mhurhangee/patent-ind-claim-en huggingface dataset:
A light detection and ranging, LIDAR, device for an autonomous vehicle, the LIDAR device comprising: a laser assembly tier including a laser configured to emit laser light ; a photonic integrated circuit, PIC, tier including: a semiconductor optical amplifier, SOA ; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a wafer layer (130; 330; 430) that is transparent to the laser light and is disposed between the laser assembly tier and the PIC wafer (160; 260; 460), and wherein the wafer layer (130; 330; 430) includes: a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer , wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer. a photonic integrated circuit, PIC, tier including: a semiconductor optical amplifier, SOA ; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a semiconductor optical amplifier, SOA ; a PIC wafer (160; 260; 460) configured to incouple the laser light into the PIC wafer and direct the laser light to the SOA; and a wafer layer (130; 330; 430) that is transparent to the laser light and is disposed between the laser assembly tier and the PIC wafer (160; 260; 460), and wherein the wafer layer (130; 330; 430) includes: a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer , wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer. a laser carrier wafer (131; 331), wherein the laser is coupled to the laser carrier wafer , wherein the laser carrier wafer is configured to receive the laser light from the laser assembly tier; and an SOA cap wafer that is configured to seal the SOA from an environment of the LIDAR device, wherein the SOA cap wafer is disposed between the PIC wafer (160; 260; 460) and the laser carrier wafer (131; 331); and wherein the SOA cap wafer is configured to receive the laser light from the laser carrier wafer; and wherein the PIC wafer is configured to receive the laser light from the SOA cap wafer.
A separator for a lithium-sulfur battery comprising; a porous substrate; and a coating layer formed on at least one side thereof, wherein the coating layer comprises graphene oxide and boron nitride and wherein the coating layer comprises the graphene oxide and the boron nitride in a weight ratio of 1:4 to 1:9.
A method for automatically processing a video with special effects, characterized in that , the method comprises: acquiring a reference video containing a first special effect; determining whether the reference video carries second content information of a second special effect, the second special effect being related to the first special effect wherein the second content information comprises a native address or a network address for acquiring the second special effect; determining, in response to the reference video not carrying the second content information of the second special effect, whether the reference video carries first content information of the first special effect, wherein the first content information comprises a native address or a network address for acquiring the first special effect, identifying, in response to the reference video not carrying the first content information of the first special effect, a feature of the first special effect in the reference video, and acquiring the second special effect from a correspondence table of special effects according to the feature; and acquiring a video containing the second special effect by processing an image of the reference video according to the second special effect. determining whether the reference video carries second content information of a second special effect, the second special effect being related to the first special effect wherein the second content information comprises a native address or a network address for acquiring the second special effect; determining, in response to the reference video not carrying the second content information of the second special effect, whether the reference video carries first content information of the first special effect, wherein the first content information comprises a native address or a network address for acquiring the first special effect, identifying, in response to the reference video not carrying the first content information of the first special effect, a feature of the first special effect in the reference video, and acquiring the second special effect from a correspondence table of special effects according to the feature; and acquiring a video containing the second special effect by processing an image of the reference video according to the second special effect.
