mhurhangee/patent-ind-claim-en huggingface dataset:
A track chain member comprising: a shoe member defining a track chain traveling direction (T) and a lateral direction (L) perpendicular to the track chain traveling direction (T); and a track pad member extending from the shoe member including a first lug member extending from the shoe member in a first direction parallel to the track chain traveling direction (T), a second lug member and a third lug member both extending from the shoe member in a second direction opposite of the first direction ; wherein the first, second and third lug members define a Y-shaped configuration and the first lug defines a first lug width (W508) along the lateral direction (L) and the track pad member defines a roller support surface defining a roller support surface width (W518) along the lateral direction (L) and the first lug width (W508) ranges from 40-60% of the roller support surface width (W518). a shoe member defining a track chain traveling direction (T) and a lateral direction (L) perpendicular to the track chain traveling direction (T); and a track pad member extending from the shoe member including a first lug member extending from the shoe member in a first direction parallel to the track chain traveling direction (T), a second lug member and a third lug member both extending from the shoe member in a second direction opposite of the first direction ; wherein a first lug member extending from the shoe member in a first direction parallel to the track chain traveling direction (T), a second lug member and a third lug member both extending from the shoe member in a second direction opposite of the first direction ; wherein the first, second and third lug members define a Y-shaped configuration and the first lug defines a first lug width (W508) along the lateral direction (L) and the track pad member defines a roller support surface defining a roller support surface width (W518) along the lateral direction (L) and the first lug width (W508) ranges from 40-60% of the roller support surface width (W518).
A helicopter comprising: - a fuselage ; - a first main rotor , which is adapted to generate, in use, the necessary lift for the flight of said helicopter and to enable the forward/backward, upward/downward and lateral movement of said helicopter , and generating, in use, a first torque (C1) on said fuselage ; - an anti-torque system adapted to generate, in use, a second torque (C2) having a main component in the same or opposite direction with respect to said first torque (C1), so as to control the yaw angle of said helicopter ; and - a tail portion connected to said fuselage ; said tail portion comprising, in turn: a tail boom connected to said fuselage ; a fin protruding from an aft end of said tail boom on the opposite side of said fuselage and transversally with respect to said tail boom ; and a tailplane projecting in cantilever fashion on both sides of said fin ; said tail boom being adapted to sustain the bending moments and the shear stress generated, in use, by the weight of said fin and said tailplane ; characterized in that said anti-torque system is integrated with said tail boom ; said anti-torque system comprising: - an electric power supply unit ; - at least one second rotor operatively connected to said electric power supply unit and operable by said electric power supply unit so as to rotate with a first variable angular speed; and - at least one third rotor operatively connected to said electric power supply unit and operable by said electric power supply unit so as to rotate with a second variable angular speed. - a fuselage ; - a first main rotor , which is adapted to generate, in use, the necessary lift for the flight of said helicopter and to enable the forward/backward, upward/downward and lateral movement of said helicopter , and generating, in use, a first torque (C1) on said fuselage ; - an anti-torque system adapted to generate, in use, a second torque (C2) having a main component in the same or opposite direction with respect to said first torque (C1), so as to control the yaw angle of said helicopter ; and - a tail portion connected to said fuselage ; a tail boom connected to said fuselage ; a fin protruding from an aft end of said tail boom on the opposite side of said fuselage and transversally with respect to said tail boom ; and a tailplane projecting in cantilever fashion on both sides of said fin ; said tail boom being adapted to sustain the bending moments and the shear stress generated, in use, by the weight of said fin and said tailplane ; characterized in that said anti-torque system is integrated with said tail boom ; - an electric power supply unit ; - at least one second rotor operatively connected to said electric power supply unit and operable by said electric power supply unit so as to rotate with a first variable angular speed; and - at least one third rotor operatively connected to said electric power supply unit and operable by said electric power supply unit so as to rotate with a second variable angular speed.
