mhurhangee/patent-ind-claim-en huggingface dataset:
Photon detector comprising: - a direct conversion detector configured to detect gamma radiation and generate direct conversion signals responsive to impingement of photons, - a single photon avalanche diode, SPAD, detector array comprising a plurality of SPAD detectors configured to detect Cherenkov radiation generated in the direct conversion detector in response to impingement of photons and generate SPAD detection signals, wherein the SPAD detector array substantially covers a surface on one side of the direct conversion detector; characterized in that the photon detector further comprises: - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals. - a direct conversion detector configured to detect gamma radiation and generate direct conversion signals responsive to impingement of photons, - a single photon avalanche diode, SPAD, detector array comprising a plurality of SPAD detectors configured to detect Cherenkov radiation generated in the direct conversion detector in response to impingement of photons and generate SPAD detection signals, wherein the SPAD detector array substantially covers a surface on one side of the direct conversion detector; characterized in that the photon detector further comprises: - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals. - an electrode array comprising a plurality of electrodes on top of the direct conversion detector and between the direct conversion detector and the SPAD detector array and configured to read out the direct conversion signals.
A camera module comprising: a lens part ; a front body configured to receive the lens part ; a rear body coupled to the front body ; a substrate part disposed in the rear body ; a connector part disposed in the rear body and configured to connect the substrate part ; a cable configured to pass through a portion of the rear body and conductively connected to the connector part ; a shielding part disposed between the rear body and the connector part and formed of a conductive material; and a sealing member disposed between the rear body and the cable and formed of a conductive material, wherein a region of an inner wall of the rear body contacting the shielding part is coated with a conductive material, wherein the sealing member is conductively connected to the rear body , wherein a first protrusion is formed at a rear portion of the rear body and the first protrusion comprises a penetration part through which the cable passes, wherein a receipt groove is formed in a partial region of the penetration part of the first protrusion , and wherein the sealing member is disposed in the receipt groove . a lens part ; a front body configured to receive the lens part ; a rear body coupled to the front body ; a substrate part disposed in the rear body ; a connector part disposed in the rear body and configured to connect the substrate part ; a cable configured to pass through a portion of the rear body and conductively connected to the connector part ; a shielding part disposed between the rear body and the connector part and formed of a conductive material; and a sealing member disposed between the rear body and the cable and formed of a conductive material, wherein a region of an inner wall of the rear body contacting the shielding part is coated with a conductive material, wherein the sealing member is conductively connected to the rear body , wherein a first protrusion is formed at a rear portion of the rear body and the first protrusion comprises a penetration part through which the cable passes, wherein a receipt groove is formed in a partial region of the penetration part of the first protrusion , and wherein the sealing member is disposed in the receipt groove .
A sprinkler comprising: a sprinkler body ; a nozzle assembly configured to rise from and lower within said sprinkler body; a cover ; and a latching mechanism located beneath said cover; wherein said latching mechanism is configured to selectively engageand disengage said cover from a top of said nozzle assembly ; and wherein said latching mechanism is configured to be user-actuated from beneath said cover . a sprinkler body ; a nozzle assembly configured to rise from and lower within said sprinkler body; a cover ; and a latching mechanism located beneath said cover; wherein said latching mechanism is configured to selectively engageand disengage said cover from a top of said nozzle assembly ; and wherein said latching mechanism is configured to be user-actuated from beneath said cover .
