mhurhangee/ep-ind-claims huggingface dataset:
Running gear for a sliding door, comprising a holding rail for mounting on the upper edge of the sliding door, a carriage support which is insertable axially into the holding rail and lockable there, and a carriage which is connected to the carriage support in a vertically adjustable manner, - wherein a threaded bore is provided on the carriage for the height adjustment of the sliding door, in which bore an adjusting screw with a polygonal head having at least two surfaces lying parallel to one another and having an even number of surfaces is rotatably guided, - wherein the adjusting screw is penetrating the carriage support in a bore with play, and - wherein the distance between two opposing surfaces on the polygonal head corresponds substantially to the clear width b of the carriage support, characterised in that carriage support has on one side an elastically flexible section at the end of which a cover plate is arranged with which, when the carriage support is fully inserted in the holding rail, the front face with the front surfaces of the holding rail can be covered. - wherein a threaded bore is provided on the carriage for the height adjustment of the sliding door, in which bore an adjusting screw with a polygonal head having at least two surfaces lying parallel to one another and having an even number of surfaces is rotatably guided, - wherein the adjusting screw is penetrating the carriage support in a bore with play, and - wherein the distance between two opposing surfaces on the polygonal head corresponds substantially to the clear width b of the carriage support,
A locking arrangement for locking at least one extendable furniture part or several extendable furniture parts which are arranged above one another, comprising - a locking bar, - at least one locking element which is coupled to the locking bar, - wherein an extendable furniture part can be locked with one each of the locking elements, characterized in that - an equalizing element (32, 32', 32") being freely moveable along the longitudinal axis of the locking bar is provided, said equalizing piece (32, 32', 32") comprising a housing (36, 36', 36") and at least one distance element (37, 37', 37") being provided as a toothed latching element for positioning of the locking elements, - whereby the distance element (37, 37', 37") can be latched in the housing while being longitudinally adjustable from a side of the housing (36, 36', 36") of the equalizing element (32, 32', 32") protruding in the direction of the longitudinal axis of the locking bar and abuts with an end (52, 52', 52") protruding from the housing (36, 36', 36") on one of the locking elements. - a locking bar, - at least one locking element which is coupled to the locking bar, - wherein an extendable furniture part can be locked with one each of the locking elements, - an equalizing element (32, 32', 32") being freely moveable along the longitudinal axis of the locking bar is provided, said equalizing piece (32, 32', 32") comprising a housing (36, 36', 36") and at least one distance element (37, 37', 37") being provided as a toothed latching element for positioning of the locking elements, - whereby the distance element (37, 37', 37") can be latched in the housing while being longitudinally adjustable from a side of the housing (36, 36', 36") of the equalizing element (32, 32', 32") protruding in the direction of the longitudinal axis of the locking bar and abuts with an end (52, 52', 52") protruding from the housing (36, 36', 36") on one of the locking elements.
Method used in a User Equipment, UE, that supports Device to Device, D2D, communication in Time Division Duplex, TDD, system, comprising: receiving a downlink signaling to obtain a first configured frame structure, or determining a first configured frame structure by itself; and transmitting a first D2D signaling to indicate the first configured frame structure; receiving the D2D signals only in a subframe corresponding to the uplink subframe of the first configured frame structure, wherein the first configured frame structure is one of TDD Uplink/Downlink, UL/DL, frame structure #{0,1,2,3,4,5,6}. receiving a downlink signaling to obtain a first configured frame structure, or determining a first configured frame structure by itself; and transmitting a first D2D signaling to indicate the first configured frame structure; receiving the D2D signals only in a subframe corresponding to the uplink subframe of the first configured frame structure, wherein the first configured frame structure is one of TDD Uplink/Downlink, UL/DL, frame structure #{0,1,2,3,4,5,6}.
An apparatus comprising: means for determining whether a sector supports disjoint links for communication; means for sending a message to a terminal indicating whether disjoint links are supported by the sector; means for receiving from the terminal a selection of at least one of a forward link or a reverse link based on the message indicating whether disjoint links are supported by the sector; means for serving the terminal for only the forward link or only the reverse link, if disjoint links are supported by the sector; and means for serving the terminal for both the forward and reverse links, if disjoint links are not supported by the sector. means for determining whether a sector supports disjoint links for communication; means for sending a message to a terminal indicating whether disjoint links are supported by the sector; means for receiving from the terminal a selection of at least one of a forward link or a reverse link based on the message indicating whether disjoint links are supported by the sector; means for serving the terminal for only the forward link or only the reverse link, if disjoint links are supported by the sector; and means for serving the terminal for both the forward and reverse links, if disjoint links are not supported by the sector.
