mhurhangee/patent-ind-claim-en huggingface dataset:
A heads-up display system for a vehicle including an electro-optic assembly , wherein the electro-optic assembly is a combiner screen for the heads-up display system and is configured to reflect an image projected towards a first surface by a projector , the electro-optic assembly comprising: a first partially reflective, partially transmissive substrate defining the first surface and a second surface ; a second partially reflective, partially transmissive substrate defining a third surface and a fourth surface ; a space defined between the second surface and the third surface ; an electro-optic material disposed between the second surface of the first substrate and the third surface of the second substrate , wherein said electro-optic assembly is operable to change a transmittance state in either a discrete or continuous manner; a transflective coating disposed on the second surface , the transflective coating including an overcoat layer , a silver conductive layer and a base layer including at least one of a transparent conductive oxide (TCO), a dielectric material, and a noble metal, wherein the overcoat layer is disposed between the electro-optic material and the silver conductive layer and the base layer is disposed between the silver conductive layer and the first substrate , characterized in that the overcoat layer includes a noble metal. a first partially reflective, partially transmissive substrate defining the first surface and a second surface ; a second partially reflective, partially transmissive substrate defining a third surface and a fourth surface ; a space defined between the second surface and the third surface ; an electro-optic material disposed between the second surface of the first substrate and the third surface of the second substrate , wherein said electro-optic assembly is operable to change a transmittance state in either a discrete or continuous manner; a transflective coating disposed on the second surface , the transflective coating including an overcoat layer , a silver conductive layer and a base layer including at least one of a transparent conductive oxide (TCO), a dielectric material, and a noble metal, wherein the overcoat layer is disposed between the electro-optic material and the silver conductive layer and the base layer is disposed between the silver conductive layer and the first substrate , characterized in that the overcoat layer includes a noble metal.
A polyester which is obtainable by reacting a mixture comprising a) at least one acid selected from the group consisting of aliphatic dicarboxylic acids having 5 to 20 carbon atoms, b) at least one monoalcohol of general formula I, wherein p denotes 1, 2, 3, 4, 5, 6 or 7; and c) at least one polyol with a hydroxyl functionality in the range of ≥ 2 to ≤ 6. a) at least one acid selected from the group consisting of aliphatic dicarboxylic acids having 5 to 20 carbon atoms, b) at least one monoalcohol of general formula I, wherein p denotes 1, 2, 3, 4, 5, 6 or 7; and c) at least one polyol with a hydroxyl functionality in the range of ≥ 2 to ≤ 6.
A shift control method implemented in a vehicle equipped with an automatic transmission for controlling an input shaft rotation speed (N_in) of the automatic transmission to a target input shaft rotation speed (tN_in) during a shift, comprising: setting a basic target synchronization rotation speed (tbN_in) that is a basic target value of the input shaft rotation speed (N_in) during the shift; and when the shift is a downshift, determining whether or not the downshift is a coast downshift, the coast downshift being the downshift without a requirement for a driving force of the vehicle ; and if it is determined that the shift is not the coast downshift, setting the basic target synchronization rotation speed (tbN_in) as the target input shaft rotation speed (tN_in), if it is determined that the shift is the coast downshift, setting a corrected target input shaft rotation speed (tN_inC) as the target input shaft rotation speed (tN_in), the corrected target input shaft rotation speed (tN_inC) being obtained by subtracting a decreasing correction amount (ΔN) from the basic target synchronization rotation speed (tbN_in), wherein the decreasing correction amount (ΔN_) of the basic target synchronization rotation speed (tbN_in) is set so as to become larger as a deceleration (a d ) of the vehicle becomes larger. setting a basic target synchronization rotation speed (tbN_in) that is a basic target value of the input shaft rotation speed (N_in) during the shift; and when the shift is a downshift, determining whether or not the downshift is a coast downshift, the coast downshift being the downshift without a requirement for a driving force of the vehicle ; and if it is determined that the shift is not the coast downshift, setting the basic target synchronization rotation speed (tbN_in) as the target input shaft rotation speed (tN_in), if it is determined that the shift is the coast downshift, setting a corrected target input shaft rotation speed (tN_inC) as the target input shaft rotation speed (tN_in), the corrected target input shaft rotation speed (tN_inC) being obtained by subtracting a decreasing correction amount (ΔN) from the basic target synchronization rotation speed (tbN_in), wherein the decreasing correction amount (ΔN_) of the basic target synchronization rotation speed (tbN_in) is set so as to become larger as a deceleration (a d ) of the vehicle becomes larger.
