mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making nanowires comprising: forming a selective growth mask over a substrate , wherein the selective growth mask comprises a plurality of patterned apertures that expose a plurality of portions of the substrate; using a selective non-pulsed growth mode to grow a semiconductor material on each of the plurality of portions of the substrate exposed in each of the patterned apertures, wherein the selective non-pulsed growth mode comprises continuously flowing Group III and Group V precursor gases of the semiconductor material in a growth reactor; performing a growth-mode transition from the selective non-pulsed growth mode to a pulsed growth mode , wherein the pulsed growth comprises alternately introducing the Group III and Group V precursor gases of the semiconductor material in the growth reactor with one or more sequence loops ; and forming a plurality of semiconductor nanowires by continuing the pulsed growth mode of the semiconductor material. forming a selective growth mask over a substrate , wherein the selective growth mask comprises a plurality of patterned apertures that expose a plurality of portions of the substrate; using a selective non-pulsed growth mode to grow a semiconductor material on each of the plurality of portions of the substrate exposed in each of the patterned apertures, wherein the selective non-pulsed growth mode comprises continuously flowing Group III and Group V precursor gases of the semiconductor material in a growth reactor; performing a growth-mode transition from the selective non-pulsed growth mode to a pulsed growth mode , wherein the pulsed growth comprises alternately introducing the Group III and Group V precursor gases of the semiconductor material in the growth reactor with one or more sequence loops ; and forming a plurality of semiconductor nanowires by continuing the pulsed growth mode of the semiconductor material.
Method for diluted combustion, wherein a burner is used to supply a fuel flow, multiple air flows and multiple oxygen flows to a combustion chamber , wherein the fuel flow is supplied via a single fuel nozzle , wherein the air flows and the oxygen flows are supplied spatially separated from one another, and wherein the oxygen flows and the air flows are supplied via multiple main oxygen nozzles and, respectively, air nozzles which are arranged on a circle around the fuel flow, and wherein the air nozzles are arranged in the spaces between the main oxygen nozzles , characterized in that the volumetric flows of air and oxygen can be set independently of one another, it being possible to switch during the combustion process between pure operation with air and pure operation with oxygen and mixed operation with oxygen and air, and in that the oxygen flows have a velocity of at least 50 m/s and preferably of 80 to 200 m/s, and in that the burner is used to supply a further oxygen flow to the combustion chamber centrally in the fuel flow, this being thus surrounded by the fuel flow, wherein this oxygen flow forms a pilot flame with part of the fuel of the fuel flow.
Vehicle headlamp or vehicle rear lamp, comprising a housing and modulatable light or IR radiation sources which are arranged within the housing and are arranged on a module carrier , and an interface for connection to an external vehicle processor , wherein an image sensor arranged within the housing and a processor connected to the image sensor are arranged for determining depth information from the backscattered radiation of the light or IR radiation sources , wherein the processor is connected via a modulator to at least some of the modulatable light or IR radiation sources arranged within the housing , and the processor serving as a ToF camera processor is connected to the interface via a bidirectional data connection for transmitting the data calculated by the processor and the processor is designed to accept control information for changing the illumination profile from the external vehicle processor in real time via the bidirectional data connection and to change the illumination profile of the vehicle headlamp in real time taking into account the requirements of the ToF image sensor, characterized in that the module carrier is movable, and that both the image sensor and the processor are arranged within the housing, and the image sensor is arranged on the movable module carrier or on a movable image sensor carrier which is controlled jointly with the movable module carrier , wherein the processor is connected to the movable module carrier or to the movable module carrier and the movable image sensor carrier in order to control the movable module carrier .
An abrasive article comprising: a carrier element having a tensile strength of at least about 600 N/mm 2 ; an abrasive component, the abrasive component includes abrasive particles, a metal matrix comprising a network of interconnected pores substantially filled with an infiltrant having an infiltrant composition containing at least one metal element; and a bonding region between the abrasive component and the carrier element, the bonding region comprising a bonding metal having a bonding metal composition containing at least one metal element, wherein the bonding region is an identifiable layer having a distinct phase from both the underlying carrier and the the abrasive component, wherein an amount of bonding metal that infiltrates the abrasive component is 20 wt% to 45 wt% of the densified abrasive component. a carrier element having a tensile strength of at least about 600 N/mm 2 ; an abrasive component, the abrasive component includes abrasive particles, a metal matrix comprising a network of interconnected pores substantially filled with an infiltrant having an infiltrant composition containing at least one metal element; and a bonding region between the abrasive component and the carrier element, the bonding region comprising a bonding metal having a bonding metal composition containing at least one metal element, wherein the bonding region is an identifiable layer having a distinct phase from both the underlying carrier and the the abrasive component, wherein an amount of bonding metal that infiltrates the abrasive component is 20 wt% to 45 wt% of the densified abrasive component.
