mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting in a sample at least one of a plurality of target nucleic acid molecules, the method comprising the steps of: identifying a first region of each of said plurality of target nucleic acid molecules, wherein the first region is conserved among said plurality of target nucleic acid molecules; producing a first amplification product of the first region of each target nucleic acid molecule present in said sample; detecting the production of said first amplification product in real time; identifying a second region of each of said plurality of target nucleic acid molecules, wherein the second region is not conserved among said plurality of target nucleic acid molecules; producing a second amplification product of the second region of each target nucleic acid molecule present in said sample; and detecting said second amplification product to indicate the presence of each target nucleic acid molecule present in said sample, wherein said first and said second amplification product are produced simultaneously in a single reaction. identifying a first region of each of said plurality of target nucleic acid molecules, wherein the first region is conserved among said plurality of target nucleic acid molecules; producing a first amplification product of the first region of each target nucleic acid molecule present in said sample; detecting the production of said first amplification product in real time; identifying a second region of each of said plurality of target nucleic acid molecules, wherein the second region is not conserved among said plurality of target nucleic acid molecules; producing a second amplification product of the second region of each target nucleic acid molecule present in said sample; and detecting said second amplification product to indicate the presence of each target nucleic acid molecule present in said sample, wherein said first and said second amplification product are produced simultaneously in a single reaction.
A light conversion structure for forming a white light-emitting element, comprising: a layer formed of a ceramic composite, which absorbs a part of a first light to emit a second light and transmits a part of said first light, and a fluorescent layer that controls color tone, which is formed on the surface of said ceramic composite and which absorbs a part of said first light or a part of said second light, emits a third light and transmits a part of said first light or a part of said second light, wherein said ceramic composite comprises a solidified body having formed therein an α-Al 2 O 3 phase and a Ce-activated Y 3 Al 5 O 12 (YAG:Ce) phase continuously and three-dimensionally entangled with each other, and said fluorescent layer for the control of color tone is a layer containing CaAlSiN 3:Eu powder dispersed in a silicone resin, wherein said YAG:Ce phase emits yellow fluorescence by absorbing a part of ultraviolet-to-blue light as the first light, and said fluorescent layer emits red fluorescence by absorbing a part of the ultraviolet-to-blue light as the first light or the yellow light as the second light, and wherein said light conversion structure as a whole emits warm white light. a layer formed of a ceramic composite, which absorbs a part of a first light to emit a second light and transmits a part of said first light, and a fluorescent layer that controls color tone, which is formed on the surface of said ceramic composite and which absorbs a part of said first light or a part of said second light, emits a third light and transmits a part of said first light or a part of said second light, wherein said ceramic composite comprises a solidified body having formed therein an α-Al 2 O 3 phase and a Ce-activated Y 3 Al 5 O 12 (YAG:Ce) phase continuously and three-dimensionally entangled with each other, and said fluorescent layer for the control of color tone is a layer containing CaAlSiN 3:Eu powder dispersed in a silicone resin, wherein said YAG:Ce phase emits yellow fluorescence by absorbing a part of ultraviolet-to-blue light as the first light, and said fluorescent layer emits red fluorescence by absorbing a part of the ultraviolet-to-blue light as the first light or the yellow light as the second light, and wherein said light conversion structure as a whole emits warm white light.
Method for processing a metal-ceramic substrate, in particular for forming a predetermined breaking recess, comprising: - providing a metal-ceramic substrate and - forming a predetermined breaking recess in the metal-ceramic substrate wherein the predetermined breaking recess hasat least a first section with a first depth and at least a second section with a second depth along its direction of extension, wherein a second depth is formed that differs from the first depth, characterised in that the first sections and the second sections are formed outside of the intersection points of two predetermined breaking recesses, the first depth in the first section via a first length measured in the direction of extension of the predetermined breaking recess and the second depth in the second section via a second length measured in the direction of extension of the predetermined breaking recess remain essentially constant. - providing a metal-ceramic substrate and - forming a predetermined breaking recess in the metal-ceramic substrate wherein the predetermined breaking recess hasat least a first section with a first depth and at least a second section with a second depth along its direction of extension, wherein a second depth is formed that differs from the first depth, characterised in that the first sections and the second sections are formed outside of the intersection points of two predetermined breaking recesses, the first depth in the first section via a first length measured in the direction of extension of the predetermined breaking recess and the second depth in the second section via a second length measured in the direction of extension of the predetermined breaking recess remain essentially constant.
