mhurhangee/ep-ind-claims huggingface dataset:
A method for calibrating a magnetic sensor, comprising: acquiring measurements (M 1) from a magnetic sensor during a random movement; determining a plurality of sets of solutions (SSET K) for respective expected values (H K) of intensity of the Earth's magnetic field, wherein each solution (S K) is defined by a plurality of parameters (GM X, GM Y, GM Z, OM X, OM Y, OM Z) including at least one gain value (GM X, GM Y, GM Z) for each detection axis (X', Y', Z') of the magnetic sensor; determining a figure of merit (E(S K), correlated to a calibration error, for each solution (S K) in the sets of solutions (SSET K); selecting a partial solution (S KB) in each set of solutions (SSET K) on the basis of the figure of merit (E(S K)); defining a gain confidence interval (I G); and selecting a calibration solution (S CAL) on the basis of the figure of merit (E(S K)), from among the partial solutions (S KB) having respective gain values (GM X, GM Y, GM Z) all falling within the gain confidence interval (I G). acquiring measurements (M 1) from a magnetic sensor during a random movement; determining a plurality of sets of solutions (SSET K) for respective expected values (H K) of intensity of the Earth's magnetic field, wherein each solution (S K) is defined by a plurality of parameters (GM X, GM Y, GM Z, OM X, OM Y, OM Z) including at least one gain value (GM X, GM Y, GM Z) for each detection axis (X', Y', Z') of the magnetic sensor; determining a figure of merit (E(S K), correlated to a calibration error, for each solution (S K) in the sets of solutions (SSET K); selecting a partial solution (S KB) in each set of solutions (SSET K) on the basis of the figure of merit (E(S K)); defining a gain confidence interval (I G); and selecting a calibration solution (S CAL) on the basis of the figure of merit (E(S K)), from among the partial solutions (S KB) having respective gain values (GM X, GM Y, GM Z) all falling within the gain confidence interval (I G).
A semispherical shoe for a swash plate compressor of the type constructed such that inside a housing where a refrigerant is present, a rotational motion of a swash plate mounted perpendicularly and obliquely on a rotational shaft by directly fixing the swash plate to said rotational shaft is converted into a reciprocating motion of a piston through a shoe (4; 4') which slides on the swash plate to compress and expand said refrigerant, wherein a surface of a planar part of said semispherical shoe (4; 4') for making sliding contact with a swash plate consists of a resin layer, and a surface of a spherical part consists of a base material of said semispherical shoe (4; 4'); characterised in that in viewing said surface of said planar part of said resin layer divided into three parts consisting of a central part, an outer edge part, and an intermediate part interposed between said central part and said outer edge part in a direction vertical to said surface of said planar part, an annular belt portion whose layer thickness is larger than that of each of said central part and said outer edge part is formed inside said intermediate part; the layer thickness of the central part and that of the outer edge part are 0.1mm to 1mm; and a maximum layer thickness of said annular belt portion is set to not less than twice as large as a maximum layer thickness of each of said central part and said outer edge part.
An electrical contact comprising: a tubular body formed of a flexible and insulative material and including an inner surface; a plurality of wires, each being partially embedded and fixed in the tubular body and having a portion of the wire exposed within the inner surface of the tubular body; and a channel formed from at least a portion of the inner surface of the tubular body and the exposed portions of the plurality of wires characterized in that the wires are each formed in a spiral or helical configuration. a tubular body formed of a flexible and insulative material and including an inner surface; a plurality of wires, each being partially embedded and fixed in the tubular body and having a portion of the wire exposed within the inner surface of the tubular body; and a channel formed from at least a portion of the inner surface of the tubular body and the exposed portions of the plurality of wires characterized in that the wires are each formed in a spiral or helical configuration.
A load arrangement (300; 301; 302) adapted to counter bio-fouling of an external electrically conductive element to be treated, the load arrangement comprising a tile, said tile comprising: at least one electrode; a load comprising UV light sources to counter bio-fouling; a dielectric layer which encapsulates the load and the at least one electrode, characterized in that: the at least one electrode is adapted to provide capacitive coupling to the external electrically conductive element to be treated, and in that the load comprises a first load terminal for connection to a first power source terminal of a power source via the capacitive coupling and the external electrically conductive element to be treated, and a second load terminal for connection to a second power source terminal of the power source, wherein the power source is for powering the UV light sources via wireless capacitive power transfer. at least one electrode; a load comprising UV light sources to counter bio-fouling; a dielectric layer which encapsulates the load and the at least one electrode, characterized in that: the at least one electrode is adapted to provide capacitive coupling to the external electrically conductive element to be treated, and in that the load comprises a first load terminal for connection to a first power source terminal of a power source via the capacitive coupling and the external electrically conductive element to be treated, and a second load terminal for connection to a second power source terminal of the power source, wherein the power source is for powering the UV light sources via wireless capacitive power transfer. the at least one electrode is adapted to provide capacitive coupling to the external electrically conductive element to be treated, and in that the load comprises a first load terminal for connection to a first power source terminal of a power source via the capacitive coupling and the external electrically conductive element to be treated, and a second load terminal for connection to a second power source terminal of the power source, wherein the power source is for powering the UV light sources via wireless capacitive power transfer.
