mhurhangee/patent-ind-claim-en huggingface dataset:
An OLED lighting module comprising: a support ; one or more OLED lighting panel(s) on the support , wherein each OLED panel has an emissive side with emissive and non-emissive areas and an opposite side, and comprises an OLED substrate , an encapsulated OLED light-generating unit on the OLED substrate and a circuit board containing flat electrical connectors for external electrical connections, the circuit board being located between the OLED light-generating unit and the support ; an opaque liner on the emissive side of the OLED panel , the opaque liner having two sections: a first section that covers at least part of the non-emissive areas over the OLED substrate and a second section that extends past the edges of the OLED substrate and where the two first and second sections of the opaque liner cover areas with different heights ; and an opaque bezel in contact with the support , the opaque bezel covering at least part of the second section of the opaque liner but not the first section of the opaque liner , characterised in that the OLED panel is retained to the support by the bezel . a support ; one or more OLED lighting panel(s) on the support , wherein each OLED panel has an emissive side with emissive and non-emissive areas and an opposite side, and comprises an OLED substrate , an encapsulated OLED light-generating unit on the OLED substrate and a circuit board containing flat electrical connectors for external electrical connections, the circuit board being located between the OLED light-generating unit and the support ; an opaque liner on the emissive side of the OLED panel , the opaque liner having two sections: a first section that covers at least part of the non-emissive areas over the OLED substrate and a second section that extends past the edges of the OLED substrate and where the two first and second sections of the opaque liner cover areas with different heights ; and an opaque bezel in contact with the support , the opaque bezel covering at least part of the second section of the opaque liner but not the first section of the opaque liner , characterised in that the OLED panel is retained to the support by the bezel .
A method of controlling an automated manual transmission system having a transmission and a shifter providing a Drive Mode, a Low Mode and at least one of a Manual Mode and a Hold Mode, the Drive Mode automatically selecting a default gear of the transmission and automatically performing all upshifts and downshifts, the Manual Mode permitting an operator to manually select an upshift and a downshift of the transmission, the Hold Mode permitting an operator to maintain a current operating gear, the Low Mode performing downshifts of the transmission at higher engine revolutions per minute (RPM) compared to Drive Mode the method comprising: determining whether the shifter is in one of Manual Mode, Hold Mode and Low Mode; determining whether a vehicle operating condition is outside of a predetermined threshold; and operating the transmission in Drive Mode based on the vehicle operating condition being outside of the predetermined threshold irrespective of the shifter being in one of the Manual Mode, Hold Mode and Low Mode; wherein the vehicle operating condition is a vehicle grade measurement and a vehicle weight, wherein it is determined that the vehicle operating condition is outside of the predetermined threshold when the grade is above a threshold for the vehicle weight. determining whether the shifter is in one of Manual Mode, Hold Mode and Low Mode; determining whether a vehicle operating condition is outside of a predetermined threshold; and operating the transmission in Drive Mode based on the vehicle operating condition being outside of the predetermined threshold irrespective of the shifter being in one of the Manual Mode, Hold Mode and Low Mode; wherein the vehicle operating condition is a vehicle grade measurement and a vehicle weight, wherein it is determined that the vehicle operating condition is outside of the predetermined threshold when the grade is above a threshold for the vehicle weight.
A method for manufacturing a 3D item by means of fused deposition modeling, the method comprising layer-wise depositing a 3D printable material with particles embedded therein, wherein the 3D printable material comprises a continuous phase of a thermoplastic polymeric material, wherein the particles comprise a crosslinked polymeric material, wherein at least part of the total number of the particles have a first dimension (L1) selected from the range of 0.2-100 μm, the first dimension (L1) being a length or a diameter, characterized in that the 3D printable material and the particles comprise a light transmissive material, and wherein the light transmissive material of the particles has an index of refraction selected from the range of 1.2-1.8.