A method, in a wireless device configured to selectively operate in one of two or more previously configured bandwidth parts, BWPs, each BWP being a different subset of an available bandwidth for uplink and/or downlink operation, the method comprising: receiving, from a wireless network node, an indication to keep a physical layer configuration corresponding to the BWP switching from an active Radio Resource Control, RRC, state to an inactive RRC state; and after said switching, and in response to said receiving an indication, retaining the physical layer configuration corresponding to the BWP active just prior to said switching. receiving, from a wireless network node, an indication to keep a physical layer configuration corresponding to the BWP switching from an active Radio Resource Control, RRC, state to an inactive RRC state; and after said switching, and in response to said receiving an indication, retaining the physical layer configuration corresponding to the BWP active just prior to said switching.
A laundry dryer comprising a horizontal axis drum which can rotate around itself, having a cylindrical body and a ring-shaped front lid forming the front surface of the body and a circular flange surrounding the inner edge of the front lid, extending perpendicular to the front lid towards outside and bearing members in protrusion form bearing against the flange, on which the drum rotates by sliding during the drying process, characterized by a deflector disposed on the edges of the bearing member, which does not contact the flange, which provides the laundry to be deflected from the region between the front lid and the bearing member such as to prevent the laundry from getting stuck therebetween.
A method of reference signal reception in a wireless device configured for operation in a wireless communication network, the method comprising: receiving a first reference signal that is transmitted by the wireless communication network from a first antenna port; receiving assistance information from the wireless communication network that indicates a received timing or frequency offset of a second reference signal relative to the first reference signal, wherein the second reference signal is transmitted by the wireless communication network from a second antenna port that is quasi co-located with the first antenna port with respect to timing, frequency, Doppler spread and/or delay spread; configuring a receiver timing or frequency offset at the wireless device for reception of the second reference signal, according to the assistance information, and receiving the second reference signal according to the configured receiver timing or frequency offset. receiving a first reference signal that is transmitted by the wireless communication network from a first antenna port; receiving assistance information from the wireless communication network that indicates a received timing or frequency offset of a second reference signal relative to the first reference signal, wherein the second reference signal is transmitted by the wireless communication network from a second antenna port that is quasi co-located with the first antenna port with respect to timing, frequency, Doppler spread and/or delay spread; configuring a receiver timing or frequency offset at the wireless device for reception of the second reference signal, according to the assistance information, and receiving the second reference signal according to the configured receiver timing or frequency offset.
A cell culture vessel comprising: a surface; and a cell culture media extending material disposed on the surface, wherein the cell culture media extending material comprises: a first layer disposed between the surface and a second layer, the first layer comprising a hygroscopic polymer and at least one sequestered nutrient, and the second layer comprising the hygroscopic polymer without the at least one sequestered nutrient; and wherein the hygroscopic polymer comprises poly(ethylene-co-vinyl acetate). a surface; and a cell culture media extending material disposed on the surface, wherein the cell culture media extending material comprises: a first layer disposed between the surface and a second layer, the first layer comprising a hygroscopic polymer and at least one sequestered nutrient, and the second layer comprising the hygroscopic polymer without the at least one sequestered nutrient; and
A semiconductor nano-sized light emitting material comprising or consisting of a core, one or more shell layers and a ligand coated onto the outermost surface of the shell layers, wherein the ligand is one or more metal phosphonate, and wherein the metal phosphonate follows one of the following structures according to formula,,, and/or wherein R is selected from the group consisting of alkyl, alkenyl, alkynyl, aryl and alkylaryl and wherein R comprises at least 2 and not more than 20 carbon atoms, and wherein X is selected from the group consisting of hydroxyl, ester and ether, wherein the metal cation used for the metal phosphonate is selected from the group consisting of: Mg, Ca, Ba, Cu, Fe, Zn or their mixtures, wherein said shell layer is formed from one, two or more compounds according to formula [A 2 B 2] in which [A 2] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures. wherein the ligand is one or more metal phosphonate, and wherein the metal phosphonate follows one of the following structures according to formula,,, and/or wherein R is selected from the group consisting of alkyl, alkenyl, alkynyl, aryl and alkylaryl and wherein R comprises at least 2 and not more than 20 carbon atoms, and wherein X is selected from the group consisting of hydroxyl, ester and ether, wherein the metal cation used for the metal phosphonate is selected from the group consisting of: Mg, Ca, Ba, Cu, Fe, Zn or their mixtures, wherein said shell layer is formed from one, two or more compounds according to formula [A 2 B 2] in which [A 2] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures. [A 2] stands for a metal selected from the group consisting of zinc, cadmium or their mixtures; [B 2] stands for a non-metal selected form the group consisting of sulphur, selenium, or their mixtures.
