mhurhangee/patent-ind-claim-en huggingface dataset:
Method for determining a deceleration setpoint of an autonomous vehicle , the autonomous vehicle comprising an adaptive cruise control capable of decelerating the autonomous vehicle according to a first setpoint deceleration , called standard deceleration, the autonomous vehicle traveling on a first lane with a first speed, the vehicle heading on a second lane comprising a speed limitation at a distance, D, with respect to the start of the second lane channel , said method comprising the steps of: - calculation of a necessary deceleration, called calculated acceleration, to decelerate the autonomous vehicle, over distance D, from the first speed to a second speed, the second speed being greater than or equal to the speed limitation of the second track ; - determination of the deceleration setpoint of the autonomous vehicle ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; - application by the adaptive cruise control of the determined deceleration setpoint in order to decelerate the autonomous vehicle from the start of the second lane . - calculation of a necessary deceleration, called calculated acceleration, to decelerate the autonomous vehicle, over distance D, from the first speed to a second speed, the second speed being greater than or equal to the speed limitation of the second track ; - determination of the deceleration setpoint of the autonomous vehicle ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; ∘ if the calculated deceleration is greater than a supported threshold, the supported threshold being greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the supported threshold; ∘ otherwise, if the calculated deceleration is greater than the standard deceleration, then the deceleration setpoint of the autonomous vehicle is equal to the calculated deceleration; ∘ otherwise the deceleration setpoint is equal to the standard deceleration; - application by the adaptive cruise control of the determined deceleration setpoint in order to decelerate the autonomous vehicle from the start of the second lane .
A dermatological treatment device comprising a laser head able to fire a laser beam toward a target zone corresponding to the wound of a patient that comprises dermal tissues to create precise and localized heating in order to accelerate healing, at least one pyrometer able to measure a temperature of the target zone, at least one fan suitable for dissipating the heat emitted by the laser head , and at least one means for inhibiting the laser beam , characterized in that the at least one pyrometer is near the laser head , and in that the device further comprises: • A thermal insulator separating said at least one pyrometer from the laser head , • At least one cabled monitoring means being an electrical and/or electronic circuit suitable for detecting a fault in at least one fan and controlling at least one means for inhibiting the laser beam when a fault is detected; said at least one monitoring means comprising an observation means suitable to observe the command current circulating in the at least one fan , and detects a fault when the speed becomes lower than a speed threshold or is canceled out. • A thermal insulator separating said at least one pyrometer from the laser head , • At least one cabled monitoring means being an electrical and/or electronic circuit suitable for detecting a fault in at least one fan and controlling at least one means for inhibiting the laser beam when a fault is detected; said at least one monitoring means comprising an observation means suitable to observe the command current circulating in the at least one fan , and detects a fault when the speed becomes lower than a speed threshold or is canceled out.
A photoelectric conversion element comprising: a first substrate ; a first transparent electrode disposed on the first substrate ; a hole-blocking layer disposed on the first transparent electrode ; an electron-transporting layer that is disposed on the hole-blocking layer and includes an electron-transporting semiconductor; a photosensitizing compound that is disposed on the surface of the electron-transporting semiconductor; a hole-transporting layer that is connected to the electron-transporting layer and includes a hole-transporting material; and a second electrode disposed on the hole-transporting layer , characterized in that the photoelectric conversion element includes an output extraction terminal part configured to extract electricity out from the photoelectric conversion element, and the output extraction terminal part is formed with a plurality of micropores piercing through the hole-blocking layer . a first substrate ; a first transparent electrode disposed on the first substrate ; a hole-blocking layer disposed on the first transparent electrode ; an electron-transporting layer that is disposed on the hole-blocking layer and includes an electron-transporting semiconductor; a photosensitizing compound that is disposed on the surface of the electron-transporting semiconductor; a hole-transporting layer that is connected to the electron-transporting layer and includes a hole-transporting material; and a second electrode disposed on the hole-transporting layer , characterized in that the photoelectric conversion element includes an output extraction terminal part configured to extract electricity out from the photoelectric conversion element, and the output extraction terminal part is formed with a plurality of micropores piercing through the hole-blocking layer .
A method for identifying a concentration of an electrolyte in an electrochemical sensor, the method comprising: scanning a diagnostic electrode of the electrochemical sensor using scanning voltammetry, wherein the diagnostic electrode is a micro-electrode with a smaller surface area than a working electrode or a counter electrode, is immersed in the electrolyte and comprises platinum; generating a set of readings from the scanning voltammetry; identifying positions of at least two peaks in the set of readings, wherein one peak is a reference peak corresponding to the adsorption or desorption of hydrogen and the other peak is due to the platinum oxide formation or reduction; and determining the electrolyte concentration of the electrolyte of the electrochemical sensor by applying a predetermined correlation to a voltage difference between the identified positions of the at least two peaks. scanning a diagnostic electrode of the electrochemical sensor using scanning voltammetry, wherein the diagnostic electrode is a micro-electrode with a smaller surface area than a working electrode or a counter electrode, is immersed in the electrolyte and comprises platinum; generating a set of readings from the scanning voltammetry; identifying positions of at least two peaks in the set of readings, wherein one peak is a reference peak corresponding to the adsorption or desorption of hydrogen and the other peak is due to the platinum oxide formation or reduction; and determining the electrolyte concentration of the electrolyte of the electrochemical sensor by applying a predetermined correlation to a voltage difference between the identified positions of the at least two peaks.