A SGK1 inhibitor for use in a method for treating a subject for Long QT syndrome, said method comprising administering to the subject a therapeutically effective amount of at least one SGK1 inhibitor.
A concrete-reinforcing shaped body suitable to be fed into a mixing machine to make fiber reinforced concrete comprising concrete-reinforcing fibers and having a plate-like shape, wherein the concrete-reinforcing shaped body has a first end face continuous with a first major face and with a second major face that is opposite the first major face, and a second end face continuous with the first major face and with the second major face and that is opposite the first end, and characterized in that the second end face is thinner than the first end face , and wherein the second end face has a thickness that is 5% to 50%, inclusive, of a thickness of the first end face.
A plant to continuously decontaminate rigid containers for pharmaceutical substances, the plant comprising: a decontamination chamber , which comprises supporting means comprising a tray having a plurality of through openings and comprises feeding means to feed at least one row of containers , which are aligned according to a first direction (D1), along the tray in a second direction (D3), which is transverse to the first direction (D1); vaporized hydrogen peroxide generating means to generate a gaseous mixture comprising air and vaporized hydrogen peroxide; first forced ventilation means , which are connected to the vaporized hydrogen peroxide generating means to receive the gaseous mixture and to the decontamination chamber to generate, in the latter, a first flow (F1) of said gaseous mixture, which is oriented so as to hit the row of containers in the decontamination chamber from above; and dispenser means , which are connected to the vaporized hydrogen peroxide generating means to receive the gaseous mixture and are arranged under the tray to generate a second flow (F2) of said gaseous mixture, which is oriented so as to hit the row of containers in the decontamination chamber from below, through the through openings ; said first forced ventilation means comprise first filters , which are arranged so as to define a ceiling of the decontamination chamber , and first compressor means to push the gaseous mixture through the first filters so that said first flow (F1) of gaseous mixtures is a laminar flow; said feeding means comprising a feeding grid , which comprises a plurality of pushing members defined by oblong elements extending transverse to the second direction (D3), oriented vertically so as not to disturb the laminar flow of said first flow (F1) and uniformly equidistant to each other along the second direction (D3) so that the space between any pair of pushing members adjacent to each other can accommodate a row of containers ; the pushing members presenting, for their whole extension, a plurality of openings to reduce the contact points between the surface of the pushing elements and the surfaces of the containers .
A hand-held, portable inhalator device , comprising: a mouthpiece comprising a chamber operatively coupled to a medication inlet and a fluid outlet , wherein the fluid outlet is configured to restrict a volume of exhalation flow from a patient; a pressure sensor disposed about the device and configured to detect fluid pressure within the chamber; a trigger operatively coupled to the pressure sensor and configured to dispense medication from a medication source through the medication inlet and into the chamber after: (i) a first threshold level of positive pressure is achieved within the chamber of the mouthpiece, (ii) the first threshold pressure is maintained within the chamber of the mouthpiece for a threshold period of time, and (iii) the level of positive pressure within the chamber of the mouthpiece decreases to below a second threshold level of positive pressure. a mouthpiece comprising a chamber operatively coupled to a medication inlet and a fluid outlet , wherein the fluid outlet is configured to restrict a volume of exhalation flow from a patient; a pressure sensor disposed about the device and configured to detect fluid pressure within the chamber; a trigger operatively coupled to the pressure sensor and configured to dispense medication from a medication source through the medication inlet and into the chamber after: (i) a first threshold level of positive pressure is achieved within the chamber of the mouthpiece, (ii) the first threshold pressure is maintained within the chamber of the mouthpiece for a threshold period of time, and (iii) the level of positive pressure within the chamber of the mouthpiece decreases to below a second threshold level of positive pressure. (i) a first threshold level of positive pressure is achieved within the chamber of the mouthpiece, (ii) the first threshold pressure is maintained within the chamber of the mouthpiece for a threshold period of time, and (iii) the level of positive pressure within the chamber of the mouthpiece decreases to below a second threshold level of positive pressure.
