mhurhangee/ep-ind-claims huggingface dataset:
Multiplex analysis method allowing the detection of a signal corresponding to the presence of an analyte to be improved, comprising the following steps: a) providing a solid support comprising at least two compartments, said compartments comprising at least two spots for detection of an analyte, b) bringing a sample to be analysed into contact with the spots of a compartment, c) bringing at least one ligand for detection of an analyte into contact with the spots of said compartment, said ligand for detection of an analyte being coupled to a direct or indirect detection marker, d) when said detection marker is an indirect marker, bringing a reporter of the indirect detection marker coupled to said detection ligand into contact with the spots of said compartment, e) when the reporter used in step d) is coupled to an indirect marker, bringing a reporter of the indirect detection marker coupled to said reporter into contact with the spots of said compartment, f) bringing at least one dye into contact with the spots of said compartment, said dye or dyes being contained in a liquid phase in contact with the spots of said compartment and said at least one dye being tartrazine, and g) detecting a signal corresponding to the presence of an analyte in the region of the spots of said compartment, in the presence of the liquid phase comprising said dye or dyes, said method further comprising one or more washing steps allowing the compounds that are not bound to the spots or to the various compounds bound directly or indirectly to the spots to be removed, no washing step being carried out between step f) and step g). a) providing a solid support comprising at least two compartments, said compartments comprising at least two spots for detection of an analyte, b) bringing a sample to be analysed into contact with the spots of a compartment, c) bringing at least one ligand for detection of an analyte into contact with the spots of said compartment, said ligand for detection of an analyte being coupled to a direct or indirect detection marker, d) when said detection marker is an indirect marker, bringing a reporter of the indirect detection marker coupled to said detection ligand into contact with the spots of said compartment, e) when the reporter used in step d) is coupled to an indirect marker, bringing a reporter of the indirect detection marker coupled to said reporter into contact with the spots of said compartment, f) bringing at least one dye into contact with the spots of said compartment, said dye or dyes being contained in a liquid phase in contact with the spots of said compartment and said at least one dye being tartrazine, and g) detecting a signal corresponding to the presence of an analyte in the region of the spots of said compartment, in the presence of the liquid phase comprising said dye or dyes,
Domestic refrigeration appliance with an inner chamber (4, 5), which is bounded by walls (3a, 3b, 3c) of an inner container, and with at least one container (9, 10) for holding food, which is arranged in a displaceable manner in the inner chamber (4, 5), wherein a displacement apparatus for the container (9, 10) has at least one runner (17, 25), which extends upward in the direction of the container (9, 10), and the container (9, 10) has a mount, which extends downward toward the runner (17, 25), into which the runner (17, 25) extends when the container (9, 10) has been positioned thereon, characterised in that the displacement apparatus has a plate (16, 18, 19), on the upper face of which the runner (17, 25) is configured, that it is possible to remove the plate (16, 18, 19) from the inner chamber (4, 5) in a non-destructive manner, and that the plate (16, 18, 19), when not fitted with at least one container (9, 10), is arranged as a compartment base in the inner chamber (4, 5).
Gas spring device for a chair, in particular a rotating chair, an office chair or a high chair, comprising: a gas spring arrangement, a first tubular element that is embodied from an electrically-conductive material in which the gas spring arrangement is received, a second tubular element that is embodied from an electrically-conductive material, wherein the second tubular element comprises a guiding device in which the first tubular element is received, wherein the guiding device is not electrically conductive or is only slightly conductive; a third tubular element that is embodied from electrically conductive material, which comprises a mounting arrangement (24, 25), in particular that is embodied from an electrically non-conductive material or from an only slightly conductive material, for mounting the second tubular element, wherein the guiding device is provided with at least one first connecting element, which is embodied from an electrically conductive material, in such a manner that the first connecting element is in contact with the first tubular element and with the second tubular element, and wherein a second connecting element (34, 35, 36) that is embodied from an electrically-conductive material is provided between the second tubular element and the third tubular element so as to bridge the mounting arrangement (24, 25) and to provide an electrically-conductive connection between the second tubular element and the third tubular element. a gas spring arrangement, a first tubular element that is embodied from an electrically-conductive material in which the gas spring arrangement is received, a second tubular element that is embodied from an electrically-conductive material, wherein the second tubular element comprises a guiding device in which the first tubular element is received, wherein the guiding device is not electrically conductive or is only slightly conductive; a third tubular element that is embodied from electrically conductive material, which comprises a mounting arrangement (24, 25), in particular that is embodied from an electrically non-conductive material or from an only slightly conductive material, for mounting the second tubular element, wherein the guiding device is provided with at least one first connecting element, which is embodied from an electrically conductive material, in such a manner that the first connecting element is in contact with the first tubular element and with the second tubular element, and wherein a second connecting element (34, 35, 36) that is embodied from an electrically-conductive material is provided between the second tubular element and the third tubular element so as to bridge the mounting arrangement (24, 25) and to provide an electrically-conductive connection between the second tubular element and the third tubular element.
