mhurhangee/ep-ind-claims huggingface dataset:
Method for cross-cutting a metal strip, preferably a steel strip, wherein the method comprises the following steps: - feed the metal strip in the direction of transport through a cooling zone; - cool down the metal strip in the cooling zone; then - cross-cut the metal strip on shears, so that the metal strip is cross-cut into a preceding section of metal strip having a strip tail of the preceding section of metal strip and a following section of metal strip with a strip head of the following section of metal strip and, in the direction of transport, the strip head of the following section of metal strip follows on immediately after the strip tail of the preceding section of metal strip, characterised in that the metal strip is cooled down in the cooling zone to a prescribed temperature profile in the lengthwise direction of the metal strip so that, in the region of the strip head of the following section of metal strip and the strip tail of the preceding section of metal strip, the metal strip has a higher temperature than in the preceding and following regions. - feed the metal strip in the direction of transport through a cooling zone; - cool down the metal strip in the cooling zone; then - cross-cut the metal strip on shears, so that the metal strip is cross-cut into a preceding section of metal strip having a strip tail of the preceding section of metal strip and a following section of metal strip with a strip head of the following section of metal strip and, in the direction of transport, the strip head of the following section of metal strip follows on immediately after the strip tail of the preceding section of metal strip,
An axial piston pump (1,1') with an inclined plate for pumping liquid comprising: - a head in which there is at least partially a plurality of cylinders in a number greater than three, with central parallel axes, - a plurality of pistons that each slide within a respective cylinder of the plurality of cylinders for the pumping of the liquid, - a housing seat of a suction valve made in the head, - a housing seat of a delivery valve made in the head, wherein the housing seat of the suction valve and the housing seat of the delivery valve are in direct fluid communication with each other via a rectilinear channel made in the head, said channel in turn being in direct fluid communication with a cylinder of the plurality of cylinders, said axial piston pump being characterized by the fact that the channel has a central axis which lies on a transversal plane to the central axes of the cylinders. - a head in which there is at least partially a plurality of cylinders in a number greater than three, with central parallel axes, - a plurality of pistons that each slide within a respective cylinder of the plurality of cylinders for the pumping of the liquid, - a housing seat of a suction valve made in the head, - a housing seat of a delivery valve made in the head, wherein the housing seat of the suction valve and the housing seat of the delivery valve are in direct fluid communication with each other via a rectilinear channel made in the head, said channel in turn being in direct fluid communication with a cylinder of the plurality of cylinders, said axial piston pump being characterized by the fact that the channel has a central axis which lies on a transversal plane to the central axes of the cylinders.
A multipurpose air pollution and heat reducing device comprising: a tank adapted to be secured with a stand and to store pollution reducing liquid therein, at least one layer of pebbles, constituting a filter layer, being provided inside the tank at the bottom thereof, at least one inlet tube passing through the bottom of the tank being provided for allowing entry of exhaust with pollutants into the tank, a corresponding perforated inverted tube having perforations at the lower end and up to the height to which the pebbles are filled in the tank, the perforated inverted tube being provided over the inlet tube and configured to discharge the exhaust with pollutants near the bottom end of the tank, a liquid filling tube being provided at the top end of the tank, a liquid level indicator secured to the bottom of the tank being provided to indicate liquid level present in the tank, at least one layer of gauze filter disposed in the tank above the liquid level, an outlet being provided near the top end of the tank for facilitating exit of the clean exhaust from the device. a tank adapted to be secured with a stand and to store pollution reducing liquid therein, at least one layer of pebbles, constituting a filter layer, being provided inside the tank at the bottom thereof, at least one inlet tube passing through the bottom of the tank being provided for allowing entry of exhaust with pollutants into the tank, a corresponding perforated inverted tube having perforations at the lower end and up to the height to which the pebbles are filled in the tank, the perforated inverted tube being provided over the inlet tube and configured to discharge the exhaust with pollutants near the bottom end of the tank, a liquid filling tube being provided at the top end of the tank, a liquid level indicator secured to the bottom of the tank being provided to indicate liquid level present in the tank, at least one layer of gauze filter disposed in the tank above the liquid level, an outlet being provided near the top end of the tank for facilitating exit of the clean exhaust from the device.