A method for predicting a navigation solution using radio frequency signals, the method comprising: processing signals representing information obtained in a first time period to obtain one or more measurements associated with the first time period; predicting a position and/or trajectory for a second time following the first time period based, at least in part, on the one or more measurements associated with the first time period; obtaining signals representing additional information subsequent to the first time period; re-processing at least a portion of the signals representing information obtained in the first time period based, at least in part, on the additional information to obtain updates to the one or more measurements associated with the first time period; and re-predicting the position and/or trajectory for the second time based, at least in part, on the updates to the one or more measurements associated with the first time period. processing signals representing information obtained in a first time period to obtain one or more measurements associated with the first time period; predicting a position and/or trajectory for a second time following the first time period based, at least in part, on the one or more measurements associated with the first time period; obtaining signals representing additional information subsequent to the first time period; re-processing at least a portion of the signals representing information obtained in the first time period based, at least in part, on the additional information to obtain updates to the one or more measurements associated with the first time period; and re-predicting the position and/or trajectory for the second time based, at least in part, on the updates to the one or more measurements associated with the first time period.
An endoscope reprocessor comprising: a treatment tank ; a top cover having a transmitting unit made of a transmitting material that allows visible light to transmit through the transmitting material, the transmitting unit being disposed such that the visible light is allowed to transmit from a reprocessor outer surface to an inside of a treatment tank ; an observation terminal (D) including a receiving unit (D1) that receives the visible light and a display unit (D5); and at least one terminal holding unit disposed on an outer surface of the top cover , and configured to hold the observation terminal (D) at a position that allows the observation terminal (D) to observe the inside of the treatment tank through the transmitting unit , wherein the observation terminal (D) is held by the terminal holding unit such that the display unit (D5) faces the top cover and a user can observe the display unit (D5) of the observation terminal (D) through the top cover . a treatment tank ; a top cover having a transmitting unit made of a transmitting material that allows visible light to transmit through the transmitting material, the transmitting unit being disposed such that the visible light is allowed to transmit from a reprocessor outer surface to an inside of a treatment tank ; an observation terminal (D) including a receiving unit (D1) that receives the visible light and a display unit (D5); and at least one terminal holding unit disposed on an outer surface of the top cover , and configured to hold the observation terminal (D) at a position that allows the observation terminal (D) to observe the inside of the treatment tank through the transmitting unit , wherein the observation terminal (D) is held by the terminal holding unit such that the display unit (D5) faces the top cover and a user can observe the display unit (D5) of the observation terminal (D) through the top cover .
A method of imaging with an optical coherence tomography - OCT-system, comprising: generating an electrical OCT signal by a first detector ; generating a first electrical signal, wherein the first electrical signal carries synchronization information of a light source sweeping of the OCT system, wherein the first electrical signal is a signature signal generated by a second detector that detects an optical signal, wherein the second detector detects the optical signal from a fiber Bragg grating, such that the first electrical signal is based on the optical signal from the fiber Bragg grating; electrically mixing the first electrical signal and the electrical OCT signal with an electrical signal mixer; and generating an output signal comprising the electrically mixed first electrical signal and the electrical OCT signal, wherein the electrical signal mixer receives the first electrical signal at a first input and the electrical OCT signal from the first detector at a second input , and outputs the output signal to an analog-to-digital converter. generating an electrical OCT signal by a first detector ; generating a first electrical signal, wherein the first electrical signal carries synchronization information of a light source sweeping of the OCT system, wherein the first electrical signal is a signature signal generated by a second detector that detects an optical signal, wherein the second detector detects the optical signal from a fiber Bragg grating, such that the first electrical signal is based on the optical signal from the fiber Bragg grating; electrically mixing the first electrical signal and the electrical OCT signal with an electrical signal mixer; and generating an output signal comprising the electrically mixed first electrical signal and the electrical OCT signal, wherein the electrical signal mixer receives the first electrical signal at a first input and the electrical OCT signal from the first detector at a second input , and outputs the output signal to an analog-to-digital converter.
Unit for the micronization of a solid active agent, such as a salt, preferably table salt (NaCl), comprising a micronizer driven by a motor, characterised in that the micronizer consists of a rotary block made of the active agent, a friction block adapted to be in frictioning relation with the rotary block, and a clamping mechanism adapted for holding the friction block in position and for clamping the friction block to the rotary block , the micronizer being disposed in a closed housing , and the wall surfaces of the housing being at least in part made of a material having a filtering capacity of 0.1-1000μm.
