mhurhangee/ep-ind-claims huggingface dataset:
A detection method for a subject organism to be detected in a sample, where the subject organism is a bacterium, such as eubacteria or ancient bacteria, the method comprising: an amplification step of performing a nucleic acid amplification reaction using nucleic acid prepared from the sample, primers for amplifying an intended gene specific for the subject organism to be detected, and a thermostable DNA polymerase preparation; and a detection step of detecting an amplification product of the intended gene in amplification products in the amplification step, wherein the thermostable DNA polymerase preparation is a preparation wherein: (b-1) the thermostable DNA polymerase has contamination with 10 fg or less of bacterially-derived nucleic acid other than a gene encoding the thermostable DNA polymerase based on 1 unit of the thermostable DNA polymerase, and (b-2) no amplification products of the bacterially-derived nucleic acid are detected even when 32 cycles or more of gene amplification reaction are performed in the preparation under conditions containing no template using primers capable of amplifying only the bacterially-derived nucleic acid other than the gene encoding the thermostable DNA polymerase; and the thermostable DNA polymerase preparation is produced using eukaryotic cells as a host. an amplification step of performing a nucleic acid amplification reaction using nucleic acid prepared from the sample, primers for amplifying an intended gene specific for the subject organism to be detected, and a thermostable DNA polymerase preparation; and a detection step of detecting an amplification product of the intended gene in amplification products in the amplification step, (b-1) the thermostable DNA polymerase has contamination with 10 fg or less of bacterially-derived nucleic acid other than a gene encoding the thermostable DNA polymerase based on 1 unit of the thermostable DNA polymerase, and (b-2) no amplification products of the bacterially-derived nucleic acid are detected even when 32 cycles or more of gene amplification reaction are performed in the preparation under conditions containing no template using primers capable of amplifying only the bacterially-derived nucleic acid other than the gene encoding the thermostable DNA polymerase; and
Textile item of clothing equipped with ballistic protection, having a torso part and arm parts, wherein the torso part is a knitted fabric and has at least one protected zone which is formed from a yarn that impedes the ingress of shrapnel, characterized in that the arm parts are formed from a woven material.
A method of determining the respiratory rate of a patient comprising the steps: - determining at least two time dependent respiratory signals s i ( t) ( i = 1, 2,...) by at least two different measuring methods; - determining the resulting respective instantaneous respiratory rates f i ( n) ( i = 1, 2,...) from the at least two time dependent respiratory signals s i ( t) ( i = 1, 2,...) - determining an average respiratory rate f(n) by a weighted averaging of the respiratory rates f i ( n) ( i = 1, 2,...), characterized in that the weightings k i ( n) ( i = 1, 2,...) of the individual respiratory rates f i ( n) ( i = 1, 2,...) depend on a difference between the respective respiratory rates f i ( n) ( i = 1, 2,...) and an estimate f s ( n) determined on the basis of the at least two time-dependent respiratory signals s i ( t) ( i = 1, 2,...). - determining at least two time dependent respiratory signals s i ( t) ( i = 1, 2,...) by at least two different measuring methods; - determining the resulting respective instantaneous respiratory rates f i ( n) ( i = 1, 2,...) from the at least two time dependent respiratory signals s i ( t) ( i = 1, 2,...) - determining an average respiratory rate f(n) by a weighted averaging of the respiratory rates f i ( n) ( i = 1, 2,...), characterized in that the weightings k i ( n) ( i = 1, 2,...) of the individual respiratory rates f i ( n) ( i = 1, 2,...) depend on a difference between the respective respiratory rates f i ( n) ( i = 1, 2,...) and an estimate f s ( n) determined on the basis of the at least two time-dependent respiratory signals s i ( t) ( i = 1, 2,...).
A cartridge for determining the methylation state of a nucleic acid, said cartridge comprising: (i) a first column comprising a first matrix material, (ii) a sample receiving chamber, (iii) a temperature controlled channel or chamber, (iv) a plurality of chambers containing reagents and/or buffers, and wherein when the cartridge is in use, at least one of said chambers contains a bisulfite reagent, and at least one of said chambers contains a desulphonation/elution buffer, wherein said cartridge optionally comprises a second column comprising a second matrix material, wherein said sample receiving chamber, said first and optional second column(s), said plurality of chambers, and said temperature-controlled heating channel or chamber, are selectively in fluid communication by microfluidic channels and valves. (i) a first column comprising a first matrix material, (ii) a sample receiving chamber, (iii) a temperature controlled channel or chamber, (iv) a plurality of chambers containing reagents and/or buffers, and wherein when the cartridge is in use, at least one of said chambers contains a bisulfite reagent, and at least one of said chambers contains a desulphonation/elution buffer, wherein said cartridge optionally comprises a second column comprising a second matrix material, wherein said sample receiving chamber, said first and optional second column(s), said plurality of chambers, and said temperature-controlled heating channel or chamber, are selectively in fluid communication by microfluidic channels and valves.
