mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented method for improving performance within a mobile wireless communications network , the method being implemented in a computer system and comprising: i) providing one or more rules ; ii) collecting key performance indicators, KPI, from the wireless communications network, the KPIs being related to service coverage; iii) correlating the key performance indicators with the one or more rules; iv) generating adjustments to one or more parameters in response to the key performance indicators correlating to the one or more rules; and v) applying the generated adjustments to the wireless communications network, wherein the adjustments are applied iteratively in response to the collected KPIs, and a delay is applied to determine the beginning of the periodic iterative process for collecting the KPIs, and vi) the rules are applied at the cell (A) level or at the neighbouring cell (B or C) level; and, vii) each of the rules specifies: i) limits specifying high or low thresholds for key performance indicators; ii) one or more parameters to adjust in response to the specified key performance indicator crossing over the specified limit. i) providing one or more rules ; ii) collecting key performance indicators, KPI, from the wireless communications network, the KPIs being related to service coverage; iii) correlating the key performance indicators with the one or more rules; iv) generating adjustments to one or more parameters in response to the key performance indicators correlating to the one or more rules; and v) applying the generated adjustments to the wireless communications network, wherein the adjustments are applied iteratively in response to the collected KPIs, and a delay is applied to determine the beginning of the periodic iterative process for collecting the KPIs, and vi) the rules are applied at the cell (A) level or at the neighbouring cell (B or C) level; and, vii) each of the rules specifies: i) limits specifying high or low thresholds for key performance indicators; ii) one or more parameters to adjust in response to the specified key performance indicator crossing over the specified limit. i) limits specifying high or low thresholds for key performance indicators; ii) one or more parameters to adjust in response to the specified key performance indicator crossing over the specified limit.
A projection apparatus comprising: an illumination device ; a spatial light modulator that is disposed in a specific area or behind an optical axis of the specific area and is configured to generate a modulated image when the spatial light modulator is illuminated by the illumination device with a coherent light beam that passes through the specific area; and a projection optical system that is configured to project the modulated image onto a specific projection member, wherein the illumination device comprises: a diffusion member having an anisotropic diffusion surface ; and a rotary shaft member configured to rotate the anisotropic diffusion surface with an eccentric movement while a coherent light beam from a light source is illuminated on the anisotropic diffusion surface ; wherein the anisotropic diffusion surface is a reflective cylindrical surface that diffuses in a form of line the coherent light beam and rotates the coherent light beam diffused in the form of line on a specific plane when the rotary shaft member rotates, and the reflective cylindrical surface vibrates vertically by the eccentric movement when the rotary shaft member rotates. an illumination device ; a spatial light modulator that is disposed in a specific area or behind an optical axis of the specific area and is configured to generate a modulated image when the spatial light modulator is illuminated by the illumination device with a coherent light beam that passes through the specific area; and a projection optical system that is configured to project the modulated image onto a specific projection member, wherein the illumination device comprises: a diffusion member having an anisotropic diffusion surface ; and a rotary shaft member configured to rotate the anisotropic diffusion surface with an eccentric movement while a coherent light beam from a light source is illuminated on the anisotropic diffusion surface ; a diffusion member having an anisotropic diffusion surface ; and a rotary shaft member configured to rotate the anisotropic diffusion surface with an eccentric movement while a coherent light beam from a light source is illuminated on the anisotropic diffusion surface ; wherein the anisotropic diffusion surface is a reflective cylindrical surface that diffuses in a form of line the coherent light beam and rotates the coherent light beam diffused in the form of line on a specific plane when the rotary shaft member rotates, and the reflective cylindrical surface vibrates vertically by the eccentric movement when the rotary shaft member rotates.
A gear pump bearing (100a-100d), comprising: a body (101a-101d) sized and shaped to occupy a portion of a pump housing cavity such that a clearance is formed between the body (101a-101d) and a pump housing ; and at least one clearance consuming feature extending from an outer surface of the body (101a - 101d) configured to reduce motion of the body (101a - 101d) within the pump housing cavity , characterized in that the at least one clearance consuming feature includes a plurality of pins disposed at different circumferential positions on the body (101a-101d). a body (101a-101d) sized and shaped to occupy a portion of a pump housing cavity such that a clearance is formed between the body (101a-101d) and a pump housing ; and at least one clearance consuming feature extending from an outer surface of the body (101a - 101d) configured to reduce motion of the body (101a - 101d) within the pump housing cavity , characterized in that the at least one clearance consuming feature includes a plurality of pins disposed at different circumferential positions on the body (101a-101d).
