mhurhangee/patent-ind-claim-en huggingface dataset:
A device for protecting an optical sensor for motor vehicle , the device for protection comprising: the protection device comprising: - a transparent optical element mounted rotably movable about an axis of rotation (A1), said optical element being configured to be arranged upstream from an optical unit of the optical sensor such that the axis of rotation (A1) of said optical element coincides with the optical axis of the optical sensor , and - a motor comprising a rotary shaft configured to rotate about an axis of rotation (A2), the motor being configured to rotate said optical element such that the axis of rotation (A1) of said optical element further coincides with the axis of rotation (A2) of the rotary shaft of the motor (5 the protection device is characterized in that the motor is arranged on the opposite side to said optical element . - a transparent optical element mounted rotably movable about an axis of rotation (A1), said optical element being configured to be arranged upstream from an optical unit of the optical sensor such that the axis of rotation (A1) of said optical element coincides with the optical axis of the optical sensor , and - a motor comprising a rotary shaft configured to rotate about an axis of rotation (A2), the motor being configured to rotate said optical element such that the axis of rotation (A1) of said optical element further coincides with the axis of rotation (A2) of the rotary shaft of the motor (5
A method for producing in vitro functional beta cells comprising culturing immature beta cells in a medium supplemented with one or more of UNC0638, UNC0642, UCN0646, TC-E5003, G9a and GLP histone lysine methyltransferase inhibitor (A366), PF03814735, ZM447439, SB747651A, PFI1, LY303511, MS436, 5-Azacytidine (AZT), 3-Deazaneplanocin A (DEZA), pyroxamide, CI994 or MC1568, thereby differentiating the immature beta cells into functional beta cells which have a more matured phenotype as compared to the immature beta cells, wherein said immature beta cells express insulin and at least one of the following transcription factors: PDX1, NKX2.2, NKX6.1, NeuroD1, ISL1, HNF3β, HB9, MAFA, and PAX6.
Solution comprising a sulfone polymer, a water-soluble polymer and a N-acyl-morpholine of formula I wherein R 1 is a hydrogen atom or a C1- to C3 alkyl group.
A method of manufacturing a sensor device, comprising: providing a piezoelectric micromechanical ultrasonic transducer, hereby referred as PMUT, array configured to transmit and receive ultrasonic signals, wherein the PMUT array comprises a plurality of PMUTs, and the PMUT array is flexible; providing one or more integrated circuits configured to process the ultrasonic signals; providing a battery configured to provide power to the PMUT array and the one or more integrated circuits; providing a coupling material configured to hold the PMUT array, the one or more integrated circuits, and the battery; providing a capsule configured to seal the PMUT array, the one or more integrated circuits, the battery and the coupling material within the capsule; characterized in that the method further comprises: inserting the PMUT array, the one or more integrated circuits, the battery, an inflatable device and the coupling material into the capsule; inflating the inflatable device to push the PMUT array, the one or more integrated circuits, the battery and the coupling material against the inner wall of the capsule; and curing the coupling material by heat or UV light while the coupling material is being pushed against the inner wall of the capsule by the inflatable device. providing a piezoelectric micromechanical ultrasonic transducer, hereby referred as PMUT, array configured to transmit and receive ultrasonic signals, wherein the PMUT array comprises a plurality of PMUTs, and the PMUT array is flexible; providing one or more integrated circuits configured to process the ultrasonic signals; providing a battery configured to provide power to the PMUT array and the one or more integrated circuits; providing a coupling material configured to hold the PMUT array, the one or more integrated circuits, and the battery; providing a capsule configured to seal the PMUT array, the one or more integrated circuits, the battery and the coupling material within the capsule; inserting the PMUT array, the one or more integrated circuits, the battery, an inflatable device and the coupling material into the capsule; inflating the inflatable device to push the PMUT array, the one or more integrated circuits, the battery and the coupling material against the inner wall of the capsule; and curing the coupling material by heat or UV light while the coupling material is being pushed against the inner wall of the capsule by the inflatable device.
