mhurhangee/ep-ind-claims huggingface dataset:
A method for beam forming using a dual polarized antenna array, comprising the steps of: alternatingly transmitting a first set of reference signals for acquiring channel state information using a dual polarized antenna array in a first polarization direction and in a second polarization direction, respectively; receiving quantized channel information based on the first set of reference signals from a radio transceiver device, wherein receiving the quantized channel information comprises receiving two precoding matrix indicator, PMI, reports as transmitted by the radio transceiver device, each corresponding to at least one transmission of one reference signal in one polarization direction; determining angular information relating to the radio transceiver device based on the quantized channel information, wherein determining the angular information comprises combining (S106a) the two PMI reports in order to determine an angle of departure, AOD, to the radio transceiver device, the AOD being a dominating propagation path to the radio transceiver device; and determining transmission beams for transmission to the radio transceiver device, the transmission comprising precoder vectors and having relative orthogonal polarizations for beam forming according to the angular information. alternatingly transmitting a first set of reference signals for acquiring channel state information using a dual polarized antenna array in a first polarization direction and in a second polarization direction, respectively; receiving quantized channel information based on the first set of reference signals from a radio transceiver device, wherein receiving the quantized channel information comprises receiving two precoding matrix indicator, PMI, reports as transmitted by the radio transceiver device, each corresponding to at least one transmission of one reference signal in one polarization direction; determining angular information relating to the radio transceiver device based on the quantized channel information, wherein determining the angular information comprises combining (S106a) the two PMI reports in order to determine an angle of departure, AOD, to the radio transceiver device, the AOD being a dominating propagation path to the radio transceiver device; and determining transmission beams for transmission to the radio transceiver device, the transmission comprising precoder vectors and having relative orthogonal polarizations for beam forming according to the angular information.
A method for printing a label using a variable speed printer comprising the steps of: optimizing a printing speed of the variable speed printer through a proportional-integral-derivative controller for a new print job to minimize deceleration and acceleration of a variable speed printing motor in the variable speed printer based on a print duration and print processing duration history of one or more previously completed print jobs, the print duration being a length of time extending from an actuation of a print job to a completion of the print job, and the print processing duration being a length of time extending from an input of the subsequent print job into the queue to an output of the subsequent print job to the variable speed printer; and automatically adjusting the printing speed based on the optimized printing speed. optimizing a printing speed of the variable speed printer through a proportional-integral-derivative controller for a new print job to minimize deceleration and acceleration of a variable speed printing motor in the variable speed printer based on a print duration and print processing duration history of one or more previously completed print jobs, the print duration being a length of time extending from an actuation of a print job to a completion of the print job, and the print processing duration being a length of time extending from an input of the subsequent print job into the queue to an output of the subsequent print job to the variable speed printer; and automatically adjusting the printing speed based on the optimized printing speed.
A child safety seat assembly comprising: a base, two connector arms (221, 222) assembled with the base, the connector arms (221, 222) being provided with locking fasteners operable to engage with an anchorage bracket in a vehicle to lock the base in place, wherein the connector arms (221, 222) arc movable relative to the base to adjust a length of extension of the connector arms (221, 222) outside the base; and two latches (10, 20) assembled with the base and operable to respectively lock the two connector arms (221, 222) in position with the base, the child safety seat assembly being characterized in that: two release actuators (31, 32) are disposed in a region of the base between the connector arms (221, 222) and are respectively connected with the two latches (10, 20) to drive unlocking displacements of the two latches (10, 20), the two release actuators (31, 32) being movable transversally relative to the base to drive displacements of the latches (10, 20) in opposite directions. a base, two connector arms (221, 222) assembled with the base, the connector arms (221, 222) being provided with locking fasteners operable to engage with an anchorage bracket in a vehicle to lock the base in place, wherein the connector arms (221, 222) arc movable relative to the base to adjust a length of extension of the connector arms (221, 222) outside the base; and two latches (10, 20) assembled with the base and operable to respectively lock the two connector arms (221, 222) in position with the base, the child safety seat assembly being characterized in that: two release actuators (31, 32) are disposed in a region of the base between the connector arms (221, 222) and are respectively connected with the two latches (10, 20) to drive unlocking displacements of the two latches (10, 20), the two release actuators (31, 32) being movable transversally relative to the base to drive displacements of the latches (10, 20) in opposite directions. two release actuators (31, 32) are disposed in a region of the base between the connector arms (221, 222) and are respectively connected with the two latches (10, 20) to drive unlocking displacements of the two latches (10, 20), the two release actuators (31, 32) being movable transversally relative to the base to drive displacements of the latches (10, 20) in opposite directions.
