mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft capable of (a) sustained powered rotary-wing-mode VTOL flight and (b) sustained powered non-rotary forward airplane-mode flight, the aircraft comprising: a hub ; a pair of wings coupled to the hub and serving as both rotary wings in rotary-wing-mode VTOL flight and as a pair of lifting wings in airplane-mode flight; a fuselage coupled to the hub ; and a propulsion component configured to provide propulsion for the aircraft sufficient for sustained powered flight, wherein the propulsion component includes a plurality of thrusters including at least one thruster on each wing of said pair of wings , wherein said plurality of thrusters provide sustained rotation of the pair of wings in said rotary-wing-mode VTOL flight and sustained forward motion of the pair of wings and of the entire aircraft in said non-rotary forward airplane-mode flight, wherein said at least one thruster on a first one of said pair of wings is able to thrust in substantially an opposite direction from propulsion from said at least one thruster on a second one of said pair of wings in said rotary-wing-mode VTOL flight and, wherein said propulsion from said at least one thruster on said first one of said pair of wings is able to thrust in substantially a same direction as propulsion from said at least one thruster on said second one of said pair of wings in said non-rotary forward airplane-mode characterized in that the fuselage is located under the pair of wings when the aircraft is in said rotary-wing VTOL flight and in said non-rotary forward airplane -mode flight. a hub ; a pair of wings coupled to the hub and serving as both rotary wings in rotary-wing-mode VTOL flight and as a pair of lifting wings in airplane-mode flight; a fuselage coupled to the hub ; and a propulsion component configured to provide propulsion for the aircraft sufficient for sustained powered flight, wherein the propulsion component includes a plurality of thrusters including at least one thruster on each wing of said pair of wings , wherein said plurality of thrusters provide sustained rotation of the pair of wings in said rotary-wing-mode VTOL flight and sustained forward motion of the pair of wings and of the entire aircraft in said non-rotary forward airplane-mode flight, wherein said at least one thruster on a first one of said pair of wings is able to thrust in substantially an opposite direction from propulsion from said at least one thruster on a second one of said pair of wings in said rotary-wing-mode VTOL flight and, wherein said propulsion from said at least one thruster on said first one of said pair of wings is able to thrust in substantially a same direction as propulsion from said at least one thruster on said second one of said pair of wings in said non-rotary forward airplane-mode characterized in that the fuselage is located under the pair of wings when the aircraft is in said rotary-wing VTOL flight and in said non-rotary forward airplane -mode flight.
An electrical isolator comprising: a first fluid-carrying member and a second fluid-carrying member spaced apart from said first fluid-carrying member ; wherein said first fluid-carrying member has a first toothed surface and said second fluid-carrying member has a second toothed surface ; wherein the electrical isolator further comprises: a fibre-reinforced polymer tube that overlaps both the first fluid-carrying member and the second fluid-carrying member and which contacts the first toothed surface in a first interface region of the fibre-reinforced polymer tube and which contacts the second toothed surface in a second interface region of the fibre-reinforced polymer tube ; and characterised by a compression fitting arranged to bias the first interface region and the first toothed surface together by providing a preload to the first toothed surface and the first interface region . a first fluid-carrying member and a second fluid-carrying member spaced apart from said first fluid-carrying member ; wherein said first fluid-carrying member has a first toothed surface and said second fluid-carrying member has a second toothed surface ; wherein the electrical isolator further comprises: a fibre-reinforced polymer tube that overlaps both the first fluid-carrying member and the second fluid-carrying member and which contacts the first toothed surface in a first interface region of the fibre-reinforced polymer tube and which contacts the second toothed surface in a second interface region of the fibre-reinforced polymer tube ; and characterised by a compression fitting arranged to bias the first interface region and the first toothed surface together by providing a preload to the first toothed surface and the first interface region . a fibre-reinforced polymer tube that overlaps both the first fluid-carrying member and the second fluid-carrying member and which contacts the first toothed surface in a first interface region of the fibre-reinforced polymer tube and which contacts the second toothed surface in a second interface region of the fibre-reinforced polymer tube ; and characterised by a compression fitting arranged to bias the first interface region and the first toothed surface together by providing a preload to the first toothed surface and the first interface region .