An industrial vehicle, comprising: a cargo handling device disposed on a front part of the vehicle; a counter weight disposed on a rear part of the vehicle; an engine housed in an engine room formed in front of the counter weight inside the vehicle; and an exhaust purifying device disposed inside the engine room and configured to purify exhaust gas of the engine , wherein the engine is suspended and supported at both sides of the engine by brackets mounted to vehicle frames of the vehicle, wherein the vehicle frames include a rib protruding in a horizontal direction toward the engine , and, wherein the exhaust purifying device is disposed in a space below the engine , the space being formed by the engine being suspended and supported by the brackets . a cargo handling device disposed on a front part of the vehicle; a counter weight disposed on a rear part of the vehicle; an engine housed in an engine room formed in front of the counter weight inside the vehicle; and an exhaust purifying device disposed inside the engine room and configured to purify exhaust gas of the engine , wherein the engine is suspended and supported at both sides of the engine by brackets mounted to vehicle frames of the vehicle, wherein the vehicle frames include a rib protruding in a horizontal direction toward the engine , and, wherein the exhaust purifying device is disposed in a space below the engine , the space being formed by the engine being suspended and supported by the brackets .
A medical device coated with a lubricious silicone coating, comprising: a medical device having a surface; and, a lubricious silicone coating on at least a part of the surface, the coating formed from a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; optionally, a silica-containing composition; a silicone cross-linking agent; an antimicrobial agent; and, a catalyst, wherein said catalyst consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ). a medical device having a surface; and, a lubricious silicone coating on at least a part of the surface, the coating formed from a coating composition comprising: a cross-linkable silicone polymer having reactive functionalities; optionally, a silica-containing composition; a silicone cross-linking agent; an antimicrobial agent; and, a catalyst, wherein said catalyst consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ). a cross-linkable silicone polymer having reactive functionalities; optionally, a silica-containing composition; a silicone cross-linking agent; an antimicrobial agent; and, a catalyst, wherein said catalyst consists essentially of platinum divinyltetramethyldisiloxane vinylcyclohexanol complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O · C 6 H 10 (OH)(CH = CH 2 ).
An apparatus for providing a signal indicative of a property of an earth formation , the apparatus comprising: a carrier configured to be conveyed through a borehole penetrating the earth formation ; a neutron source disposed on the carrier and configured to emit neutrons into the earth formation ; a radiation detector disposed on the carrier and configured to detect radiation from the earth formation due to interaction of emitted neutrons with the earth formation and to provide the signal indicative of the property; and a radiation detector neutron shield configured to shield the radiation detector from emitted neutrons that did not interact with the earth formation ; wherein the radiation detector neutron shield comprises a glass ceramic material, characterised in that the glass ceramic material has a plurality of nano-crystallites, each nano-crystallite in the plurality having a periodic crystal structure with a diameter or dimension that is less than 1000 nm that includes Li and/or Boron and a rare-earth element that have positions in the periodic crystal structure of each nano-crystallite. a carrier configured to be conveyed through a borehole penetrating the earth formation ; a neutron source disposed on the carrier and configured to emit neutrons into the earth formation ; a radiation detector disposed on the carrier and configured to detect radiation from the earth formation due to interaction of emitted neutrons with the earth formation and to provide the signal indicative of the property; and a radiation detector neutron shield configured to shield the radiation detector from emitted neutrons that did not interact with the earth formation ; wherein the radiation detector neutron shield comprises a glass ceramic material, characterised in that the glass ceramic material has a plurality of nano-crystallites, each nano-crystallite in the plurality having a periodic crystal structure with a diameter or dimension that is less than 1000 nm that includes Li and/or Boron and a rare-earth element that have positions in the periodic crystal structure of each nano-crystallite.
A baffle plate for a grill, gas grill, electric grill, pellet grill or charcoal grill having a burner chamber for a heat source, e.g. gas burners, electric heaters or charcoal, characterized in that said baffle plate is designed in such a way that it transforms with increasing incline into a rounded region , which is followed by another inclined region, in that the inclined regions furthermore are angularly beveled toward the burner chamber at support points, in that at least one or more depressions , which have at least one opening at their lowest point, are provided between a front edge and the rounded region , and in that a plurality of openings or slots is provided in the rounded region .