Method for the quantitative and/or qualitative determination of virus particles containing at least one binding site for a capture molecule and at least one binding site for a probe comprising the following steps: a) immobilising capture molecules on a substrate, b) contacting the virus particles with the capture molecules, wherein the capture molecules are covalently bound to the substrate, c) immobilising the virus particles on the substrate by binding to capture molecules, d) contacting the virus particles with the probes; and e) binding the probes to the virus particles, wherein the probes comprise a virus particle-affine molecule or molecule part which recognises and binds to a binding site of the virus particle, wherein said probes are capable of emitting a specific signal, and steps b) and d) may occur simultaneously or d) may occur prior to b), wherein a spatially resolved determination of the probe signal is carried out, wherein the detection is carried out by means of spatially resolving fluorescence microscopy, wherein TIRF is used for detection. a) immobilising capture molecules on a substrate, b) contacting the virus particles with the capture molecules, wherein the capture molecules are covalently bound to the substrate, c) immobilising the virus particles on the substrate by binding to capture molecules, d) contacting the virus particles with the probes; and e) binding the probes to the virus particles, wherein the probes comprise a virus particle-affine molecule or molecule part which recognises and binds to a binding site of the virus particle, wherein said probes are capable of emitting a specific signal, and steps b) and d) may occur simultaneously or d) may occur prior to b), wherein a spatially resolved determination of the probe signal is carried out, wherein the detection is carried out by means of spatially resolving fluorescence microscopy, wherein TIRF is used for detection.
A method comprising: receiving, in a processor, a scan of a patient's teeth ; estimating a mesiodistal width of at least some of the patient's teeth from the scan of the patient's teeth; automatically identifying a missing tooth in the scan of the patient's teeth ; estimating a mesiodistal width of the missing tooth ; calculating a metric of the relative sizes of the widths of all or some of the patient's maxillary teeth to all or some of the patient's mandibular teeth using the estimated mesiodistal width of the missing tooth and the mesiodistal width of at least some of the patient's teeth; and outputting the metric of the relative sizes of the patient's teeth. receiving, in a processor, a scan of a patient's teeth ; estimating a mesiodistal width of at least some of the patient's teeth from the scan of the patient's teeth; automatically identifying a missing tooth in the scan of the patient's teeth ; estimating a mesiodistal width of the missing tooth ; calculating a metric of the relative sizes of the widths of all or some of the patient's maxillary teeth to all or some of the patient's mandibular teeth using the estimated mesiodistal width of the missing tooth and the mesiodistal width of at least some of the patient's teeth; and outputting the metric of the relative sizes of the patient's teeth.
An aircraft, comprising: a pair of wheel wells for housing a pair of landing gear wheels ; an aircraft undercarriage comprising a generally planar surface surrounding each wheel well opening; and a pair of landing gear doors, each landing gear door rotatably secured to the aircraft undercarriage adjacent each wheel well , and wherein each landing gear door further comprises: a cover panel defining a plane oriented substantially parallel to the generally planar surface of the aircraft undercarriage , the cover panel configured to close and open the landing gear wheel well ; wherein movement of the cover panel is substantially limited to rotation of the cover panel within the plane. a pair of wheel wells for housing a pair of landing gear wheels ; an aircraft undercarriage comprising a generally planar surface surrounding each wheel well opening; and a pair of landing gear doors, each landing gear door rotatably secured to the aircraft undercarriage adjacent each wheel well , and wherein each landing gear door further comprises: a cover panel defining a plane oriented substantially parallel to the generally planar surface of the aircraft undercarriage , the cover panel configured to close and open the landing gear wheel well ; wherein movement of the cover panel is substantially limited to rotation of the cover panel within the plane. a cover panel defining a plane oriented substantially parallel to the generally planar surface of the aircraft undercarriage , the cover panel configured to close and open the landing gear wheel well ; wherein movement of the cover panel is substantially limited to rotation of the cover panel within the plane.
An optically active pyranochromenylphenol compound of the following Chemical Formula (I), a pharmaceutically acceptable salt, or a solvate thereof: wherein R 1 is ethyl, n-propyl, isopropyl, n-butyl, 2-methylpropyl, n-pentyl, 2-methylbutyl, 3-methylbutyl, 2-ethylpropyl, n-hexyl, 2-methylpentyl, 3-methylpentyl, 4-methylpentyl, or 2-ethylbutyl; R2 is a hydrogen atom, methyl, or methoxy; and R 3 and R 4 are each methyl. R 1 is ethyl, n-propyl, isopropyl, n-butyl, 2-methylpropyl, n-pentyl, 2-methylbutyl, 3-methylbutyl, 2-ethylpropyl, n-hexyl, 2-methylpentyl, 3-methylpentyl, 4-methylpentyl, or 2-ethylbutyl; R2 is a hydrogen atom, methyl, or methoxy; and R 3 and R 4 are each methyl.