A display apparatus comprising: an optical receiver included in a communicator; a display; and a processor configured to: receive an infrared, IR, control signal from a remote control through the optical receiver, the control signal being used for controlling an image providing apparatus, receive, upon receipt of the control signal through the optical receiver, an image from the image providing apparatus, control the display to display the received image, identify what function of the image providing apparatus corresponds to a control code included in the control signal using information obtained by analysing the image, and determine apparatus information of the image providing apparatus based on a correspondence relationship between the control code and the identified function, and a control code set comprised in the apparatus information. an optical receiver included in a communicator; a display; and a processor configured to: receive an infrared, IR, control signal from a remote control through the optical receiver, the control signal being used for controlling an image providing apparatus, receive, upon receipt of the control signal through the optical receiver, an image from the image providing apparatus, control the display to display the received image, identify what function of the image providing apparatus corresponds to a control code included in the control signal using information obtained by analysing the image, and determine apparatus information of the image providing apparatus based on a correspondence relationship between the control code and the identified function, and a control code set comprised in the apparatus information. receive an infrared, IR, control signal from a remote control through the optical receiver, the control signal being used for controlling an image providing apparatus, receive, upon receipt of the control signal through the optical receiver, an image from the image providing apparatus, control the display to display the received image, identify what function of the image providing apparatus corresponds to a control code included in the control signal using information obtained by analysing the image, and determine apparatus information of the image providing apparatus based on a correspondence relationship between the control code and the identified function, and a control code set comprised in the apparatus information.
Use of the hybrid system MgO•SiO 2 /multiwalled olygomeric silsesquioxane, as promoter of ceramization in the silicone composites destined for covers of electrical cables, containing per 100 weight parts of magnesium silicate from 0.1 to 50 weight parts, favourably 10 weight parts of the silsesquioxane as modifier containing R 1 - R 8, where R 1 to R 8 is alkyl- group and/or groups, or alkoxy-, or methacryloxy-, or glycidoxy-, or amino-, or aminophenyl-, or phenyl-, or vinyl-, or perfluoro- or their mixture.
Pressure variation damper for a slip-regulated, hydraulic vehicle brake system, with a damper housing, in which a tubular, elastically deformable damper element is disposed, which, during use, is subjected on the inside or on the outside to a fluid, the possible pressure variations of which are to be damped, and which comprises a corrugation on the outside, characterized in that the damper element likewise comprises a corrugation on the inside, wherein wave troughs of the corrugation on the inside are arranged offset by less than a half-wavelength with respect to wave peaks of the corrugation on the outside, and wave peaks of the corrugation on the inside are arranged offset by less than a half-wavelength about wave troughs of the corrugation on the outside.
A memory system, comprising: a firmware unit; and a cache module that comprises a cache controller and a cache memory, the cache controller is configured to: receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment row of the cache memory, and send an ID of the CS row to the firmware unit; and wherein the firmware unit is configured to provide firmware instructions to: in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row. a firmware unit; and a cache module that comprises a cache controller and a cache memory, the cache controller is configured to: receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment row of the cache memory, and send an ID of the CS row to the firmware unit; and receive a first I/O message that comprises a local message ID (LMID) and first data, store the first data in a cache segment row of the cache memory, and send an ID of the CS row to the firmware unit; and wherein the firmware unit is configured to provide firmware instructions to: in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row. in response to receiving the ID of the CS row, acquire a timestamp for the ID of the CS row; store the timestamp, and periodically check for a cache flush timeout, and in response to detecting the cache flush timeout, send a flush command with the ID of the CS row to the cache controller, wherein in response to receiving the flush command, the cache controller is configured to flush the first data of the CS row.
