mhurhangee/ep-ind-claims huggingface dataset:
A long term evolution, LTE, relay node, configured to: receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the LTE relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; receive a second MAC PDU from an LTE user equipment, UE, the LTE relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU; wherein the first and second HARQ entities (302, 304) are configured to handle decoding and encoding of error detection and correction bits on the LTE relay node; wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB; and wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions. receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the LTE relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; receive a second MAC PDU from an LTE user equipment, UE, the LTE relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU; wherein the first and second HARQ entities (302, 304) are configured to handle decoding and encoding of error detection and correction bits on the LTE relay node; wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB; and wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions.
A system (1,21) for assisting a user in configuring a lighting system (10,20), said lighting system (10,20) comprising a lighting device and a switch (34,35) for providing power to said lighting device, said system (1,21) comprising: at least one input interface (3,23); at least one output interface (9,24); and at least one processor (5,25) configured to: - use said at least one input interface (3,23) to receive at least one signal, - determine from said at least one signal that said lighting device has recently been power switched, - determine whether a user-defined power-switch light setting has been set for said lighting device, said power-switch light setting being a light setting that is activated when said lighting device switches from an unpowered state to a powered state, and - use said at least one output interface (9,24) to provide a notification to a user in dependence on said lighting device having recently been power switched and no user-defined power-switch light setting having been set for said lighting device, said notification recommending said user to set said user-defined power-switch light setting for said lighting device. at least one input interface (3,23); at least one output interface (9,24); and at least one processor (5,25) configured to: - use said at least one input interface (3,23) to receive at least one signal, - determine from said at least one signal that said lighting device has recently been power switched, - determine whether a user-defined power-switch light setting has been set for said lighting device, said power-switch light setting being a light setting that is activated when said lighting device switches from an unpowered state to a powered state, and - use said at least one output interface (9,24) to provide a notification to a user in dependence on said lighting device having recently been power switched and no user-defined power-switch light setting having been set for said lighting device, said notification recommending said user to set said user-defined power-switch light setting for said lighting device. - use said at least one input interface (3,23) to receive at least one signal, - determine from said at least one signal that said lighting device has recently been power switched, - determine whether a user-defined power-switch light setting has been set for said lighting device, said power-switch light setting being a light setting that is activated when said lighting device switches from an unpowered state to a powered state, and - use said at least one output interface (9,24) to provide a notification to a user in dependence on said lighting device having recently been power switched and no user-defined power-switch light setting having been set for said lighting device, said notification recommending said user to set said user-defined power-switch light setting for said lighting device.
Communication system with at least one housing, which comprises a first housing part and a further housing part, wherein a circuit board with electronic components is arranged in the housing and at least one antenna element is arranged outside the housing, wherein an antenna support which can be connected to the housing is provided, wherein the at least one antenna element is arranged on the surface and optionally within the antenna support, and wherein the antenna support comprises at least one dome, preferably two spaced-apart domes.
A method for acquiring a virtual keyboard, implemented by a full-touch screen terminal, comprising: receiving (S101, S201, S301) layout of a universal virtual keyboard, and a mapping relationship between terminals and universal virtual keyboard key value mapping tables from a server; acquiring a universal virtual keyboard key value mapping table of the terminal according to an identifier of the terminal and the mapping relationship between terminals and universal virtual keyboard key value mapping tables received from the server, wherein, the universal virtual keyboard key value mapping table carries an input method that corresponds to the universal virtual keyboard key value mapping table, and/or picture information corresponding to each of the key values in the universal virtual keyboard key value mapping table; and generating (S103, S209, S303) a universal virtual keyboard which is displayed on the terminal according to the layout of the universal virtual keyboard and the universal virtual keyboard key value mapping table of the terminal so that virtual keyboards of different terminals have a uniform user interface display. receiving (S101, S201, S301) layout of a universal virtual keyboard, and a mapping relationship between terminals and universal virtual keyboard key value mapping tables from a server; acquiring a universal virtual keyboard key value mapping table of the terminal according to an identifier of the terminal and the mapping relationship between terminals and universal virtual keyboard key value mapping tables received from the server, wherein, the universal virtual keyboard key value mapping table carries an input method that corresponds to the universal virtual keyboard key value mapping table, and/or picture information corresponding to each of the key values in the universal virtual keyboard key value mapping table; and generating (S103, S209, S303) a universal virtual keyboard which is displayed on the terminal according to the layout of the universal virtual keyboard and the universal virtual keyboard key value mapping table of the terminal so that virtual keyboards of different terminals have a uniform user interface display.
