mhurhangee/ep-ind-claims huggingface dataset:
Vertical take off and landing (VTOL) unmanned aerial vehicle comprising a multi-propeller propulsion system, an autonomous power source, a sensing system, and a control system connected to the sensing system to receive measurement signals from the sensing system, the control system electrically connected to the multi-propeller propulsion system to control motors of the propulsion system, the sensing system comprising at least an orientation sensor and a displacement sensor configured to measure the orientation and displacement of the VTOL UAV, the multi-propeller propulsion system comprising at least two propellers arranged spaced apart in a non-coaxial manner, each propeller comprising a motor having a stator and a rotor coupled to propeller blades, the control system comprising at least one microprocessor and at least one non-volatile memory in which at least one control program is executable by the microprocessor to control the multi-propeller propulsion system for flight or hovering of the VTOL UAV, wherein the control system comprises a program for stabilizing orientation of said VTOL UAV configured to reverse thrust on at least one propeller (8") distal from a point of contact with an obstacle, delivering therefore a downwards force via said at least one propeller, while controlling a motor of a proximal propeller from the contact point to generate lift, delivering therefore an upwards force via said proximal propeller, the thrust of the distal and proximal propellers being controlled to exert lift on the VTOL UAV to counteract gravitational force thereon and apply a moment of rotation about said point of contact to stabilize the position of the VTOL UAV or to counteract torque resulting from inertia, characterised in that said motor comprises a rotor position sensor, for instance in the form of a Hall effect sensor or optical encoders, mounted on the stator to detect the angular position of the rotor, and in that the VTOL UAV further comprises an outer protective cage, surrounding the multi-propeller propulsion system.
Wind turbine (21, 81, 121), comprising a support construction, a nacelle (24, 88) which is placed on the support construction and in which a first generator (25, 90, 128a) is placed, and a first wind turbine rotor (27, 91, 130a) adapted for approach flow in axial direction and having a substantially horizontally extending first shaft which is bearing-mounted in the nacelle and coupled to the first generator; wherein a second wind turbine rotor (31, 92, 130b) with a second shaft is placed on the support construction, the second wind turbine rotor is adapted for axial approach flow and the second shaft extends substantially horizontally, wherein the first shaft and the second shaft coincide in a continuous shaft (89, 129); the nacelle is tiltable about a horizontal axis extending substantially transversely of the continuous shaft, the tiltable nacelle is placed on a sub-frame, the sub-frame being connected by the horizontal axis to the support construction and wherein a controllable linear drive element is placed between the sub-frame and the support construction at a distance from the horizontal axis, characterized in that a downward extending pin is arranged on the sub-frame and that the pin is coupled to a carrier which normally extends substantially horizontally and is connected to the support construction.
Optical insulation-monitoring device for power cables, having at least one optical waveguide for transmitting an optical measurement signal, a plurality of optical waveguides being present which are each designed to transport an associated optical measurement signal, a coupling element for coupling the optical measurement signals into and/or out of the optical waveguides being present at each end of the optical waveguides, characterized in that the optical waveguides are integrated into a polymer film, each of the coupling elements being formed from a region of the polymer film that has two different polymers, the different polymers differing with regard to their refractive indices.
A nanopore based sequencing instrument, comprising: a plurality of nanopore sensors, each nanopore sensor having a top portion for receiving a fluid; an inlet delivering the fluid into the nanopore based sequencing instrument; an outlet delivering the fluid out of the nanopore based sequencing instrument; and a fluid chamber, the fluid chamber comprising one or more fluid flow channels above top portions of the nanopore sensors; wherein the fluid chamber includes at least one divider that limits the width of the one or more fluid flow channels, wherein the plurality of nanopore sensors are arranged into an array of sensor banks, and wherein a fluid flow channel comprises a serpentine fluid flow channel that directs the fluid to flow above a single column of sensor banks from one end of the chip to the opposite end of the chip and then directs the fluid to repeatedly loop back and flow directly above other adjacent columns of sensor banks until all of the sensor banks have been traversed at least once. a plurality of nanopore sensors, each nanopore sensor having a top portion for receiving a fluid; an inlet delivering the fluid into the nanopore based sequencing instrument; an outlet delivering the fluid out of the nanopore based sequencing instrument; and a fluid chamber, the fluid chamber comprising one or more fluid flow channels above top portions of the nanopore sensors; wherein the fluid chamber includes at least one divider that limits the width of the one or more fluid flow channels, wherein the plurality of nanopore sensors are arranged into an array of sensor banks, and wherein a fluid flow channel comprises a serpentine fluid flow channel that directs the fluid to flow above a single column of sensor banks from one end of the chip to the opposite end of the chip and then directs the fluid to repeatedly loop back and flow directly above other adjacent columns of sensor banks until all of the sensor banks have been traversed at least once.