A harvester, comprising: a vessel for securing a crop therein; and a crop delivery system with a first tube having a first angled orientation, a first end and an opposed second end, the first tube being configured to receive the crop from the vessel at the first end, and a continuous belt having a receiving region in close proximity to the first end of the first tube; a portion of the belt operable to carry the crop from the receiving region is structurally supported by and substantially covered by the first tube, characterized in that a portion of the belt operable to return to the receiving region after delivering the crop passes beneath the first tube. a vessel for securing a crop therein; and a crop delivery system with a first tube having a first angled orientation, a first end and an opposed second end, the first tube being configured to receive the crop from the vessel at the first end, and a continuous belt having a receiving region in close proximity to the first end of the first tube; a portion of the belt operable to carry the crop from the receiving region is structurally supported by and substantially covered by the first tube, characterized in that a portion of the belt operable to return to the receiving region after delivering the crop passes beneath the first tube.
Recuperator, adapted to transfer thermal energy between two fluids, conducted through two series of channels (3a, 3b) thermally coupled, keeping the fluids separated, comprising a number of plates stacked onto each other and extending with their main plane mutually parallel, - wherein at least some of the number of plates are each provided over at least a substantial part of their surface with profiles comprising side walls (5, 6) extending in a mutually parallel direction and along a component transversely of a main plane of the plate, and channels (3a, 3b) extending mutually parallel are present between the side walls (5, 6), - wherein each plate encloses on one side channels of the first type and encloses on another side channels of the second type, - wherein adjoining plates stacked onto each other are mutually connected at their edges extending parallel to the channels (3a, 3b); - wherein the channels (3a, 3b) present on either side of a plate extend parallel; and - wherein each plate is provided with profiles comprising side walls and end walls (4, 5, 6, 7), and each plate is manufactured by injection moulding, characterized in that each of the side walls (5, 6) of each plate encloses on one of its sides channels of the first type and encloses on its other side channels of the second type. - wherein at least some of the number of plates are each provided over at least a substantial part of their surface with profiles comprising side walls (5, 6) extending in a mutually parallel direction and along a component transversely of a main plane of the plate, and channels (3a, 3b) extending mutually parallel are present between the side walls (5, 6), - wherein each plate encloses on one side channels of the first type and encloses on another side channels of the second type, - wherein adjoining plates stacked onto each other are mutually connected at their edges extending parallel to the channels (3a, 3b); - wherein the channels (3a, 3b) present on either side of a plate extend parallel; and - wherein each plate is provided with profiles comprising side walls and end walls (4, 5, 6, 7), and each plate is manufactured by injection moulding,
A method of presenting a route for an aircraft on a waypoint list graphical user interface display onboard the aircraft, the method comprising: providing, on a display device, the waypoint list graphical user interface display comprising a waypoint list region and a detail region adjacent to the waypoint list region, wherein the detail region comprises information associated with a currently selected waypoint of the route identified within an entry in the waypoint list region; wherein the route comprises a plurality of route segments each comprising a logical grouping of waypoints, wherein the waypoint list region comprises route segment indicators functioning as headers for the respective logical grouping of waypoints, each route segment indicator identifying waypoints belonging to the logical grouping of the respective route segment, and a waypoint group indicator extends from each route segment indicator to identify the waypoints belonging to the logical grouping; and dynamically updating the detail region to reflect a second waypoint of the route in response to adjusting the currently selected waypoint within the route from a first waypoint of the route to the second waypoint of the route, wherein the entry in the waypoint list region corresponding to the currently selected waypoint is maintained in a fixed position on the display device while the currently selected waypoint is adjusted from the first waypoint to the second waypoint. providing, on a display device, the waypoint list graphical user interface display comprising a waypoint list region and a detail region adjacent to the waypoint list region, wherein the detail region comprises information associated with a currently selected waypoint of the route identified within an entry in the waypoint list region; wherein the route comprises a plurality of route segments each comprising a logical grouping of waypoints, wherein the waypoint list region comprises route segment indicators functioning as headers for the respective logical grouping of waypoints, each route segment indicator identifying waypoints belonging to the logical grouping of the respective route segment, and a waypoint group indicator extends from each route segment indicator to identify the waypoints belonging to the logical grouping; and dynamically updating the detail region to reflect a second waypoint of the route in response to adjusting the currently selected waypoint within the route from a first waypoint of the route to the second waypoint of the route, wherein the entry in the waypoint list region corresponding to the currently selected waypoint is maintained in a fixed position on the display device while the currently selected waypoint is adjusted from the first waypoint to the second waypoint.
