mhurhangee/ep-ind-claims huggingface dataset:
A gyroscope, comprising: a sense frame; a proof mass disposed outside the sense frame; a pair of anchors (1505a, 1505b); a plurality of drive beams (1515a-d); and a plurality of sense beams connecting the sense frame to the pair of anchors (1505a, 1505b), wherein the sense frame is substantially decoupled from drive motions of the proof mass; characterized in that: the drive beams (1515a-d) are disposed on opposing sides of the sense frame and between the pair of anchors (1505a, 1505b), the drive beams (1515a-d) connecting the sense frame to the proof mass; each of the drive beams (1515a-d) includes a piezoelectric layer and is configured to cause drive motions of the proof mass, the drive motions being torsional oscillations substantially in a first plane of the drive beams (1515a-d); and each of the sense beams includes a layer of piezoelectric sense electrodes configured to produce a piezoelectric charge in response to an angular rotation applied to the gyroscope. a sense frame; a proof mass disposed outside the sense frame; a pair of anchors (1505a, 1505b); a plurality of drive beams (1515a-d); and a plurality of sense beams connecting the sense frame to the pair of anchors (1505a, 1505b), wherein the sense frame is substantially decoupled from drive motions of the proof mass; the drive beams (1515a-d) are disposed on opposing sides of the sense frame and between the pair of anchors (1505a, 1505b), the drive beams (1515a-d) connecting the sense frame to the proof mass; each of the drive beams (1515a-d) includes a piezoelectric layer and is configured to cause drive motions of the proof mass, the drive motions being torsional oscillations substantially in a first plane of the drive beams (1515a-d); and each of the sense beams includes a layer of piezoelectric sense electrodes configured to produce a piezoelectric charge in response to an angular rotation applied to the gyroscope.
Process for the manufacture of granules starting from pulverulent materials, characterized in that it comprises the following successive stages: - the pulverulent materials to be granulated are divided into at least two portions, a first portion and a second portion; - a binding liquid is added to the said first portion of pulverulent materials; - the first mixture thus obtained is agglomerated in a granulator so as to obtain granules (a); - the second portion of pulverulent materials is added to the said granulator; - the new mixture obtained is agglomerated in the granulator so as to obtain granules (b); and in that the said first portion of pulverulent materials represents at most 75% by weight of the pulverulent materials to be granulated. - the pulverulent materials to be granulated are divided into at least two portions, a first portion and a second portion; - a binding liquid is added to the said first portion of pulverulent materials; - the first mixture thus obtained is agglomerated in a granulator so as to obtain granules (a); - the second portion of pulverulent materials is added to the said granulator; - the new mixture obtained is agglomerated in the granulator so as to obtain granules (b);
A head assembly for a tripod comprising a head portion and a bowl portion releasably connectable to one another, the bowl portion having a clamp stud and the head portion having a stud catch mechanism, wherein the stud catch mechanism is adapted to be releasably connectable to the clamp stud, characterised in that the stud catch mechanism of the head portion comprises a stud catch plate and the clamp stud has a recess formed therein to receive the stud catch plate, and wherein the head assembly further comprises an adjustment mechanism adapted to adjust the connection between the head portion and the bowl portion when the head portion and bowl portion are connected to one another.
A mobile robot comprising: (a) means for moving the robot over a surface; (b) an obstacle detection sensor (12, 13), an obstacle following sensor, a cliff detector, and a wheel drop sensor that is able to detect if one or more wheels is unsupported by the surface; (c) and a control system operatively connected to said obstacle detection sensor (12, 13) and said means for moving; (d) said control system configured to operate the robot in a plurality of modes, said plurality of modes comprising: an obstacle following mode whereby said robot travels adjacent to an obstacle, wherein the obstacle following sensor is used in the obstacle following mode to position the robot a set distance from an obstacle, and a bounce mode whereby the robot travels substantially in a direction away from an obstacle after encountering an obstacle, whereby said control system is configured to reduce the robot's velocity upon detection of a cliff. (a) means for moving the robot over a surface; (b) an obstacle detection sensor (12, 13), an obstacle following sensor, a cliff detector, and a wheel drop sensor that is able to detect if one or more wheels is unsupported by the surface; (c) and a control system operatively connected to said obstacle detection sensor (12, 13) and said means for moving; (d) said control system configured to operate the robot in a plurality of modes, said plurality of modes comprising: an obstacle following mode whereby said robot travels adjacent to an obstacle, wherein the obstacle following sensor is used in the obstacle following mode to position the robot a set distance from an obstacle, and a bounce mode whereby the robot travels substantially in a direction away from an obstacle after encountering an obstacle, whereby said control system is configured to reduce the robot's velocity upon detection of a cliff. an obstacle following mode whereby said robot travels adjacent to an obstacle, wherein the obstacle following sensor is used in the obstacle following mode to position the robot a set distance from an obstacle, and a bounce mode whereby the robot travels substantially in a direction away from an obstacle after encountering an obstacle, whereby said control system is configured to reduce the robot's velocity upon detection of a cliff.