A method comprising: analysing execution of an application to obtain operational data; modularizing functions of the application based on the operational data to construct modularized functions; and constructing a phase transition graph using a machine-learning based analysis, by an Al-based resource management module, AIBRM, the phase transition graph representing state transitions from one modularized function to another modularized function, wherein the phase transition graph is used to dimension the application by distributing the modularized functions across a network. analysing execution of an application to obtain operational data; modularizing functions of the application based on the operational data to construct modularized functions; and constructing a phase transition graph using a machine-learning based analysis, by an Al-based resource management module, AIBRM, the phase transition graph representing state transitions from one modularized function to another modularized function, wherein the phase transition graph is used to dimension the application by distributing the modularized functions across a network.
A substrate holder for supporting a substrate, the substrate holder comprising: a main body having a surface; a plurality of supporting pins connected to the surface of the main body at proximal ends of the plurality of supporting pins, wherein distal ends of the plurality of supporting pins form a support surface for a substrate; and a plate comprising a plurality of openings, the plate being positioned between the surface of the main body and the support surface, wherein all of the plurality of supporting pins connected to the surface of the main body have a corresponding opening in the plate, characterized in that the plate is actuatable in a direction along the plurality of supporting pins between the surface of the main body and the support surface. a main body having a surface; a plurality of supporting pins connected to the surface of the main body at proximal ends of the plurality of supporting pins, wherein distal ends of the plurality of supporting pins form a support surface for a substrate; and a plate comprising a plurality of openings, the plate being positioned between the surface of the main body and the support surface, wherein all of the plurality of supporting pins connected to the surface of the main body have a corresponding opening in the plate,
A container for holding, on the inside, at least one receptacle (50; 80) containing, in turn, dangerous waste; said container comprising a lower shell, which is closed by an upper lid, which is fixed to it through fixing means; the container is characterized in that it is shaped, in its plan view, as a lobed polygon having a plurality of curvilinear sides,,,,,; each curvilinear side,,,,, comprising at least three respective curved portions (60A, 60B, 60C), wherein the central curved portion has a bend radius, whose centre of curvature is opposite to the centre of curvature of said first lateral curved portion and, respectively, is opposite to the centre of curvature of said second lateral curved portion.
A delivery device for percutaneously delivering a self-expanding prosthesis, the delivery device comprising: a handle having an actuator thereon; an outer sheath including a proximal end operatively coupled to the handle; a pusher shaft slidingly disposed within the outer sheath, the pusher shaft having a proximal end operatively coupled to the handle, wherein a distal end of the pusher shaft includes a spindle which is releasably coupled to an end of the self-expanding prosthesis; and an inner shaft disposed within the pusher shaft, the inner shaft having a distal portion of the inner shaft that is configured to receive a self-expanding prosthesis thereon, wherein the outer sheath and the pusher shaft are configured to simultaneously move in opposing axial directions via actuation of the actuator on the handle, and wherein the inner shaft is coupled to the pusher shaft at the spindle such that the inner shaft and the pusher shaft axially move as an assembly. a handle having an actuator thereon; an outer sheath including a proximal end operatively coupled to the handle; a pusher shaft slidingly disposed within the outer sheath, the pusher shaft having a proximal end operatively coupled to the handle, wherein a distal end of the pusher shaft includes a spindle which is releasably coupled to an end of the self-expanding prosthesis; and an inner shaft disposed within the pusher shaft, the inner shaft having a distal portion of the inner shaft that is configured to receive a self-expanding prosthesis thereon, wherein the outer sheath and the pusher shaft are configured to simultaneously move in opposing axial directions via actuation of the actuator on the handle, and wherein the inner shaft is coupled to the pusher shaft at the spindle such that the inner shaft and the pusher shaft axially move as an assembly.