A method comprising: monitoring , by a microprocessor, a communication session, wherein the communication session is a voice or a video communication session between a plurality of different communication devices; determining , by the microprocessor, if the communication session contains a watermark, wherein the watermark is used to identify that the voice or video communication session is a legitimate voice or video call between a plurality of users on the plurality of different communication devices; in response to determining that the communication session contains the watermark, allowing , by the microprocessor, the communication session to continue; and in response to determining that the communication session does not contain the watermark, identifying , by the microprocessor, the communication session as a potential security breach. monitoring , by a microprocessor, a communication session, wherein the communication session is a voice or a video communication session between a plurality of different communication devices; determining , by the microprocessor, if the communication session contains a watermark, wherein the watermark is used to identify that the voice or video communication session is a legitimate voice or video call between a plurality of users on the plurality of different communication devices; in response to determining that the communication session contains the watermark, allowing , by the microprocessor, the communication session to continue; and in response to determining that the communication session does not contain the watermark, identifying , by the microprocessor, the communication session as a potential security breach.
Processing attachment for processing foodstuffs, for use with a food processor, which has a cover element and a beaker vessel , wherein the cover element is able to close the beaker vessel in a sealing manner, and the beaker vessel , in a processing interior of the processing attachment which can be jointly enclosed by the cover element and the beaker vessel , has one or more processing tools having one or more output couplings which are open to the outside, via which the processing tools can be driven in a rotatable manner, and/or has one or more processing tool couplings having one or more output couplings which are open to the outside, via which the processing tools can be driven in a rotatable manner, in order to fasten one or more processing tools , and the beaker vessel has a device coupling , via which the processing attachment can be coupled to the food processor in a releasable manner, wherein the device coupling then exclusively enables a coupling of the processing attachment to the food processor when the cover element closes the beaker vessel and additionally is protected at the beaker vessel against axial loss, wherein on the side of the cover element one or more tooth elements are present, which engage into one or more corresponding tooth elements on the side of the beaker vessel and are able to displace it when the beaker vessel is closed with the cover element, so that once the corresponding tooth elements have been displaced, the device coupling enables a coupling of the processing attachment , characterised in that the corresponding tooth elements are arranged on the side of the beaker vessel on an intermediate coupling , which comprises the device coupling , wherein the intermediate coupling is mounted such that it can rotate in relation to the beaker vessel , wherein the device coupling and the intermediate coupling are non-rotating in relation to one another, so that the intermediate coupling can also be rotated by rotating the cover element on the beaker vessel .
A display assembly , comprising: an input coupling grating ; a scanning mirror configured to rotate about two or more different axes of rotation ; an optical element ; and a plurality of optical fibers , each optical fiber of the plurality of optical fibers having a light emitting end disposed between the input coupling grating and the scanning mirror and oriented such that light emitted from the light emitting end is refracted through at least a portion of the optical element , reflected off the scanning mirror , refracted back through the optical element , and into the input coupling grating , further comprising an eyepiece , wherein the input coupling grating is configured to receive the light emitted from the plurality of optical fibers and transmit the received light into the eyepiece , wherein the optical element is configured to at least partially collimate the light reflected off the scanning mirror prior to the light entering the input coupling grating . an input coupling grating ; a scanning mirror configured to rotate about two or more different axes of rotation ; an optical element ; and a plurality of optical fibers , each optical fiber of the plurality of optical fibers having a light emitting end disposed between the input coupling grating and the scanning mirror and oriented such that light emitted from the light emitting end is refracted through at least a portion of the optical element , reflected off the scanning mirror , refracted back through the optical element , and into the input coupling grating , further comprising an eyepiece , wherein the input coupling grating is configured to receive the light emitted from the plurality of optical fibers and transmit the received light into the eyepiece , wherein the optical element is configured to at least partially collimate the light reflected off the scanning mirror prior to the light entering the input coupling grating .
