a user experience learning component configured to assign one or more user groupings based on user interface interaction history and registered input actions, wherein the user experience learning component uses deep learning, machine learning or artificial intelligence with input factors including current usage factors, historical usage factors and a user profile; a user experience determination component configured to determine a user experience level, wherein the user experience level is determined from current session user interaction history, retrieved past session user interaction history, and user profile information; a user interface adaptive component configured to generate an adapted user interface based on the user experience level and the assigned grouping; wherein the user interface output component is configured to output the adapted user interface.