An operator workplace for a construction machine , comprising - a driver seat with a seating surface , - an armrest arranged next to the seating surface and having an arm support surface and a control wheel for controlling at least one machine function, the control wheel being rotatable about a control axis , characterized in that the control wheel is arranged at a distance from the seating surface in a horizontal plane and transverse to a front/rear direction, and in that the control axis of the control wheel is tilted relative to a vertical line (V) by a tilt angle (W1) in a direction toward the arm support surface of the armrest . - a driver seat with a seating surface , - an armrest arranged next to the seating surface and having an arm support surface and a control wheel for controlling at least one machine function, the control wheel being rotatable about a control axis , characterized in that the control wheel is arranged at a distance from the seating surface in a horizontal plane and transverse to a front/rear direction, and in that the control axis of the control wheel is tilted relative to a vertical line (V) by a tilt angle (W1) in a direction toward the arm support surface of the armrest .
A 3D scanner system for detecting and/or visualizing cariogenic regions in teeth based on fluorescence emitted from said teeth, said 3D scanner system comprising: - an illumination unit capable of providing probe light for illuminating the teeth where said probe light comprises light at a first wavelength which is capable of exciting a fluorescent material of the teeth; - an image sensor for recording images of light received from the illuminated teeth, where said image sensor is capable of detecting fluorescence emitted from said fluorescent material when this is excited by light at said first wavelength; - data processing means configured for: i. creating a digital 3D representation of the 3D topography of the teeth based on recorded images comprising probe light reflected from the teeth; ii. creating a representation of the fluorescence emitted from the fluorescent material of the teeth based on recorded images comprising the emitted fluorescence, and iii. mapping the representation of the emitted fluorescence onto the corresponding portion of the digital 3D representation of the teeth to provide a combined digital 3D representation; and - a visual display unit on which the combined digital 3D representation is visualized. - an illumination unit capable of providing probe light for illuminating the teeth where said probe light comprises light at a first wavelength which is capable of exciting a fluorescent material of the teeth; - an image sensor for recording images of light received from the illuminated teeth, where said image sensor is capable of detecting fluorescence emitted from said fluorescent material when this is excited by light at said first wavelength; - data processing means configured for: i. creating a digital 3D representation of the 3D topography of the teeth based on recorded images comprising probe light reflected from the teeth; ii. creating a representation of the fluorescence emitted from the fluorescent material of the teeth based on recorded images comprising the emitted fluorescence, and iii. mapping the representation of the emitted fluorescence onto the corresponding portion of the digital 3D representation of the teeth to provide a combined digital 3D representation; and i. creating a digital 3D representation of the 3D topography of the teeth based on recorded images comprising probe light reflected from the teeth; ii. creating a representation of the fluorescence emitted from the fluorescent material of the teeth based on recorded images comprising the emitted fluorescence, and iii. mapping the representation of the emitted fluorescence onto the corresponding portion of the digital 3D representation of the teeth to provide a combined digital 3D representation; and - a visual display unit on which the combined digital 3D representation is visualized.
Switchgear assembly having a metal-clad housing and a drive device , which is connected to a kinematic chain for transmitting a movement which can be delivered by the drive device into the inside of the metal-clad housing and is mounted at least partially on the metal-clad housing , wherein the drive device is mounted on the metal-clad housing via a spacer device , which creates between the drive device and the metal-clad housing a receiving space which is separate from the inside of the metal-clad housing , characterized in that the spacer device is arranged on a bulging wall of the metal-clad housing , wherein the spacer device encloses the bulging wall and a flange surface (22a, 22b, 22c, 22'a, 22'b, 22'c) is arranged in the bulging wall . the drive device is mounted on the metal-clad housing via a spacer device , which creates between the drive device and the metal-clad housing a receiving space which is separate from the inside of the metal-clad housing , characterized in that the spacer device is arranged on a bulging wall of the metal-clad housing , wherein the spacer device encloses the bulging wall and a flange surface (22a, 22b, 22c, 22'a, 22'b, 22'c) is arranged in the bulging wall .