A screening apparatus comprising a base; a frame assembly comprised of a main support frame section mounted on the base, and a movable support frame section movably mounted on the main support frame section; a plurality of sieve mat supports (302, 304, 306, 308, etc.) spaced transversely along the length of the frame assembly, the sieve mat supports alternately connected to the main support frame section and the movable support frame section; a flexible sieve mat (200, 500) comprising a plurality of sieve mat sections (202, 204, 206, 208, etc.) and extending along a length of the frame assembly and connected to and supported by the sieve mat supports, a drive system (110/116/117) operative to move at least one of an adjacent pair of sieve mat supports so as to alternately increase and decrease distance between the adjacent pair of sieve mat supports, wherein the sieve mat section is alternately tensioned and relaxed in a flip flow action as the distance between the adjacent pair of sieve mat supports is alternately increased and decreased, characterized in that the sieve mat comprises upwardly curved lateral sides (200a, 200b) forming a gradually curved shape, wherein the curved shape has a radius R at a center point thereof of: 15 cm (6 inches) ≤R ≤ 76 cm (30 inches); and the gradually curved shape terminates before reaching vertical, with an upper end (L 2) of the upwardly curved lateral sides having a slope of 75% of vertical or less.
A polyaxial screw comprising a threaded bone anchor part and an anchoring part with a mechanical thread each provided with a head (3, 9) connected to one another by retention means (13, 18), comprising on the one hand friction means arranged between the head of the bone anchor part and the head of the mechanical thread anchoring, characterized in that the which are constituted by a helicoidal wire (12 a) in the form of a spring positioned inside a housing arranged in the head of the thread part of the bone anchor and on which the head comes to be supported which head has an external, spherical profile of the mechanical thread anchor part, and comprises on the other hand retention means (13, 18) ensuring that the anchor parts (2, 4) cannon separate from one another while guaranteeing that the mechanical thread anchor part has freedom of movement in vertical translation and in angular pivoting relative to this bone anchor threaded part in order to be able the axially preposition before its immobilization this mechanical thread anchor part relative to the axial anchoring position of the bone anchor threaded part.
A tissue embedder comprising: a. a transport mechanism for an input member, the input member adapted to hold a plurality of tissue supports, with each tissue support associated with a mould; b. a wax bath; c. a cooling station comprising a first region at an ambient temperature for cooling the tissue supports and input member slowly, and a second region for cooling the tissue supports to a temperature below ambient, wherein the transport mechanism moves the input member from the wax bath to the cooling station. a. a transport mechanism for an input member, the input member adapted to hold a plurality of tissue supports, with each tissue support associated with a mould; b. a wax bath; c. a cooling station comprising a first region at an ambient temperature for cooling the tissue supports and input member slowly, and a second region for cooling the tissue supports to a temperature below ambient,
A scintillation detector device, comprising: a scintillation crystal detector; a X-ray sensitizing screen, which is disposed forward of the scintillation crystal detector and where a backscattered X-ray from an object to be detected is processed and then at least part of the processed X-ray is incident to the scintillation crystal detector; and a photoelectric multiplier, which is disposed backward of the scintillation crystal detector and is configured to collect a light signal from the scintillation crystal detector and convert it to an electrical signal, characterized in that the scintillation crystal detector is made of an organic scintillation crystal of polystyrene, the organic scintillation crystal of polystyrene is doped with a wave-drifting material for wave-drifting of a high-energy photon generated by the organic scintillation crystal or the sensitizing screen to a wave band where the photoelectric multiplier is sensitive, and the wave-drifting material comprises Bis-MSB. a scintillation crystal detector; a X-ray sensitizing screen, which is disposed forward of the scintillation crystal detector and where a backscattered X-ray from an object to be detected is processed and then at least part of the processed X-ray is incident to the scintillation crystal detector; and a photoelectric multiplier, which is disposed backward of the scintillation crystal detector and is configured to collect a light signal from the scintillation crystal detector and convert it to an electrical signal, characterized in that the scintillation crystal detector is made of an organic scintillation crystal of polystyrene, the organic scintillation crystal of polystyrene is doped with a wave-drifting material for wave-drifting of a high-energy photon generated by the organic scintillation crystal or the sensitizing screen to a wave band where the photoelectric multiplier is sensitive, and the wave-drifting material comprises Bis-MSB.