A method for establishing a setup parameter value for a bending press, in which characteristic variables of a workpiece to be bent in a bending process are fed to a control device of the bending press, and a set point for a target variable on the bent workpiece is fed to the control device, and at least one setup parameter value of the bending press in form of an insertion depth of a ram of the bending press or a bending force to be applied by the ram to the workpiece (4, 6) or a deflection compensation parameter of the bending press is established by the control device based on the characteristic variables of the workpiece and the set point of the target variable by way of a model of the bending process, which model contains a correlation between the setup parameter value, the characteristic variables of the workpiece and a value of the target variable resulting therefrom, wherein the workpiece, prior to completion of the bending process, is subjected to measuring an eddy current, during which it is pervaded by an electromagnetic alternating field generated by an excitation unit, and a measured value of the electromagnetic effect of the workpiece on the alternating field is ascertained by means of a sensor unit and one of the characteristic variables is formed by the measured value, characterised in that, following partial or full execution of the bending process, when the load on the workpiece is relieved, an actual value of the target variable, in particular the bending angle, is measured and linked in the control device with the measured value of the eddy current measurement and with the setup parameter value active before the load relief, by ascertaining the correlation in the currently bent workpiece between the setup parameter value, the characteristic variable of the workpiece in form of the measured value from the eddy current measurement and the value of the target variable resulting therefrom and adapting the model of the bending process on the basis of the actual value of the target variable measured after relieving the load on the workpiece and the measured value of the eddy current measurement as well as the setup parameter value effective directly prior to the load relief, in that the correlation contained in the model between the setup parameter value, the characteristic variable of the workpiece in form of the measured value from the eddy current measurement and the resulting value of the target variable is amended by the correlation ascertained on the currently bent workpiece.
A mobile station configured for predicting a channel state information metric, M, of a downlink channel in a wireless communication network, which mobile station comprises: a receiver, configured for receiving a wireless signal from a radio network node on the downlink channel; and a processor, configured for determining a length of a feedback delay, δ CQI; and configured for predicting the channel state information metric, M, of the channel on which the wireless signal was received, at a future point in time, corresponding to the determined length of the feedback delay δ CQI, wherein said prediction is based on a non-linear predicting algorithm, wherein the processor is configured for predicting the channel state information metric based on the non-linear predicting algorithm by: collecting channel state information metric data of the downlink channel, to be used as training data, during a training data period; estimating a conditional probability distribution function p, within a period, based on the collected training data; and computing the predicted channel state information metric M based on the estimated conditional probability distribution function p at the future point in time, corresponding to the determined length of the feedback delay δ CQI. a receiver, configured for receiving a wireless signal from a radio network node on the downlink channel; and a processor, configured for determining a length of a feedback delay, δ CQI; and configured for predicting the channel state information metric, M, of the channel on which the wireless signal was received, at a future point in time, corresponding to the determined length of the feedback delay δ CQI, wherein said prediction is based on a non-linear predicting algorithm, wherein the processor is configured for predicting the channel state information metric based on the non-linear predicting algorithm by: collecting channel state information metric data of the downlink channel, to be used as training data, during a training data period; estimating a conditional probability distribution function p, within a period, based on the collected training data; and computing the predicted channel state information metric M based on the estimated conditional probability distribution function p at the future point in time, corresponding to the determined length of the feedback delay δ CQI. collecting channel state information metric data of the downlink channel, to be used as training data, during a training data period; estimating a conditional probability distribution function p, within a period, based on the collected training data; and computing the predicted channel state information metric M based on the estimated conditional probability distribution function p at the future point in time, corresponding to the determined length of the feedback delay δ CQI.
A plunger pressure accumulator, comprising: a shell with an interior space defined by its walls; a plunger (3; 30) which is adapted to move relative to the shell into the interior space of the shell; said space being divided into at least two subspaces (4 and 5), the first subspace of which is suppliable with the hydraulic fluid of an external system and the second subspace is provided with a pressurized gas, wherein in the interior space of the shell between the plunger (3; 30) and the shell is arranged a slide bearing element upon which the plunger is supported to move to a distance apart from an internal surface of the first subspace and from an internal surface of the second subspace, wherein between the plunger and the shell is provided a sealing element producing a sealing effect, which, together with the plunger, divides the space in a longitudinal direction of the shell into the first subspace and the second subspace, characterized in that the plunger pressure accumulator is provided with at least one regenerator (7a; 7b; 8) which is stationary relative to the shell or the plunger as the plunger moves.
Loading fork for attachment to an excavator arm, comprising: a mast in the shape of an inverted capital L with a vertical bar and an angled transverse bar; a fork carrier, which is arranged in the region of the free end of the vertical bar and comprises a fork back as well as two parallel fork tines, wherein the fork tines together with the fork back delimit a load receptacle and extend substantially in the same direction as the transverse bar; and a head part, which is arranged in the region of the free end of the transverse bar and can be attached to the excavator arm. a mast in the shape of an inverted capital L with a vertical bar and an angled transverse bar; a fork carrier, which is arranged in the region of the free end of the vertical bar and comprises a fork back as well as two parallel fork tines, wherein the fork tines together with the fork back delimit a load receptacle and extend substantially in the same direction as the transverse bar; and a head part, which is arranged in the region of the free end of the transverse bar and can be attached to the excavator arm.