A tube made of a fluororesin, the tube having axial tearability and heat-shrinkable properties, the tube including points a, b, c, and d that satisfy both conditions and below: 0.9<Rea/Rec<1.1 and 0.9<Reb/Red<1.1; and Rea/Reb≤0.9 or Rea/Reb≥1.1, the points a, b, c, and d being four random points that are located on a circumference of the tube on any cross section in an axial direction of the tube, and being aligned in the stated order in a circumferential direction, the Rea, Reb, Rec, and Red respectively indicating retardations at the points a, b, c, and d, the tube further satisfying a condition below: (10-point standard deviation/10-point average)× 100≤2 in respective sets A, B, C, and D, and each of the sets A, B, C, and D including retardations at ten random points present in a range between the point a, b, c, or d and a point 5 mm away from that point in the axial direction. 0.9<Rea/Rec<1.1 and 0.9<Reb/Red<1.1; and Rea/Reb≤0.9 or Rea/Reb≥1.1, (10-point standard deviation/10-point average)× 100≤2 in respective sets A, B, C, and D, and
A fuel cell system for generating power by supplying anode gas and cathode gas to a fuel cell stack, comprising: a compressor configured to supply the cathode gas; a bypass passage configured to discharge a part of the cathode gas discharged from the compressor to a cathode gas discharge passage while bypassing the fuel cell stack; a bypass valve provided in the bypass passage and configured to adjust a flow rate of the cathode gas flowing in the bypass passage; a target stack supply flow rate setting unit configured to set a target value of a flow rate of the cathode gas to be supplied to the fuel cell stack according to a load and a wetness request of the fuel cell stack; a compressor supply flow rate control unit (111, 114, 105) configured to control a flow rate of the cathode gas to be supplied by the compressor according to an operating state of the fuel cell system; a bypass valve control unit configured to control the bypass valve based on the target stack supply flow rate so that the flow rate of the cathode gas to be supplied from the compressor to the fuel cell stack reaches the target stack supply flow rate; and a compressor supply flow rate limiting unit (113, 114) configured to limit the flow rate of the cathode gas calculated by the compressor supply flow rate control unit on the basis of the wetness request of the fuel cell stack. a compressor configured to supply the cathode gas; a bypass passage configured to discharge a part of the cathode gas discharged from the compressor to a cathode gas discharge passage while bypassing the fuel cell stack; a bypass valve provided in the bypass passage and configured to adjust a flow rate of the cathode gas flowing in the bypass passage; a target stack supply flow rate setting unit configured to set a target value of a flow rate of the cathode gas to be supplied to the fuel cell stack according to a load and a wetness request of the fuel cell stack; a compressor supply flow rate control unit (111, 114, 105) configured to control a flow rate of the cathode gas to be supplied by the compressor according to an operating state of the fuel cell system; a bypass valve control unit configured to control the bypass valve based on the target stack supply flow rate so that the flow rate of the cathode gas to be supplied from the compressor to the fuel cell stack reaches the target stack supply flow rate; and a compressor supply flow rate limiting unit (113, 114) configured to limit the flow rate of the cathode gas calculated by the compressor supply flow rate control unit on the basis of the wetness request of the fuel cell stack.
A connector assembly (100, 300, 700, 900) comprising: a housing (101, 301, 701, 901) for storing components of the connector assembly; a cable including a cable center conductor, wherein the cable center conductor is configured as a signal conductor; and a first dielectric and an alignment dielectric (104, 303), and characterized in that each of the first dielectric and the alignment dielectric includes a path to guide the cable center conductor through an angle to a printed circuit board, as the cable is axially inserted into the housing, wherein the connector assembly further comprises an orientation member configured to ensure orientation of the first dielectric when the first dielectric is inserted into the housing (101, 301, 701, 901). a housing (101, 301, 701, 901) for storing components of the connector assembly; a cable including a cable center conductor, wherein the cable center conductor is configured as a signal conductor; and a first dielectric and an alignment dielectric (104, 303), and characterized in that each of the first dielectric and the alignment dielectric includes a path to guide the cable center conductor through an angle to a printed circuit board, as the cable is axially inserted into the housing, wherein the connector assembly further comprises an orientation member configured to ensure orientation of the first dielectric when the first dielectric is inserted into the housing (101, 301, 701, 901).