Axial piston machine of swash plate type, with a first swivel bearing part supported on a housing and a second swivel bearing part mounted thereon so as to be able to swivel about a swivel axis and forming a swash plate, wherein on sides which face one another the swivel bearing parts (13b, 13c) exhibit bearing surfaces (13d, 13e) which are curved in the form of a portion of an arc of a circle and between which there is a gap in which a cage segment with a plurality of roller bodies is mounted so as to also be able to swivel about the swivel axis, wherein the cage segment is guided by an elongated guide element which extends transversely to the gap and projects over the gap, wherein the guide element is in each case connected by a pivot bearing (21, 22) so as to be able to swivel with the cage segment and one of the swivel bearing parts, and wherein the guide element in the region of its pivot bearing connected with the cage segment is connected with the cage segment by a longitudinal guide so as to be displaceable in its longitudinal direction and in the region of its end portion connected with one swivel bearing part is connected with the one swivel bearing part so as to be able to pivot through the associated pivot bearing and so as to be immovable in its longitudinal direction, characterised in that at one of its ends the guide element exhibits a round guide head with which it is mounted so as to be able to swivel in a slide guide which is arranged on another swivel bearing part or parts attached thereto, and the guide element is connected with the swivelling swivel bearing part forming the swash plate so as to be able to pivot and so as to be immovable in its longitudinal direction, and at least two guide elements are arranged so as to be angularly offset in relation to one another in the swivelling direction.
A method performed by a transmitting device for handling communication in a wireless communications network, wherein the transmitting device comprises at least two radio link control, RLC, entities and is configured with a split bearer to a receiving device, the method comprising: - identifying that a last transmitted protocol data unit, PDU, of one of the at least two RLC entities, is lacking a poll indicator requesting a status of one or more transmitted PDUs; when identifying that the last transmitted PDU lacks the poll indicator, - transmitting to the receiving device, a PDU comprising a poll indicator, wherein identifying that the last transmitted PDU is lacking the poll indicator is performed in the event that transmission on one or more of the at least two RLC entities is stopped or switched to another RLC entity while data still awaits in higher layers associated to a first RLC entity. - identifying that a last transmitted protocol data unit, PDU, of one of the at least two RLC entities, is lacking a poll indicator requesting a status of one or more transmitted PDUs; when identifying that the last transmitted PDU lacks the poll indicator, - transmitting to the receiving device, a PDU comprising a poll indicator, wherein identifying that the last transmitted PDU is lacking the poll indicator is performed in the event that transmission on one or more of the at least two RLC entities is stopped or switched to another RLC entity while data still awaits in higher layers associated to a first RLC entity.
A method for adjusting a cutting head height relative to a work piece in a laser processing system, comprising the steps of: positioning a capacitance sensor (13, 15) in said cutting head relative to said work piece; said capacitor sensor (13, 15) including a nozzle and an isolated sensor block, wherein nozzle and isolated sensor block of cutting head form a capacitor and have a capacitance that is affected by the distance to the work piece being cut, applying at least a first signal having a first frequency to said sensor (13, 15); monitoring continuously a phase change of said first signal as a capacitance change in said sensor (13, 15) by evaluating said first signal during a use; and comparing said phase change to a measured height reference range, thereby determining said cutting head height relative to said work piece.
A method for accessing a wireless communication network by a user equipment, UE, the method comprising: a) transmitting by the UE an access request comprising a first random identifier (RAND ID) to a base station; b) receiving by the UE a response to the access request from the base station, characterized in that the response to the access request comprises the first RAND ID and signaling information indicating scheduling request resource allocation, and the method further comprising: c) transmitting by the UE a scheduling request according to the signaling information upon receiving the response, wherein the scheduling request comprises a second RAND ID, using at least one allocated resource, to the base station, d) determining whether a confirmation message is received within a predetermined period of time in response to the scheduling request message, wherein the confirmation message comprising the second RAND ID and confirming successful access to the wireless communication network; and e) automatically repeating the operations (a)-(c) according to the signaling information upon receiving the response if it is determined that the confirmation message has not been received within the predetermined period of time. a) transmitting by the UE an access request comprising a first random identifier (RAND ID) to a base station; b) receiving by the UE a response to the access request from the base station, c) transmitting by the UE a scheduling request according to the signaling information upon receiving the response, d) determining whether a confirmation message is received within a predetermined period of time in response to the scheduling request message, e) automatically repeating the operations (a)-(c) according to the signaling information upon receiving the response if it is determined that the confirmation message has not been received within the predetermined period of time.