A lighting and/or signaling module , notably for a vehicle, comprising: - a light source (e); - a reflector with a reflecting surface configured for reflecting the light rays emitted by the light source (e); - a lens running parallel to a plane control curve G, with a cross-section at least essentially constant and corresponding to that of a stigmatic reference lens (4 0 ) between a point situated behind the lens on the plane control curve G and infinity in front of the lens, the lens being configured so as to transmit the light rays reflected by the reflector so as to form a lighting and/or signaling beam; characterized in that the reflecting surface of the reflector is configured in such a manner that the rays of the lighting and/or signaling beam coming from the lens of the module are perpendicular to a circular arc A situated in a plane parallel to that of the plane control curve G, and such that said rays or their projections intercept the circular arc A. - a light source (e); - a reflector with a reflecting surface configured for reflecting the light rays emitted by the light source (e); - a lens running parallel to a plane control curve G, with a cross-section at least essentially constant and corresponding to that of a stigmatic reference lens (4 0 ) between a point situated behind the lens on the plane control curve G and infinity in front of the lens, the lens being configured so as to transmit the light rays reflected by the reflector so as to form a lighting and/or signaling beam;
An information processing apparatus comprising: character input means arranged to display a virtual input device, in the form of a virtual keyboard, on a display and to input a character corresponding to operation on the virtual input device onto a target character input window; display control means arranged to perform highlighted display of an area of a character key of the plurality of character keys which is indicated by the operation; and output means arranged to output an image displayed on the display to an external device through a network , wherein said display control means is arranged to stop the highlighted display while the virtual input device is displayed on the display, the target character input window is a password input window, and a character is input onto the password input window through the virtual input device. character input means arranged to display a virtual input device, in the form of a virtual keyboard, on a display and to input a character corresponding to operation on the virtual input device onto a target character input window; display control means arranged to perform highlighted display of an area of a character key of the plurality of character keys which is indicated by the operation; and output means arranged to output an image displayed on the display to an external device through a network , wherein said display control means is arranged to stop the highlighted display while the virtual input device is displayed on the display, the target character input window is a password input window, and a character is input onto the password input window through the virtual input device.
A brushless direct-current (BLDC) motor comprising: a stator having a stator core , a plurality of teeth extending radially outwardly from the stator core, and a plurality of windings wound around the stator teeth; a rotor shaft extending along a center axis; a rotor having a rotor core disposed around the stator, a plurality of permanent magnets secured to the rotor core, an inner annular member mounted on the rotor shaft, and a plurality of radial blades extending angularly from the rotor core to the inner annular member forming a fan adjacent the stator that generates an airflow with rotation of the rotor shaft; a first end cap including a radial back plate proximate the fan and a center opening in the radial back plate through which the rotor shaft extends; and a second end cap including a main body disposed adjacent the stator opposite the fan, and characterized in that : the radial back plate including at least one sloped surface (120A and/or 120B) forming at least one air gap (123A and/or 123B), wherein the airflow generated by the fan is centrifugally guided within the first end cap by the at least one sloped surface and caused to exit the first end cap through the at least one air gap; and the second end cap comprises a first plurality of openings for passage of airflow and a second plurality of openings for passage of a plurality of motor terminals arranged to electrically couple to the plurality of windings of the stator. a stator having a stator core , a plurality of teeth extending radially outwardly from the stator core, and a plurality of windings wound around the stator teeth; a rotor shaft extending along a center axis; a rotor having a rotor core disposed around the stator, a plurality of permanent magnets secured to the rotor core, an inner annular member mounted on the rotor shaft, and a plurality of radial blades extending angularly from the rotor core to the inner annular member forming a fan adjacent the stator that generates an airflow with rotation of the rotor shaft; a first end cap including a radial back plate proximate the fan and a center opening in the radial back plate through which the rotor shaft extends; and a second end cap including a main body disposed adjacent the stator opposite the fan, and the radial back plate including at least one sloped surface (120A and/or 120B) forming at least one air gap (123A and/or 123B), wherein the airflow generated by the fan is centrifugally guided within the first end cap by the at least one sloped surface and caused to exit the first end cap through the at least one air gap; and the second end cap comprises a first plurality of openings for passage of airflow and a second plurality of openings for passage of a plurality of motor terminals arranged to electrically couple to the plurality of windings of the stator.