Angle geared motor, having a gear housing, in which a toothed wheel is rotatably mounted, a gear-side motor end shield, through which a motor shaft having a pinion fastened thereto protrudes, an interface between the gear housing and the gear-side motor end shield, and characterised by a pin, which is fastened in the motor end shield and which serves as a pivot point for the rotation of the gear housing relative to the motor end shield.
Electrical device (1, 20, 30) comprising a crosslinked layer (3, 4, 5, 21, 22, 23, 31, 32) obtained from a polymer composition comprising at least one polymer comprising at least one epoxy function, characterized in that the polymer composition further comprises a non-polymeric compound as a crosslinking agent comprising at least one reactive function capable of reacting with the epoxy function of said polymer to allow the crosslinking of said polymer, the crosslinking agent being selected from: - a non-polymeric compound comprising at least one amine function and at least one carboxyl function, - a non-polymeric compound comprising at least one anhydride functional group, and a crosslinking catalyst, and - one of their mixtures. - a non-polymeric compound comprising at least one amine function and at least one carboxyl function, - a non-polymeric compound comprising at least one anhydride functional group, and a crosslinking catalyst, and - one of their mixtures.
Diagnostic tool for determining an interruption in a plant with at least one device, characterised in that - a plant status can be determined at a recording time by recording at least one plant status value and the plant status can be transmitted to the diagnostic tool, wherein the plant status indicates the status of the plant as a whole, - a device status can be determined at the recording time by recording at least one device status value and the device status can be transmitted to the diagnostic tool, - when the device status and the plant status are transmitted at the same time, a shared time base is assigned to the transmitted device status and the transmitted plant status, wherein if a time stamp is already available, which was transmitted with the plant status or with the device status, said shared time base can overwrite or additionally assign the time stamp, - and the transmitted device status and the transmitted plant status can be correlated. - a plant status can be determined at a recording time by recording at least one plant status value and the plant status can be transmitted to the diagnostic tool, wherein the plant status indicates the status of the plant as a whole, - a device status can be determined at the recording time by recording at least one device status value and the device status can be transmitted to the diagnostic tool, - when the device status and the plant status are transmitted at the same time, a shared time base is assigned to the transmitted device status and the transmitted plant status, wherein if a time stamp is already available, which was transmitted with the plant status or with the device status, said shared time base can overwrite or additionally assign the time stamp, - and the transmitted device status and the transmitted plant status can be correlated.
A method of generating a strand specific cDNA molecule from an RNA molecule in an RNA sample, the method comprising: (a) isolating the RNA sample from a biological sample, and optionally fragmenting the isolated RNA; (b) generating an RNA-complementary DNA (cDNA) duplex comprising the RNA molecule and a first cDNA strand by reverse transcription; (c) annealing a partially double stranded oligonucleotide 5' adapter to the 3' end of the first cDNA strand of the RNA-cDNA duplex, wherein the 5' adapter comprises: (i) a first strand capturing oligonucleotide comprising at least 20 deoxyribonucleotides and a 3' overhang comprising about 6-12 consecutive random deoxyribonucleotides that anneal to the 3' end of the first cDNA strand, optionally wherein the 3' overhang comprises about 8-12 consecutive deoxyribonucleotides that are 100% complementary to the first cDNA strand; and (ii) a second strand blocking oligonucleotide comprising at least 20 deoxyribonucleotides complementary to at least a portion of the first strand capturing oligonucleotide; and (d) generating the strand specific cDNA molecule by extending the first strand capturing oligonucleotide of the 5' adapter using a DNA polymerase or a fragment thereof to generate a second cDNA strand complementary to the first cDNA strand. (a) isolating the RNA sample from a biological sample, and optionally fragmenting the isolated RNA; (b) generating an RNA-complementary DNA (cDNA) duplex comprising the RNA molecule and a first cDNA strand by reverse transcription; (c) annealing a partially double stranded oligonucleotide 5' adapter to the 3' end of the first cDNA strand of the RNA-cDNA duplex, wherein the 5' adapter comprises: (i) a first strand capturing oligonucleotide comprising at least 20 deoxyribonucleotides and a 3' overhang comprising about 6-12 consecutive random deoxyribonucleotides that anneal to the 3' end of the first cDNA strand, optionally wherein the 3' overhang comprises about 8-12 consecutive deoxyribonucleotides that are 100% complementary to the first cDNA strand; and (ii) a second strand blocking oligonucleotide comprising at least 20 deoxyribonucleotides complementary to at least a portion of the first strand capturing oligonucleotide; and (i) a first strand capturing oligonucleotide comprising at least 20 deoxyribonucleotides and a 3' overhang comprising about 6-12 consecutive random deoxyribonucleotides that anneal to the 3' end of the first cDNA strand, optionally wherein the 3' overhang comprises about 8-12 consecutive deoxyribonucleotides that are 100% complementary to the first cDNA strand; and (ii) a second strand blocking oligonucleotide comprising at least 20 deoxyribonucleotides complementary to at least a portion of the first strand capturing oligonucleotide; and (d) generating the strand specific cDNA molecule by extending the first strand capturing oligonucleotide of the 5' adapter using a DNA polymerase or a fragment thereof to generate a second cDNA strand complementary to the first cDNA strand.
