mhurhangee/patent-ind-claim-en huggingface dataset:
An acoustic device for localised and contactless measurement of viscoelasticity of a product to be analysed, the acoustic device comprising: - means for generating high-frequency ultrasonic pulses; - means for receiving the high-frequency ultrasonic pulses generated by the generation means; the generation means and the reception means being arranged with respect to one another such that the high-frequency ultrasonic pulses propagate within the sample to be analysed; - a connecting tubular sleeve intended to connect together two pipe portions in which the product to be analysed is intended to move from one portion to another, the generation means and the reception means being mounted on the tubular sleeve, the tubular sleeve comprising a first mounting area for the generation means and a second mounting area for the reception means , characterised in that the tubular sleeve is non-anechoic in the first and second mounting areas , and, according to a circumferential distribution, anechoic between the first and second mounting areas , . - means for generating high-frequency ultrasonic pulses; - means for receiving the high-frequency ultrasonic pulses generated by the generation means; the generation means and the reception means being arranged with respect to one another such that the high-frequency ultrasonic pulses propagate within the sample to be analysed; - a connecting tubular sleeve intended to connect together two pipe portions in which the product to be analysed is intended to move from one portion to another, the generation means and the reception means being mounted on the tubular sleeve, the tubular sleeve comprising a first mounting area for the generation means and a second mounting area for the reception means ,
A random access method of a terminal of category 0, the method comprising: transmitting , to a base station, a radio resource control, RRC, connection request message on common control channel, CCCH, in case that a random access response, RAR, message is received from the base station; and receiving , from the base station, an RRC connection setup message in response to the RRC connection request message, wherein information indicating that the CCCH is for the terminal of category 0 is transmitted with the RRC connection request message to the base station, wherein the information indicating that the CCCH is for the terminal of category 0 includes a logical channel identifier, LCID, set to a determined value and the determined value is different from 00000, and wherein the terminal of category 0 is characterized as having a maximum data rate of 1000 bits within a subframe of 1 millisecond. transmitting , to a base station, a radio resource control, RRC, connection request message on common control channel, CCCH, in case that a random access response, RAR, message is received from the base station; and receiving , from the base station, an RRC connection setup message in response to the RRC connection request message, wherein information indicating that the CCCH is for the terminal of category 0 is transmitted with the RRC connection request message to the base station, wherein the information indicating that the CCCH is for the terminal of category 0 includes a logical channel identifier, LCID, set to a determined value and the determined value is different from 00000, and wherein the terminal of category 0 is characterized as having a maximum data rate of 1000 bits within a subframe of 1 millisecond.
Reconfigurable antenna , comprising: - an emissive region (ZE), comprising at least one radiating source (S) designed to emit electromagnetic waves; - an electromagnetic lens , comprising: a set of phase-shifting cells , comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines (BL), designed to bias the switches ; - an electromagnetic coupling region (ZC), arranged between the emissive region (ZE) and the electromagnetic lens in order to generate electromagnetic coupling between the electromagnetic waves and the set of phase-shifting cells ; the electromagnetic coupling region (ZC) comprises a set of electrically conductive elements, arranged so to form a profile of a resonant cavity guiding the electromagnetic waves towards the electromagnetic lens , the set of electrically conductive elements comprising first tracks (P1) electrically connected to the bias lines (BL). - an emissive region (ZE), comprising at least one radiating source (S) designed to emit electromagnetic waves; - an electromagnetic lens , comprising: a set of phase-shifting cells , comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines (BL), designed to bias the switches ; a set of phase-shifting cells , comprising switches configured so as to introduce a phase shift to the electromagnetic waves, bias lines (BL), designed to bias the switches ; - an electromagnetic coupling region (ZC), arranged between the emissive region (ZE) and the electromagnetic lens in order to generate electromagnetic coupling between the electromagnetic waves and the set of phase-shifting cells ;
A heated aerosol-generating article for use with an aerosol-generating device comprising a heating element, the heated aerosol-generating article being in the form of a rod having a mouth end and a distal end upstream from the mouth end, the aerosol-generating article having an aerosol-forming substrate located upstream of the mouth end within the rod, in which the distal end of the heated aerosol-generating article is spanned by a non-flammable thermally-conductive material to spread heat away from the distal end of the rod and to prevent air flow into the distal end of the rod, thereby reducing the risk of inadvertent ignition of the rod by application of a flame, the non-flammable thermally-conductive material being rupturable to enable air-flow into the distal end of the rod.