A railway vehicle body structure, the body structure comprising a chassis (5, 6), at least one panel, and a plurality of bolts (15A, 15B) fastening the panel on the chassis (5, 6), each bolt (15A, 15B) of the plurality including a shank (46A, 46B) and keeping a surface of the panel facing a surface of the chassis (5, 6) along an axis of the shank (46A, 46B), wherein: - the body structure further comprises friction sheets (20A, 20B), - for each of the bolts (15A, 15B) of said plurality, at least one of the friction sheets (20A, 20B) is compressed by the bolt (15A, 15B) between the surface of the panel and the surface of the chassis (5, 6), and - the surface of the panel having a sliding resistance relative to the surface of the chassis (5, 6) along a longitudinal direction perpendicular to the axis, said friction sheet (20A, 20B) is suitable, with constant tightening of the bolt (15A, 15B), for increasing the sliding resistance, characterized in that, for each of the bolts (15A, 15B) of said plurality: - the chassis (5, 6) includes, at least locally, a transverse slot (24A, 24B) intended to allow transverse positioning of the panel relative to the chassis (5, 6), the chassis (5, 6) having two lips (28A, 28B) situated on either side of the slot (24A, 24B), each of the lips (28A, 28B) defining a part of said surface of the chassis (5, 6), and - the friction sheet (20A, 20B) includes a first part and a second part respectively sandwiched between the two lips (28A, 28B) and the surface of the panel. - the body structure further comprises friction sheets (20A, 20B), - for each of the bolts (15A, 15B) of said plurality, at least one of the friction sheets (20A, 20B) is compressed by the bolt (15A, 15B) between the surface of the panel and the surface of the chassis (5, 6), and - the surface of the panel having a sliding resistance relative to the surface of the chassis (5, 6) along a longitudinal direction perpendicular to the axis, said friction sheet (20A, 20B) is suitable, with constant tightening of the bolt (15A, 15B), for increasing the sliding resistance, - the chassis (5, 6) includes, at least locally, a transverse slot (24A, 24B) intended to allow transverse positioning of the panel relative to the chassis (5, 6), the chassis (5, 6) having two lips (28A, 28B) situated on either side of the slot (24A, 24B), each of the lips (28A, 28B) defining a part of said surface of the chassis (5, 6), and - the friction sheet (20A, 20B) includes a first part and a second part respectively sandwiched between the two lips (28A, 28B) and the surface of the panel.
Electrical circuit for detection of an electrical hazard condition in a load of an LED or OLED lighting element, comprising - terminals (22a, 22b) for connecting said load in parallel between which the electrical hazard condition is to be detected, - at least one electrical energy storage element connected to one of the terminals and configured to receive and store electrical energy provided by a power supply circuit, - a disabling element configured to disable said load, and - a monitoring circuit (26, 28a, 28b) configured to be supplied with electrical energy stored in said electrical energy storage element and connected to monitor a voltage or current magnitude of the load at at least one of said terminals (22a, 22b) to detect the electrical hazard condition, and - wherein said monitoring circuit (26, 28a, 28b) is configured to activate said disabling element when the electrical hazard condition is detected, characterized in that said disabling element is connected to at least one of said terminals (22a, 22b), and said monitoring circuit (26, 28a, 28b) comprises a maximum value detector adapted to output over a given time interval a value (Vmax), the value (Vmax) being a maximum value of said voltage or said current magnitude, or a minimum value detector adapted to output over the given time interval a value (Vmax), the value (Vmax) being a minimum value of said voltage or said current magnitude, wherein said monitoring circuit (26, 28a, 28b) is further configured to monitor whether the value (Vmax) is outside a normal operation window defined by upper and lower threshold values to detect the electrical hazard condition; and wherein the given time interval is longer than expected gaps in the gapped power supply provided by the power supply circuit. - terminals (22a, 22b) for connecting said load in parallel between which the electrical hazard condition is to be detected, - at least one electrical energy storage element connected to one of the terminals and configured to receive and store electrical energy provided by a power supply circuit, - a disabling element configured to disable said load, and - a monitoring circuit (26, 28a, 28b) configured to be supplied with electrical energy stored in said electrical energy storage element and connected to monitor a voltage or current magnitude of the load at at least one of said terminals (22a, 22b) to detect the electrical hazard condition, and - wherein said monitoring circuit (26, 28a, 28b) is configured to activate said disabling element when the electrical hazard condition is detected,
Monitoring module (1..1") for monitoring a process with an electric arc, with the electric arc being led with a torch, comprising: - a camera, - a light source, - a control system which controls the light source in such a way that it illuminates when the camera records the image and - a common housing where at least the mentioned components (2, 3, 4) are arranged in, characterized in that - the housing comprises a compressed air connection and an air outlet or a deflection device arranged at the housing that is provided for the orientation of the discharging air beam perpendicular to the optical axis of the camera (2, and - an air flow caused by the compressed air is led via the light source and/or the control system and/or a charging connection for the light source. - a camera, - a light source, - a control system which controls the light source in such a way that it illuminates when the camera records the image and - a common housing where at least the mentioned components (2, 3, 4) are arranged in, characterized in that - the housing comprises a compressed air connection and an air outlet or a deflection device arranged at the housing that is provided for the orientation of the discharging air beam perpendicular to the optical axis of the camera (2, and - an air flow caused by the compressed air is led via the light source and/or the control system and/or a charging connection for the light source.