Method for producing a container that delimits a container interior from the surroundings and is formed at least in part from a sheet-like composite, comprising the method steps of: providing a sheet-like composite on a roller; forming the container from the sheet-like composite from the roller; closing the container; wherein the sheet-like composite comprises as component parts of the composite: - a polymer outer layer (4_1) facing the surroundings; - a carrier layer (4_2) following the polymer outer layer (4_1) in the direction of the container interior; - a barrier layer (4_3) following the carrier layer (4_2) in the direction of the container interior; - an adhesive layer (4_4) following the barrier layer (4_3) in the direction of the container interior; - a polymer inner layer (4_5) following the adhesive layer (4_4) in the direction of the container interior; wherein the sheet-like composite on a roller can be obtained by a method comprising the method steps of: a. providing a preliminary composite comprising at least the carrier layer (4_2); b. applying the adhesive layer (4_4) and the polymer inner layer (4_5) by laminating extrusion; d. rolling the sheet like composite onto the roller; wherein at least the polymer inner layer (4_5) or at least the adhesive layer (4_4) or at least both is/are stretched while it/they are being applied, wherein the carrier layer (4_2) has a hole, which is covered at least by the barrier layer (4_3), the adhesive layer (4_4) and the polymer inner layer (4_5) as hole-covering layers, and wherein at least one of the hole-covering layers comprising a stretched polymer is thermally treated. providing a sheet-like composite on a roller; forming the container from the sheet-like composite from the roller; closing the container; - a polymer outer layer (4_1) facing the surroundings; - a carrier layer (4_2) following the polymer outer layer (4_1) in the direction of the container interior; - a barrier layer (4_3) following the carrier layer (4_2) in the direction of the container interior; - an adhesive layer (4_4) following the barrier layer (4_3) in the direction of the container interior; - a polymer inner layer (4_5) following the adhesive layer (4_4) in the direction of the container interior; a. providing a preliminary composite comprising at least the carrier layer (4_2); b. applying the adhesive layer (4_4) and the polymer inner layer (4_5) by laminating extrusion; d. rolling the sheet like composite onto the roller;
A machine-implemented method of generating a communication traffic control rule for communication equipment, the method comprising: accessing configuration information for communication equipment; determining from the configuration information a parameter which affects processing of communication traffic by the communication equipment; building, based on the parameter, a communication traffic control rule to be applied to communication traffic at the communication equipment; and applying the communication traffic control rule at interfaces of the communication equipment to communication traffic being terminated by the communication equipment. accessing configuration information for communication equipment; determining from the configuration information a parameter which affects processing of communication traffic by the communication equipment; building, based on the parameter, a communication traffic control rule to be applied to communication traffic at the communication equipment; and applying the communication traffic control rule at interfaces of the communication equipment to communication traffic being terminated by the communication equipment.
A method comprising: rotating a thermal imaging camera in a plurality of physical orientations in a three-dimensional space; receiving a plurality of measurements from a magnetic sensor mounted in the thermal imaging camera as the thermal imaging camera is rotated in the three-dimensional space, each of the plurality of measurements being representative of three orthogonal components of a magnetic field when the thermal imaging camera is in a given orientation; generating a plurality of data points from the plurality of measurements, each of the plurality of data points corresponding to one of the plurality of measurements representative of the three orthogonal components of the magnetic field; and displaying on a display associated with the thermal imaging camera a simulated three-dimensional plot of the data points, wherein the simulated three-dimensional plot is updated in substantially real-time as new data points are generated as a physical orientation of the thermal imaging camera changes. rotating a thermal imaging camera in a plurality of physical orientations in a three-dimensional space; receiving a plurality of measurements from a magnetic sensor mounted in the thermal imaging camera as the thermal imaging camera is rotated in the three-dimensional space, each of the plurality of measurements being representative of three orthogonal components of a magnetic field when the thermal imaging camera is in a given orientation; generating a plurality of data points from the plurality of measurements, each of the plurality of data points corresponding to one of the plurality of measurements representative of the three orthogonal components of the magnetic field; and displaying on a display associated with the thermal imaging camera a simulated three-dimensional plot of the data points, wherein the simulated three-dimensional plot is updated in substantially real-time as new data points are generated as a physical orientation of the thermal imaging camera changes.