A recombinant DNA molecule comprising a DNA sequence selected from the group consisting of: a) a DNA sequence with at least 95 percent sequence identity to the full length of any of SEQ ID NOs: 3, 5 or 7, wherein the DNA sequence has the promoter activity of any of SEQ ID NOs: 3, 5 or 7, respectively; b) a DNA sequence comprising any of SEQ ID NOs: 3, 5 or 7; c) a fragment comprising at least 300 contiguous nucleotides of SEQ ID NO: 3, or at least 750 contiguous nucleotides of SEQ ID NO:5 or 7, wherein the fragment has the promoter activity of any of SEQ ID NOs: 3, 5 or 7, respectively; wherein said sequence is operably linked to a heterologous transcribable polynucleotide molecule. a) a DNA sequence with at least 95 percent sequence identity to the full length of any of SEQ ID NOs: 3, 5 or 7, wherein the DNA sequence has the promoter activity of any of SEQ ID NOs: 3, 5 or 7, respectively; b) a DNA sequence comprising any of SEQ ID NOs: 3, 5 or 7; c) a fragment comprising at least 300 contiguous nucleotides of SEQ ID NO: 3, or at least 750 contiguous nucleotides of SEQ ID NO:5 or 7, wherein the fragment has the promoter activity of any of SEQ ID NOs: 3, 5 or 7, respectively;
Heat exchanger able to be mounted on the air intake circuit of a combustion engine, characterized in that it comprises a single body divided into a first part having circulation passages for a first primary fluid (FP1) which is the supercharged charge air for the engine and into a second part having circulation passages for a second primary fluid (FP2), for example engine exhaust gases, the body further comprising circulation passages for a secondary fluid (FS), for example a coolant, common to the two parts of the exchanger, the said circulation passages for the first primary fluid (FP1) and the said circulation passages for the second primary fluid (FP2) being separated by a separation plate positioned between the first part and the second part of the body of the exchanger, characterized in that the body is formed of a stack of shaped plates delimiting circulation layers for a first primary fluid (FP1; FP2) alternating with circulation layers for the secondary fluid (FS) and inserts positioned in the circulation layers for the primary fluids (FP1; FP2), and in that the said circulation passages comprise an inlet and an outlet for the first primary fluid (FP1), these being situated at one same end of the body , and an inlet and an outlet for the second primary fluid (FP2), these being situated at another end of the body , the said inlet and outlet for the first primary fluid (FP1) being situated on one side of the separation plate while the said inlet and outlet for the second primary fluid (FP2) are positioned on the other side of the separation plate .
A device for controlling electrical power supply in response to air pressure measurement, the device comprising: an airflow path ; a chamber having an aperture ; a liquid flow restrictor comprising a mesh that inhibits ingress of liquid into the chamber via the aperture; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery . an airflow path ; a chamber having an aperture ; a liquid flow restrictor comprising a mesh that inhibits ingress of liquid into the chamber via the aperture; a pressure sensor located in the chamber and operable to detect, in the presence of the liquid flow restrictor, air pressure changes caused by air flow in the airflow path; and a circuit for converting air pressure changes detected by the pressure sensor to control signals for controlling output of power from a battery .