A method for transmitting channel state information in a wireless communication system, the method performed by a user equipment, UE, and comprising: receiving a pilot signal and a transmission stream from a base station, BS, wherein a plurality of weight matrices including a first weight matrix, a second weight matrix and a third weight matrix are applied by the BS to the transmission stream according to a transforming pattern of weight matrices, wherein the plurality of weight matrices and the transforming pattern are known to the UE, wherein each of the plurality of weight matrices is a unitary matrix, wherein each of the second weight matrix and the third weight matrix is obtainable by linearly transforming the first weight matrix; obtaining an estimated channel using the pilot signal; obtaining a plurality of bases including a first basis, a second basis and a third basis that are obtained by using the first weight matrix, the second weight and the third weight matrix, respectively, wherein each of the plurality of bases comprises column vectors of its corresponding weight matrix and a plurality of coefficients, wherein each coefficient is associated with a column vector; for each of the plurality of bases, selecting a largest coefficient among coefficients associated with column vectors of a corresponding weight matrix and a column vector associated with the largest coefficient; and for each of the plurality of bases, transmitting the selected coefficient together with an index corresponding to the selected column vector as channel state information to the BS. receiving a pilot signal and a transmission stream from a base station, BS, wherein a plurality of weight matrices including a first weight matrix, a second weight matrix and a third weight matrix are applied by the BS to the transmission stream according to a transforming pattern of weight matrices, wherein the plurality of weight matrices and the transforming pattern are known to the UE, wherein each of the plurality of weight matrices is a unitary matrix, wherein each of the second weight matrix and the third weight matrix is obtainable by linearly transforming the first weight matrix; obtaining an estimated channel using the pilot signal; obtaining a plurality of bases including a first basis, a second basis and a third basis that are obtained by using the first weight matrix, the second weight and the third weight matrix, respectively, wherein each of the plurality of bases comprises column vectors of its corresponding weight matrix and a plurality of coefficients, wherein each coefficient is associated with a column vector; for each of the plurality of bases, selecting a largest coefficient among coefficients associated with column vectors of a corresponding weight matrix and a column vector associated with the largest coefficient; and for each of the plurality of bases, transmitting the selected coefficient together with an index corresponding to the selected column vector as channel state information to the BS.
A seat apparatus for a vehicle comprising: an unlocking lever (21, 21 B, 21C, 21 D, 21 E) configured to be operated so as to unfix a seat from a vehicle floor; and a control switch (22, 22B, 22C, 22D, 22E) configured to be operated in order for the seat to switch between a deployed state in which the seat is supported on the vehicle floor and a folded state in which the seat is adapted to be retracted in a concave retraction portion of the vehicle floor, when a support member of the seat is driven via the driving of an actuator, characterized in that the unlocking lever is provided in a back surface of a seatback which is configured to be disposed at an opening end of the concave retraction portion when the seatback is folded forward and the seat is retracted, and the control switch is provided integrally with the unlocking lever. an unlocking lever (21, 21 B, 21C, 21 D, 21 E) configured to be operated so as to unfix a seat from a vehicle floor; and a control switch (22, 22B, 22C, 22D, 22E) configured to be operated in order for the seat to switch between a deployed state in which the seat is supported on the vehicle floor and a folded state in which the seat is adapted to be retracted in a concave retraction portion of the vehicle floor, when a support member of the seat is driven via the driving of an actuator, characterized in that the unlocking lever is provided in a back surface of a seatback which is configured to be disposed at an opening end of the concave retraction portion when the seatback is folded forward and the seat is retracted, and the control switch is provided integrally with the unlocking lever.
Heat dissipation device comprising a main heat sink (214, 220) comprising a main body with an upper face intended to receive the heat to be dissipated, and main fins extending over a lower face of the main body, wherein the main body is provided with at least one opening, said heat dissipation device further comprising, for each opening, an auxiliary heat sink comprising an auxiliary body placed in the opening concerned, and auxiliary fins extending over a lower face of the auxiliary body, said heat dissipation device being characterized in that it further comprises an electrical insulator which is interposed between each auxiliary heat sink and the main heat sink (214, 220).
