mhurhangee/ep-ind-claims huggingface dataset:
Method for creating a control module for a high-frequency antenna for a nuclear magnetic resonance imaging device comprising a plurality n of control elements (EP 1, EP 2,..., EP n) and a plurality m of radiating elements (ER 1; ER 2,..., ER m), said plurality m of radiating elements being greater than said plurality n of control elements (EP 1, EP 2,..., EP n), said method comprising successively: - a step of determining a distribution map of a magnetic field B 1 +; - a step of constructing a matrix B̃ on the basis of the selection of a plurality of x points from said map of B 1 + determined in the previous step, said construction of matrix B̃ being carried out using x × m B 1 i j + where i represents the index of the selected point that varies from 1 to x and j represents the index of radiating element ER j that varies from 1 to m, such that B ̃ i j = B 1 i j +; = - a step of determining singular vectors of said matrix B̃ by singular value decomposition, said singular vectors of said matrix B being represented by a matrix ( ν) k, j where k represents the index of a control element EP k that varies from 1 to n;; - a step of arranging coupling means and/or phase shifting means to form said control module such that a signal So j of a radiating element ER j at the output of said control module is a function of relation: So j = ∑ k = 1 n V k, j ⋅ Si k with Si k represents the input signal of a control element EP k - a step of determining a distribution map of a magnetic field B 1 +; - a step of constructing a matrix B̃ on the basis of the selection of a plurality of x points from said map of B 1 + determined in the previous step, said construction of matrix B̃ being carried out using x × m B 1 i j + where i represents the index of the selected point that varies from 1 to x and j represents the index of radiating element ER j that varies from 1 to m, such that B ̃ i j = B 1 i j +; = - a step of determining singular vectors of said matrix B̃ by singular value decomposition, said singular vectors of said matrix B being represented by a matrix ( ν) k, j where k represents the index of a control element EP k that varies from 1 to n;; - a step of arranging coupling means and/or phase shifting means to form said control module such that a signal So j of a radiating element ER j at the output of said control module is a function of relation: So j = ∑ k = 1 n V k, j ⋅ Si k with Si k represents the input signal of a control element EP k
An apparatus for holographic display comprising; - at least one light source for providing a source light beam and - at least one axially symmetric convex mirror for reflecting the source light beam, - a spatial light modulation system having one or more than one spatial light modulators for modulating light reflecting from the axially symmetric convex mirror and forming a desired optical reconstruction, wherein the one or more than one spatial light modulators of the spatial light modulation system are in a configuration that has a central axis, and wherein the central axis is substantially collinear with the axis of symmetry of the axially symmetric convex mirror. - at least one light source for providing a source light beam and - at least one axially symmetric convex mirror for reflecting the source light beam, - a spatial light modulation system having one or more than one spatial light modulators for modulating light reflecting from the axially symmetric convex mirror and forming a desired optical reconstruction, wherein the one or more than one spatial light modulators of the spatial light modulation system are in a configuration that has a central axis, and wherein the central axis is substantially collinear with the axis of symmetry of the axially symmetric convex mirror.
Process to correct aberration defects within an optical viewing device for observing a field through a window with substantially a dome shape, the optical viewing device comprising optical conjugation means for the field being observed with a viewing plane and relative orientation means for the viewing plane with respect to said field, optical correction means being provided so as to correct said aberration defects, said optical correction means between said window and said relative orientation means are disposed so that said optical correction means form together with said window an at least substantially afocal optical system, the optical correction means having the shape of a lens whose power and sign are respectively substantially equal and opposed to those of the window, the optical conjugation means being formed of a set of lenses (6A, 6B, 6C) in order to conjugate the field being observed with the viewing plane; characterized in that the window, the optical conjugation means and the optical correction means are centered on a same optical axis (X-X'),the aberrations defects are astigmatism defects, the relative orientation means are formed of a set of prisms (5A, 5B) in order to re-orient a field initially not centered on the optical axis (X-X') so that it is centered on the optical axis (X-X') after passing the prisms (5A, 5B); the optical correction means are mounted on a support integral with the optical viewing device.