Exchanger arrangement (1; 2; 3), in particular for a passenger cabin of a vehicle, of an aircraft, of a ship, of a cable car or of a lift, in particular with electric drive or with hybrid drive or with sail propulsion, heat transfer and/or selective mass transfer between a first fluid and a second fluid that are able to flow through the arrangement, wherein the exchanger arrangement has, at least in sub-regions, the shape of a cylinder or of a segment thereof or the shape of a prism with a polygonal base or of a segment thereof and is constructed from a multiplicity (n) of local exchanger elements (E 1, E 2,..., E n) which adjoin one another and which, at least in sub-regions of the exchanger arrangement in which the arrangement has the shape of a cylinder or of a segment thereof or the shape of a prism with a polygonal base or of a segment thereof, are of wedge-shaped form and are each delimited spatially by a first wedge surface and a second wedge surface spaced apart therefrom and inclined in relation thereto, by a first side surface and a second side surface spaced apart therefrom, and by a first end surface and a second end surface spaced apart therefrom, which second end surface is bigger than the first end surface, wherein the local exchanger elements (E 1, E 2,..., E n) adjoining one another are wedge-shaped volume elements, characterized in that a first fluid entry region and a second fluid exit region are arranged on the first end surface, and a second fluid entry region and a first fluid exit region are arranged on the second end surface, or in that a first fluid entry region and a second fluid exit region are arranged on the first side surface, and a second fluid entry region and a first fluid exit region are arranged on the second side surface. a first fluid entry region and a second fluid exit region are arranged on the first end surface, and a second fluid entry region and a first fluid exit region are arranged on the second end surface, or in that a first fluid entry region and a second fluid exit region are arranged on the first side surface, and a second fluid entry region and a first fluid exit region are arranged on the second side surface.
A method for human identification that avoids allelic dropout comprising: a. hybridizing a first primer to a locus comprising a first primer binding site in a target nucleic acid sequence from a human nucleic acid sample to be analyzed; b. hybridizing a second primer and a third primer to a second primer binding site in said locus wherein said second primer hybridizes to a single nucleotide polymorphism nucleobase in said second primer binding site, wherein the 3' terminus of the second primer comprises the predominant allele and the third primer comprises the variant allele at the 3' terminus, wherein the locus is vWA; and c. amplifying the target nucleic acid sequence with said primers, wherein the amplifying yields at least a first amplified sequence comprising at least one SNP as described in SEQ ID NO:3 and Table 1. a. hybridizing a first primer to a locus comprising a first primer binding site in a target nucleic acid sequence from a human nucleic acid sample to be analyzed; b. hybridizing a second primer and a third primer to a second primer binding site in said locus wherein said second primer hybridizes to a single nucleotide polymorphism nucleobase in said second primer binding site, wherein the 3' terminus of the second primer comprises the predominant allele and the third primer comprises the variant allele at the 3' terminus, wherein the locus is vWA; and c. amplifying the target nucleic acid sequence with said primers, wherein the amplifying yields at least a first amplified sequence comprising at least one SNP as described in SEQ ID NO:3 and Table 1.