A system for guiding arm setup in a surgical robotic system using augmented reality, comprising: a camera , configured to capture a live arm setup video of a user setting up a robotic arm in a surgical robotic system; a display ; and a processor , configured to: receive the live arm setup video captured by the camera; render a virtual robotic arm in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance. a camera , configured to capture a live arm setup video of a user setting up a robotic arm in a surgical robotic system; a display ; and a processor , configured to: receive the live arm setup video captured by the camera; render a virtual robotic arm in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance. receive the live arm setup video captured by the camera; render a virtual robotic arm in a target pose that includes each of a plurality of members of the virtual robotic arm, onto the live arm setup video, resulting in an augmented live video for guiding arm setup; and stream the augmented live video as a mirror image on the display facing substantially in the same direction as the camera, to visually guide the user through arm setup to the target pose; and indicate on the display when each of a plurality of members of a robotic arm matches the target pose of the virtual robotic arm, within a tolerance.
An assembly comprising a suspension pylon and a thrust reverser comprising flow cascade vanes and a cowl movable between an open position exposing said cascade vanes and a closed position covering said cascade vanes and further comprising rails capable of sliding in slides , the rails being directly or indirectly mounted on said cowl and the slides being directly or indirectly mounted on either side of the suspension pylon or vice versa, the thrust reverser comprising at least one actuator capable of sliding the cowl between its open and closed positions, the actuator being disposed in the extension of the corresponding rail , characterized in that said actuator is adapted to pull on the corresponding rail or on the corresponding slide where appropriate, said actuator comprising at least one upstream pulley and one downstream pulley respectively mounted on either side of a corresponding rail or the corresponding slide where appropriate, each pulley being capable of rotating about an axis which may be perpendicular to the longitudinal axis of the thrust reverser under the action of at least one driving motor and one movement transmission element adapted to transmit the rotational movement of the pulleys to said rail or said slide, where appropriate.
Method for controlling a winding device of a hairstyling appliance for curling hair, which comprises a mandrel and a winder configured to wind a lock of hair about the mandrel as it rotates in a predetermined direction, the winder being driven in rotation by a motor , the operation of which is controlled by a control member , characterised in that it comprises: - a step of rotating the winder in a predetermined direction triggered when the control member is activated, - a step of stopping the triggered rotation of the winder as soon as the control member is no longer activated, - a step of rotating the winder in the opposite direction, triggered successively at any step of stopping the rotation of the winder linked to the stopping of the activation of the control member, the winder being driven in rotation until a predetermined stopping position is reached. - a step of rotating the winder in a predetermined direction triggered when the control member is activated, - a step of stopping the triggered rotation of the winder as soon as the control member is no longer activated, - a step of rotating the winder in the opposite direction, triggered successively at any step of stopping the rotation of the winder linked to the stopping of the activation of the control member, the winder being driven in rotation until a predetermined stopping position is reached.
A system for detecting microorganisms in a sample, comprising: a container comprising an incubation zone containing growth media in which the sample is cultured, and an optical window embedded in a portion of the floor of the container, said optical window being transparent to light and formed with a first surface (A) and a parallel opposing surface (B), the surfaces being perpendicular to the floor of the container, a matrix located between said opposing surfaces of said optical window, said matrix and optical window defining a detection zone, said matrix composed of a curable polymer which is substantially transparent to light, and at least one indicator reagent sensitive to carbon dioxide gas generated by the microorganisms in the incubation zone, the carbon dioxide gas diffusing into the matrix in the detection zone; a light source external to the container located adjacent to the first surface (A) of the optical window configured to pass light through the optical window and through the matrix ; a light sensor external to the container located adjacent to the parallel opposing surface (B) of the optical window , wherein said light generated from the light source passes through the matrix along an optical path from the first surface A through the second surface B and interacts with the indicator reagent to yield interactive light that is indicative of the presence of the microorganisms, said light sensor configured to detect said interactive light. a container comprising an incubation zone containing growth media in which the sample is cultured, and an optical window embedded in a portion of the floor of the container, said optical window being transparent to light and formed with a first surface (A) and a parallel opposing surface (B), the surfaces being perpendicular to the floor of the container, a matrix located between said opposing surfaces of said optical window, said matrix and optical window defining a detection zone, said matrix composed of a curable polymer which is substantially transparent to light, and at least one indicator reagent sensitive to carbon dioxide gas generated by the microorganisms in the incubation zone, the carbon dioxide gas diffusing into the matrix in the detection zone; a light source external to the container located adjacent to the first surface (A) of the optical window configured to pass light through the optical window and through the matrix ; a light sensor external to the container located adjacent to the parallel opposing surface (B) of the optical window , wherein said light generated from the light source passes through the matrix along an optical path from the first surface A through the second surface B and interacts with the indicator reagent to yield interactive light that is indicative of the presence of the microorganisms, said light sensor configured to detect said interactive light.