Water supply nozzle for oral hygiene that extends longitudinally along an (X-X) axis, comprising a first end for connecting to a pressurized water supply device, and a second end (3;30;300;310) of the pressurized water outlet joined to the first end by means of a body , wherein the said second end (3;30;310) carries a cleaning head (4;11), the second end being provided with a closed bottom and an opening , said head (4;11) comprising a rotating element that is rotatably received at said second end (3;30;310) and is provided with a water flow diverter disc , and a closure cap (6;8;9) of the said opening of the second end (3;30;300;310) comprising in turn a plurality of holes (65;86;91) of the water outlet selectively activated by said water flow diverter disc to converge the water at a point (P) at a predetermined distance from the outer surface of the said cap and at a predetermined angle with respect to the axis of rotation of the element of rotation , characterized in that the said cap is provided with a first closing face opposite a second face of water supply, the second face comprising said plurality of the water supply holes distributed in a central portion of the second face , while peripherally there is a plurality of bristles for the removal of plaque and food residue.
A method for 3D printing a 3D item , the method comprising providing a filament of 3D printable material and printing during a printing stage said 3D printable material on a substrate , to provide said 3D item , wherein the printing stage comprises: (a) providing a layer on the substrate , and (b) printing said 3D printable material on said layer on the substrate to provide said 3D item comprising said layer , characterized in that the layer essentially consists of particles , wherein each particle has a main axis (A1), a minor axis (A2) and a further axis (A3), the main axis (A1), the minor axis (A2), and the further axis (A3) defining a rectangular parallelepiped with a smallest volume that encloses the particle , wherein the main axis (A1) has a main axis length (L1), the minor axis (A2) has a minor axis length (L2), and the further axis (A3) has a further axis length (L3), wherein the main axis length (L1) and the minor axis length (L2) have a first aspect ratio of at least 5, wherein the further axis length (L3) and the minor axis length (L2) have a second aspect ratio of at least 5, and wherein said particles comprise light reflective material . (a) providing a layer on the substrate , and (b) printing said 3D printable material on said layer on the substrate to provide said 3D item comprising said layer , characterized in that the layer essentially consists of particles , wherein each particle has a main axis (A1), a minor axis (A2) and a further axis (A3), the main axis (A1), the minor axis (A2), and the further axis (A3) defining a rectangular parallelepiped with a smallest volume that encloses the particle , wherein the main axis (A1) has a main axis length (L1), the minor axis (A2) has a minor axis length (L2), and the further axis (A3) has a further axis length (L3), wherein the main axis length (L1) and the minor axis length (L2) have a first aspect ratio of at least 5, wherein the further axis length (L3) and the minor axis length (L2) have a second aspect ratio of at least 5, and wherein said particles comprise light reflective material . characterized in that the layer essentially consists of particles , wherein each particle has a main axis (A1), a minor axis (A2) and a further axis (A3), the main axis (A1), the minor axis (A2), and the further axis (A3) defining a rectangular parallelepiped with a smallest volume that encloses the particle , wherein the main axis (A1) has a main axis length (L1), the minor axis (A2) has a minor axis length (L2), and the further axis (A3) has a further axis length (L3), wherein the main axis length (L1) and the minor axis length (L2) have a first aspect ratio of at least 5, wherein the further axis length (L3) and the minor axis length (L2) have a second aspect ratio of at least 5, and wherein said particles comprise light reflective material .