A method for positioning a heated glass sheet with respect to a forming mold, comprising: conveying a heated glass sheet horizontally on a roll conveyor at a decelerating conveyor speed in a direction of conveyance along a path toward a vertically aligned position above a forming mold; moving a pair of positioners along the direction of conveyance at laterally spaced locations in the path of the conveyed glass sheet and at a decelerating speed that decelerates at the same rate as the deceleration of the conveyor speed and that is slower than the decelerating conveyor speed so the conveyed glass sheet contacts the positioners for a sufficient time in order to rotate the glass sheet on the roll conveyor to correct any rotation from a design rotational position with respect to the forming mold; continuing to decelerate the speed of the conveyor and accelerating the speed of the positioners until the speed of the conveyor and the speed of the positioners are the same as each other and then continuing to increase the speed of the positioners with respect to the speed of the conveyor so the positioners move out of contact with the conveyed glass sheet in order to permit the glass sheet to move into vertical alignment with the forming mold for forming; and wherein after the speed of the conveyor and the speed of the positioners are the same as each other, the speed of the conveyor continues to decelerate and the speed of the positioners continues to accelerate but at a greater acceleration than before the positioners move out of contact with the glass sheet. conveying a heated glass sheet horizontally on a roll conveyor at a decelerating conveyor speed in a direction of conveyance along a path toward a vertically aligned position above a forming mold; moving a pair of positioners along the direction of conveyance at laterally spaced locations in the path of the conveyed glass sheet and at a decelerating speed that decelerates at the same rate as the deceleration of the conveyor speed and that is slower than the decelerating conveyor speed so the conveyed glass sheet contacts the positioners for a sufficient time in order to rotate the glass sheet on the roll conveyor to correct any rotation from a design rotational position with respect to the forming mold; continuing to decelerate the speed of the conveyor and accelerating the speed of the positioners until the speed of the conveyor and the speed of the positioners are the same as each other and then continuing to increase the speed of the positioners with respect to the speed of the conveyor so the positioners move out of contact with the conveyed glass sheet in order to permit the glass sheet to move into vertical alignment with the forming mold for forming; and wherein after the speed of the conveyor and the speed of the positioners are the same as each other, the speed of the conveyor continues to decelerate and the speed of the positioners continues to accelerate but at a greater acceleration than before the positioners move out of contact with the glass sheet.
A pesticide composition comprising at least one pesticidal active ingredient and at least one methylendioxyphenyl derivative compound of Formula wherein R 1 is n- butyl or n-hexyl, wherein the at least one pesticide active principle is selected from the group consisting of: - a pyrethroid compound; - a juvenile hormone-like substance; - a neonicotinoid compound; - a carbamate compound; and - indoxacarb. - a pyrethroid compound; - a juvenile hormone-like substance; - a neonicotinoid compound; - a carbamate compound; and - indoxacarb.
A metal computing device case including one or more metal side faces (104, 106) bounding at least a portion of a metal back face, the metal computing device case comprising: a radiating structure including an exterior metal surface of the metal computing device case, the metal computing device case substantially enclosing electronics of a computing device; wherein the exterior metal surface is a metal plate insulated from the rest of the metal computing device case; and characterized in that the radiating structure further comprises a ceramic block (314, 414, 514), within the interior of the metal computing device case, and spaced from the metal plate by a dielectric spacer, the metal plate being capacitively coupled with the ceramic block; wherein the ceramic block acts as a dielectric resonant antenna to feed or excite the metal plate and wherein the metal plate is connected to a ground plane of the metal computing device case by any of: a series resonant circuit, a parallel resonant circuit, a series inductor circuit, a switched inductor circuit.
A composite structural element (12, 14) comprising a substantially planar main section defining a coordinate system with a first axis (a) extending along the longitudinal axis of the structural element (12, 14) and a second axis (b) extending perpendicular to said longitudinal axis within the planar main section and defining an angle of +90° with the first axis (a), wherein the structural element (12, 14) contains a lay-up of single plies (30, 34, 36) each consisting of a fiber-reinforced composite material with a substantially unidirectional fiber orientation, wherein the lay-up comprises N plies arranged from top to bottom in the following form, N being an positive integer number equal to or greater than 5: [[α, β] M; [γ] K; [β, α] M], wherein: - α, β and γ represent one ply (30, 34, 36) having an angle enclosed between the first axis (a) and the unidirectional fiber orientation of the one ply, respectively, - [x] y means y plies each having angle x; - [x, y] z means z pairs of plies, each pair of plies having angles x, y, respectively; - α = -20°, β = 40°, γ = -75° or α = 20°, β = -40°, γ = 75°, wherein each angle has a tolerance of -5° to +5°; and - K is a positive integer number equal to or greater than 1 and M is a positive integer number equal to or greater than 1 as follows: --N = 4 ⋅ M + K. - α, β and γ represent one ply (30, 34, 36) having an angle enclosed between the first axis (a) and the unidirectional fiber orientation of the one ply, respectively, - [x] y means y plies each having angle x; - [x, y] z means z pairs of plies, each pair of plies having angles x, y, respectively; - α = -20°, β = 40°, γ = -75° or α = 20°, β = -40°, γ = 75°, wherein each angle has a tolerance of -5° to +5°; and - K is a positive integer number equal to or greater than 1 and M is a positive integer number equal to or greater than 1 as follows: --N = 4 ⋅ M + K.