A light sensor comprising: a substrate comprising silicon; a photosensitive element comprising a photoresist polymer configured to react to exposure to light, resulting in a change in an electrical property of the photosensitive element; first and second electrodes (12, 14) located on the substrate, wherein the first and second electrodes are configured to measure a value indicating the electrical property of the photosensitive element, wherein the value is representative of the light dose received by the photosensitive element, and a dielectric layer located on the first and second electrodes for passivating the first and second electrodes, wherein the photosensitive element is adjacent the dielectric layer. a substrate comprising silicon; a photosensitive element comprising a photoresist polymer configured to react to exposure to light, resulting in a change in an electrical property of the photosensitive element; first and second electrodes (12, 14) located on the substrate, wherein the first and second electrodes are configured to measure a value indicating the electrical property of the photosensitive element, wherein the value is representative of the light dose received by the photosensitive element, and a dielectric layer located on the first and second electrodes for passivating the first and second electrodes, wherein the photosensitive element is adjacent the dielectric layer.
A curved apparatus (100; 100a; 100b; 200) for abrading tissue, comprising: an outer assembly having an outer tube, the outer tube being provided with a distal end, a proximal end, and a fixed bend; an inner assembly rotatably positioned within the outer tube, wherein an inner tube of the inner assembly is removable from the outer tube of the outer assembly; and an abrading element located at a most distal end of the inner tube, characterized in that a distal end of the inner tube has a coil portion proximal to the abrading element, the coil portion terminating in a shoulder at its most distal end, the shoulder having a width greater than a width of an inner lumen of the fixed bend of the outer tube, and in that the outer tube is provided with a counterbore formed into the inner lumen of the outer tube at the distal end of the outer tube, so that the shoulder of the inner tube rests on the counterbore of the outer tube when the inner assembly is inserted into the outer tube, to prevent extrusion of the abrading element during rotation. an outer assembly having an outer tube, the outer tube being provided with a distal end, a proximal end, and a fixed bend; an inner assembly rotatably positioned within the outer tube, wherein an inner tube of the inner assembly is removable from the outer tube of the outer assembly; and an abrading element located at a most distal end of the inner tube, characterized in that a distal end of the inner tube has a coil portion proximal to the abrading element, the coil portion terminating in a shoulder at its most distal end, the shoulder having a width greater than a width of an inner lumen of the fixed bend of the outer tube, and in that the outer tube is provided with a counterbore formed into the inner lumen of the outer tube at the distal end of the outer tube, so that the shoulder of the inner tube rests on the counterbore of the outer tube when the inner assembly is inserted into the outer tube, to prevent extrusion of the abrading element during rotation.
A device for analysing an endocardial acceleration EA signal, said device comprising: - processing means, receiving as an input an EA signal over one cardiac cycle, and delivering as an output at least one characteristic data correlated to time parameters of the cardiac cycle and/or to the hemodynamic performances of the myocardium, - pre-processing means, receiving as an input an EA signal collected over a sequence of cardiac cycles and delivering as an output said EA signal overs one cycle applied at the input of said processing means, the device being characterized in that said pre-processing means comprise:. means for cutting said EA signal collected over the sequence of cardiac cycles, by determining markers of beginning of cycle isolating the successive cardiac cycles of this signal, so as to produce a series of EA sub-signals, each over a duration of one cardiac cycle;. separating means, configured to isolate in each of said EA sub-signals at least one component EAx related to one of the cardiac noises (S1, S2, S3 or S4) for this sub-signal; and. correlating means (120, 120'), operating on said EAx component, configured to search for a maximum of correlation and to operate a relative retiming of each of the sub-signals of the series of EA sub-signals with respect to this maximum, and configured to deliver a retimed EAx component related to each sub-signal of said series of EA sub-signals. - processing means, receiving as an input an EA signal over one cardiac cycle, and delivering as an output at least one characteristic data correlated to time parameters of the cardiac cycle and/or to the hemodynamic performances of the myocardium, - pre-processing means, receiving as an input an EA signal collected over a sequence of cardiac cycles and delivering as an output said EA signal overs one cycle applied at the input of said processing means,. means for cutting said EA signal collected over the sequence of cardiac cycles, by determining markers of beginning of cycle isolating the successive cardiac cycles of this signal, so as to produce a series of EA sub-signals, each over a duration of one cardiac cycle;. separating means, configured to isolate in each of said EA sub-signals at least one component EAx related to one of the cardiac noises (S1, S2, S3 or S4) for this sub-signal; and. correlating means (120, 120'), operating on said EAx component, configured to search for a maximum of correlation and to operate a relative retiming of each of the sub-signals of the series of EA sub-signals with respect to this maximum, and configured to deliver a retimed EAx component related to each sub-signal of said series of EA sub-signals.