A method for three-dimensional imaging, said method comprising: storing (S201) a first two-dimensional image of field of view of a scanning device at a first position where a first three-dimensional view of the object is captured with said handheld scanning device freely operated by a user; while said scanning device is being moved from said first position to a second position, storing (S201) a second two-dimensional image of field of view of the scanning device at the second position, and estimating (S202) a location metric of the second image to the first 2D image based on a location relationship between the first 2D image and the second 2D image; generating instructions (S203) on providing feedback to the user based on said location metric between the first 2D image and the second 2D image; wherein said feedback is provided to indicate if said second position is adequate for capturing a second three-dimensional view of the object. storing (S201) a first two-dimensional image of field of view of a scanning device at a first position where a first three-dimensional view of the object is captured with said handheld scanning device freely operated by a user; while said scanning device is being moved from said first position to a second position, storing (S201) a second two-dimensional image of field of view of the scanning device at the second position, and estimating (S202) a location metric of the second image to the first 2D image based on a location relationship between the first 2D image and the second 2D image; generating instructions (S203) on providing feedback to the user based on said location metric between the first 2D image and the second 2D image; wherein said feedback is provided to indicate if said second position is adequate for capturing a second three-dimensional view of the object.
A piston for an internal combustion engine, comprising: a body with a cylindrical outer surface with an annular uppermost ring groove and a lowermost ring groove extending into said outer surface, said outer surface extending between said uppermost ring groove and said lowermost ring groove being free of ring grooves, and a top land extending from said uppermost ring groove to an upper combustion surface, said body having a pair of pin bosses with pin bores aligned with one another along a pin bore axis; a first piston ring disposed in said uppermost ring groove; a second piston ring disposed in said lower ring groove; and said body having an annular sealed cooling gallery with a cooling medium disposed and contained therein, said sealed cooling gallery being configured in radial alignment between said first and second piston rings to enhance the transfer of heat from the upper combustion surface and a ring belt region to a cylinder liner and an engine block wherein said uppermost ring groove has a lowermost surface and said lowermost ring groove has an uppermost surface, said sealed cooling gallery has an uppermost surface and a lowermost surface, said uppermost surface of said sealed cooling gallery being substantially radially aligned with said lowermost surface of said uppermost ring groove and said lowermost surface of said sealed cooling gallery being substantially radially aligned with said uppermost surface of said lowermost ring groove. a body with a cylindrical outer surface with an annular uppermost ring groove and a lowermost ring groove extending into said outer surface, said outer surface extending between said uppermost ring groove and said lowermost ring groove being free of ring grooves, and a top land extending from said uppermost ring groove to an upper combustion surface, said body having a pair of pin bosses with pin bores aligned with one another along a pin bore axis; a first piston ring disposed in said uppermost ring groove; a second piston ring disposed in said lower ring groove; and said body having an annular sealed cooling gallery with a cooling medium disposed and contained therein, said sealed cooling gallery being configured in radial alignment between said first and second piston rings to enhance the transfer of heat from the upper combustion surface and a ring belt region to a cylinder liner and an engine block wherein said uppermost ring groove has a lowermost surface and said lowermost ring groove has an uppermost surface, said sealed cooling gallery has an uppermost surface and a lowermost surface, said uppermost surface of said sealed cooling gallery being substantially radially aligned with said lowermost surface of said uppermost ring groove and said lowermost surface of said sealed cooling gallery being substantially radially aligned with said uppermost surface of said lowermost ring groove.