A system consisting of: a laser adapted to perform photodisruption based laser treatments; and an acoustic diverter adapted for photodisruption based laser treatments for dispersing of acoustic waves to limit or prevent their focusing in the eye, which is designed as a one-piece body having a posterior surface for contacting the eye and an anterior surface, wherein the geometry of the anterior surface is concave, flat or slightly convex with a radius of curvature more than 25 mm, such that it prevents or decreases refocusing of acoustic waves back into the eye, and wherein the acoustic diverter is made of any material having the following properties: - transparency for the visible and near IR light, - has to be autoclavable or sterilisable, and - has to be biocompatible, characterised in that the material further has the following properties: - has acoustic impedance between 1.4 and 1.7×10 6 kg/(m 2 ·s) and - has acoustic attenuation coefficient more than 1 cm -1 at 10 MHz. a laser adapted to perform photodisruption based laser treatments; and an acoustic diverter adapted for photodisruption based laser treatments for dispersing of acoustic waves to limit or prevent their focusing in the eye, which is designed as a one-piece body having a posterior surface for contacting the eye and an anterior surface, wherein the geometry of the anterior surface is concave, flat or slightly convex with a radius of curvature more than 25 mm, such that it prevents or decreases refocusing of acoustic waves back into the eye, and wherein the acoustic diverter is made of any material having the following properties: - transparency for the visible and near IR light, - has to be autoclavable or sterilisable, and - has to be biocompatible, - transparency for the visible and near IR light, - has to be autoclavable or sterilisable, and - has to be biocompatible, characterised in that the material further has the following properties: - has acoustic impedance between 1.4 and 1.7×10 6 kg/(m 2 ·s) and - has acoustic attenuation coefficient more than 1 cm -1 at 10 MHz. - has acoustic impedance between 1.4 and 1.7×10 6 kg/(m 2 ·s) and - has acoustic attenuation coefficient more than 1 cm -1 at 10 MHz.
A thermoplastic composition comprising: from about 40 wt% to about 90 wt% of a crystalline polymer; from about 5 wt% to about 50 wt% basalt fibers; and from about 1 wt% to about 20 wt% of an impact modifier. from about 40 wt% to about 90 wt% of a crystalline polymer; from about 5 wt% to about 50 wt% basalt fibers; and from about 1 wt% to about 20 wt% of an impact modifier.
A processing device for energy-binned differential phase contrast x-ray imaging data, comprising: a proportionality factor providing unit arranged to provide a proportionality factor between an object induced phase shift for a first x-ray energy bin and an object induced phase shift for a second x-ray energy bin, and a dark field and phase shift determining unit arranged to determine at least one of a dark field signal and an object induced phase shift from a detected intensity value, included in the imaging data, of a pixel for the first energy bin and a detected intensity value of the pixel for the second energy bin, using the proportionality factor provided by the proportionality factor providing unit. a proportionality factor providing unit arranged to provide a proportionality factor between an object induced phase shift for a first x-ray energy bin and an object induced phase shift for a second x-ray energy bin, and a dark field and phase shift determining unit arranged to determine at least one of a dark field signal and an object induced phase shift from a detected intensity value, included in the imaging data, of a pixel for the first energy bin and a detected intensity value of the pixel for the second energy bin, using the proportionality factor provided by the proportionality factor providing unit.
A user terminal (100#1) that exists in a serving cell, in a mobile communication system that supports a device-to-device, D2D, proximity service, comprising: a receiver configured to receive a broadcast signal from a base station (200#1) that forms the serving cell, the broadcast signal including a cell identifier of a neighbor cell and inter-cell synchronization information on the neighbor cell; and a controller configured to determine, on the basis of the inter-cell synchronization information, whether or not to perform an inter-cell synchronization procedure including a process of receiving a D2D synchronization signal from a proximal terminal (100#2) that exists in the neighbor cell in order to receive a D2D discovery signal from the proximal terminal (100#2), wherein when it is determined that user terminal (100#1) performs the inter-cell synchronization procedure, the controller is configured to perform the inter-cell synchronization procedure and a process of receiving the D2D discovery signal from the proximal terminal (100#2), and when it is determined that user terminal (100#1) does not perform the inter-cell synchronization procedure, the controller is configured to perform a process of receiving the D2D discovery signal from the proximal terminal (100#2) without performing the inter-cell synchronization procedure. a receiver configured to receive a broadcast signal from a base station (200#1) that forms the serving cell, the broadcast signal including a cell identifier of a neighbor cell and inter-cell synchronization information on the neighbor cell; and a controller configured to determine, on the basis of the inter-cell synchronization information, whether or not to perform an inter-cell synchronization procedure including a process of receiving a D2D synchronization signal from a proximal terminal (100#2) that exists in the neighbor cell in order to receive a D2D discovery signal from the proximal terminal (100#2), wherein when it is determined that user terminal (100#1) performs the inter-cell synchronization procedure, the controller is configured to perform the inter-cell synchronization procedure and a process of receiving the D2D discovery signal from the proximal terminal (100#2), and when it is determined that user terminal (100#1) does not perform the inter-cell synchronization procedure, the controller is configured to perform a process of receiving the D2D discovery signal from the proximal terminal (100#2) without performing the inter-cell synchronization procedure.