Connection retainer for connecting a shielding of at least one shielded cable to a carrier component, - wherein the connection retainer has a first retainer element and a second retainer element, - wherein the first retainer element has a first top region and the second retainer element has a second top region, - wherein the first top region and the second top region at least partially delimit a contact region, - wherein the at least one shielded cable can be guided through the contact region, - wherein the first retainer element and the second retainer element are electrically conductive, - wherein the first retainer element is connected to the second retainer element, - wherein the first top region on a side facing towards the second top region has a contact portion, which extends in the direction of the second top region and has a contact surface, - wherein the contact surface is arranged on a side of the contact portion that faces towards the second top region, - wherein the contact portion is configured to press the cable against the second top region, - wherein the first retainer element can be braced against the second retainer element to provide a clamping force (F S), in order to use the clamping force (F S) to press the contact surface of the contact portion of the first top region against the shielding of the cable and to form an electrical contact and a frictional engagement between the contact surface and the shielding, characterized in that - the contact portion has an at least partially trapezoidal or rectangular or polygonal or elliptical or stepped form - and - wherein the contact portion has a bulge. - wherein the connection retainer has a first retainer element and a second retainer element, - wherein the first retainer element has a first top region and the second retainer element has a second top region, - wherein the first top region and the second top region at least partially delimit a contact region, - wherein the at least one shielded cable can be guided through the contact region, - wherein the first retainer element and the second retainer element are electrically conductive, - wherein the first retainer element is connected to the second retainer element, - wherein the first top region on a side facing towards the second top region has a contact portion, which extends in the direction of the second top region and has a contact surface, - wherein the contact surface is arranged on a side of the contact portion that faces towards the second top region, - wherein the contact portion is configured to press the cable against the second top region, - wherein the first retainer element can be braced against the second retainer element to provide a clamping force (F S), in order to use the clamping force (F S) to press the contact surface of the contact portion of the first top region against the shielding of the cable and to form an electrical contact and a frictional engagement between the contact surface and the shielding, characterized in that - the contact portion has an at least partially trapezoidal or rectangular or polygonal or elliptical or stepped form - and - wherein the contact portion has a bulge.
Device for laying a conductive wire on a thermoplastic surface comprising a gun and a conductive wire, characterized in that it comprises two toothed wheels which engage the conductive wire so as to corrugate the conductive wire, and a system for heating said conductive wire.
A touch panel, comprising a base substrate, a plurality of self-capacitive electrodes arranged in matrix and located on the base substrate, and a touch chip for determining a touch position by detecting changes in capacitance values of the respective self-capacitive electrodes during a touch period; wherein, the plurality of self-capacitive electrodes are divided into several self-capacitive electrode groups independent of each other and several independent self-capacitive electrodes; each of the independent self-capacitive electrodes is one of the self-capacitive electrodes respectively, and the respective independent self-capacitive electrodes are electrically connected with the touch chip through different wires; each of the self-capacitive electrode groups includes at least two self-capacitive electrodes not adjacent to each other, and the respective self-capacitive electrodes in a same self-capacitive electrode group are electrically connected with the touch chip through a same wire, characterized in that the plurality of self-capacitive electrodes is arranged in a column direction and a row direction perpendicular to the column direction, four of the self-capacitive electrodes located on the four adjacent positions of upper, lower, left and right sides of at least one of the respective self-capacitive electrodes in the respective self-capacitive electrode groups are four of the independent self-capacitive electrodes, any two of the self-capacitive electrodes in the self-capacitive electrode groups are not adjacent to each other in both the column and the row direction.