A helmet comprising: a helmet body comprising an outer liner and an inner liner each formed of energy-management material and configured to slidably move in relation to each other, the inner liner separate from the outer liner; at least two elastomeric anchors coupled to the outer liner and to the at least one flexible connector; and a fit system coupled to the helmet body; characterized by the inner liner comprising first and second separate liner segments and having a gap between the first and second liner segments; and at least one flexible connector positioned at an outer surface of the inner liner and directly connecting the first liner segment to the second liner segment across the gap at a center portion of the second liner segment and at left and right sides of the second liner segment, the at least one flexible connector in-molded with the first and second liner segments wherein the first and second liner segments are configured to move relative to each other when the inner liner slidably moves in relation to the outer liner by flexing the at least one flexible connector. a helmet body comprising an outer liner and an inner liner each formed of energy-management material and configured to slidably move in relation to each other, the inner liner separate from the outer liner; at least two elastomeric anchors coupled to the outer liner and to the at least one flexible connector; and a fit system coupled to the helmet body; characterized by the inner liner comprising first and second separate liner segments and having a gap between the first and second liner segments; and at least one flexible connector positioned at an outer surface of the inner liner and directly connecting the first liner segment to the second liner segment across the gap at a center portion of the second liner segment and at left and right sides of the second liner segment, the at least one flexible connector in-molded with the first and second liner segments wherein the first and second liner segments are configured to move relative to each other when the inner liner slidably moves in relation to the outer liner by flexing the at least one flexible connector.
A method for using electron holography to investigate a sample, the method comprising emitting a plurality of electrons toward the sample ; forming the plurality of electrons into a first electron beam and a second electron beam 116; modifying the focal properties of at least one of the first electron beam and the second electron beam such that the two electron beams have different focal planes; focusing the first electron beam such that it has a focal plane at or near the sample: focusing the second electron beam so that it is incident on the sample, and has a focal plane in the diffraction plane ; and detecting an interference pattern of the first electron beam and the diffracted second electron beam in the diffraction plane. emitting a plurality of electrons toward the sample ; forming the plurality of electrons into a first electron beam and a second electron beam 116; modifying the focal properties of at least one of the first electron beam and the second electron beam such that the two electron beams have different focal planes; focusing the first electron beam such that it has a focal plane at or near the sample: focusing the second electron beam so that it is incident on the sample, and has a focal plane in the diffraction plane ; and detecting an interference pattern of the first electron beam and the diffracted second electron beam in the diffraction plane.
An apparatus structured to energize a protective device to at least initiate an opening of at least a portion of a circuit, the apparatus comprising: a storage device structured to store energy and to release at least a portion of the energy to energize the protective device , the storage device being an electrolytic capacitor, characterized by : a detection system connected with the storage device and structured to detect at least a first operational parameter of the storage device that is usable in determining an energy storage capability of the storage device ; and responsive to a determination by the apparatus that the energy storage capability of the storage device has dropped to a predetermined threshold, the apparatus being structured to perform a predetermined action. a detection system connected with the storage device and structured to detect at least a first operational parameter of the storage device that is usable in determining an energy storage capability of the storage device ; and responsive to a determination by the apparatus that the energy storage capability of the storage device has dropped to a predetermined threshold, the apparatus being structured to perform a predetermined action.
An electric heater comprising: a substrate ; and a first plane heating element formed on one surface of the substrate , wherein the first plane heating element includes: a first track ; a second track spaced apart from the first track ; and a third track spaced apart from the second track , wherein at least a portion of the second track is located between the first track and the third track , wherein the first track and the second track are connected by a first bridge , wherein the first bridge includes a first outer protrusion protruding toward the third track , characterized in that the third track is formed with a curved portion which protrudes in a direction opposite to the second track , wherein the first outer protrusion faces the inside of the curved portion and is spaced apart from the curved portion . a substrate ; and a first plane heating element formed on one surface of the substrate , wherein the first plane heating element includes: a first track ; a second track spaced apart from the first track ; and a third track spaced apart from the second track , a first track ; a second track spaced apart from the first track ; and a third track spaced apart from the second track , wherein at least a portion of the second track is located between the first track and the third track , wherein the first track and the second track are connected by a first bridge , wherein the first bridge includes a first outer protrusion protruding toward the third track , characterized in that the third track is formed with a curved portion which protrudes in a direction opposite to the second track , wherein the first outer protrusion faces the inside of the curved portion and is spaced apart from the curved portion .
An information processing apparatus , comprising: a control unit which performs a control for switching a display state of a display screen for operating an imaging apparatus based on a relative position relationship with the imaging apparatus, wherein the control unit performs a control for switching the display state of the display screen based on a distance between the information processing apparatus and the imaging apparatus, and wherein when the distance between the imaging apparatus and the information processing apparatus is a threshold or more, the control unit is adapted to cause an over-threshold display screen to be displayed, wherein when the distance between the imaging apparatus and the information processing apparatus is less than the threshold, the control unit causes an under-threshold display screen to be displayed, wherein each of the over-threshold display screen and the under-threshold display screen comprise operation objects for operating the imaging apparatus, and wherein a number, type or position of operation objects for performing an operation input on the display screen is dependent on the display state.