A coat removing method of removing a coat of a coated optical fiber having a glass fiber covered by a coat, the coat made of polyimide resin thinner than a diameter of the glass fiber , comprising: (a) arranging only one coat removal blade having a wedge shape with an edge having a sharp sectional shape, the coat removal blade being wide and elongated in a direction orthogonal to a length direction of the coated optical fiber ; (b) holding the coated optical fiber with a pair of holders at two locations spaced by a predetermined distance in the length direction; wherein the coat removing method further comprises: (c) applying tension in the length direction to the coated optical fiber held with the holders by a tension applying unit , by biasing one of the holders to a direction away from the other of the holders ; (d) pressing the coat removal blade , which is tilted to form an acute angle with respect to the coated optical fiber , to the coated optical fiber in a tension-applied state by the tension applying unit in a direction intersecting the length direction, to bend the coated optical fiber ; (e) moving the coat removal blade in the length direction along the coated optical fiber in a bent state, thereby removing the coat; and (f) repeating all of the steps (a) to (e), to remove the coat from a whole circumference of the coated optical fiber . (a) arranging only one coat removal blade having a wedge shape with an edge having a sharp sectional shape, the coat removal blade being wide and elongated in a direction orthogonal to a length direction of the coated optical fiber ; (b) holding the coated optical fiber with a pair of holders at two locations spaced by a predetermined distance in the length direction; (c) applying tension in the length direction to the coated optical fiber held with the holders by a tension applying unit , by biasing one of the holders to a direction away from the other of the holders ; (d) pressing the coat removal blade , which is tilted to form an acute angle with respect to the coated optical fiber , to the coated optical fiber in a tension-applied state by the tension applying unit in a direction intersecting the length direction, to bend the coated optical fiber ; (e) moving the coat removal blade in the length direction along the coated optical fiber in a bent state, thereby removing the coat; and (f) repeating all of the steps (a) to (e), to remove the coat from a whole circumference of the coated optical fiber .
A motor control device configured to feedback-control state quantity of a motor or a mechanical load , the device comprising: a first notch filter disposed inside a feedback control system and configured to change a frequency component to be removed; a first notch controller configured to successively change a first notch frequency as a center frequency of the first notch filter ; characterized in that the motor control device comprises: a change forecaster configured to calculate to output, in accordance with the first notch frequency at each of a plurality of past times, at least one of a forecast value of the notch frequency at a specific future time, a forecast value of elapsed time from current time until the notch frequency is to become out of a specific frequency range, and a forecast value of time when the notch frequency is to become out of the specific frequency range; and a notch frequency output unit configured to sample the first notch frequency changed by the first notch controller at a sampling period longer than a successive change period of notch frequency at the first notch controller , wherein the change forecaster is configured to calculate the forecast value from the sampled notch frequency. a first notch filter disposed inside a feedback control system and configured to change a frequency component to be removed; a first notch controller configured to successively change a first notch frequency as a center frequency of the first notch filter ; a change forecaster configured to calculate to output, in accordance with the first notch frequency at each of a plurality of past times, at least one of a forecast value of the notch frequency at a specific future time, a forecast value of elapsed time from current time until the notch frequency is to become out of a specific frequency range, and a forecast value of time when the notch frequency is to become out of the specific frequency range; and a notch frequency output unit configured to sample the first notch frequency changed by the first notch controller at a sampling period longer than a successive change period of notch frequency at the first notch controller , wherein the change forecaster is configured to calculate the forecast value from the sampled notch frequency.
Kit comprising a mould (1; 101; 201) for kids and a powder water-sensitive mixture (M) for making a bijou through said mould , wherein said mould comprises at least one body (2; 102) having a lower face, an opposing upper face and a side wall comprised between said lower face and said upper face , and at least one cavity opened on said upper face and equipped with a bottom , wherein said at least one body (2; 102) is of a flexible and/or deformable material, and wherein said mixture comprises polyvinyl alcohol in an amount between 80 wt% and 90 wt% to the total weight of the mixture, guar gum in an amount between 0.5 wt% and 10 wt% to the total weight of the mixture and ethylene vinyl acetate in an amount between 4 wt% and 15 wt% to the total weight of the mixture.
An inverter device comprising: a box-shaped module case having an opening in an upper portion: a power substrate that is placed at a bottom in the module case , converts DC power supplied from a power supply into AC power and applies the AC power to an electric motor ; a control substrate that closes the opening in the module case and controls the application of the AC power to the electric motor ; a smoothing capacitor provided on the power substrate ; and a resin mold layer that is provided in the module case and filled from the power substrate to at least a position covering the smoothing capacitor . a power substrate that is placed at a bottom in the module case , converts DC power supplied from a power supply into AC power and applies the AC power to an electric motor ; a control substrate that closes the opening in the module case and controls the application of the AC power to the electric motor ; a smoothing capacitor provided on the power substrate ; and a resin mold layer that is provided in the module case and filled from the power substrate to at least a position covering the smoothing capacitor .