A solid mixed oxide material suitable for use in catalysing a methane dry reforming reaction, wherein the solid mixed oxide material comprises a first crystalline phase, the first crystalline phase being attributable to a pyrochlore crystal structure, and wherein the solid mixed oxide material comprises 3.5-25.0 % of nickel by weight relative to the total weight of the solid mixed oxide material, and wherein the first crystalline phase has a composition according to general formula shown below A 2 B 2 O 7 in which A is at least one trivalent cation of an element selected from the group consisting of La, Ce, Pr, Nd, Sm, Sc, Y and Eu; and B is a mixture of i. at least one tetravalent or trivalent cation of an element selected from the group consisting of Zr, Ti, Cr, Mn and Mo, and ii. a divalent cation of Ni. A is at least one trivalent cation of an element selected from the group consisting of La, Ce, Pr, Nd, Sm, Sc, Y and Eu; and B is a mixture of i. at least one tetravalent or trivalent cation of an element selected from the group consisting of Zr, Ti, Cr, Mn and Mo, and ii. a divalent cation of Ni. i. at least one tetravalent or trivalent cation of an element selected from the group consisting of Zr, Ti, Cr, Mn and Mo, and ii. a divalent cation of Ni.
Hobbing machine, comprising: - a workpiece spindle for rotating a workpiece about an axis of rotation, - a hobbing head for hobbing the workpiece, and - a chamfering device for chamfering the workpiece, wherein a pivot arm is formed on the hobbing machine, the pivot arm being movable on a pivot arm carriage along a direction of movement (z) parallel with respect to the axis of rotation of the workpiece spindle and being pivotable on the pivot arm carriage about an axis which extends parallel with respect to the direction of movement (z), and wherein the chamfering device is arranged on the pivot arm; characterized in that two cutting tools (15a, 15b) are arranged on the pivot arm for peeling primary and/or secondary burrs off the workpiece, the distance between which can be adjusted parallel with respect to the direction of movement (z). - a workpiece spindle for rotating a workpiece about an axis of rotation, - a hobbing head for hobbing the workpiece, and - a chamfering device for chamfering the workpiece,
An injection device configured to atomise a liquid into droplets by means of a gas, comprising a hollow tubular body extending in a longitudinal direction and of which an internal wall defines a first so-called contact zone and a second zone located downstream of the first zone with respect to a direction of circulation of the liquid and the gas inside the body, the latter having: - at least a first (16, 17) and a second inlet, opening into said first zone, in order to inject a liquid and an atomising gas, respectively, into the first zone, - at least one outlet located downstream of the first and second zones for removing the atomised liquid from the body, characterised in that the internal wall of the body is provided, between the first and the second zone, with at least one baffle (20 i, 20' i, 20" i, 120 i, 220 i, 220' i, 320 i, 420 i, 520 i) interfering with the path of a moving fluid, shaped so that, in each plane perpendicular to the longitudinal direction of the body containing said baffle, the latter extends over only a part of the periphery of the internal wall so that the pressure drop is less than the pressure drop in the case where a baffle extends over the entire periphery of the internal wall and in that the baffle or baffles (20 i, 20' i, 20" i, 120 i, 220 i, 220' i, 320 i, 420 i, 520 i) have a height, measured perpendicular to the longitudinal direction of the body, that is non-zero and equal to at least 1/10 and at most 1/4 of the maximum internal dimension of the body perpendicular to the longitudinal direction of the body and a dimension, measured in the longitudinal direction of the body, of 10 to 35 mm or at least equal to a maximum internal dimension of the body measured perpendicular to the longitudinal direction. - at least a first (16, 17) and a second inlet, opening into said first zone, in order to inject a liquid and an atomising gas, respectively, into the first zone, - at least one outlet located downstream of the first and second zones for removing the atomised liquid from the body,