A travel control method for controlling travel of a vehicle using a processor , the travel control method comprising: autonomously controlling the vehicle through operating an autonomous speed control function for autonomously controlling a traveling speed of the vehicle and an autonomous steering control function for autonomously controlling steering of the vehicle; executing (S25) first autonomous control in which the vehicle is autonomously controlled using information recognized from a captured image by a camera provided on the vehicle; executing (S20) second autonomous control in which information indicating the external situation of the vehicle is acquired from map information stored in a storage medium provided in the vehicle and the vehicle is autonomously controlled using the acquired information; characterized in that the first autonomous control is executed when an external situation of the vehicle is recognizable from the captured image, and by specifying (S12) an unrecognizable area in which the external situation of the vehicle is unrecognizable from the captured image; and when the unrecognizable area is present on a travel route of the vehicle, switching from the first autonomous control to the second autonomous control at a position at which a deviation is less than a predetermined length between a center line between right and left lane marks recognized from the captured image and a center line of a lane included in the map information before the vehicle enters the unrecognizable area. autonomously controlling the vehicle through operating an autonomous speed control function for autonomously controlling a traveling speed of the vehicle and an autonomous steering control function for autonomously controlling steering of the vehicle; executing (S25) first autonomous control in which the vehicle is autonomously controlled using information recognized from a captured image by a camera provided on the vehicle; executing (S20) second autonomous control in which information indicating the external situation of the vehicle is acquired from map information stored in a storage medium provided in the vehicle and the vehicle is autonomously controlled using the acquired information; characterized in that the first autonomous control is executed when an external situation of the vehicle is recognizable from the captured image, and by specifying (S12) an unrecognizable area in which the external situation of the vehicle is unrecognizable from the captured image; and when the unrecognizable area is present on a travel route of the vehicle, switching from the first autonomous control to the second autonomous control at a position at which a deviation is less than a predetermined length between a center line between right and left lane marks recognized from the captured image and a center line of a lane included in the map information before the vehicle enters the unrecognizable area.
A hydrostatic seal and vibration damping assembly for a gas turbine engine, comprising: a hydrostatic seal having a shoe ; and a vibration damping apparatus operatively associated with the shoe , the vibration damping apparatus having a different coefficient of thermal expansion than the hydrostatic shoe, wherein the hydrostatic seal further comprises a spacer plate and a front plate which cooperate with the shoe to define a channel , and wherein the vibration damping apparatus is positioned within the channel and the vibration damping apparatus engages the shoe and limits vibrations of the shoe during a cold start-up of the gas turbine engine, and wherein the vibration damping apparatus disengages from the shoe after the gas turbine engine reaches an operational temperature. a hydrostatic seal having a shoe ; and a vibration damping apparatus operatively associated with the shoe , the vibration damping apparatus having a different coefficient of thermal expansion than the hydrostatic shoe, wherein the hydrostatic seal further comprises a spacer plate and a front plate which cooperate with the shoe to define a channel , and wherein the vibration damping apparatus is positioned within the channel and the vibration damping apparatus engages the shoe and limits vibrations of the shoe during a cold start-up of the gas turbine engine, and wherein the vibration damping apparatus disengages from the shoe after the gas turbine engine reaches an operational temperature.
A process for producing a modified fly ash including steps of: providing, as a raw material, a raw fly ash discharged from a pulverized coal combustion boiler; classifying said raw fly ash into a crude powder and a fine powder; removing an unburned carbon contained in said crude powder by heating said crude powder at a temperature in a range of 500 to 1000°C; and mixing together said crude powder from which the unburned carbon has been removed and said fine powder to obtain a modified fly ash. providing, as a raw material, a raw fly ash discharged from a pulverized coal combustion boiler; classifying said raw fly ash into a crude powder and a fine powder; removing an unburned carbon contained in said crude powder by heating said crude powder at a temperature in a range of 500 to 1000°C; and mixing together said crude powder from which the unburned carbon has been removed and said fine powder to obtain a modified fly ash.