Blow moulding and filling machine comprising a plurality of treatment stations which are designed for moulding containers in hollow moulds by selective introduction of a moulding fluid under overpressure into preforms, and which are designed for filling the containers in the hollow mould by selective introduction of a product through at least one feed line and a fluid nozzle, wherein at least one structural element (33, 6b, 6c) that has a function during moulding of the containers can be connected and/or moved in order to pass on a CIP medium while flowing through the feed line and the fluid nozzle.
An electromagnetic flowmeter, comprising; - a transmission line comprising a first electric conductor with first and second ends, configured to be arranged inside a fluid conduit (14, 28) carrying a fluid composition comprising hydrocarbons, - a Radio Frequency electric signal source, and - a first dual Radio Frequency signal detector comprising first and second input ports, wherein a first terminal of the electric signal source is connected to the first end of the first electric conductor and configured to induce a Radio Frequency electromagnetic wave in the fluid conduit (14, 28) by supplying an input electric signal to the first end of the first electric conductor, - the first and second ports of the signal detector are connected to the first and second ends of the first electric conductor, respectively, wherein the electromagnetic flowmeter comprises a signal processor configured to receive signal parameter values representative of the transmission and/or reflection characteristics of the first electric conductor, and configured to determine a property of the fluid composition. - a transmission line comprising a first electric conductor with first and second ends, configured to be arranged inside a fluid conduit (14, 28) carrying a fluid composition comprising hydrocarbons, - a Radio Frequency electric signal source, and - a first dual Radio Frequency signal detector comprising first and second input ports, wherein a first terminal of the electric signal source is connected to the first end of the first electric conductor and configured to induce a Radio Frequency electromagnetic wave in the fluid conduit (14, 28) by supplying an input electric signal to the first end of the first electric conductor, - the first and second ports of the signal detector are connected to the first and second ends of the first electric conductor, respectively, wherein the electromagnetic flowmeter comprises a signal processor configured to receive signal parameter values representative of the transmission and/or reflection characteristics of the first electric conductor, and configured to determine a property of the fluid composition.
A process for the preparation of a compound of formula A, the process comprising reacting a compound of formula II, wherein R1 and R2 are both independently methyl, R3 is chloro and X - is selected from halide or hexafluorphospate, with a compound of formula III A, wherein R4 is methylsulfonyl and R5 is methyl,
A method comprising: accessing (1745, 1910) one or more transmitted disparity values, each disparity value specific to a corresponding cell of a region of a picture, wherein the region of the picture is coextensive with a first integer number of pixels in a particular resolution, and coextensive with a second integer number of pixels in a second resolution, the one or more disparity values being specific to a combination resolution determined as a combination of the particular resolution and the second resolution; converting (1760, 1920) each disparity value to provide for each disparity value a converted disparity value specific to the cell in the particular resolution; associating (1765, 1930) each converted disparity value to the disparity value of a pixel in the particular resolution, wherein the location of the pixel corresponds to the cell, wherein a size of the region in number of cells in the combination resolution is based on a multiple of at least (i) the first integer number of pixels in the particular resolution and (ii) the second integer number of pixels in the second resolution; and processing the picture using the disparity values of the pixels in the particular resolution. accessing (1745, 1910) one or more transmitted disparity values, each disparity value specific to a corresponding cell of a region of a picture, wherein the region of the picture is coextensive with a first integer number of pixels in a particular resolution, and coextensive with a second integer number of pixels in a second resolution, the one or more disparity values being specific to a combination resolution determined as a combination of the particular resolution and the second resolution; converting (1760, 1920) each disparity value to provide for each disparity value a converted disparity value specific to the cell in the particular resolution; associating (1765, 1930) each converted disparity value to the disparity value of a pixel in the particular resolution, wherein the location of the pixel corresponds to the cell, wherein a size of the region in number of cells in the combination resolution is based on a multiple of at least (i) the first integer number of pixels in the particular resolution and (ii) the second integer number of pixels in the second resolution; and processing the picture using the disparity values of the pixels in the particular resolution.