A selective photothermolysis device, comprising: a tunable radiation source configured to emit pulsed radiation and optionally a pulsed or modulated temperature-sensing radiation, and excite photoacoustic waves from one or more targets in a tissue ; a patient interface comprising a radiation delivery unit configured to deliver said radiation to said tissue , and an ultrasonic detector for detecting said photoacoustic waves excited by said radiation from one or more targets in said tissue ; and a control system that digitizes photoacoustic signals detected by said ultrasonic detector , analyzes said photoacoustic signals and controls the tunable radiation source to generate radiation pulses with an optimal central wavelength, and, optionally, an optimal pulse width, or an optimal pulse energy, or a combination of them for optimal surgical outcome. a tunable radiation source configured to emit pulsed radiation and optionally a pulsed or modulated temperature-sensing radiation, and excite photoacoustic waves from one or more targets in a tissue ; a patient interface comprising a radiation delivery unit configured to deliver said radiation to said tissue , and an ultrasonic detector for detecting said photoacoustic waves excited by said radiation from one or more targets in said tissue ; and a radiation delivery unit configured to deliver said radiation to said tissue , and an ultrasonic detector for detecting said photoacoustic waves excited by said radiation from one or more targets in said tissue ; and a control system that digitizes photoacoustic signals detected by said ultrasonic detector , analyzes said photoacoustic signals and controls the tunable radiation source to generate radiation pulses with an optimal central wavelength, and, optionally, an optimal pulse width, or an optimal pulse energy, or a combination of them for optimal surgical outcome.
A compound for use in a method of treating, preventing, ameliorating, or delaying the onset of one or more symptoms associated with or resulting from a respiratory viral infection in a subject, comprising administering a compound, or a pharmaceutically acceptable salt, solvate, hydrate, or stereoisomer thereof; wherein the compound is 3-(3,4-dimethoxyphenyl)-3-(1-oxoisoindolin-2-yl)propanamide: or wherein the compound is 2-[1-(3-ethoxy-4-methoxyphenyl)-2-methylsulfonylethyl]-4-acetylaminoisoindoline-1,3-dione: or wherein the compound is N-{2-[1-(3-ethoxy-4-methoxyphenyl)-2-(methylsulfonyl)ethyl]-3-oxoisoindolin-4-yl} cyclopropanecarboxamide: and wherein the respiratory viral infection is influenza infection.
A lighting system comprising a lighting unit and a monolithic support element that is a duct for supporting the lighting unit , wherein the monolithic support element comprises: - a support part for supporting the lighting unit , wherein the support part has a first length (L1), wherein the support part has a support part outer shape and support part outer dimensions, wherein the support part optionally includes a support part channel over at least part of the first length (L1) having a first cross-sectional area (A1); - a first duct having second length (L2), wherein the first duct has a first duct outer shape and first duct outer dimensions, wherein the first duct comprises a duct channel over at least part of the second length (L2) having a second cross-sectional area (A2); - a transition part bridging the support part and the first duct ; - wherein the first duct comprises electronics functionally coupled with the lighting unit ; - wherein the transition part comprises a cable transit for transit of an electrical cable for a functional coupling to the lighting unit ; - wherein the support part comprises a pinched part of the duct ; and - wherein (i) when the support part includes the support part channel over at least part of the first length (L1), then the support part channel is filled with thermally conductive material, or (ii) the support part comprises two wall parts of a wall , wherein the wall parts are configured parallel and touch each other. - a support part for supporting the lighting unit , wherein the support part has a first length (L1), wherein the support part has a support part outer shape and support part outer dimensions, wherein the support part optionally includes a support part channel over at least part of the first length (L1) having a first cross-sectional area (A1); - a first duct having second length (L2), wherein the first duct has a first duct outer shape and first duct outer dimensions, wherein the first duct comprises a duct channel over at least part of the second length (L2) having a second cross-sectional area (A2); - a transition part bridging the support part and the first duct ; - wherein the first duct comprises electronics functionally coupled with the lighting unit ; - wherein the transition part comprises a cable transit for transit of an electrical cable for a functional coupling to the lighting unit ; - wherein the support part comprises a pinched part of the duct ; and - wherein (i) when the support part includes the support part channel over at least part of the first length (L1), then the support part channel is filled with thermally conductive material, or (ii) the support part comprises two wall parts of a wall , wherein the wall parts are configured parallel and touch each other.
A sensing device , comprising: a circuit board , a biometric sensor , at least one light-emitting element , a cover with a light-transmitting region , a light guide plate and a light concentrating structure ; wherein other region except for the light-transmitting region of the cover is an opaque region; wherein the biometric sensor is installed on the circuit board ; the light guide plate is fixed between the biometric sensor and the cover ; the light concentrating structure is disposed on the light guide plate and faces the light-transmitting region ; the light-emitting element is installed on the circuit board and positioned on one side of the biometric sensor ; the light-emitting element has a side light-emitting end , and the side light-emitting end faces the light guide plate ; wherein the device is configured such that, in use, light emitted by the light-emitting element from the side light-emitting end is transmitted into the light guide plate , and is concentrated to the light-transmitting region by the light concentrating structure . wherein the biometric sensor is installed on the circuit board ; the light guide plate is fixed between the biometric sensor and the cover ; the light concentrating structure is disposed on the light guide plate and faces the light-transmitting region ; the light-emitting element is installed on the circuit board and positioned on one side of the biometric sensor ; the light-emitting element has a side light-emitting end , and the side light-emitting end faces the light guide plate ; wherein the device is configured such that, in use, light emitted by the light-emitting element from the side light-emitting end is transmitted into the light guide plate , and is concentrated to the light-transmitting region by the light concentrating structure .