A method for the continuous insulation monitoring of an electrical conductor arrangement having an active conductor and a conductor structure electrically insulated from the active conductor , wherein the quality of the conductor arrangement as well as the arrangement of the active conductor and the conductor structure is such that almost identical propagation conditions for the active conductor and the conductor structure apply to a current flow against ground (E) and that influential factors which are suitable for influencing the insulation resistance of the conductor arrangement act equally on both the active conductor and the conductor structure , the method comprising the steps: carrying out an insulation resistance measurement, wherein a standardized insulation monitoring unit is connected between the conductor structure and ground (E) for continuously determining an insulation resistance, the insulation monitoring unit superimposing a measurement voltage onto the electrical conductor arrangement , which generates a measurement current proportionally to the insulation resistance of the conductor arrangement , which is acquired in the insulation resistance measurement unit and evaluated wherein one or a plurality of conductors of the conductor arrangement , which do not carry operating current, is/are used as a conductor structure . carrying out an insulation resistance measurement, wherein a standardized insulation monitoring unit is connected between the conductor structure and ground (E) for continuously determining an insulation resistance, the insulation monitoring unit superimposing a measurement voltage onto the electrical conductor arrangement , which generates a measurement current proportionally to the insulation resistance of the conductor arrangement , which is acquired in the insulation resistance measurement unit and evaluated wherein one or a plurality of conductors of the conductor arrangement , which do not carry operating current, is/are used as a conductor structure .
An apparatus comprising: a base ; a pivot member affixed to the base via a first hinge and configured to pivot relative to the base via the first hinge, the pivot member being configured to physically engage a strap to maintain the pivot member in a non-deflected position; a biasing member configured to urge the pivot member into a deflected position; a sensor configured to detect when the pivot member is in the deflected position, wherein the sensor is configured to, in response to detecting that the pivot member is in the deflected position, generate an alert signal; and processing circuitry configured to receive the alert signal and, in response to receiving the alert signal, transmit an alert triggering signal to initiate an alert. a base ; a pivot member affixed to the base via a first hinge and configured to pivot relative to the base via the first hinge, the pivot member being configured to physically engage a strap to maintain the pivot member in a non-deflected position; a biasing member configured to urge the pivot member into a deflected position; a sensor configured to detect when the pivot member is in the deflected position, wherein the sensor is configured to, in response to detecting that the pivot member is in the deflected position, generate an alert signal; and processing circuitry configured to receive the alert signal and, in response to receiving the alert signal, transmit an alert triggering signal to initiate an alert.
A display panel, comprising: an array substrate ; a color filter substrate , cell-assembled with the array substrate and comprising a black matrix; a plurality of light-shielding strips , disposed on a side of the color filter substrate away from the array substrate ; a plurality of electrodes , sandwiching the plurality of light-shielding strips , wherein the black matrix comprises a plurality of matrix strips , and the position of each of the light-shielding strips corresponds to the position of one of the matrix strips of the black matrix, and the plurality of light-shielding strips is made of polymer dispersed liquid crystal material or electrochromic material, wherein the plurality of electrodes comprises a first transparent conductive layer , the first transparent conductive layer comprising a plurality of first electrode strips, and a second transparent conductive layer , the first transparent conductive layer is formed between the color filter substrate and the plurality of light-shielding strips , each one of the light-shielding strips completely covers one of the first electrode strips of the first transparent conductive layer , and the second transparent conductive layer is formed on the plurality of light-shielding strips and completely covers the plurality of light-shielding strips and the color filter substrate . an array substrate ; a color filter substrate , cell-assembled with the array substrate and comprising a black matrix; a plurality of light-shielding strips , disposed on a side of the color filter substrate away from the array substrate ; a plurality of electrodes , sandwiching the plurality of light-shielding strips , wherein the black matrix comprises a plurality of matrix strips , and the position of each of the light-shielding strips corresponds to the position of one of the matrix strips of the black matrix, and the plurality of light-shielding strips is made of polymer dispersed liquid crystal material or electrochromic material, wherein the plurality of electrodes comprises a first transparent conductive layer , the first transparent conductive layer comprising a plurality of first electrode strips, and a second transparent conductive layer , the first transparent conductive layer is formed between the color filter substrate and the plurality of light-shielding strips , each one of the light-shielding strips completely covers one of the first electrode strips of the first transparent conductive layer , and the second transparent conductive layer is formed on the plurality of light-shielding strips and completely covers the plurality of light-shielding strips and the color filter substrate .