A method for detecting the onset of or the existence of overtraining syndrome in an individual, which method comprises a) contacting leucocytes in, or obtained from, a blood sample provided by the individual with a luminescence reagent which emits light on reaction with an oxidant; b) adding an activator to the mixture of leucocytes and the luminescence reagent to stimulate the NADPH oxidase system of the leucocytes, wherein the activator is selected from N-formyl-methionyl-leucyl-phenylalanine and platelet activating factor; c) continuously monitoring and/or measuring light emitted by the luminescence reagent over a predetermined time period commencing before and ending after the addition of the activator, whereby a light emission curve is produced showing the light emitted by the luminescence reagent over the predetermined time period; d) assessing the features of the light emission curve for determining onset of or existence of overtraining syndrome in the individual by comparison with one or more standard signature curves and the determining is based on the similarity or dissimilarity occurring between features of the light emission curve and features of the one or more standard signature curves. a) contacting leucocytes in, or obtained from, a blood sample provided by the individual with a luminescence reagent which emits light on reaction with an oxidant; b) adding an activator to the mixture of leucocytes and the luminescence reagent to stimulate the NADPH oxidase system of the leucocytes, wherein the activator is selected from N-formyl-methionyl-leucyl-phenylalanine and platelet activating factor; c) continuously monitoring and/or measuring light emitted by the luminescence reagent over a predetermined time period commencing before and ending after the addition of the activator, whereby a light emission curve is produced showing the light emitted by the luminescence reagent over the predetermined time period; d) assessing the features of the light emission curve for determining onset of or existence of overtraining syndrome in the individual by comparison with one or more standard signature curves and the determining is based on the similarity or dissimilarity occurring between features of the light emission curve and features of the one or more standard signature curves.
A method in a network node of a wireless network for adapting capacity to capacity need, the wireless network comprising a distributed antenna system providing coverage for wireless communication for communication devices, wherein the distributed antenna system comprises two or more antenna units (8a, 8b) connected to the network node and each antenna unit (8a, 8b) providing coverage of a respective area (14, 15), the method characterized by: - determining a respective number of active communication devices located within a respective area (14, 15) of at least two areas (14, 15) within the distributed antenna system, wherein a first area is covered by a first antenna unit and a second area is covered by a second antenna unit, and - adapting an impedance of the two or more antenna units (8a, 8b) based on the determined number of active communication devices in each respective area (14, 15) by dynamically changing the impedance of an impedance tuning network (3a, 3b, 3c, 3d) of each respective antenna unit (8a, 8b, 8c, 8d), thereby adapting the power radiated and absorbed at the respective antenna units (8a, 8b, 8c, 8d). - determining a respective number of active communication devices located within a respective area (14, 15) of at least two areas (14, 15) within the distributed antenna system, wherein a first area is covered by a first antenna unit and a second area is covered by a second antenna unit, and - adapting an impedance of the two or more antenna units (8a, 8b) based on the determined number of active communication devices in each respective area (14, 15) by dynamically changing the impedance of an impedance tuning network (3a, 3b, 3c, 3d) of each respective antenna unit (8a, 8b, 8c, 8d), thereby adapting the power radiated and absorbed at the respective antenna units (8a, 8b, 8c, 8d).
A clearance control system of a gas turbine engine, the system comprising: a full hoop thermal control ring; a multiple of carrier segments, each of the carrier segments including an inner axial wall, an outer axial wall, a forward wall and an aft wall, the inner axial wall extending between the forward wall and the aft wall, the outer axial wall extending from the forward wall in parallel to the inner axial wall, wherein the outer axial wall is axially shorter than the inner axial wall, characterised in that each of the carrier segments are pivotally received onto the full hoop thermal control ring such that the full hoop thermal control ring is retained between the forward wall and the aft wall, the aft wall extending beyond an outer surface of the inner axial wall; and a multiple of blade outer air seals mounted to the multiple of carrier segments. a full hoop thermal control ring; a multiple of carrier segments, each of the carrier segments including an inner axial wall, an outer axial wall, a forward wall and an aft wall, the inner axial wall extending between the forward wall and the aft wall, the outer axial wall extending from the forward wall in parallel to the inner axial wall, wherein the outer axial wall is axially shorter than the inner axial wall, characterised in that each of the carrier segments are pivotally received onto the full hoop thermal control ring such that the full hoop thermal control ring is retained between the forward wall and the aft wall, the aft wall extending beyond an outer surface of the inner axial wall; and a multiple of blade outer air seals mounted to the multiple of carrier segments.