A flight obstacle illuminator comprising: - a light source comprising a first light emitting diode and a second light emitting diode, and - optics comprising at least one lens (21, 22) positioned on the light path of the first or second LED (11, 12), wherein the first LED of the light source and the at least one lens (21, 22) of the optics form a first combination of components (11, 20), the components of which are configured to cooperate so as to output a first output light pattern having a width in a vertical plane wherein the vertical plane extends radially from the vertical center line of the illuminator when in an installed configuration, characterized in that: - the first LED is a larger LED chip and the second LED is a smaller LED chip or the first LED comprises a dome and the second LED is domeless, wherein the first LED has a first optical size and the second LED has a second optical size, which is smaller than the first optical size, - the second LED and said at least one lens (21, 22) of the optics or another such lens (21, 22) of the optics form a second combination of components (12, 20), which second combination is different to the first combination, - the components of the second combination are configured to cooperate such to output a second output light pattern having a width in said plane, which width of the second output light pattern is narrower than that of the first output light pattern, and in that - the total output light pattern (A+B) of the flight obstacle illuminator is a sum of the output light patterns (A, B) produced by the combinations of components (11, 12, 21, 22), whereby the flight obstacle illuminator is configured to produce a total output light pattern (A+B) formed by at least two light beams of different beam spread in the vertical dimension. - a light source comprising a first light emitting diode and a second light emitting diode, and - optics comprising at least one lens (21, 22) positioned on the light path of the first or second LED (11, 12), - the first LED is a larger LED chip and the second LED is a smaller LED chip or the first LED comprises a dome and the second LED is domeless, wherein the first LED has a first optical size and the second LED has a second optical size, which is smaller than the first optical size, - the second LED and said at least one lens (21, 22) of the optics or another such lens (21, 22) of the optics form a second combination of components (12, 20), which second combination is different to the first combination, - the components of the second combination are configured to cooperate such to output a second output light pattern having a width in said plane, which width of the second output light pattern is narrower than that of the first output light pattern, and in that - the total output light pattern (A+B) of the flight obstacle illuminator is a sum of the output light patterns (A, B) produced by the combinations of components (11, 12, 21, 22), whereby the flight obstacle illuminator is configured to produce a total output light pattern (A+B) formed by at least two light beams of different beam spread in the vertical dimension.
In a scalable video system, a method for up-sampling image data from a first layer to a second layer, the method comprising: determining with a processor scaling and rounding parameters in response to bit-depth requirements of the scalable video system, wherein the bit depth requirements of the scalable video system comprise an intermediate values bit depth, an internal input bit depth, and a filtering coefficients precision bit depth; generating first up-sampled data by filtering the image data from the first layer, wherein the filtering of the image data is performed across a first spatial direction using a first rounding parameter; generating first intermediate data by scaling the first up-sampled data with a first shift parameter; generating second up-sampled data by filtering the first intermediate data, wherein the filtering of the first intermediate data is performed across a second spatial direction using a second rounding parameter; generating second intermediate data by scaling the second up-sampled data with a second shift parameter; and generating output up-sampled data for the second layer by clipping the second intermediate data, wherein the first shift parameter is determined by adding the bit depth values of the internal input bit depth with the filtering coefficients precision bit depth and subtracting from their sum the intermediate values bit depth, and wherein determining the second shift parameter comprises subtracting the first shift parameter from twice the filtering coefficients precision bit depth. determining with a processor scaling and rounding parameters in response to bit-depth requirements of the scalable video system, wherein the bit depth requirements of the scalable video system comprise an intermediate values bit depth, an internal input bit depth, and a filtering coefficients precision bit depth; generating first up-sampled data by filtering the image data from the first layer, wherein the filtering of the image data is performed across a first spatial direction using a first rounding parameter; generating first intermediate data by scaling the first up-sampled data with a first shift parameter; generating second up-sampled data by filtering the first intermediate data, wherein the filtering of the first intermediate data is performed across a second spatial direction using a second rounding parameter; generating second intermediate data by scaling the second up-sampled data with a second shift parameter; and generating output up-sampled data for the second layer by clipping the second intermediate data, wherein the first shift parameter is determined by adding the bit depth values of the internal input bit depth with the filtering coefficients precision bit depth and subtracting from their sum the intermediate values bit depth, and wherein determining the second shift parameter comprises subtracting the first shift parameter from twice the filtering coefficients precision bit depth.
Arrangement having at least one spring element, which element comprises at least one spring tongue for springloading a separately formed arresting part of a steering column of a motor vehicle and at least one securing part for securing the spring element on a bolt of the steering column, wherein the spring element comprises additionally at least one entrainer arm, preferably at least two mutually opposingly disposed entrainer arms, for entraining the arresting part during a movement of the spring element, wherein the arrangement comprises at least one arresting part and at least one bolt and the arresting part comprises at least one stop region for the abutment of the entrainer arm or the entrainer arms on the stop region, characterised in that a rotational movement of the bolt in a first direction is transmittable exclusively by means of the spring tongue to the arresting part and a rotational movement of the bolt in a second direction opposite to the first direction is transmittable exclusively by means of the entrainer arm or the entrainer arms to the arresting part.