A method for coating a silicon-based substrate , the method comprising: spraying a combination of powders, wherein the combination of powders comprises: Hf 0.5 Si 0.5 O 2 ; Zr 0.5 Si 0.5 O 2 , and HfO 2 and, optionally, ZrO 2 , wherein: a molar ratio of said Hf 0.5 Si 0.5 O 2 and HfO 2 combined to said Zr 0.5 Si 0.5 O 2 and ZrO 2 combined is from 2:1 to 4:1; and a molar ratio of said Hf 0.5 Si 0.5 O 2 to said HfO 2 is at least 1:3. spraying a combination of powders, wherein the combination of powders comprises: Hf 0.5 Si 0.5 O 2 ; Zr 0.5 Si 0.5 O 2 , and HfO 2 and, optionally, ZrO 2 , Hf 0.5 Si 0.5 O 2 ; Zr 0.5 Si 0.5 O 2 , and HfO 2 and, optionally, ZrO 2 , wherein: a molar ratio of said Hf 0.5 Si 0.5 O 2 and HfO 2 combined to said Zr 0.5 Si 0.5 O 2 and ZrO 2 combined is from 2:1 to 4:1; and a molar ratio of said Hf 0.5 Si 0.5 O 2 to said HfO 2 is at least 1:3. a molar ratio of said Hf 0.5 Si 0.5 O 2 and HfO 2 combined to said Zr 0.5 Si 0.5 O 2 and ZrO 2 combined is from 2:1 to 4:1; and a molar ratio of said Hf 0.5 Si 0.5 O 2 to said HfO 2 is at least 1:3.
Axial fluid machine to extract power from a working fluid moving at a supersonic speed to drive a shaft, comprising - an annular duct with a central axis confined by an inner wall and a concentric outer wall , having an inlet port at a first end of said duct for injecting said working fluid and an exhaust port at an opposite end of said duct; - at least one rotor coaxial with said annular duct and having a rotor surface that is substantially flush with said inner wall or said outer wall such that said inner wall or said outer wall is at least partly formed by said rotor surface, wherein this rotor is operatively connected to a shaft for transmitting rotational movement to this shaft; wherein a free space is extending over at least 75% of the distance between said rotor surface and an opposite inner wall or outer wall of said annular duct, wherein said inlet port is presenting a flow direction for said working fluid that extends at least mainly parallel to said central axis, wherein said inlet port leads directly to said annular duct, wherein upstream from said rotor surface said annular duct comprises at least an injector for a fuel and an ignition system for initiating combustion of the working fluid comprising said fuel, characterized in that said rotor surface is bladeless. - an annular duct with a central axis confined by an inner wall and a concentric outer wall , having an inlet port at a first end of said duct for injecting said working fluid and an exhaust port at an opposite end of said duct; - at least one rotor coaxial with said annular duct and having a rotor surface that is substantially flush with said inner wall or said outer wall such that said inner wall or said outer wall is at least partly formed by said rotor surface, wherein this rotor is operatively connected to a shaft for transmitting rotational movement to this shaft;
A method comprising: receiving, by a wireless device, a plurality of downlink reference signals for a cell; determining a first physical random access channel, PRACH, resource of a first PRACH, wherein the first PRACH is associated with a first downlink reference signal of the plurality of downlink reference signals; determining, based on a first listen-before-talk, LBT, procedure, that the first PRACH resource is occupied; based on a determination that the first PRACH resource is occupied, determining a second PRACH resource of a second PRACH, wherein the second PRACH is associated with a second downlink reference signal of the plurality of downlink reference signals; and based on a second LBT procedure indicating that the second PRACH resource is clear, transmitting a preamble via the second PRACH resource. receiving, by a wireless device, a plurality of downlink reference signals for a cell; determining a first physical random access channel, PRACH, resource of a first PRACH, wherein the first PRACH is associated with a first downlink reference signal of the plurality of downlink reference signals; determining, based on a first listen-before-talk, LBT, procedure, that the first PRACH resource is occupied; based on a determination that the first PRACH resource is occupied, determining a second PRACH resource of a second PRACH, wherein the second PRACH is associated with a second downlink reference signal of the plurality of downlink reference signals; and based on a second LBT procedure indicating that the second PRACH resource is clear, transmitting a preamble via the second PRACH resource.