A method for configuring neighbor cells for a terminal flying in the air, performed by a network device, comprising: determining neighbor cell information based on neighbor cell configuration information, the neighbor cell configuration information comprising neighbor cells corresponding to the network device at different height levels or height ranges; and sending the neighbor cell information to the terminal, the neighbor cell information being configured to instruct the terminal to determine neighbor cells corresponding to a height level or height range at which the terminal is located; wherein before determining the neighbor cell information, the method further comprises: receiving the neighbor cell configuration information sent by a network control device, wherein, the neighbor cell configuration information comprises a sequence, and each element in the sequence corresponds to a different height level or height range. determining neighbor cell information based on neighbor cell configuration information, the neighbor cell configuration information comprising neighbor cells corresponding to the network device at different height levels or height ranges; and sending the neighbor cell information to the terminal, the neighbor cell information being configured to instruct the terminal to determine neighbor cells corresponding to a height level or height range at which the terminal is located; wherein before determining the neighbor cell information, the method further comprises: receiving the neighbor cell configuration information sent by a network control device, wherein, the neighbor cell configuration information comprises a sequence, and each element in the sequence corresponds to a different height level or height range.
A method of wireless communication at a user equipment, UE, the method comprising: connecting to a source cell via a first beam; connecting to a target cell via a second beam during a Dual Active Protocol Stack handover from the source cell to the target cell; determining that a first transmission using the first beam overlaps in time with a second transmission using the second beam; and, in response to determining that the first transmission using the first beam and the second transmission using the second beam overlap in time, performing beam selection between the first beam and the second beam, wherein the performing beam selection further comprises: establishing a time period for prioritizing the target cell over the source cell; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired. connecting to a source cell via a first beam; connecting to a target cell via a second beam during a Dual Active Protocol Stack handover from the source cell to the target cell; determining that a first transmission using the first beam overlaps in time with a second transmission using the second beam; and, in response to determining that the first transmission using the first beam and the second transmission using the second beam overlap in time, performing beam selection between the first beam and the second beam, wherein the performing beam selection further comprises: establishing a time period for prioritizing the target cell over the source cell; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired. establishing a time period for prioritizing the target cell over the source cell; performing beam selection with the target cell over the source cell for the time period; determining whether a prioritization timer corresponding to the time period has expired; and performing beam selection to switch from the target cell to the source cell based on the determination that the prioritization timer has expired.
An injectable composite material for bone repair, characterized in comprising the following raw materials in parts by weight: 1-7 parts of biological tissue matrix material, 1-9 parts of bioceramics, or bioglass, or minerals containing strontium, zinc, magnesium or silicon, or salts containing strontium, zinc, magnesium or silicon, and 2-8 parts of physiological saline or other isotonic aqueous solution, wherein said biological tissue matrix material is an extracellular matrix maintaining its natural cross-linked structure, which is prepared from soft tissue of mammals, and is mainly comprised of collagen fibers; and said biological tissue matrix material has a microfibrillar shape; the microfibrillar biological tissue matrix material has a diameter of 1 to 1500 micrometers; and a ratio of diameter to length of the microfibrillar biological tissue matrix material is in the range of 0.05-0.95.
A system for blood conveying, having at least one blood pump for coupling to a heart and a manipulating device, wherein the blood pump comprises an implantable component having a blood-conductive passage and more than one coupling element (10, 14, 19, 23, 24, 28, 32, 32', 44, 54, 55, 56, 62, 67 68) being arranged at a surface of the component remote from the blood-conductive passage and which are configured for the releasable mechanical coupling of a manipulating device (5, 6, 7, 8, 9, 5', 6', 7', 8', 9', 13, 17, 21, 22, 26, 27, 57, 58, 59), wherein the couplings between the manipulating device and the component enable a manipulation in all spatial directions, wherein at least two of the coupling elements (10, 14, 19, 23, 24, 28, 32, 32', 44, 54, 55, 56, 62, 67, 68) are arranged at a surface of the component spaced apart from each other.