Rotating unit for a coating lance installation for the thermal coating of an interior , having at least the following components: - a tool holder for a coating lance having an axis of rotation ; - a rotary drive for rotating the tool holder about the axis of rotation ; - a coating material supply line for supplying a coating material to the coating lance ; - a process medium supply line for providing process media for coating an interior by means of a coating lance accommodated in the tool holder , characterized in that the rotary drive is designed as a hollow-shaft motor coaxial with the axis of rotation of the tool holder , and wherein the tool holder and the coating material supply line as well as the process medium supply line are arranged centrally with respect to the hollow-shaft motor . - a tool holder for a coating lance having an axis of rotation ; - a rotary drive for rotating the tool holder about the axis of rotation ; - a coating material supply line for supplying a coating material to the coating lance ; - a process medium supply line for providing process media for coating an interior by means of a coating lance accommodated in the tool holder ,
Wedge locking washer comprising a central axis, a central through hole concentric with the central axis and defining an inner peripheral axial surface, an outer peripheral axial surface, a first side surface adapted to face and engage another wedge locking washer , said first side comprising a pattern of radially extending cams , each cam comprising a first surface inclined in relation to a central plane of a wedge cam locking surface and a second surface and wherein the first and the second surface of each cam meet in a radially extending cam edge and wherein the second surface of a first cam meet the first surface of an adjacent cam in a radially extending inner corner , each cam having a height h defined between a bottom plane in which the bottom of the inner corner is arranged and a top plane in which the top of the cam edge is arranged, wherein a zone of smooth transition of the inner corner has a horizontal length a, the inner corner has a height H of at least h/4 and at most h/2 defined as the height H in vertical direction from the inner corner bottom to the end of the smooth transition zone, the cam edge having a smooth transition zone , which has a height H' that is equal to or larger than height H of the inner corner , and characterized in that at least the first surface is surface hardened and electro-polished or at least the first surface is surface hardened and pickled.
A pump, in particular a vacuum pump, comprising a pump-active component having a coating, wherein the coating comprises an oxide layer having pores, which oxide layer is in particular formed by anodic oxidation in an acidic electrolyte, and a fluorine-free polymer-based and/or sol-gel-based sealing, and wherein the pores of the oxide layer are at least partly covered by the sealing and/or impregnated with the sealing and/or filled with the sealing. a pump-active component having a coating, wherein the coating comprises an oxide layer having pores, which oxide layer is in particular formed by anodic oxidation in an acidic electrolyte, and a fluorine-free polymer-based and/or sol-gel-based sealing, and wherein the pores of the oxide layer are at least partly covered by the sealing and/or impregnated with the sealing and/or filled with the sealing.
An ice resistant structure for an aircraft, comprising: a self-supporting, structural platform that defines an exposed surface of an aircraft; a retaining, protective layer disposed over the self-supporting, structural platform; and a subsurface anti-icing (AI) and/or de-icing (DI) layer located between the self-supporting, structural platform and the retaining, protective layer, the subsurface AI and/or DI layer being a functional layer storing a chemical AI and/or DI agent such that the AI and/or DI agent is released to a surface of the retaining protective layer by an activation mechanism responsive to one or more environmental conditions, wherein the activation mechanism is a passive activation mechanism, characterized in that the environmental conditions include temperature and altitude of the aircraft and in that the AI and/or DI agent is only released when the aircraft is within a specified range of altitudes and the temperature is below a specified value for at least a specified period of time. a self-supporting, structural platform that defines an exposed surface of an aircraft; a retaining, protective layer disposed over the self-supporting, structural platform; and a subsurface anti-icing (AI) and/or de-icing (DI) layer located between the self-supporting, structural platform and the retaining, protective layer, the subsurface AI and/or DI layer being a functional layer storing a chemical AI and/or DI agent such that the AI and/or DI agent is released to a surface of the retaining protective layer by an activation mechanism responsive to one or more environmental conditions, wherein the activation mechanism is a passive activation mechanism, characterized in that the environmental conditions include temperature and altitude of the aircraft and in that the AI and/or DI agent is only released when the aircraft is within a specified range of altitudes and the temperature is below a specified value for at least a specified period of time.
An oral care implement comprising: a head having a front surface ; a plurality of tooth cleaning elements comprising: an elastomeric member extending from the front surface of the head ; a first inclined bristle tuft arranged on a first side of the elastomeric member , the first inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member ; and a second inclined bristle tuft arranged on a second side of the elastomeric member opposite the first side, the second inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member . a head having a front surface ; a plurality of tooth cleaning elements comprising: an elastomeric member extending from the front surface of the head ; a first inclined bristle tuft arranged on a first side of the elastomeric member , the first inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member ; and a second inclined bristle tuft arranged on a second side of the elastomeric member opposite the first side, the second inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member . an elastomeric member extending from the front surface of the head ; a first inclined bristle tuft arranged on a first side of the elastomeric member , the first inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member ; and a second inclined bristle tuft arranged on a second side of the elastomeric member opposite the first side, the second inclined bristle tuft extending from the front surface of the head at an oblique angle toward the elastomeric member .