Multipolar esophageal electrode catheter device that can be used for monitoring, stimulation, and cardioversion when treating atrial fibrillation, said catheter having a flexible shaft with a proximal end and a distal end, whereby the distal end of the catheter is formed as an inflatable balloon said balloon being arranged on one side, characterized in that the catheter device has two inflatable balloons, whereby a multipole electrode is arranged on each balloon such that the multipolar electrode can be aligned appropriately in the direction of the heart with the aid of the balloon and wherein the distance between the balloons is adjustable.
Snow melting equipment comprising a melting tank for snow to be melted, the melting tank having a bottom and walls, first melting means for melting the snow in the melting tank into meltwater, second melting means for heating the meltwater and directing the heated meltwater to the as yet unmelted snow in the melting tank and at least one stirring means for inducing motion in the meltwater inside the melting tank, wherein in that the walls of the melting tank have a front wall and a rear wall, the front wall and the rear wall being at opposite ends of the melting tank, and two opposite side walls (13, 15), and said at least one stirring means is arranged in the front wall, rear wall and/or side walls (13, 15) characterized in that said stirring means is arranged at a distance from the bottom and the wall opposite to the wall in which the stirring means are arranged, and said stirring means comprises a feed pipe, a rotatable shaft having an outer surface, and a propeller arranged on the shaft for causing meltwater to flow through the feed pipe.
A vehicular entertainment system, comprising: a plurality of media players disposed within a vehicle which collectively store a full content set, each of the media players storing only a fraction of the full content set, wherein the plurality of media players comprises first and second media players and wherein the first media player stores a first fraction of the full content set, and wherein the second media player stores a second fraction of the full media set that is different from the first fraction; wherein each of the media players is configured with an index of the full content set to allow each media player to obtain missing content from other player(s) of the plurality of media players over a network; and wherein the plurality of media players are disposed within at least one of seatbacks, seat arms, and bulkheads of the vehicle. a plurality of media players disposed within a vehicle which collectively store a full content set, each of the media players storing only a fraction of the full content set, wherein the plurality of media players comprises first and second media players and wherein the first media player stores a first fraction of the full content set, and wherein the second media player stores a second fraction of the full media set that is different from the first fraction; wherein each of the media players is configured with an index of the full content set to allow each media player to obtain missing content from other player(s) of the plurality of media players over a network; and wherein the plurality of media players are disposed within at least one of seatbacks, seat arms, and bulkheads of the vehicle.
A lighting device, comprising: a base extending substantially along a first plane; a panel assembly at least partially connected to the base and comprising a luminous body; and a power supply assembly configured to power the panel assembly; wherein the panel assembly comprises a main panel extending substantially along a second plane, a first auxiliary panel, a second auxiliary panel, and a third auxiliary panel, the main panel is fixedly connected to the base, the first auxiliary panel is rotatably connected to the main panel about a first axis, the second auxiliary panel is rotatably connected to the first auxiliary panel about a second axis, and the third auxiliary panel is rotatably connected to the first auxiliary panel about a third axis; wherein each of the main panel, the first auxiliary panel, the second auxiliary panel, and the third auxiliary panel is configured for emitting light; and wherein the first axis is substantially parallel to the first plane and is substantially parallel to the second plane, and wherein the second axis is substantially perpendicular to the first axis; characterized in that the third axis is substantially perpendicular to the first axis and is substantially parallel to the second axis. a base extending substantially along a first plane; a panel assembly at least partially connected to the base and comprising a luminous body; and a power supply assembly configured to power the panel assembly; wherein the panel assembly comprises a main panel extending substantially along a second plane, a first auxiliary panel, a second auxiliary panel, and a third auxiliary panel, the main panel is fixedly connected to the base, the first auxiliary panel is rotatably connected to the main panel about a first axis, the second auxiliary panel is rotatably connected to the first auxiliary panel about a second axis, and the third auxiliary panel is rotatably connected to the first auxiliary panel about a third axis; wherein each of the main panel, the first auxiliary panel, the second auxiliary panel, and the third auxiliary panel is configured for emitting light; and wherein the first axis is substantially parallel to the first plane and is substantially parallel to the second plane, and wherein the second axis is substantially perpendicular to the first axis; characterized in that the third axis is substantially perpendicular to the first axis and is substantially parallel to the second axis.