A system for handling dies with a rectangular and/or arched transverse cross-section, comprising: - at least one support for placing in a removable manner dies having a rectangular transverse cross-section , the support being designed to be coupled in a sliding manner to a fixed structure, in which at least said support has fastening means for holding at least one die with a rectangular transverse cross-section such that said at least one die is suspended and arranged vertically; and - a handler provided with hooking means designed to be coupled to the support to place and/or remove the support with respect to the fixed structure, the handler having coupling means to be coupled to a moving means, wherein the support comprises a substantially U-shaped elongated profile in which fastening means are secured along said profile, in order to hold at least one die such that said at least one die is suspended and arranged vertically, said fastening means being provided with rolling means , and in that the system ncludes a rest area having a pair of elongated secondary guide profiles, which are substantially U-shaped, spaced from one another, and designed for placing dies having an arched transverse cross-section so that dies with an arched cross-section are located above the rectangular cross-section dies . - at least one support for placing in a removable manner dies having a rectangular transverse cross-section , the support being designed to be coupled in a sliding manner to a fixed structure, in which at least said support has fastening means for holding at least one die with a rectangular transverse cross-section such that said at least one die is suspended and arranged vertically; and - a handler provided with hooking means designed to be coupled to the support to place and/or remove the support with respect to the fixed structure, the handler having coupling means to be coupled to a moving means,
A method for generating a computer image of a 3-dimensional scene using a rendering space which is subdivided into a plurality of separate areas, the scene comprising a plurality of objects, the method comprising: a) for at least some of the objects in the scene, storing object data in a memory; b) for two separate areas at a time, deriving control data to link to the object data in the two separate areas, and writing the control data for the two separate areas together in one control stream wherein writing the control data for the two separate areas comprises writing control data, which links to an object which falls in both of the separate areas, only once; c) generating the computer image in the two separate areas by, in parallel: i) deriving depth data for the first separate area from the control data in the control stream and the object data, and deriving image data and shading data for the first separate area from the depth data for display; and ii) deriving depth data for the second separate area from the control data in the control stream and the object data, and deriving image data and shading data for the second separate area from the depth data for display; and d) repeating steps b) and c) until an image has been generated for all the separate areas. a) for at least some of the objects in the scene, storing object data in a memory; b) for two separate areas at a time, deriving control data to link to the object data in the two separate areas, and writing the control data for the two separate areas together in one control stream wherein writing the control data for the two separate areas comprises writing control data, which links to an object which falls in both of the separate areas, only once; c) generating the computer image in the two separate areas by, in parallel: i) deriving depth data for the first separate area from the control data in the control stream and the object data, and deriving image data and shading data for the first separate area from the depth data for display; and ii) deriving depth data for the second separate area from the control data in the control stream and the object data, and deriving image data and shading data for the second separate area from the depth data for display; and i) deriving depth data for the first separate area from the control data in the control stream and the object data, and deriving image data and shading data for the first separate area from the depth data for display; and ii) deriving depth data for the second separate area from the control data in the control stream and the object data, and deriving image data and shading data for the second separate area from the depth data for display; and d) repeating steps b) and c) until an image has been generated for all the separate areas.