An inflow apparatus for feeding a starting product into a filling zone of a decanter centrifuge comprising an inlet opening for introducing the starting product into the inflow apparatus; at least one first outlet opening and a second outlet opening different from the first outlet opening for feeding the starting product from the inflow apparatus into the filling zone; and a connection device via which the inlet opening is in flow communication with the first outlet opening and the second outlet opening, wherein the connection device comprises a first passage and a second passage different from the first passage, with the first outlet opening being in flow communication with the inlet opening via the first passage and the second outlet opening being in flow communication with the inlet opening via the second passage wherein the first passage extends continuously from the first outlet opening up to the inlet opening and the second passage extends continuously from the second outlet opening up to the inlet opening, characterized in that the inlet opening, the first outlet opening and the second outlet opening are disposed in different planes with respect to the axial direction.
A composition adapted to be discharged by an inkjet method, the composition comprising: a metal powder; an organic solvent; and a binder resin, wherein the metal powder is treated by surface preparation with a fluorinated silane compound and/or a fluorinated phosphate ester as a surface preparation agent. a metal powder; an organic solvent; and a binder resin, wherein the metal powder is treated by surface preparation with a fluorinated silane compound and/or a fluorinated phosphate ester as a surface preparation agent.
Pneumatic vehicle tire for utility vehicles, having a carcass, having a belt which is constructed radially outside the carcass and having a profiled tread which is constructed on the belt radially outside the belt, wherein the belt is formed from at least four belt plies (17, 14, 13, 15) arranged lying one on top of the other from the radial inside to the radial outside, wherein the first belt ply, which is arranged furthest to the inside in the radial direction R, is formed with parallel strength members embedded in rubber, the second belt ply, arranged on the first belt ply, is formed with parallel strength members embedded in rubber, the third belt ply, arranged on the second belt ply, is formed with parallel strength members embedded in rubber, and the fourth belt ply, arranged on the third belt ply, is formed with parallel strength members embedded in rubber, wherein the third belt ply and the fourth belt ply are working plies, in which the strength members of the third belt ply enclose, in terms of their orientation, an angle α with the circumferential direction U, where 10° ≤ α ≤ 45°, and the strength members of the fourth belt ply each enclose, in terms of their orientation, an angle γ with the circumferential direction U, where 10° ≤ γ ≤ 45°, wherein, as viewed in the circumferential direction U of the vehicle tire, the strength members of the third belt ply have an opposite axial direction of inclination in relation to the strength members of the fourth belt ply, and wherein the strength members of the first belt ply enclose, in terms of their orientation, an angle ε with the circumferential direction U, where 40° ≤ ε ≤ 75°, and the strength members of the second belt ply enclose, in terms of their orientation, an angle β with the circumferential direction U, where 0° ≤ β ≤ 5°, wherein, as viewed in the circumferential direction U, the strength members of the third belt ply and the strength members of the first belt ply have the same axial direction of inclination, characterized in that, radially outside the radially outer working ply on the outer working ply, there is arranged a fifth belt ply with parallel strength members embedded in rubber, which strength members, in terms of their orientation, enclose an angle δ with the circumferential direction U of the pneumatic vehicle tire, where 40° ≤ δ ≤ 75° and in that, as viewed in the circumferential direction U of the vehicle tire, the strength members of the fifth belt ply have an opposite axial direction of inclination relative to the strength members of the first belt ply and the same axial direction of inclination as the strength members of the fourth belt ply.