Process for producing a water-miscible preparation of at least one lipophilic compound with the steps of - treating a suspension of casein micelles in an aqueous medium with a first pulsed electric field (PEF-1) having a specific energy input of 20 to 150 kJ/kg of the aqueous suspension, having an electric field strength of 10 to 20 kV/cm and having a pulse duration of 15 to 25 μs, wherein the aqueous suspension preferably has a temperature of 1 to 60 °C, for the production of a suspension of first casein micelles, - mixing the suspension of first casein micelles with a solution of the lipophilic compound for the production of a mixture of the suspension of first casein micelles with the lipophilic compound, - treating the mixture of the suspension of first casein micelles with the lipophilic compound with a second pulsed electric field (PEF-2) having a specific energy input of 40 to 61 kJ/kg of the mixture for the production of the preparation. - treating a suspension of casein micelles in an aqueous medium with a first pulsed electric field (PEF-1) having a specific energy input of 20 to 150 kJ/kg of the aqueous suspension, having an electric field strength of 10 to 20 kV/cm and having a pulse duration of 15 to 25 μs, wherein the aqueous suspension preferably has a temperature of 1 to 60 °C, for the production of a suspension of first casein micelles, - mixing the suspension of first casein micelles with a solution of the lipophilic compound for the production of a mixture of the suspension of first casein micelles with the lipophilic compound, - treating the mixture of the suspension of first casein micelles with the lipophilic compound with a second pulsed electric field (PEF-2) having a specific energy input of 40 to 61 kJ/kg of the mixture for the production of the preparation.
Installation for treating articles by radiation, comprising: (a) a structure, (b) a shielded enclosure comprising: at least one tunnel, at least one radiation emitter, (c) an article transport device mounted in said tunnel, with a portion housed in said shielded enclosure in the vicinity of at least one radiation emitter, characterized in that said tunnel comprises a baffle passage for ensuring that the enclosure is radiation-proof, said baffle passage being defined by: - an intermediate partition extending from a bottom surface of the tunnel towards a top surface of the tunnel, the intermediate partition having a top edge defining a first opening with the top surface, - two partitions (52, 53) framing the intermediate partition and extending from the top surface of the tunnel towards the bottom surface and having bottom edges (56, 57) defining respective second and third openings (62, 63) with the bottom surface, the top edge of the intermediate partition being higher than the bottom edges (56, 57) of the second and third partitions (52, 53) that frame the intermediate partition, said transport device comprising means for making the articles passing the baffle passage above the top edge of the intermediate partition. (a) a structure, (b) a shielded enclosure comprising: at least one tunnel, at least one radiation emitter, at least one tunnel, at least one radiation emitter, (c) an article transport device mounted in said tunnel, with a portion housed in said shielded enclosure in the vicinity of at least one radiation emitter, - an intermediate partition extending from a bottom surface of the tunnel towards a top surface of the tunnel, the intermediate partition having a top edge defining a first opening with the top surface, - two partitions (52, 53) framing the intermediate partition and extending from the top surface of the tunnel towards the bottom surface and having bottom edges (56, 57) defining respective second and third openings (62, 63) with the bottom surface, the top edge of the intermediate partition being higher than the bottom edges (56, 57) of the second and third partitions (52, 53) that frame the intermediate partition, said transport device comprising means for making the articles passing the baffle passage above the top edge of the intermediate partition.
