mhurhangee/ep-ind-claims huggingface dataset:
A method for the quantification or detection of one or more target nucleic acid molecules in a sample during nucleic acid synthesis, the method comprising: a) mixing one or more target nucleic acid molecules with one or more single stranded oligonucleotide primers complementary to a portion of said one or more target nucleic acid molecules wherein each primer is a fluorescently-labeled oligonucleotide, labeled with a fluorophore and a quencher; wherein one or both of the fluorophore and quencher are internally located in the primer and wherein the Quencher is located near or at the 5'-end; b) incubating said mixture with a polymerase under conditions sufficient to synthesize one or more nucleic acid molecules complementary to all or a portion of said one or more target nucleic acid molecules, said one or more synthesized nucleic acid molecules comprising said one or more oligonucleotides, wherein the extension of said one or more primers by said polymerase by at least 3 nucleotides releases fluorescence; and c) detecting the presence or absence or quantifying the amount of said one or more synthesized nucleic acid molecules by measuring said-fluorescense. a) mixing one or more target nucleic acid molecules with one or more single stranded oligonucleotide primers complementary to a portion of said one or more target nucleic acid molecules wherein each primer is a fluorescently-labeled oligonucleotide, labeled with a fluorophore and a quencher; wherein one or both of the fluorophore and quencher are internally located in the primer and wherein the Quencher is located near or at the 5'-end; b) incubating said mixture with a polymerase under conditions sufficient to synthesize one or more nucleic acid molecules complementary to all or a portion of said one or more target nucleic acid molecules, said one or more synthesized nucleic acid molecules comprising said one or more oligonucleotides, wherein the extension of said one or more primers by said polymerase by at least 3 nucleotides releases fluorescence; and c) detecting the presence or absence or quantifying the amount of said one or more synthesized nucleic acid molecules by measuring said-fluorescense.
A high-temperature fuel cell system, comprising: a reformer that reforms a hydrocarbon-based raw fuel to generate a reformed gas containing hydrogen; a fuel cell that generates power by using the reformed gas and an oxidant gas; and a burner that heats the reformer, wherein the burner includes an anode-off-gas gathering portion that has an anode-off-gas ejection hole and at which an anode off-gas discharged from an anode of the fuel cell gathers, wherein the anode-off-gas gathering portion is formed so as to surround a first cathode-off-gas passing area through which a cathode off-gas discharged from a cathode of the fuel cell passes, wherein the anode-off-gas ejection hole is formed such that the anode off-gas ejected upward from the anode-off-gas ejection hole approaches the cathode off-gas passing upward through the first cathode-off-gas passing area, wherein gravity acts from above/upward to downward, wherein the anode off-gas ejected from the anode-off-gas ejection hole and the cathode off-gas that has passed through the first cathode-off-gas passing area are burned, and characterized in that the anode-off-gas gathering portion has a tapered surface sloping downward toward the first cathode-off-gas passing area, and the anode-off-gas ejection hole extends from the tapered surface. a reformer that reforms a hydrocarbon-based raw fuel to generate a reformed gas containing hydrogen; a fuel cell that generates power by using the reformed gas and an oxidant gas; and a burner that heats the reformer, wherein the burner includes an anode-off-gas gathering portion that has an anode-off-gas ejection hole and at which an anode off-gas discharged from an anode of the fuel cell gathers, wherein the anode-off-gas gathering portion is formed so as to surround a first cathode-off-gas passing area through which a cathode off-gas discharged from a cathode of the fuel cell passes, wherein the anode-off-gas ejection hole is formed such that the anode off-gas ejected upward from the anode-off-gas ejection hole approaches the cathode off-gas passing upward through the first cathode-off-gas passing area, wherein gravity acts from above/upward to downward, wherein the anode off-gas ejected from the anode-off-gas ejection hole and the cathode off-gas that has passed through the first cathode-off-gas passing area are burned, and characterized in that the anode-off-gas gathering portion has a tapered surface sloping downward toward the first cathode-off-gas passing area, and the anode-off-gas ejection hole extends from the tapered surface.
Rack for assembly in a door of a refrigeration appliance, in particular a household refrigeration appliance, comprising a container carcass with a base, two end walls (4, 4'), optionally a front wall arranged on the front side of the rack and a decorative panel (10, 20, 30, 40) which is placed on the front side of the rack and forms a part which is separate from the container carcass, wherein the end walls (4, 4') of the container carcass are covered toward the front side at least partially by the decorative panel (10, 20, 30, 40), wherein the decorative panel (10, 20, 30, 40) is fixedly held on the container carcass and characterised in that the end walls of the container carcass in each case have an opening which opens toward the front side, into which in each case a corresponding projection of the decorative panel (10, 20, 30, 40) is inserted.