A robot system comprising: - a robot comprising a robot arm and an inertial sensor provided in the robot arm , and - a control apparatus configured for controlling the robot , wherein the robot arm is arranged so as to be controlled by the control apparatus using a weighting value or feedback gain for weighting output from the inertial sensor , wherein calculation expressions or calibration curves are stored in a memory unit of the control apparatus in which an acceleration of the robot arm is associated with the weighting value or feedback gain, characterized in that the control apparatus is configured to set the weighting value or feedback gain using the calculation expressions or calibration curves stored in the memory unit so that - in at least a part of a range in which the robot arm is movable, the weighting value or feedback gain is a first value when the acceleration of the robot arm is a first acceleration, and - the weighting value or feedback gain changes from the first value to a second value higher than the first value when the acceleration of the robot arm changes from the first acceleration to a second acceleration which is lower than the first acceleration. - a robot comprising a robot arm and an inertial sensor provided in the robot arm , and - a control apparatus configured for controlling the robot , wherein the robot arm is arranged so as to be controlled by the control apparatus using a weighting value or feedback gain for weighting output from the inertial sensor , wherein calculation expressions or calibration curves are stored in a memory unit of the control apparatus in which an acceleration of the robot arm is associated with the weighting value or feedback gain, characterized in that the control apparatus is configured to set the weighting value or feedback gain using the calculation expressions or calibration curves stored in the memory unit so that - in at least a part of a range in which the robot arm is movable, the weighting value or feedback gain is a first value when the acceleration of the robot arm is a first acceleration, and - the weighting value or feedback gain changes from the first value to a second value higher than the first value when the acceleration of the robot arm changes from the first acceleration to a second acceleration which is lower than the first acceleration.
Timepiece regulating mechanism , comprising a main plate , and arranged on a main plate , a resonator mechanism with a quality factor Q, and an escapement mechanism arranged to be subjected to the torque of drive means comprised in a movement , said resonator mechanism comprising an inertia element arranged to oscillate with respect to said plate , said inertia element being subjected to the action of elastic return means directly or indirectly attached to said plate , and said inertia element being arranged to cooperate indirectly with an escape wheel set comprised in said escapement mechanism , in which said resonator mechanism is a resonator with a virtual pivot rotating about a main axis (DP), with a flexure bearing including at least two flexible strips , and including an impulse pin integral with said inertia element , in which said escapement mechanism includes apallets pivoting about a secondary axis (DS) and including a lever fork arranged to cooperate with said impulse pin , and is a detached escapement mechanism, wherein, during the operating cycle, said resonator mechanism has at least one phase of freedom in which said impulse pin is at a distance from said lever fork , characterized in that the lift angle (β) of the resonator, during which said impulse pin is in contact with said lever fork , is less than 10°.
A patch comprising: an activatable adhesive material comprising: (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and a fiberglass mesh located in direct planar contact with the adhesive material and along at least a portion of the adhesive material, wherein the adhesive material is tacky prior to activation allowing the adhesive material to adhere to the fiberglass mesh and to a surface for reinforcing the surface. an activatable adhesive material comprising: (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and (a) an epoxy; (b) a core shell polymer-containing component, and (c) an epoxidized cashew nut shell oil; and a fiberglass mesh located in direct planar contact with the adhesive material and along at least a portion of the adhesive material, wherein the adhesive material is tacky prior to activation allowing the adhesive material to adhere to the fiberglass mesh and to a surface for reinforcing the surface.
Fluid-technical valve device , which has a first rotary slide valve , a second rotary slide valve and a servomotor , wherein each of the rotary slide valves comprises a rotary slide arranged in a rotary slide housing and drivable via a drive shaft by means of the servomotor , wherein the first rotary slide valve is rigidly coupled to the drive shaft and the second rotary slide valve is coupled to the drive shaft via a freewheel , characterised in that the freewheel is only indirectly coupled to the drive shaft via the first rotary slide valve .