A junction box assembly, comprising a junction box and a base plate, wherein the junction box is assembled with the base plate, the junction box comprising an insulated housing and a pair of conductive terminals disposed in the insulated housing, the junction box and the base plate both including a longitudinal axis, the junction box assembly being characterized in that: a bottom of the junction box disposes at least two first openings along the longitudinal axis; the junction box further comprises at least two water-resistant members, each of the water-resistant members, which is disposed at each of the first openings, has a second opening, wherein an area of each of the second openings is smaller than an area of each of the first openings; and the base plate is of a bar shape and disposes at least two third openings along the longitudinal axis, each of the third openings each of the first openings of the junction box and each of the second openings of each of the water-resistant members are assembled with one another, an area of each of the third openings is smaller than an area of each of the first openings, a plurality of pairs of wing portions are aligned along both lateral sides of the longitudinal axis of the base plate, each of the pair of wing portions is provided with a first preset distance there between, the first preset distance is shorter than a width of the junction box, an average width of the base plate is not greater than 50 millimeter, wherein the insulated housing of the junction box is clamped via at least one pair of wing portions of the base plate, wherein the base plate has a recessed portion corresponding in position to the junction box, and each of the third openings of the base plate is formed on the recessed portion. a bottom of the junction box disposes at least two first openings along the longitudinal axis; the junction box further comprises at least two water-resistant members, each of the water-resistant members, which is disposed at each of the first openings, has a second opening, wherein an area of each of the second openings is smaller than an area of each of the first openings; and the base plate is of a bar shape and disposes at least two third openings along the longitudinal axis, each of the third openings each of the first openings of the junction box and each of the second openings of each of the water-resistant members are assembled with one another, an area of each of the third openings is smaller than an area of each of the first openings, a plurality of pairs of wing portions are aligned along both lateral sides of the longitudinal axis of the base plate, each of the pair of wing portions is provided with a first preset distance there between, the first preset distance is shorter than a width of the junction box, an average width of the base plate is not greater than 50 millimeter, wherein the insulated housing of the junction box is clamped via at least one pair of wing portions of the base plate, wherein the base plate has a recessed portion corresponding in position to the junction box, and each of the third openings of the base plate is formed on the recessed portion.
A household gas appliance, comprising: a gas supply valve (140, 142) that is configured to be coupled to a gas supply line characterised in that said appliance further comprises a magnetic key (160,164), wherein when the magnetic key (160,164) is located in a first position on the household gas appliance, the gas supply valve (140, 142) opens so that gas can flow through the valve (140, 142), and wherein when the magnetic key (160,164) is removed from the first position, the gas supply valve (140, 142) closes to prevent gas from flowing though the valve (140, 142). a gas supply valve (140, 142) that is configured to be coupled to a gas supply line characterised in that said appliance further comprises a magnetic key (160,164), wherein when the magnetic key (160,164) is located in a first position on the household gas appliance, the gas supply valve (140, 142) opens so that gas can flow through the valve (140, 142), and wherein when the magnetic key (160,164) is removed from the first position, the gas supply valve (140, 142) closes to prevent gas from flowing though the valve (140, 142).
A hot work tool steel having excellent toughness, consisting of, in mass%: 0.3 to less than 0.6% of C; 0.2 to 1.5% of Si; 0.1 to 1.5% of Mn; 3.0 to less than 6.0% of Cr, at least one of Mo and W, wherein an amount of (Mo + 1/2W) is 1.0 to 3.5%, more than 0.0025 to 0.025% of Zn; and not less than 0.005% of P, wherein Zn/P is more than 0.5, the balance consisting of Fe and inevitable impurities, and optionally not more than 1.5% of V, not more than 1.5% Ni, not more than 0.3% Nb, not more than 5.0% Co.
A modular prosthetic percutaneous valve device, comprising a plurality of device modules, said device modules including an expandable support structure, especially a stent, and a valve module comprising a leaflets substructure (150, 250), wherein said support structure has a compressed, unexpanded delivery configuration spatially separate from said leaflets substructure (150, 250), wherein said device modules are assembled into said valve device after deployment from a percutaneous delivery device to form a deployed configuration, said leaflets substructure (150, 250) being squashed to form said delivery configuration.