A method for transmitting a channel sounding reference signal, SRS, comprising: receiving, by a first terminal device, first indication information from a network device, the first indication information indicating a first symbol for transmitting an SRS of the first terminal device in a first uplink subframe, the first uplink subframe comprising multiple symbols for transmitting SRSs of multiple terminal devices, the multiple terminal devices comprising the first terminal device and the multiple symbols comprising the first symbol; and transmitting, by the first terminal device, the SRS of the first terminal device to the network device on the first symbol; wherein a length of the first symbol for transmitting the SRS of the first terminal device is unequal to a length of a second symbol for transmitting downlink data to the first terminal device; wherein the first indication information received from the network device by the first terminal device further indicates a frequency-domain resource for transmitting the SRS of the first terminal device; and wherein a frequency-domain resource range configured for transmission of the downlink data to the first terminal device is the same as a frequency-domain resource range configured for transmission of the SRS of the first terminal device, wherein the frequency-domain resource for transmitting the SRS of the first terminal device is comprised within the frequency-domain resource range configured for transmission of the SRS of the first terminal device. receiving, by a first terminal device, first indication information from a network device, the first indication information indicating a first symbol for transmitting an SRS of the first terminal device in a first uplink subframe, the first uplink subframe comprising multiple symbols for transmitting SRSs of multiple terminal devices, the multiple terminal devices comprising the first terminal device and the multiple symbols comprising the first symbol; and transmitting, by the first terminal device, the SRS of the first terminal device to the network device on the first symbol; wherein a length of the first symbol for transmitting the SRS of the first terminal device is unequal to a length of a second symbol for transmitting downlink data to the first terminal device; wherein the first indication information received from the network device by the first terminal device further indicates a frequency-domain resource for transmitting the SRS of the first terminal device; and wherein a frequency-domain resource range configured for transmission of the downlink data to the first terminal device is the same as a frequency-domain resource range configured for transmission of the SRS of the first terminal device, wherein the frequency-domain resource for transmitting the SRS of the first terminal device is comprised within the frequency-domain resource range configured for transmission of the SRS of the first terminal device.
A method, comprising: storing movement pattern information in a wireless communication device, the wireless communication device including one or more movement sensors; receiving information from the one or more movement sensors; comparing the sensor information to the movement pattern information; and based on whether the sensor information corresponds to the movement pattern information, identifying a user of the wireless communication device as a member of a user group and enabling communication with other users within the group. storing movement pattern information in a wireless communication device, the wireless communication device including one or more movement sensors; receiving information from the one or more movement sensors; comparing the sensor information to the movement pattern information; and based on whether the sensor information corresponds to the movement pattern information, identifying a user of the wireless communication device as a member of a user group and enabling communication with other users within the group.
A method of producing a porous ceramic material comprising calcium phosphate as a main component, comprising step: a step of preparing a slurry by dispersing a ceramic starting material in water, step: a step of filling a slurry in a given container, and cooling one end of the slurry container to unidirectionally freeze the slurry from the end side, step: a step of drying the frozen slurry to give a green body, and step: a step of sintering the green body, wherein the circumference of the slurry container except the above-mentioned one end is cooled in step to a temperature higher than the coagulation point of the slurry. step: a step of preparing a slurry by dispersing a ceramic starting material in water, step: a step of filling a slurry in a given container, and cooling one end of the slurry container to unidirectionally freeze the slurry from the end side, step: a step of drying the frozen slurry to give a green body, and step: a step of sintering the green body,
Method for joining flat components made of metals with different properties, wherein the components are flatly positioned against one another, wherein the components are positioned against one another across a flat side, which has a greatest extension or a maximum surface relative to the further lateral surfaces, wherein lateral surfaces of the components are at least partially aligned, according to which the components are joined to at least one part of the aligning lateral surfaces by means of friction-stir welding, characterized in that a connecting part is arranged on aligning end surfaces of the flat components, according to which the connecting part is joined to the components by means of friction-stir welding, wherein a composite element made of metals with different properties is formed, which comprises a connecting part on the end side consisting of a homogeneous material, according to which a plurality of formed composite elements are welded to the connecting parts.
A protein comprising a polypeptide sequence having at least 80% sequence identity to SEQ ID NO: 6, wherein the protein has psicose 3-epimerase activity and the polypeptide sequence is not identical to SEQ ID NO: 6.
Arrangement of a snow-ski board with a binding having front and back jaws and a binding plate, wherein the binding plate has a central vertical bearing and at least one horizontal bearing, and a binding mounting point is provided on the snow-ski board and a force application point which is dependent on the binding is provided on the binding plate, characterized in that both the front jaws and also the back jaws are arranged so that they can be displaced seamlessly in a rail-like manner in the longitudinal direction by means of guide extensions in longitudinal guide elements of the binding plate and can be fixed on the binding plate, so that the force application point can be set and fixed on the binding mounting point and that the force application point is maintained on the binding mounting point independently of the snow-ski board bending.