A system for sampling air at multiple locations in a controlled environment comprising: two or more air sampling devices at different locations within the controlled environment ; a controller at a location outside of the controlled environment and in separate air flow communication with each of the two or more air sampling devices via separate first vacuum tubes , the controller having a manifold configured to separately control a rate of air flow from the two or more air sampling devices to the controller via each of the separate first vacuum tubes and to selectively direct the air flow from each of the separate first vacuum tubes to one or more second vacuum tubes ; a vacuum source at a location outside the controlled environment and in air flow communication with the controller via the one or more second vacuum tubes , the vacuum source providing suction and being controlled by the controller to generate the air flow through each of the first vacuum tubes ; and a flow switch for each of the two or more air sampling devices , between a corresponding air sampling device and the vacuum source , each of the flow switches being configured to separately measure and control the rate of air flow through a corresponding first vacuum tube , wherein an alarm is automatically activated at a location inside the controlled environment by one or more of the flow switches when the rate of air flow measured at one or more of the flow switches deviates from a desired value by a predetermined amount characterized in that each flow switch is provided at a location within the controlled environment . two or more air sampling devices at different locations within the controlled environment ; a controller at a location outside of the controlled environment and in separate air flow communication with each of the two or more air sampling devices via separate first vacuum tubes , the controller having a manifold configured to separately control a rate of air flow from the two or more air sampling devices to the controller via each of the separate first vacuum tubes and to selectively direct the air flow from each of the separate first vacuum tubes to one or more second vacuum tubes ; a vacuum source at a location outside the controlled environment and in air flow communication with the controller via the one or more second vacuum tubes , the vacuum source providing suction and being controlled by the controller to generate the air flow through each of the first vacuum tubes ; and a flow switch for each of the two or more air sampling devices , between a corresponding air sampling device and the vacuum source , each of the flow switches being configured to separately measure and control the rate of air flow through a corresponding first vacuum tube , wherein an alarm is automatically activated at a location inside the controlled environment by one or more of the flow switches when the rate of air flow measured at one or more of the flow switches deviates from a desired value by a predetermined amount characterized in that each flow switch is provided at a location within the controlled environment .
A computer-implemented method for encrypting an electronic message, comprising: receiving a receiver's identification corresponding to a receiver of an electronic message at an authentication device from a user device by sensing, with a light sensor of the authentication device, a visual element of the electronic message that is displayed on a display of the user device, the visual element encoding the receiver's identification; generating, at the authentication device, a cryptographic key and a unique identifier; transmitting, by the authentication device, the cryptographic key and the unique identifier to the user device for encryption of the message; and transmitting, by the authentication device and over a secure channel, the cryptographic key, the unique identifier and the receiver's identification to a server. receiving a receiver's identification corresponding to a receiver of an electronic message at an authentication device from a user device by sensing, with a light sensor of the authentication device, a visual element of the electronic message that is displayed on a display of the user device, the visual element encoding the receiver's identification; generating, at the authentication device, a cryptographic key and a unique identifier; transmitting, by the authentication device, the cryptographic key and the unique identifier to the user device for encryption of the message; and transmitting, by the authentication device and over a secure channel, the cryptographic key, the unique identifier and the receiver's identification to a server.
An image display apparatus comprising: an image generator comprising a controller ; a light source unit configured to emit a laser beam ; an optical deflector configured to deflect the laser beam two-dimensionally; and an intermediate image generator , wherein the intermediate image generator is a microlens array comprising a plurality of microlenses arranged at regular intervals; wherein the controller is configured to control the optical deflector to perform a two-dimensional scan of the intermediate image generator twice in a main scanning direction (X) and a sub-scanning direction (Y) with the laser beam deflected by the optical deflector to generate an intermediate image of one frame; characterised in that the controller is configured to control the optical deflector to draw two interleaved scanning lines (237-1), (237-2), where each scanning line is the trajectory of the two-dimensional scan performed on the intermediate image generator , when the two-dimensional scan is performed twice; in a single go and return scanning movement in the main scanning direction, the scanning line passes through microlenses arranged in the same row in the microlens array; and the two scanning lines (237-1, 237-2) are displaced from each other for the two-dimensional scanning for a first time and the two-dimensional scanning for a second time, respectively. an image generator comprising a controller ; a light source unit configured to emit a laser beam ; an optical deflector configured to deflect the laser beam two-dimensionally; and an intermediate image generator , wherein the intermediate image generator is a microlens array comprising a plurality of microlenses arranged at regular intervals; wherein the controller is configured to control the optical deflector to perform a two-dimensional scan of the intermediate image generator twice in a main scanning direction (X) and a sub-scanning direction (Y) with the laser beam deflected by the optical deflector to generate an intermediate image of one frame; characterised in that the controller is configured to control the optical deflector to draw two interleaved scanning lines (237-1), (237-2), where each scanning line is the trajectory of the two-dimensional scan performed on the intermediate image generator , when the two-dimensional scan is performed twice; in a single go and return scanning movement in the main scanning direction, the scanning line passes through microlenses arranged in the same row in the microlens array; and the two scanning lines (237-1, 237-2) are displaced from each other for the two-dimensional scanning for a first time and the two-dimensional scanning for a second time, respectively.