Transport body with a transport frame for a transportable body, wherein the transport frame comprises a. a frame structure , b. at least one fastening element for fastening the body to the transport frame , c. a coupling structure for detachably coupling the transport frame to a substructure, and with a body fastened to the transport frame , which body has an interchangeable body designed so as to be interchangeable from the transport frame and has a static body fastened permanently to the transport frame , characterized in that the static body comprises a press, the interchangeable body is designed in the form of a separate container that can be docked onto the press. a. a frame structure , b. at least one fastening element for fastening the body to the transport frame , c. a coupling structure for detachably coupling the transport frame to a substructure, and
Contactor arrangement of an IC test handler, comprising: a contactor unit which has test contacts for contacting an IC or a group of ICs in test and for temporarily pressing the IC against the test contacts, and a plunger head , which has a recessed central region corresponding to the geometrical configuration of the IC, such that those surface of the IC which is adjacent to the upper surface of the plunger head does not touch the plunger head surface, characterised in that the contactor arrangement further comprises: a contactor unit interface , which includes a vacuum suction system for actively attracting the IC to an IC contact surface of the contactor unit interface, that corresponds with an adjacent surface of the IC having IC device contacts and, thus, towards the test contacts of the contactor unit . a contactor unit which has test contacts for contacting an IC or a group of ICs in test and for temporarily pressing the IC against the test contacts, and a plunger head , which has a recessed central region corresponding to the geometrical configuration of the IC, such that those surface of the IC which is adjacent to the upper surface of the plunger head does not touch the plunger head surface, characterised in that the contactor arrangement further comprises: a contactor unit interface , which includes a vacuum suction system for actively attracting the IC to an IC contact surface of the contactor unit interface, that corresponds with an adjacent surface of the IC having IC device contacts and, thus, towards the test contacts of the contactor unit .
A system comprised of an unmanned vehicle moving around independently within an environment, in particular a cleaning robot, a controller and a door located in the environment with a doorframe and a door leaf , wherein the vehicle has a detector for detecting object data within the environment, wherein the door has an electronic actuator for changing the opening state of the door , and wherein the controller is set up to output a control command for activating the actuator as a function of an operating state and/or a position of the vehicle , characterized in that the door has an identification means with an optical and/or electronic code, and wherein the vehicle has an acquisition means for identifying the door , specifically a reader for the optical and/or electronic code of the door , and wherein the controller is set up to transmit a control command to the actuator of the identified door .
A method for repairing a damaged portion of a composite fuselage or wing on an aircraft, the method comprising: performing a non-destructive inspection ("NDI") of the damaged portion to determine a size and a location of the damaged portion ; determining a repair for the damaged portion based on the size and location of the damaged portion and on types of previously fabricated nestable sections in a composite repair kit; and repairing the damaged portion with the composite repair kit; wherein each previously fabricated nestable section of the previously fabricated nestable sections in the composite repair kit is a single-ply of composite material that is fabricated prior to being included in the composite repair kit; and wherein the previously fabricated nestable sections are constructed to be stacked with each other to form varying multi-ply composite structures . performing a non-destructive inspection ("NDI") of the damaged portion to determine a size and a location of the damaged portion ; determining a repair for the damaged portion based on the size and location of the damaged portion and on types of previously fabricated nestable sections in a composite repair kit; and repairing the damaged portion with the composite repair kit; wherein each previously fabricated nestable section of the previously fabricated nestable sections in the composite repair kit is a single-ply of composite material that is fabricated prior to being included in the composite repair kit; and wherein the previously fabricated nestable sections are constructed to be stacked with each other to form varying multi-ply composite structures .