A liquid or gel composition comprising hesperidin, at least one dihydric alcohol selected from the group consisting of ethylene glycol, diethylene glycol, triethylene glycol, polyethylene glycol, propylene glycol, dipropylene glycol, 1,3-butylene glycol, and 3-methyl-1,3-butanediol, and a sugar alcohol, wherein the,, and are dissolved in the composition, the composition having a pH of 3 to 10. hesperidin, at least one dihydric alcohol selected from the group consisting of ethylene glycol, diethylene glycol, triethylene glycol, polyethylene glycol, propylene glycol, dipropylene glycol, 1,3-butylene glycol, and 3-methyl-1,3-butanediol, and a sugar alcohol,
A battery housing comprising: a first housing portion; a lid assembly mateable with said first housing portion, said lid assembly having a tray and defining a powder chamber with a flame-retardant powder therein, said powder chamber having a plurality of openings (1222, 1232) sized to permit said powder to be expelled by pressure in said powder chamber; said first housing portion and said lid assembly, when mated, providing: a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings (1222, 1232). a first housing portion; a lid assembly mateable with said first housing portion, said lid assembly having a tray and defining a powder chamber with a flame-retardant powder therein, said powder chamber having a plurality of openings (1222, 1232) sized to permit said powder to be expelled by pressure in said powder chamber; said first housing portion and said lid assembly, when mated, providing: a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings (1222, 1232). a battery chamber dimensioned to hold at least one battery; and a venting passageway from said battery chamber to said powder chamber, wherein thermal runaway of a battery within said battery chamber pressurizes said powder chamber to expel powder through said openings (1222, 1232).
An aerosol generating system for heating a liquid aerosol-forming substrate, the system comprising: an aerosol-forming chamber; and leakage prevention means configured to prevent or reduce leakage of liquid aerosol condensate from the aerosol generating system, wherein the leakage prevention means comprises a cavity in a wall of the aerosol-forming chamber, for collecting liquid condensate formed from the aerosol-forming substrate, and wherein the cavity is in the form of an annular groove wherein the cavity has an annular cross sectional width of between 0.5 millimetres and 1 millimetre. an aerosol-forming chamber; and leakage prevention means configured to prevent or reduce leakage of liquid aerosol condensate from the aerosol generating system, wherein the leakage prevention means comprises a cavity in a wall of the aerosol-forming chamber, for collecting liquid condensate formed from the aerosol-forming substrate, and wherein the cavity is in the form of an annular groove wherein the cavity has an annular cross sectional width of between 0.5 millimetres and 1 millimetre.
A pipette tip comprising: a main body section; and a straight pipe section disposed at a leading end of the main body section, wherein an inner diameter of the straight pipe section is 1.0 mm to 1.5 mm inclusive, and a length of the straight pipe section is 5 mm to 15 mm inclusive, the main body section has a first taper section connected to the straight pipe section and the diameter of the first taper section is reduced toward the straight pipe section, characterized in that the taper angle of the first taper section in view of the straight pipe section is 3 degrees to 20 degrees inclusive and in that the straight pipe section has a small opening having a reverse taper section whose inner diameter is expanded toward the leading end. a main body section; and a straight pipe section disposed at a leading end of the main body section, wherein an inner diameter of the straight pipe section is 1.0 mm to 1.5 mm inclusive, and a length of the straight pipe section is 5 mm to 15 mm inclusive, the main body section has a first taper section connected to the straight pipe section and the diameter of the first taper section is reduced toward the straight pipe section, characterized in that the taper angle of the first taper section in view of the straight pipe section is 3 degrees to 20 degrees inclusive and in that the straight pipe section has a small opening having a reverse taper section whose inner diameter is expanded toward the leading end.
Labelling apparatus for applying labels to containers, comprising a gluing device having a glue roller (101, 201, 301, 401, 501, 601) and a glue-application unit (172, 272, 372, 472, 572) which is assigned to the glue roller and is intended for applying glue to the glue roller (101, 201, 301, 401, 501, 601), wherein the glue-application unit (172, 272, 372, 472, 572) has at least one accommodating space (374a, 374b; 474a, 474b; 574) for accommodating of glue, wherein the glue roller (101, 201, 301, 401, 501, 601) and/or the glue-application unit (172, 272, 372, 472, 572) are designed and the glue roller and the glue-application unit are arranged in relation to one another such that glue which is located in the accommodating space (374a, 374b; 474a, 474b; 574) is applied to the surface of the glue roller only in one or more sub-regions of the overall extent - as seen in the axial direction of the glue roller - of the surface of the glue roller; characterised in that the glue-application unit on the side of the glue roller comprises at least one controllable scraper by means of which the at least one accommodating space can be sealed, in particular hermetically, on the side of the glue roller.