A mobile device comprising - a data processing facility, - a touch control facility arranged to provide a touch input signal (St) to the data processing facility, the touch control facility defining a touch control plane, - a motion state sensor facility arranged to generate a shock indication signal (Sj) comprising separate components (Sjx, Sjy, Sjz) indicative of a magnitude of a third or higher derivative of a position of the mobile device for each of three orthogonal axes (x, y, z), - a mode control facility arranged to select one of a plurality of mutually different operational modes (M1, M2), at least comprising a normal operation mode, wherein the touch input signal is used as control signal for controlling operation of the mobile device, and a shock touch protection mode, wherein the touch input signal is inhibited; wherein the mode control facility is arranged to select an operational mode in dependence on the magnitudes indicated by the shock indication signal (Sjx, Sjy, Sjz), the mobile device further comprising a comparator arranged to compare said magnitudes indicated by the shock indication signal (Sjx, Sjy, Sjz) with respective shock threshold values (Jtx, Jty, Jtz) corresponding to the three orthogonal axes (x, y, z) provided by a threshold indicating device, and provide a mode control signal (Sms) indicative of a result of this comparison, wherein upon indication by the mode control signal (Sms) that the magnitude of a shock indication signal component (Sjx, Sjy, Sjz) is greater than a respective shock threshold value (Jtx, Jty, Jtz), the mobile device assumes the shock touch protection mode; wherein a first axis (z) of the three orthogonal axes (x, y, z) is perpendicular to the touch control plane and the threshold value (Jtz) for this first axis (z) of the three orthogonal axes (x, y, z) is higher than the threshold values (Jtx, Jty) for the other two axes (x, y) of the three orthogonal axes (x, y, z). - a data processing facility, - a touch control facility arranged to provide a touch input signal (St) to the data processing facility, the touch control facility defining a touch control plane, - a motion state sensor facility arranged to generate a shock indication signal (Sj) comprising separate components (Sjx, Sjy, Sjz) indicative of a magnitude of a third or higher derivative of a position of the mobile device for each of three orthogonal axes (x, y, z), - a mode control facility arranged to select one of a plurality of mutually different operational modes (M1, M2), at least comprising a normal operation mode,
Manual device, in particular manual writing device, which extends in an axial direction and comprises a housing having a first distal end and a second distal end opposite the first distal end in the axial direction, a first head which is axially movable between a position of use in which the first head protrudes from the housing from the first end and a retracted position in which the first head is retracted into the housing, a second head which is axially movable between a position of use in which the second head protrudes from the housing from the second end and a retracted position in which the second head is retracted into the housing, and a single mechanism which is configured to bring the first head and the second head from the retracted position to the position of use and vice versa, the mechanism comprising two carriages (214A1, 214A2) which support at least one head among the first head and the second head (16A, 16B) and a single spring, the first head and the second head each partially extending over a common axial portion of the manual device, the spring axially extending between the two carriages (214A1, 214A2) and engaging with the two carriages (214A1, 214A2), the mechanism comprising a single lateral button, the button engaging with each of the two carriages (214A1, 214A2), characterized in that the button is configured to drive a first carriage (214A1) among the two carriages in translation in a first axial direction while the spring aims to drive the first carriage (214A1) in translation in a second axial direction opposite to the first axial direction, and the button is configured to drive the second carriage (214A2) among the two carriages in translation in the second axial direction while the spring aims to drive the second carriage (214A2) in translation in the first axial direction.
A process for treating a heavy oil, comprising: subjecting a heavy oil in combination with an organic material which is an organic solvent which is selected from the group consisting of pentane, liquefied petroleum gas (LPGs), alcohols, ethers, and mixtures thereof, wherein said organic material is a liquid at standard temperature of 15°C and pressure of 1 atm, to hydrodynamic cavitation to reduce the viscosity of said heavy oil, wherein said heavy oil in combination with said organic material is passed through a cavitation zone, wherein the ratio of the length of the cavitation zone to the width of the cavitation zone is from 50 to 125 and the cavitation zone is a capillary, at a velocity of from 100 m/s to 300 m/s and a pressure drop of from 1034 kPa (150 psig) to 34474 kPa (5,000 psig) and wherein at least 40 vol. % of the total volume of the mixture of heavy oil and organic material is liquid and forms a continuous liquid phase which is subjected to cavitation. subjecting a heavy oil in combination with an organic material which is an organic solvent which is selected from the group consisting of pentane, liquefied petroleum gas (LPGs), alcohols, ethers, and mixtures thereof, wherein said organic material is a liquid at standard temperature of 15°C and pressure of 1 atm, to hydrodynamic cavitation to reduce the viscosity of said heavy oil, wherein said heavy oil in combination with said organic material is passed through a cavitation zone, wherein the ratio of the length of the cavitation zone to the width of the cavitation zone is from 50 to 125 and the cavitation zone is a capillary, at a velocity of from 100 m/s to 300 m/s and a pressure drop of from 1034 kPa (150 psig) to 34474 kPa (5,000 psig) and wherein at least 40 vol. % of the total volume of the mixture of heavy oil and organic material is liquid and forms a continuous liquid phase which is subjected to cavitation.
Natural rubber obtained by leaving standing for three days or longer a hydrous coagulum obtained from a natural rubber latex to which a preservative is added and/or from a coagulum of a natural rubber latex to which a preservative is added and then washing and drying the hydrous coagulum, wherein an addition amount of the preservative is 0.01 to 1.0% by mass based on the natural rubber coagulum.