An electrical connector assembly , comprising: a connector housing defining a cylindrical terminal cavity ; an electrical terminal having a cylindrical portion ; and an electrical terminal seal formed of a self-bleeding, low compression set silicone rubber having a Shore A durometer value in a range of 15 to 23, the electrical terminal seal having a base and a cylindrical protrusion integrally formed with the base and extending from a major surface of the base and defining a cylindrical aperture extending through the protrusion , characterized in that the protrusion includes a first pair of circumferential ribs integrally formed within the protrusion and extending into the aperture from an inner surface of the protrusion , wherein the first pair of circumferential ribs is in an interference fit with the terminal to provide compressive contact with a cylindrical portion of the terminal . a connector housing defining a cylindrical terminal cavity ; an electrical terminal having a cylindrical portion ; and an electrical terminal seal formed of a self-bleeding, low compression set silicone rubber having a Shore A durometer value in a range of 15 to 23, the electrical terminal seal having a base and a cylindrical protrusion integrally formed with the base and extending from a major surface of the base and defining a cylindrical aperture extending through the protrusion , characterized in that the protrusion includes a first pair of circumferential ribs integrally formed within the protrusion and extending into the aperture from an inner surface of the protrusion , wherein the first pair of circumferential ribs is in an interference fit with the terminal to provide compressive contact with a cylindrical portion of the terminal .
A partitioning component for a feeding bottle device , the feeding bottle device comprising a teat component defining a teat volume therein and a container component defining a container volume therein, the teat component being attachable to the container component , the partitioning component being configured to separate the teat volume from the container volume when the feeding bottle device is assembled, characterized in that the partitioning component comprises a first passage allowing a passage of air and liquid between the container volume and the teat volume and a second passage comprising at least one through hole such that the surface tension of an air bubble will not allow the passage into or out of the teat volume up to a predefined pressure difference.
A data transmission method, executed by a source network device, the method comprising: receiving a RRC connection reconfiguration message from a target network device, forwarding data to the target network device when determining that a terminal device is successfully handed over to the target network device, characterized in that when determining that the terminal device is successfully handed over to the target network device, the method further comprises: receiving identity information of the target network device sent by the target network device, wherein before forwarding data to the target network device when determining that the terminal device is successfully handed over to the target network device, the method further comprises: sending a handover command to the terminal device, wherein the handover command is used for indicating multiple target network devices to the terminal device, wherein the handover command contains RRC connection reconfiguration information of the multiple target network devices. receiving a RRC connection reconfiguration message from a target network device, forwarding data to the target network device when determining that a terminal device is successfully handed over to the target network device, characterized in that when determining that the terminal device is successfully handed over to the target network device, the method further comprises: receiving identity information of the target network device sent by the target network device, wherein before forwarding data to the target network device when determining that the terminal device is successfully handed over to the target network device, the method further comprises: sending a handover command to the terminal device, wherein the handover command is used for indicating multiple target network devices to the terminal device, wherein the handover command contains RRC connection reconfiguration information of the multiple target network devices. receiving identity information of the target network device sent by the target network device, wherein before forwarding data to the target network device when determining that the terminal device is successfully handed over to the target network device, the method further comprises: sending a handover command to the terminal device, wherein the handover command is used for indicating multiple target network devices to the terminal device, wherein the handover command contains RRC connection reconfiguration information of the multiple target network devices. sending a handover command to the terminal device, wherein the handover command is used for indicating multiple target network devices to the terminal device, wherein the handover command contains RRC connection reconfiguration information of the multiple target network devices.
A light source device comprising: an LED light source emitting a light beam; a concentrator comprising a pair of Fresnel lenses with corrugated surfaces and concentrating the emitted light beam, the corrugated surfaces of the Fresnel lenses facing each other, and a light guide guiding the concentrated light beam, wherein the corrugated surfaces of the pair of Fresnel lenses are in contact with each other. an LED light source emitting a light beam; a concentrator comprising a pair of Fresnel lenses with corrugated surfaces and concentrating the emitted light beam, the corrugated surfaces of the Fresnel lenses facing each other, and a light guide guiding the concentrated light beam, wherein the corrugated surfaces of the pair of Fresnel lenses are in contact with each other.
Electrically conductive plastic product made via rotational moulding, comprising - a plastic matrix; and - a network of conductive fibers of discrete length embedded in the plastic matrix for providing electrical conductivity to the plastic product, wherein the conductive fibers are metal fibers; and wherein the average length of the conductive fibers is at least 3 mm. - a plastic matrix; and - a network of conductive fibers of discrete length embedded in the plastic matrix for providing electrical conductivity to the plastic product,