A dishwashing detergent, comprising: a builder; a surfactant; and a polymer comprising units derived from: an ethylenically unsaturated aminocarboxylate monomer having Formula I: wherein: m is 1, 2, or 3; n is, independently at each occurrence, 1, 2, or 3; R 1 is H or C1-C4 alkyl; R 2 is H 2 or =O; X is, independently, H, K +, Na +, or NH 4 +; and an ethylenically unsaturated monomer selected from (meth)acrylic acid. a builder; a surfactant; and a polymer comprising units derived from: an ethylenically unsaturated aminocarboxylate monomer having Formula I: wherein: m is 1, 2, or 3; n is, independently at each occurrence, 1, 2, or 3; R 1 is H or C1-C4 alkyl; R 2 is H 2 or =O; X is, independently, H, K +, Na +, or NH 4 +; and an ethylenically unsaturated monomer selected from (meth)acrylic acid. an ethylenically unsaturated aminocarboxylate monomer having Formula I: wherein: m is 1, 2, or 3; n is, independently at each occurrence, 1, 2, or 3; R 1 is H or C1-C4 alkyl; R 2 is H 2 or =O; X is, independently, H, K +, Na +, or NH 4 +; and m is 1, 2, or 3; n is, independently at each occurrence, 1, 2, or 3; R 1 is H or C1-C4 alkyl; R 2 is H 2 or =O; X is, independently, H, K +, Na +, or NH 4 +; and an ethylenically unsaturated monomer selected from (meth)acrylic acid.
Display with two juxtaposed digits comprising an arrangement of electrodes, the display comprising a left digit and a right digit, the right digit comprising an upper electrode, a median electrode and a lower electrode, the median electrode extending between the upper electrode and the lower electrode, the right digit also comprising a lateral upper left electrode and a lateral lower left electrode, and a lateral upper right electrode and a lateral lower right electrode, the left digit comprising an upper electrode, a median electrode and a lower electrode, the median electrode extending between the upper electrode and the lower electrode, the left digit also comprising a lateral upper left electrode and a lateral lower left electrode, as well as a lateral upper right electrode and a lateral lower right electrode, the display being such that, in the left digit, the upper electrode, the median electrode and the lower electrode are each formed of a first and second point-shaped electrode (24a, 24b; 26a, 26b; 28a, 28b), and that a first additional electrode is provided between the lateral upper left electrode and the lateral upper right electrode of the left digit, the first additional electrode being adjacent to the lateral upper right electrode, whilst a second additional electrode is provided between the lateral lower left electrode and the lateral lower right electrode of the left digit, the second additional electrode being adjacent to the lateral lower right electrode, the display being characterized in that the three unique point-shaped electrodes (50a, 50b, 50c) are arranged one above the other between the left digit and the right digit, respectively at the height of the upper electrode, of the median electrode and the lower electrode of the right digit.
A display device including a main display area in which main display elements are arranged and a component area in which auxiliary display elements and a transmission area are arranged, wherein the main display area and the component area display an image individually or together, the component area overlaps with an electronic light transmitting or receiving component of the display device, the transmission area is an area through which light output from the electronic component to the outside or traveling toward the electronic component from the outside is transmitted, the display device comprising: a first pixel-defining layer arranged in the main display area, the first pixel-defining layer disposed between first pixel electrodes of the main display elements; a second pixel-defining layer arranged in the component area, the second pixel-defining layer disposed between second pixel electrodes of the auxiliary display elements; a black matrix only arranged on the main display elements, the black matrix disposed around emission areas of the main display elements; and color filters arranged on the main display elements and the auxiliary display elements, the color filters corresponding to the emission areas of the main display elements and emission areas of the auxiliary display elements, respectively. the main display area and the component area display an image individually or together, the component area overlaps with an electronic light transmitting or receiving component of the display device, the transmission area is an area through which light output from the electronic component to the outside or traveling toward the electronic component from the outside is transmitted, the display device comprising: a first pixel-defining layer arranged in the main display area, the first pixel-defining layer disposed between first pixel electrodes of the main display elements; a second pixel-defining layer arranged in the component area, the second pixel-defining layer disposed between second pixel electrodes of the auxiliary display elements; a black matrix only arranged on the main display elements, the black matrix disposed around emission areas of the main display elements; and color filters arranged on the main display elements and the auxiliary display elements, the color filters corresponding to the emission areas of the main display elements and emission areas of the auxiliary display elements, respectively. a first pixel-defining layer arranged in the main display area, the first pixel-defining layer disposed between first pixel electrodes of the main display elements; a second pixel-defining layer arranged in the component area, the second pixel-defining layer disposed between second pixel electrodes of the auxiliary display elements; a black matrix only arranged on the main display elements, the black matrix disposed around emission areas of the main display elements; and color filters arranged on the main display elements and the auxiliary display elements, the color filters corresponding to the emission areas of the main display elements and emission areas of the auxiliary display elements, respectively.