An automatic aircraft positioning system , comprising: one or more fiducials coupled to a first aircraft ; and a positioning radar , control devices , and a control unit coupled to a second aircraft , wherein the control devices are configured to control operation of the second aircraft , and wherein the control unit is in communication with the positioning radar and the control devices , wherein the positioning radar is configured to transmit a radar transmit signal, wherein the one or more fiducials are configured to receive the radar transmit signal and output one or more return signals in response to the radar transmit signal, wherein the positioning radar is configured to receive the one or more return signals and determine a position of the second aircraft relative to the first aircraft from the one or more return signals , and wherein the control unit is configured to automatically control the second aircraft in relation to the first aircraft during an automatic positioning mode based, at least in part, on the position of the second aircraft relative to the first aircraft . one or more fiducials coupled to a first aircraft ; and a positioning radar , control devices , and a control unit coupled to a second aircraft , wherein the control devices are configured to control operation of the second aircraft , and wherein the control unit is in communication with the positioning radar and the control devices , wherein the positioning radar is configured to transmit a radar transmit signal, wherein the one or more fiducials are configured to receive the radar transmit signal and output one or more return signals in response to the radar transmit signal, wherein the positioning radar is configured to receive the one or more return signals and determine a position of the second aircraft relative to the first aircraft from the one or more return signals , and wherein the control unit is configured to automatically control the second aircraft in relation to the first aircraft during an automatic positioning mode based, at least in part, on the position of the second aircraft relative to the first aircraft .
A bifunctional polymer comprising: (a) an anchor group selected from a group consisting of azide, carboxylic acid, thiol, amine, hydroxyl, hydrazine, silyl, phosphonate, alkyne, catechol, and lysine; (b) a polymer block that includes one or more first polymers, the one or more first polymers including polyethylene glycol or polysaccharide; (c) a linker group selected from a group consisting of phenyl, vinyl, benzyl, and alkyl; and (d) an azlactone end group containing R 1 and R 2 , wherein R 1 and R 2 are each independently selected from a group consisting of hydrogen, alkyl, and aryl. (a) an anchor group selected from a group consisting of azide, carboxylic acid, thiol, amine, hydroxyl, hydrazine, silyl, phosphonate, alkyne, catechol, and lysine; (b) a polymer block that includes one or more first polymers, the one or more first polymers including polyethylene glycol or polysaccharide; (c) a linker group selected from a group consisting of phenyl, vinyl, benzyl, and alkyl; and (d) an azlactone end group containing R 1 and R 2 , wherein R 1 and R 2 are each independently selected from a group consisting of hydrogen, alkyl, and aryl.
A coffee machine , comprising: a main housing comprising a docking area accessible from the exterior of the machine; a coffee vessel for removable fitting to the docking area of the main housing, a water heater ; a water delivery system for delivering heated water to the coffee vessel ; a closing piston having an end face and a water delivery channel leading to the end face, forming part of the water delivery system; and a drive mechanism for providing horizontal lateral relative displacement between the closing piston and the coffee vessel , wherein the coffee vessel comprises an opening for receiving the closing piston and an outlet for delivering brewed coffee, wherein the coffee vessel is adapted to be fitted to the docking area with the opening facing horizontally sideways. a main housing comprising a docking area accessible from the exterior of the machine; a coffee vessel for removable fitting to the docking area of the main housing, a water heater ; a water delivery system for delivering heated water to the coffee vessel ; a closing piston having an end face and a water delivery channel leading to the end face, forming part of the water delivery system; and a drive mechanism for providing horizontal lateral relative displacement between the closing piston and the coffee vessel , wherein the coffee vessel comprises an opening for receiving the closing piston and an outlet for delivering brewed coffee, wherein the coffee vessel is adapted to be fitted to the docking area with the opening facing horizontally sideways.