A proximity sensor for determining two-dimensional coordinates of a proximal object, the sensor comprising: a housing ; a plurality of light pulse emitters (101 - 103, 111) mounted in said housing for projecting light (336, 401, 403 - 405, 410, 420) out of said housing along a detection plane ; a plurality of primary light detectors (201 - 208, 210 - 215) mounted in said housing for detecting reflections of the light projected by said light pulse emitters, reflected by an object in the detection plane , wherein the primary light detectors are interleaved with the light pulse emitters, wherein the primary light detectors and light pulse emitters are arranged in a one dimensional array; and characterized by further comprising a plurality of primary lenses mounted and oriented in said housing relative to said light pulse emitters and said primary light detectors in such a manner that one primary lens is arranged opposite each said light pulse emitters and the primary light detectors are positioned to receive maximum intensity from corresponding reflected light beams that enter the primary lens at a first particular angle with respect to the optical axis of the primary lens and that for each emitter-primary light detector pair, light emitted by the emitter of that pair passes through one of the primary lenses and is reflected by the object back through one of the primary lenses to the primary light detector of that pair when the object is located at a two-dimensional position, from among a primary set of positions in the detection plane, that two-dimensional position being associated with said emitter-primary light detector pair. a housing ; a plurality of light pulse emitters (101 - 103, 111) mounted in said housing for projecting light (336, 401, 403 - 405, 410, 420) out of said housing along a detection plane ; a plurality of primary light detectors (201 - 208, 210 - 215) mounted in said housing for detecting reflections of the light projected by said light pulse emitters, reflected by an object in the detection plane ,
A positive airway pressure system comprising: a flow generator configured to provide gas at a pressure to a patient; a user interface configured to provide to the patient the gas at the pressure; a conduit that provides a path for the gas from the flow generator to the user interface ; a sensor configured to measure breathing of the patient; and a control system configured to: detect sleep disordered breathing based at least in part on analysis of data acquired by the sensor ; determine a sleep state of the patient based at least in part on analysis of data acquired by the sensor ; control the flow generator to provide a pressure between a low pressure, which is greater than or equal to about 4 cmH 2 O, and a high pressure, which is less than or equal to about 20 cmH 2 O, when the sleep state is determined to be asleep, the pressure provided based at least in part on whether sleep disordered breathing is detected; and control the flow generator to provide an awake pressure lower than the low asleep pressure if the sleep state is determined to be awake, wherein the awake pressure is selectable by a user and is a therapeutic pressure greater than or equal to about 4 cmH 2 O. a flow generator configured to provide gas at a pressure to a patient; a user interface configured to provide to the patient the gas at the pressure; a conduit that provides a path for the gas from the flow generator to the user interface ; a sensor configured to measure breathing of the patient; and a control system configured to: detect sleep disordered breathing based at least in part on analysis of data acquired by the sensor ; determine a sleep state of the patient based at least in part on analysis of data acquired by the sensor ; control the flow generator to provide a pressure between a low pressure, which is greater than or equal to about 4 cmH 2 O, and a high pressure, which is less than or equal to about 20 cmH 2 O, when the sleep state is determined to be asleep, the pressure provided based at least in part on whether sleep disordered breathing is detected; and control the flow generator to provide an awake pressure lower than the low asleep pressure if the sleep state is determined to be awake, wherein the awake pressure is selectable by a user and is a therapeutic pressure greater than or equal to about 4 cmH 2 O. detect sleep disordered breathing based at least in part on analysis of data acquired by the sensor ; determine a sleep state of the patient based at least in part on analysis of data acquired by the sensor ; control the flow generator to provide a pressure between a low pressure, which is greater than or equal to about 4 cmH 2 O, and a high pressure, which is less than or equal to about 20 cmH 2 O, when the sleep state is determined to be asleep, the pressure provided based at least in part on whether sleep disordered breathing is detected; and control the flow generator to provide an awake pressure lower than the low asleep pressure if the sleep state is determined to be awake, wherein the awake pressure is selectable by a user and is a therapeutic pressure greater than or equal to about 4 cmH 2 O.