Method for differentiating control faults in a system controlling an actuator acting on the position of a member modifying the state of a gas turbine engine, the system comprising an electrical control and a mechanical control, the electrical control comprising at least one computer (10, 10') for calculating the desired position of the movable member of the actuator and transmitting an instruction signal to the single-channel mechanical control of the actuator, a fault being diagnosed when a difference is detected between the desired position of the movable member of the actuator and its measured position for a given difference-confirmation period, characterised by the fact that the speed of movement of the actuator is measured and a fault of electrical origin is diagnosed when, during said difference-confirmation period, the speed of movement measured remains zero or above a predetermined threshold speed, otherwise the fault is of temporary mechanical origin.
A steering wheel assembly (10, 210, 410), comprising: a fixed hub (12, 212, 412); a steering wheel (14, 214, 414) held rotatably about said fixed hub (12, 212, 412); a housing (16, 116, 216, 416) removably locked to said fixed hub (12, 212, 412), said housing (16, 116, 216, 416) and/or said fixed hub (12, 212, 412) having at least one locking feature (66, 68, 80, 82), a locking mechanism interacting with said at least one locking feature (66, 68, 80, 82) to lock said housing (16, 116, 216, 416) to said fixed hub (12, 212, 412), wherein actuation of said locking mechanism in an unlock direction allows said housing (16, 116, 216, 416) to be unlocked from said fixed hub (12, 212, 412), characterized by further comprising a holder (20, 120) carried by said housing (16, 116, 216, 416) that is sized to hold a phone, or a tablet, and/or a controller a fixed hub (12, 212, 412); a steering wheel (14, 214, 414) held rotatably about said fixed hub (12, 212, 412); a housing (16, 116, 216, 416) removably locked to said fixed hub (12, 212, 412), said housing (16, 116, 216, 416) and/or said fixed hub (12, 212, 412) having at least one locking feature (66, 68, 80, 82), a locking mechanism interacting with said at least one locking feature (66, 68, 80, 82) to lock said housing (16, 116, 216, 416) to said fixed hub (12, 212, 412), wherein actuation of said locking mechanism in an unlock direction allows said housing (16, 116, 216, 416) to be unlocked from said fixed hub (12, 212, 412),
Combustion chamber for a gas turbine, the combustion chamber comprising a wall section, wherein the wall section comprises an inlet channel for injecting a cooling medium into the combustion chamber, and a brim element which is mounted to an inner face of the wall section, wherein the brim element is formed in such a way that a projected area of the brim element onto the inner face along a direction of a normal of the inner face at least partially covers the inlet channel, wherein the wall section further comprises a fuel injection aperture through which fuel is injectable into the combustion chamber, wherein the inlet channel forms together with an edge of the brim element and the inner face an inlet aperture through which the cooling medium streams inside the combustion chamber, characterized in that the wall section further comprises a groove formed within the inner face, wherein the groove forms a part of an end section of the inlet channel, wherein the groove is formed such that the groove runs at least partially along a predefined direction for guiding the cooling medium streaming through the inlet channel, wherein the groove has a curved shape along a circumferential direction around a centre axis of the fuel injection aperture, and wherein the brim element is formed in such a way that the cooling medium streaming through the inlet aperture is guided partially along the circumferential direction around the centre axis of the fuel injection aperture.
A method for downlink interference cancellation in a radio communication system comprising a first radio device, said radio device, during use of the first radio device, being connected to a first remote node via a cellular first radio access technology, RAT, and performing the steps: obtaining decoding information relating to decoding of a downlink data signal intended for the first radio device received from the first remote node; and characterized by transmitting the obtained decoding information via a D2D transmission, to a second radio device which is connected, via the first RAT, to a second remote node neighbouring to the first remote node, using radio resources assigned for device-to-device, D2D, transmissions, wherein the obtained decoding information comprises a Radio Network Temporary Identifier, RNTI, and the obtained decoding information further comprises at least one of a cell identity, such as a Global Cell Identity, GCI, or a Physical Cell Identity, PCI, of the first remote node; a carrier frequency, a frequency block within a system bandwidth where the first radio device will be allocated data, a code rate, a modulation or a transmission mode, of the data signal received from the first remote node. obtaining decoding information relating to decoding of a downlink data signal intended for the first radio device received from the first remote node; and characterized by transmitting the obtained decoding information via a D2D transmission, to a second radio device which is connected, via the first RAT, to a second remote node neighbouring to the first remote node, using radio resources assigned for device-to-device, D2D, transmissions, wherein the obtained decoding information comprises a Radio Network Temporary Identifier, RNTI, and the obtained decoding information further comprises at least one of a cell identity, such as a Global Cell Identity, GCI, or a Physical Cell Identity, PCI, of the first remote node; a carrier frequency, a frequency block within a system bandwidth where the first radio device will be allocated data, a code rate, a modulation or a transmission mode, of the data signal received from the first remote node.