A tubular welding wire, comprising: - a metallic sheath and a granular core, wherein the metallic sheath is manufactured from a low carbon steel or a low-alloy steel, wherein the tubular welding wire is configured to form a weld deposit on a structural steel workpiece, wherein the granular core comprises less than or equal to 35% of the tubular welding wire by weight; wherein the granular core comprises: - 4-18 % alloying components by weight, consisting of 2-12 % nickel, 0-1,5 % copper, 0-1 % molybdenum, 0-1 % carbon, and less than 0,1 % manganese by weight, - 10-15 % arc stabilizing components by weight, consisting of 0-7,5 % iron oxides, 0-2 % potassium fluorosilicate, 0-12 % sodium titanate frit, and 0-6 % lithium oxide agglomerate by weight, - 25-50 % slag forming components by weight consisting of agglomerated TiO 2, wherein the TiO 2 used is a pigment-grade TiO 2, - 5-15 % deoxidizers by weight, consisting of 0-3 % aluminum, 0-3% magnesium, 0-4 % zirconium, and 0-6 % silicon by weight, and - 5-55 % filler metal by weight consisting of iron, wherein the welding wire includes less than 0,5 % manganese by weight. - a metallic sheath and a granular core, wherein the metallic sheath is manufactured from a low carbon steel or a low-alloy steel, wherein the tubular welding wire is configured to form a weld deposit on a structural steel workpiece, - 4-18 % alloying components by weight, consisting of 2-12 % nickel, 0-1,5 % copper, 0-1 % molybdenum, 0-1 % carbon, and less than 0,1 % manganese by weight, - 10-15 % arc stabilizing components by weight, consisting of 0-7,5 % iron oxides, 0-2 % potassium fluorosilicate, 0-12 % sodium titanate frit, and 0-6 % lithium oxide agglomerate by weight, - 25-50 % slag forming components by weight consisting of agglomerated TiO 2, wherein the TiO 2 used is a pigment-grade TiO 2, - 5-15 % deoxidizers by weight, consisting of 0-3 % aluminum, 0-3% magnesium, 0-4 % zirconium, and 0-6 % silicon by weight, and - 5-55 % filler metal by weight consisting of iron,
A dual-mode mobile terminal, characterized by comprising: a China mobile multimedia broadcasting "CMMB" antenna embedded in the dual-mode mobile terminal; a CMMB protection network connected to the CMMB antenna, wherein the CMMB protection network comprises: multiple stages of circuits which are successively connected to form a ladder-shaped structure, wherein each stage of circuit in the multiple stages of circuits is an LC series circuit or an LC parallel circuit, two ends of the LC parallel circuit are connected between the stages of circuits before and after the LC parallel circuit, and one end of the LC series circuit is connected between the stages of circuits before and after the LC series circuit, and the other end of the LC series circuit is grounded; wherein the dual-mode mobile terminal is a time division-synchronized code division multiple access "TD_SCDMA" and global system for mobile communication "GSM" mobile terminal, the multiple stages of circuits are four stages of circuits, wherein the four stages of circuits comprise: two stages of LC parallel circuits and two stages of LC series circuits, wherein the two stages of LC parallel circuits resonate at DSC 1800 transmitting and TD-SCDMA transmitting bands, and the two stages of LC series circuits resonate at GSM transmitting band respectively. a China mobile multimedia broadcasting "CMMB" antenna embedded in the dual-mode mobile terminal; a CMMB protection network connected to the CMMB antenna, wherein the CMMB protection network comprises: multiple stages of circuits which are successively connected to form a ladder-shaped structure, wherein each stage of circuit in the multiple stages of circuits is an LC series circuit or an LC parallel circuit, two ends of the LC parallel circuit are connected between the stages of circuits before and after the LC parallel circuit, and one end of the LC series circuit is connected between the stages of circuits before and after the LC series circuit, and the other end of the LC series circuit is grounded; wherein the dual-mode mobile terminal is a time division-synchronized code division multiple access "TD_SCDMA" and global system for mobile communication "GSM" mobile terminal, the multiple stages of circuits are four stages of circuits, wherein the four stages of circuits comprise: two stages of LC parallel circuits and two stages of LC series circuits, wherein the two stages of LC parallel circuits resonate at DSC 1800 transmitting and TD-SCDMA transmitting bands, and the two stages of LC series circuits resonate at GSM transmitting band respectively.