An interrupt system for a RISC-V architecture, comprising a machine mode abnormality or interrupt return address register, a machine mode abnormality cause register, a machine mode abnormality cause stack register, wherein the machine mode abnormality cause stack register is a first CSR (Control and Status Register) register, and the first CSR register is configured to store a value in the machine mode abnormality cause register into a stack by means of a first instruction; characterized in that the first instruction is: "csrrwi x0, pushmcause, offset", and the first instruction includes an operator csrrwi, a destination operand x0, a csr register pushmcause, and an immediate number offset and wherein an operation flow of the instruction "csrrwi x0, pushmcause, offset" is: a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register. the machine mode abnormality cause stack register is a first CSR (Control and Status Register) register, and the first CSR register is configured to store a value in the machine mode abnormality cause register into a stack by means of a first instruction; characterized in that the first instruction is: "csrrwi x0, pushmcause, offset", and the first instruction includes an operator csrrwi, a destination operand x0, a csr register pushmcause, and an immediate number offset and wherein an operation flow of the instruction "csrrwi x0, pushmcause, offset" is: a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register. a processor core decodes a current instruction as the CSR instruction csrrwi, and detects that the corresponding CSR register is pushmcause; the processor core takes out the value of the CSR register mcause and writes the value directly to a stack, wherein the address of the stack is: the address specified in the sp register + offset << 2, where offset is a 5-bit immediate number in the csrrwi instruction code; a hardware writes the value of the mcause to the stack which automatically updates the value of the mcause into the rd register.
A display system, comprising: a wearable display device comprising: a display area comprising light redirecting features configured to direct light to a user, wherein the display area is at least partially transparent and is configured to provide a view of an ambient environment through the display area; one or more hardware processors; and a non-transitory computer-readable storage medium including computer-executable instructions that, when executed by the one or more hardware processors, cause the one or more hardware processors to perform operations comprising: determining that a reflection from a specular reflector is within the user's field of view through the display area, wherein determining that the reflection from the specular reflector is within the user's field of view comprises: emitting electromagnetic radiation or acoustical waves; detecting, via a sensor, a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold. a wearable display device comprising: a display area comprising light redirecting features configured to direct light to a user, wherein the display area is at least partially transparent and is configured to provide a view of an ambient environment through the display area; one or more hardware processors; and a non-transitory computer-readable storage medium including computer-executable instructions that, when executed by the one or more hardware processors, cause the one or more hardware processors to perform operations comprising: determining that a reflection from a specular reflector is within the user's field of view through the display area, wherein determining that the reflection from the specular reflector is within the user's field of view comprises: emitting electromagnetic radiation or acoustical waves; detecting, via a sensor, a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold. emitting electromagnetic radiation or acoustical waves; detecting, via a sensor, a reflection of the electromagnetic radiation or acoustical waves by a reflective surface, wherein data from the sensor is analyzed to determine an amount of diffusion implied by the reflection; and determining that the reflective surface comprises the specular reflector if the amount of diffusion is below a threshold.
A system for augmented reality viewing, the system comprising: a memory associated with a computing device, the memory including an augmented reality session component; and a processor that executes the augmented reality session component to: generate a unique code corresponding to a user device (102, 104, 106); broadcast information corresponding to the unique code from the user device (102, 104, 106), the information configured to be received by an augmented reality device; display the unique code on the user device (102, 104, 106); and activate a camera of the augmented reality device upon receiving the information broadcast from the user device (102, 104, 106), the camera configured to scan for the unique code; join the user device (102, 104, 106) to an augmented reality session of the augmented reality device in response to the camera scanning the unique code displayed on the user device (102, 104, 106), by transmitting identification information from the augmented reality device to the user device (102, 104, 106) based on the unique code. a memory associated with a computing device, the memory including an augmented reality session component; and a processor that executes the augmented reality session component to: generate a unique code corresponding to a user device (102, 104, 106); broadcast information corresponding to the unique code from the user device (102, 104, 106), the information configured to be received by an augmented reality device; display the unique code on the user device (102, 104, 106); and activate a camera of the augmented reality device upon receiving the information broadcast from the user device (102, 104, 106), the camera configured to scan for the unique code; join the user device (102, 104, 106) to an augmented reality session of the augmented reality device in response to the camera scanning the unique code displayed on the user device (102, 104, 106), by transmitting identification information from the augmented reality device to the user device (102, 104, 106) based on the unique code. generate a unique code corresponding to a user device (102, 104, 106); broadcast information corresponding to the unique code from the user device (102, 104, 106), the information configured to be received by an augmented reality device; display the unique code on the user device (102, 104, 106); and activate a camera of the augmented reality device upon receiving the information broadcast from the user device (102, 104, 106), the camera configured to scan for the unique code; join the user device (102, 104, 106) to an augmented reality session of the augmented reality device in response to the camera scanning the unique code displayed on the user device (102, 104, 106), by transmitting identification information from the augmented reality device to the user device (102, 104, 106) based on the unique code.