An applicator of a coating product on a surface to be coated, including at least one row of nozzles (60.1 - 60.i), among which at least the first nozzle (60.1) in the row includes a valve (66.1), the applicator further comprising: - at least one distance sensor (62; 62.1), to measure an application distance of the first nozzle (60.1) from a point (t+Δt) in front of the latter on a path (A2, A4) of the applicator, and - an electronic control unit of the valve (66.1), which is programmed to carry out the following steps: i) collect the distance measured by the distance sensor, ii) based on the distance value collected in step i), open or close the valve (66.1), characterized in that: - each nozzle (60.1-60.i) in the row comprises a valve (66.1-66.i), - the distance sensor is able to measure the application distance of at least certain nozzles in the row at respective points in front of the latter on the path (A2, A4) of the applicator, - the distance sensor (62; 62.1-62.i) is a laser sensor, comprising a cell emitting a laser beam (F1, F2, F3) and a cell receiving a reflected laser beam (F'1, F'2, F'3), and - the distance sensor is able to scan, with its beam, a line perpendicular to the movement direction of the applicator, so as to measure the application distance of at least certain nozzles in the row, at points in front of the latter on the path (A2, A4) of the applicator. - at least one distance sensor (62; 62.1), to measure an application distance of the first nozzle (60.1) from a point (t+Δt) in front of the latter on a path (A2, A4) of the applicator, and - an electronic control unit of the valve (66.1), which is programmed to carry out the following steps: i) collect the distance measured by the distance sensor, ii) based on the distance value collected in step i), open or close the valve (66.1), i) collect the distance measured by the distance sensor, ii) based on the distance value collected in step i), open or close the valve (66.1), - each nozzle (60.1-60.i) in the row comprises a valve (66.1-66.i), - the distance sensor is able to measure the application distance of at least certain nozzles in the row at respective points in front of the latter on the path (A2, A4) of the applicator, - the distance sensor (62; 62.1-62.i) is a laser sensor, comprising a cell emitting a laser beam (F1, F2, F3) and a cell receiving a reflected laser beam (F'1, F'2, F'3), and - the distance sensor is able to scan, with its beam, a line perpendicular to the movement direction of the applicator, so as to measure the application distance of at least certain nozzles in the row, at points in front of the latter on the path (A2, A4) of the applicator.
Shift arrangement for a motor vehicle transmission which has at least one gear ratio stage that can be engaged and disengaged by means of an associated shift clutch, having - a housing, - a spindle which is oriented along a spindle axis, has a spindle thread and is mounted rotatably on the housing, - a nut which has a nut thread which engages with the spindle thread, wherein a shift finger is formed on the nut, - at least one shift rod which is mounted movably on the housing and which is couplable to the shift clutch, - a radial groove which is provided on the housing and into which the shift finger engages in the base axial position of the nut and within which the shift finger is rotatable, and - an axial guide which is provided on housing and which axially adjoins the radial groove and into which the shift finger can engage in order to hold the nut in a circumferential direction, such that said nut is displaced axially in a first axial direction in the event of a rotation of the spindle, wherein the nut is, at least during a portion of the axial displacement, coupled to the shift rod such that, by rotation of the spindle, a shift clutch coupled to the shift rod can be actuated, characterized in that the coupling between the nut and the shift rod is formed in that the nut bears against an end side of the shift rod, such that the nut can transmit axial forces in the first axial direction to the shift rod, which is designed as thrust rod, in order to engage the gear ratio stage assigned to the shift clutch. - a housing, - a spindle which is oriented along a spindle axis, has a spindle thread and is mounted rotatably on the housing, - a nut which has a nut thread which engages with the spindle thread, wherein a shift finger is formed on the nut, - at least one shift rod which is mounted movably on the housing and which is couplable to the shift clutch, - a radial groove which is provided on the housing and into which the shift finger engages in the base axial position of the nut and within which the shift finger is rotatable, and - an axial guide which is provided on housing and which axially adjoins the radial groove and into which the shift finger can engage in order to hold the nut in a circumferential direction, such that said nut is displaced axially in a first axial direction in the event of a rotation of the spindle,