A method of determining a result of an assay in an Active Matrix Electro-Wetting on Dielectric microfluidic device, the method comprising the steps of: performing a chemical or biochemical assay on a sample droplet by: dispensing the sample droplet onto a first portion of an electrode array of the microfluidic device; dispensing a reagent droplet (4A,4C) onto a second portion of the electrode array of the microfluidic device; and controlling actuation voltages applied to the electrode array of the microfluidic device to mix the sample droplet and the reagent droplet into a product droplet; sensing, using a capacitance sensor integrated into array element circuitry of the electrode array of the microfluidic device, a dynamic property of the product droplet; and determining the result of the assay of the sample droplet based on the sensed dynamic property of the product droplet; wherein the dynamic property of the product droplet is a physical property of the product droplet that influences a transport property of the product droplet on the electrode array of the microfluidic device. performing a chemical or biochemical assay on a sample droplet by: dispensing the sample droplet onto a first portion of an electrode array of the microfluidic device; dispensing a reagent droplet (4A,4C) onto a second portion of the electrode array of the microfluidic device; and controlling actuation voltages applied to the electrode array of the microfluidic device to mix the sample droplet and the reagent droplet into a product droplet; dispensing the sample droplet onto a first portion of an electrode array of the microfluidic device; dispensing a reagent droplet (4A,4C) onto a second portion of the electrode array of the microfluidic device; and controlling actuation voltages applied to the electrode array of the microfluidic device to mix the sample droplet and the reagent droplet into a product droplet; sensing, using a capacitance sensor integrated into array element circuitry of the electrode array of the microfluidic device, a dynamic property of the product droplet; and determining the result of the assay of the sample droplet based on the sensed dynamic property of the product droplet; wherein the dynamic property of the product droplet is a physical property of the product droplet that influences a transport property of the product droplet on the electrode array of the microfluidic device.
A touch key structure, comprising: a touch panel, wherein a front side of the touch panel has a key area for a user to touch; a circuit board provided behind the touch panel, wherein the circuit board is provided with a sensing electrode corresponding to the key area; and a conductive medium provided between the key area and the sensing electrode; a support provided between the circuit board and the touch panel, wherein the support is provided with a mounting hole, whereby the conductive medium is a conductive layer provided on the support; the conductive layer is provided on an inner wall of the mounting hole; and the support comprises two convex parts protruded towards both sides, such that the distance between the conductive medium and the sensing electrode and the distance between the conductive medium and the key area are both small, and the mounting hole is penetrated through the convex parts. a touch panel, wherein a front side of the touch panel has a key area for a user to touch; a circuit board provided behind the touch panel, wherein the circuit board is provided with a sensing electrode corresponding to the key area; and a conductive medium provided between the key area and the sensing electrode; a support provided between the circuit board and the touch panel, wherein the support is provided with a mounting hole, whereby the conductive medium is a conductive layer provided on the support; the conductive layer is provided on an inner wall of the mounting hole; and the support comprises two convex parts protruded towards both sides, such that the distance between the conductive medium and the sensing electrode and the distance between the conductive medium and the key area are both small, and the mounting hole is penetrated through the convex parts.
An article of footwear comprising: a sole structure comprising an auxetic layer and a first liner, wherein the auxetic layer includes a pattern of apertures formed by sole elements surrounding the apertures; and an upper; wherein each of the sole elements has a plurality of vertices; wherein the sole elements are joined at their vertices, and wherein the sole elements can rotate with respect to one another about their vertices; wherein the auxetic layer is characterized by having a lateral direction, a longitudinal direction and a vertical direction; wherein the auxetic layer is configured to expand in the lateral direction and the longitudinal direction when tension is applied to the auxetic layer in the lateral direction; wherein the auxetic layer is configured to expand in the lateral direction and the longitudinal direction when tension is applied to the auxetic layer in the longitudinal direction; and wherein the first liner is disposed adjacent to the auxetic layer, wherein the first liner is approximately parallel to the auxetic layer and wherein the first liner inhibits the introduction of debris into the apertures in the auxetic layer, and wherein the first liner is positioned between the auxetic layer and the upper. a sole structure comprising an auxetic layer and a first liner, wherein the auxetic layer includes a pattern of apertures formed by sole elements surrounding the apertures; and an upper; wherein each of the sole elements has a plurality of vertices; wherein the sole elements are joined at their vertices, and wherein the sole elements can rotate with respect to one another about their vertices; wherein the auxetic layer is characterized by having a lateral direction, a longitudinal direction and a vertical direction; wherein the auxetic layer is configured to expand in the lateral direction and the longitudinal direction when tension is applied to the auxetic layer in the lateral direction; wherein the auxetic layer is configured to expand in the lateral direction and the longitudinal direction when tension is applied to the auxetic layer in the longitudinal direction; and wherein the first liner is disposed adjacent to the auxetic layer, wherein the first liner is approximately parallel to the auxetic layer and wherein the first liner inhibits the introduction of debris into the apertures in the auxetic layer, and wherein the first liner is positioned between the auxetic layer and the upper.