A solid-state imaging device comprising: a photodetecting section having M × N pixels (each of M and N being an integer of 2 or more), each including a first photodiode and a first switch circuit having one terminal connected to the first photodiode, two-dimensionally arrayed in M rows and N columns; N readout lines (R 1 to R n ) provided for the respective columns and connected to the other terminals of the first switch circuits included in the pixels of the corresponding columns; a readout circuit section connected to the N readout lines (R 1 to R n ) ; a shift register, juxtaposed with the photodetecting section in a row direction, for controlling an open/closed state of the first switch circuits for each row; M dummy photodiodes arranged in a region between the shift register and the photodetecting section for the respective rows; M second switch circuits having respective one terminals connected to the M dummy photodiodes ; a charge elimination line (R d ) connected to the other terminals of the M second switch circuits and short-circuited to a reference potential line; and M row selection lines, provided for the respective rows, for electrically connecting control terminals of the first and second switch circuits for controlling the open/closed state and the shift register to each other. a photodetecting section having M × N pixels (each of M and N being an integer of 2 or more), each including a first photodiode and a first switch circuit having one terminal connected to the first photodiode, two-dimensionally arrayed in M rows and N columns; N readout lines (R 1 to R n ) provided for the respective columns and connected to the other terminals of the first switch circuits included in the pixels of the corresponding columns; a readout circuit section connected to the N readout lines (R 1 to R n ) ; a shift register, juxtaposed with the photodetecting section in a row direction, for controlling an open/closed state of the first switch circuits for each row; M dummy photodiodes arranged in a region between the shift register and the photodetecting section for the respective rows; M second switch circuits having respective one terminals connected to the M dummy photodiodes ; a charge elimination line (R d ) connected to the other terminals of the M second switch circuits and short-circuited to a reference potential line; and M row selection lines, provided for the respective rows, for electrically connecting control terminals of the first and second switch circuits for controlling the open/closed state and the shift register to each other.
A waste heat management system comprising: a turbine engine including: a compressor section; a combustor section; a turbine section; and a nozzle , wherein the compressor section, the combustor section, the turbine section, and the nozzle define a core flow path that expels through the nozzle; an auxiliary power unit (APU) system comprising an APU burner and a secondary heat recovery heat exchanger ; and a means for recovering waste heat operably connected to the APU system , wherein the APU system is integrated into a working fluid flow path of the means for recovering waste heat; wherein the means for recovering waste heat comprises a waste heat recovery system , the waste heat recovery system being operably connected to the APU system , wherein the APU system is integrated into a working fluid flow path of the waste heat recovery system; and wherein the waste heat recovery system comprises: a heat recovery heat exchanger arranged at the nozzle and the secondary heat recovery heat exchanger arranged as part of the APU system ; a turbine ; and a compressor ; wherein the turbine and the compressor of the waste heat recovery system are configured to generate work. a turbine engine including: a compressor section; a combustor section; a turbine section; and a nozzle , wherein the compressor section, the combustor section, the turbine section, and the nozzle define a core flow path that expels through the nozzle; an auxiliary power unit (APU) system comprising an APU burner and a secondary heat recovery heat exchanger ; and a means for recovering waste heat operably connected to the APU system , wherein the APU system is integrated into a working fluid flow path of the means for recovering waste heat; a compressor section; a combustor section; a turbine section; and a nozzle , wherein the compressor section, the combustor section, the turbine section, and the nozzle define a core flow path that expels through the nozzle; an auxiliary power unit (APU) system comprising an APU burner and a secondary heat recovery heat exchanger ; and a means for recovering waste heat operably connected to the APU system , wherein the APU system is integrated into a working fluid flow path of the means for recovering waste heat; wherein the means for recovering waste heat comprises a waste heat recovery system , the waste heat recovery system being operably connected to the APU system , wherein the APU system is integrated into a working fluid flow path of the waste heat recovery system; and wherein the waste heat recovery system comprises: a heat recovery heat exchanger arranged at the nozzle and the secondary heat recovery heat exchanger arranged as part of the APU system ; a turbine ; and a compressor ; wherein the turbine and the compressor of the waste heat recovery system are configured to generate work.