A microprocessor that performs execution of a cache line unaligned load instruction, comprising: a predictor that predicts whether a load instruction is unaligned; a front end that issues instructions to a scheduler, wherein said front end marks said load instruction as unaligned when predicted by said predictor to be an unaligned load instruction; an unaligned load dispatcher that detects a load instruction dispatched from said scheduler that is marked as unaligned, that dispatches said load instruction marked as unaligned to a first load pipeline and that dispatches a duplicate of said load instruction marked as unaligned to a second load pipeline in parallel; a memory system comprising said first and second load pipelines (128, 130), wherein said memory system determines a first address for said load instruction marked as unaligned in said first load pipeline to access first data from a first cache line, and that determines a second address for said duplicate of said load instruction marked as unaligned in said second load pipeline to access second data from a second cache line next to the first cache line; and merge logic that merges said first data and said second data to provide result data for said load instruction marked as unaligned. a predictor that predicts whether a load instruction is unaligned; a front end that issues instructions to a scheduler, wherein said front end marks said load instruction as unaligned when predicted by said predictor to be an unaligned load instruction; an unaligned load dispatcher that detects a load instruction dispatched from said scheduler that is marked as unaligned, that dispatches said load instruction marked as unaligned to a first load pipeline and that dispatches a duplicate of said load instruction marked as unaligned to a second load pipeline in parallel; a memory system comprising said first and second load pipelines (128, 130), wherein said memory system determines a first address for said load instruction marked as unaligned in said first load pipeline to access first data from a first cache line, and that determines a second address for said duplicate of said load instruction marked as unaligned in said second load pipeline to access second data from a second cache line next to the first cache line; and merge logic that merges said first data and said second data to provide result data for said load instruction marked as unaligned.
Interface for data transmission in a motor vehicle between a mobile data appliance having a computation unit and an information display in the motor vehicle, wherein the mobile data appliance and the central information display can be connected to one another by means of wireless communication and the screen content of the mobile data appliance can be presented on the information display, the computation unit of the mobile data appliance is set up to use the wireless communication to actuate the information display in the motor vehicle by means of video signals, and the computation unit of the information display is set up to present the video signals received from the mobile data appliance, characterized in that the computation unit of one or more information displays and/or the computation unit of a communication unit of the motor vehicle is/are set up to use the wireless communication to transmit a self-executing application program to the computation unit of the mobile data appliance, which program is programmed to set up the computation unit of the mobile data appliance, when a mobile data appliance registers on the wireless communication system of the motor vehicle.
An amphibious drone, comprising a fuselage, a vertical tail and a wing, wherein the amphibious drone is equipped with a take-off and landing device, the take-off and landing device is provided on the lower surface of one or more of the fuselage, the vertical tail and the wing, the take-off and landing device comprises a buoyancy unit and a power device, and the power device is capable of generating thrust to push the buoyancy unit to move forward, wherein the take-off and landing device is detachably connected to the fuselage and/or the vertical tail and/or the wing, and wherein the buoyancy unit is an open hollow structure, and at least a part of the power device is located in the intermediate space of the buoyancy unit. the take-off and landing device is detachably connected to the fuselage and/or the vertical tail and/or the wing, and wherein the buoyancy unit is an open hollow structure, and at least a part of the power device is located in the intermediate space of the buoyancy unit.