A system for analysing a lumen wall of a body lumen comprising: a probe having a proximal end , a distal end , and a support structure, the support structure being radially expandable within the body lumen, and a plurality of electrodes distributed circumferentially about the support structure to define an array of electrodes disposed near the distal end for circumferentially engaging the lumen wall; a variable frequency power source coupled to the array of electrodes such that, when the electrode array engages the lumen wall, an electrical circuit comprising the power source, selected electrodes of the array, and engaged lumen wall can be defined; and a processor coupled with the variable frequency power source, the processor comprising computer-readable media embodying software instructions and one or more programmable processor units adapted to run said instructions, said processor thereby being configured to characterize an eccentric target material of the lumen wall by monitoring a characteristic of the electrical circuit as a frequency supplied by the variable frequency power source is varied between differing frequencies, wherein the processor is configured to characterize the target material using a tissue signature profile curve, within a frequency range, of impedance magnitude and phase angles of the circuit. a probe having a proximal end , a distal end , and a support structure, the support structure being radially expandable within the body lumen, and a plurality of electrodes distributed circumferentially about the support structure to define an array of electrodes disposed near the distal end for circumferentially engaging the lumen wall; a variable frequency power source coupled to the array of electrodes such that, when the electrode array engages the lumen wall, an electrical circuit comprising the power source, selected electrodes of the array, and engaged lumen wall can be defined; and a processor coupled with the variable frequency power source, the processor comprising computer-readable media embodying software instructions and one or more programmable processor units adapted to run said instructions, said processor thereby being configured to characterize an eccentric target material of the lumen wall by monitoring a characteristic of the electrical circuit as a frequency supplied by the variable frequency power source is varied between differing frequencies, wherein the processor is configured to characterize the target material using a tissue signature profile curve, within a frequency range, of impedance magnitude and phase angles of the circuit.
A method for the manufacture of a mould part for an injection moulding tool, said mould part comprising a mould core , a mould surface facing towards the mould cavity of the injection moulding tool , and a second surface facing away from the mould cavity in the injection moulding tool , and wherein the mould part further comprises at least one cooling channel having at least two openings configured on the second surface of the mould part , and a plate-shaped part through which the cooling channel extends; said method comprising the following steps: a. building of the mould part by successive powdered sintering of several layers of sintering metal, wherein the cooling channel and the mould surface are formed completely or partially; b. forming of a substantially rectilinear channel extending from the mould surface of the mould part until the cooling channel c. mounting of a pin in the substantially rectilinear channel, said pin being configured from a material having a coefficient of thermal conductivity which is higher than the coefficient of thermal conductivity of the sintering metal to the effect that the pin closes the substantially rectilinear channel and at least one end of the pin faces the mould surface and extends into the cooling channel , such that the substantially rectilinear channel and the pin are completely enclosed in the mould part and are covered by at least a portion of the mould surface . a. building of the mould part by successive powdered sintering of several layers of sintering metal, wherein the cooling channel and the mould surface are formed completely or partially; b. forming of a substantially rectilinear channel extending from the mould surface of the mould part until the cooling channel c. mounting of a pin in the substantially rectilinear channel, said pin being configured from a material having a coefficient of thermal conductivity which is higher than the coefficient of thermal conductivity of the sintering metal to the effect that the pin closes the substantially rectilinear channel and at least one end of the pin faces the mould surface and extends into the cooling channel , such that the substantially rectilinear channel and the pin are completely enclosed in the mould part and are covered by at least a portion of the mould surface .
A method for coating a tile element , comprising providing a tile element made of a compressed fibre material having a porosity in the range of 0,92-0,99, the tile element having two opposite major surfaces , and applying a water-based coating material to a side edge surface of the tile element extending between the two opposite major surfaces , characterized in that the step of applying the water-based coating material is performed by means of an applicator head of a continuous vacuum coating apparatus , the applicator head being configured to apply the water-based coating material to the side edge surface of the tile element and to remove excess of the water-based coating material through a vacuum, wherein the water-based coating material is applied at a feeding rate of the tile element relative the applicator head of the continuous vacuum coating apparatus in the range of 25 -150 m/min, wherein the water-based coating material is applied to the side edge surface such that a coating layer is formed comprising an outer coating layer extending beyond the side edge surface and an inner coating layer penetrating the side edge surface and extending into the tile element , and wherein the inner coating layer is given a penetration depth P1 of at least 100 μm and preferably in the range of 100-4000 μm. providing a tile element made of a compressed fibre material having a porosity in the range of 0,92-0,99, the tile element having two opposite major surfaces , and applying a water-based coating material to a side edge surface of the tile element extending between the two opposite major surfaces , characterized in that the step of applying the water-based coating material is performed by means of an applicator head of a continuous vacuum coating apparatus , the applicator head being configured to apply the water-based coating material to the side edge surface of the tile element and to remove excess of the water-based coating material through a vacuum, wherein the water-based coating material is applied at a feeding rate of the tile element relative the applicator head of the continuous vacuum coating apparatus in the range of 25 -150 m/min, wherein the water-based coating material is applied to the side edge surface such that a coating layer is formed comprising an outer coating layer extending beyond the side edge surface and an inner coating layer penetrating the side edge surface and extending into the tile element , and wherein the inner coating layer is given a penetration depth P1 of at least 100 μm and preferably in the range of 100-4000 μm.