A protecting assembly for protecting an outputting electrode piece of a battery module, comprising a base and an upper cover ; the base being capable of being fixed to an end plate of the battery module, the upper cover and the base being capable of being connected with each other to form a receiving cavity that is capable of receiving the outputting electrode piece of the battery module; the base comprising a basic body and a first side plate , the first side plate extending upwardly from an end of the basic body in a transverse direction (X); the upper cover comprising a top wall , a first side wall , two second side walls , the first side wall extending downwardly from an end of the top wall in the transverse direction (X), the two second side walls extending downwardly from two ends of the top wall in the longitudinal direction (Y) respectively; characterized in that two ends of the basic body in a longitudinal direction (Y) being provided with first grooves ; the upper cover further comprises a limiting wall extending downwardly from a lower end of each of the two second side walls and being inclined toward a direction away from the first side wall ; the limiting walls being capable of being inserted into the first grooves , the first side wall being capable of latching with the first side plate . the base being capable of being fixed to an end plate of the battery module, the upper cover and the base being capable of being connected with each other to form a receiving cavity that is capable of receiving the outputting electrode piece of the battery module; the base comprising a basic body and a first side plate , the first side plate extending upwardly from an end of the basic body in a transverse direction (X); the upper cover comprising a top wall , a first side wall , two second side walls , the first side wall extending downwardly from an end of the top wall in the transverse direction (X), the two second side walls extending downwardly from two ends of the top wall in the longitudinal direction (Y) respectively; characterized in that two ends of the basic body in a longitudinal direction (Y) being provided with first grooves ; the upper cover further comprises a limiting wall extending downwardly from a lower end of each of the two second side walls and being inclined toward a direction away from the first side wall ; the limiting walls being capable of being inserted into the first grooves , the first side wall being capable of latching with the first side plate .
A method for repairing a yaw brake disk installed in a wind turbine, wherein the wind turbine comprises at least one brake caliper that cooperates with the yaw brake disk and at least one yaw drive for aligning a nacelle; the method comprises the following steps: - installing at least one cutting tool on a holding apparatus that is arranged at the nacelle and that provides adjustment means for the position of the cutting tool relative to the yaw brake disk, - machining a region of the yaw brake disk to be machined by cutting while the nacelle is rotated by means of the at least one yaw drive, wherein material is removed with a curved contour from the region to be machined at the transition thereof to the yaw brake disk, - inserting a fitting piece into the machined region, - connecting the inserted fitting piece to the yaw brake disk, wherein holes are made in the region of the yaw brake disk to be machined so as to be aligned with holes in the fitting piece, and the fitting piece is connected to the yaw brake disk by means of multiple screws, and - machining the surface of the yaw brake disk. - installing at least one cutting tool on a holding apparatus that is arranged at the nacelle and that provides adjustment means for the position of the cutting tool relative to the yaw brake disk, - machining a region of the yaw brake disk to be machined by cutting while the nacelle is rotated by means of the at least one yaw drive, wherein material is removed with a curved contour from the region to be machined at the transition thereof to the yaw brake disk, - inserting a fitting piece into the machined region, - connecting the inserted fitting piece to the yaw brake disk, wherein holes are made in the region of the yaw brake disk to be machined so as to be aligned with holes in the fitting piece, and the fitting piece is connected to the yaw brake disk by means of multiple screws, and - machining the surface of the yaw brake disk.