A method of prognosticating progression of Barrett's esophagus in a patient, which method comprises: (a) contacting a sample of esophageal cells obtained from the patient with a set of detectably labeled probes consisting of (i) a probe for p16 which hybridizes to p21 on human chromosome 9, (ii) a probe for p53 which hybridizes to p13 on human chromosome 17, (iii) a centromeric probe for chromosome 7, (iv) a centromeric probe for chromosome 17, and (v) a probe for Her2 which hybridizes to q11 on human chromosome 17 under hybridization conditions, wherein each probe is detectably labeled with a distinct fluorophore, (b) detecting formation of a hybridization complex between each of the detectably labeled probes and a target nucleic acid sequence by assessing a signal from each of the distinct fluorophores, (c) determining the copy numbers of the p16 gene, the p53 gene, chromosome 7, chromosome 17, and the Her2 gene by quantifying the signal from each of the distinct fluorophores, (d) comparing the copy numbers determined in (c) to a pre-determined cut-off for each of the p16 gene, the p53 gene, chromosome 7, chromosome 17, and the Her2 gene, wherein a copy number greater than the pre-determined cut-off indicates a gain of the gene or chromosome and a copy number less than the pre-determined cut-off indicates a loss of the gene or chromosome, and wherein loss of the p16 gene, loss of the p53 gene, chromosome 7 aneuploidy, chromosome 17 aneuploidy, and/or Her2 gene amplification indicates progression of Barrett's esophagus. (a) contacting a sample of esophageal cells obtained from the patient with a set of detectably labeled probes consisting of (i) a probe for p16 which hybridizes to p21 on human chromosome 9, (ii) a probe for p53 which hybridizes to p13 on human chromosome 17, (iii) a centromeric probe for chromosome 7, (iv) a centromeric probe for chromosome 17, and (v) a probe for Her2 which hybridizes to q11 on human chromosome 17 under hybridization conditions, wherein each probe is detectably labeled with a distinct fluorophore, (b) detecting formation of a hybridization complex between each of the detectably labeled probes and a target nucleic acid sequence by assessing a signal from each of the distinct fluorophores, (c) determining the copy numbers of the p16 gene, the p53 gene, chromosome 7, chromosome 17, and the Her2 gene by quantifying the signal from each of the distinct fluorophores, (d) comparing the copy numbers determined in (c) to a pre-determined cut-off for each of the p16 gene, the p53 gene, chromosome 7, chromosome 17, and the Her2 gene, wherein a copy number greater than the pre-determined cut-off indicates a gain of the gene or chromosome and a copy number less than the pre-determined cut-off indicates a loss of the gene or chromosome, and wherein loss of the p16 gene, loss of the p53 gene, chromosome 7 aneuploidy, chromosome 17 aneuploidy, and/or Her2 gene amplification indicates progression of Barrett's esophagus.
A fluid connector, comprising: a connector body, including: a first through-bore; a first axially facing surface; a second axially facing surface; and, a flange; a retaining clip (70, 170) being radially expandable within the connector body; and, a retaining plate arranged to be inserted into the first through-bore, including: a distal surface arranged to engage the second axially facing surface; a proximal surface; and, a second through-bore; wherein the flange is operatively arranged to be crimped radially inward around the retaining plate, wherein the retaining clip (70, 170) is operatively arranged to engage the first axially facing surface; and the retaining clip (70, 170) is arranged axially between the first axially facing surface and the second axially facing surface. a connector body, including: a first through-bore; a first axially facing surface; a second axially facing surface; and, a flange; a first through-bore; a first axially facing surface; a second axially facing surface; and, a flange; a retaining clip (70, 170) being radially expandable within the connector body; and, a retaining plate arranged to be inserted into the first through-bore, including: a distal surface arranged to engage the second axially facing surface; a proximal surface; and, a second through-bore; a distal surface arranged to engage the second axially facing surface; a proximal surface; and, a second through-bore; wherein the flange is operatively arranged to be crimped radially inward around the retaining plate, wherein the retaining clip (70, 170) is operatively arranged to engage the first axially facing surface; and the retaining clip (70, 170) is arranged axially between the first axially facing surface and the second axially facing surface.