A cordless electric nailer comprising: a battery-powered electric motor driven flywheel selectively engageable against a nail driver to fire the nail driver along a driver axis extending through a barrel of a nosepiece ; a removable contact trip characterized in that the removable contact trip is received in an aperture of the barrel and slidable between a retracted position and an extended position relative to an end of the barrel , the removable contact trip defining a muzzle aperture aligned with the driver axis and through which a fastener is driven by the nail driver , and the removable contact trip including latch pocket ; a removable contact trip latch (462; 520) coupled to the barrel and biased toward a latched position in which the removable contact trip latch (462; 520) extends through a window of the barrel and is receivable in the latch pocket to latch the removable contact trip to the barrel , and the removable contact trip latch (462; 520) being movable to an unlatched position in which the removable contact trip latch (462; 520) is not receivable in the latch pocket to unlatch the removable contact trip and permit removal of the contact trip from the barrel. a battery-powered electric motor driven flywheel selectively engageable against a nail driver to fire the nail driver along a driver axis extending through a barrel of a nosepiece ; a removable contact trip characterized in that the removable contact trip is received in an aperture of the barrel and slidable between a retracted position and an extended position relative to an end of the barrel , the removable contact trip defining a muzzle aperture aligned with the driver axis and through which a fastener is driven by the nail driver , and the removable contact trip including latch pocket ; a removable contact trip latch (462; 520) coupled to the barrel and biased toward a latched position in which the removable contact trip latch (462; 520) extends through a window of the barrel and is receivable in the latch pocket to latch the removable contact trip to the barrel , and the removable contact trip latch (462; 520) being movable to an unlatched position in which the removable contact trip latch (462; 520) is not receivable in the latch pocket to unlatch the removable contact trip and permit removal of the contact trip from the barrel.
An absorbent article for personal hygiene such as a diaper , or training pant, or incontinence insert, the absorbent article comprising: a liquid permeable topsheet ; a liquid impermeable backsheet ; an absorbent core positioned between said topsheet and backsheet , an indicator for indicating the presence of exudates and being positioned on a body-facing side of said backsheet , the indicator comprising an electrically conductive material, the article further comprising a detection device that can be removably attached to the absorbent article such to become in electrical communication with said indicator when attached to said article to measure a change in resistance or capacitance in response to a voiding event, characterized in that the absorbent core comprises one or more channels substantially free of absorbent material, and in that the indicator comprises a pattern that extends inboard and/or outboard of said channel(s) such that it does not substantially overlap with said channel(s), preferably wherein the pattern extends substantially parallel to at least a portion of said channel(s). a liquid permeable topsheet ; a liquid impermeable backsheet ; an absorbent core positioned between said topsheet and backsheet , an indicator for indicating the presence of exudates and being positioned on a body-facing side of said backsheet , the indicator comprising an electrically conductive material, the article further comprising a detection device that can be removably attached to the absorbent article such to become in electrical communication with said indicator when attached to said article to measure a change in resistance or capacitance in response to a voiding event, characterized in that the absorbent core comprises one or more channels substantially free of absorbent material, and in that the indicator comprises a pattern that extends inboard and/or outboard of said channel(s) such that it does not substantially overlap with said channel(s), preferably wherein the pattern extends substantially parallel to at least a portion of said channel(s).
A method, comprising: transmitting , by a network element, at least one instruction to at least one user equipment to log location-tagged handover data, wherein the location-tagged handover data comprise one or more of at least one path, at least one observed reference signal received power associated with at least one cell, and at least one global positioning system coordinate; receiving , by the network element from the at least one user equipment, the location-tagged handover data; labelling the received location-tagged handover data by computing, by the network element, at least one loss function based upon at least one handover event evaluation rule of the received location-tagged handover data, thus generating labelled data; and training , by the network element, at least one handover optimization model with the location-tagged handover data, wherein the handover optimization model is a machine learning model; transmitting , to the at least one user equipment, the trained machine learning model. transmitting , by a network element, at least one instruction to at least one user equipment to log location-tagged handover data, wherein the location-tagged handover data comprise one or more of at least one path, at least one observed reference signal received power associated with at least one cell, and at least one global positioning system coordinate; receiving , by the network element from the at least one user equipment, the location-tagged handover data; labelling the received location-tagged handover data by computing, by the network element, at least one loss function based upon at least one handover event evaluation rule of the received location-tagged handover data, thus generating labelled data; and training , by the network element, at least one handover optimization model with the location-tagged handover data, wherein the handover optimization model is a machine learning model; transmitting , to the at least one user equipment, the trained machine learning model.