A modular system for cultivating plants on a substantially vertical plane and in this way build a culture unit, including plant modules consisting of cassettes , and therein fixed plant substrates and provided with a hanging rim to be attached to for example a wall or a plane with space-forming fasteners , and whose back sides are completely or partly sealed against the environment and the sealed area(s) connected to one or more fans forcing the air to flow through the in the "fan influenced" cassettes fixed plant substrates with the plants therein and their root systems, in either direction, and thereby be cleaned from particulates and volatile organic compounds emissions, where the cassettes have a reduced width in their lower part in relation to their upper part such that they can be inserted into the underlying plant module's cassette and form a water leak-proof coupling downwards in the culture unit, CHARACTERIZED in that the cassettes' back side is provided with one or several holes for the through-flowing air, whose area ratio of the cassettes' entire back side is in the range 5-40%, which enables that it in the plant substrate zones are formed with different humidity and air velocity so the plants different root systems can find optimal environments for their growth processes.
A plate material supplying apparatus for supplying a plate material to a plate material feeding apparatus intermittently transporting the plate material , the plate material supplying apparatus comprising: an upper portion conveying the plate material substantially in a plate material feeding apparatus direction ; a central portion receiving the plate material conveyed from the upper portion to convey the plate material in a diagonally vertical downward direction substantially opposite to the plate material feeding apparatus direction ; and a lower portion receiving the plate material conveyed from the central portion to convey the plate material substantially in the plate material feeding apparatus direction ; characterized in that the plate material supplying apparatus is provided with a space in which the plate material is capable of being retained in response to intermittent transportation of the plate material feeding apparatus , the space being provided between the central portion and the lower portion , the central portion is capable of conveying the plate material from the upper portion to the central portion at a constant speed, and the plate material is conveyed in the horizontal direction or a direction downwardly inclined from the horizontal direction in the upper portion , and the plate material is conveyed in the horizontal direction or a direction downwardly inclined from the horizontal direction in the lower portion . an upper portion conveying the plate material substantially in a plate material feeding apparatus direction ; a central portion receiving the plate material conveyed from the upper portion to convey the plate material in a diagonally vertical downward direction substantially opposite to the plate material feeding apparatus direction ; and a lower portion receiving the plate material conveyed from the central portion to convey the plate material substantially in the plate material feeding apparatus direction ; characterized in that the plate material supplying apparatus is provided with a space in which the plate material is capable of being retained in response to intermittent transportation of the plate material feeding apparatus , the space being provided between the central portion and the lower portion , the central portion is capable of conveying the plate material from the upper portion to the central portion at a constant speed, and the plate material is conveyed in the horizontal direction or a direction downwardly inclined from the horizontal direction in the upper portion , and the plate material is conveyed in the horizontal direction or a direction downwardly inclined from the horizontal direction in the lower portion .
A flavor delivery article comprising: a hollow elongate unit formed of a substantially continuous wall extending between a first end and a second end and defining an interior storage volume , the substantially continuous wall being formed of a porous material having a graded porosity across a thickness of the substantially continuous wall , the graded porosity being configured such that an average size of pores in the substantially continuous wall of the hollow elongate unit increases across the thickness of the substantially continuous wall from an interior surface to an exterior surface of the substantially continuous wall ; and a flavor liquid contained with the interior storage volume of the hollow elongate unit . a hollow elongate unit formed of a substantially continuous wall extending between a first end and a second end and defining an interior storage volume , the substantially continuous wall being formed of a porous material having a graded porosity across a thickness of the substantially continuous wall , the graded porosity being configured such that an average size of pores in the substantially continuous wall of the hollow elongate unit increases across the thickness of the substantially continuous wall from an interior surface to an exterior surface of the substantially continuous wall ; and a flavor liquid contained with the interior storage volume of the hollow elongate unit .
A lubrication device for a turbomachine reduction gear having a main axis (X), the device comprising an annular lubricating oil collecting cup delimited by a first wall and a second wall , said cup being divided by internal walls extending between the first wall and the second wall so as to define a plurality of angular sectors forming oil collecting basins , the basins being circumferentially adjacent around the axis (X) and comprising lubricating oil outlets intended for the lubrication of the reduction gear, wherein one or more of said internal walls have openings allowing oil to pass between the circumferentially adjacent basins said device being characterized in that said openings are formed in one or more of said internal walls so as to define one or more rows of openings in said one or more internal walls . the device comprising an annular lubricating oil collecting cup delimited by a first wall and a second wall , said cup being divided by internal walls extending between the first wall and the second wall so as to define a plurality of angular sectors forming oil collecting basins , the basins being circumferentially adjacent around the axis (X) and comprising lubricating oil outlets intended for the lubrication of the reduction gear, wherein one or more of said internal walls have openings allowing oil to pass between the circumferentially adjacent basins said device being characterized in that said openings are formed in one or more of said internal walls so as to define one or more rows of openings in said one or more internal walls .
Rack configured to receive electronic modules , for example printed circuit boards, the rack comprising a structure formed from two spaced lateral panels according to a transverse direction (T) and from transverse beams extending between the two lateral panels , the transverse beams including at least one transverse beam having a groove extending along the transverse beam and receiving a threaded insert having a plurality of threaded openings for fixing electronic modules on the transverse beam by screwing, the rack comprising an assembly system having an opening provided in a lateral panel and allowing extraction of the threaded insert by sliding in the groove and passage through the opening , the assembly system being configured so that, in the operational state of the rack, the threaded insert is locked in the groove without being able to leave via the opening .
An inverted Doherty amplifier comprising: a main amplifier in a first circuit branch; a peaking amplifier in a second circuit branch arranged to operate as a class C amplifier; a combining node located where a first portion of the first circuit branch after the main amplifier connects with a second portion of the second circuit branch after the peaking amplifier; and an impedance inverter connected in the second portion of the second circuit branch between the peaking amplifier and the combining node, wherein: the impedance inverter adds a phase delay of 270 degrees within ± 20%; and an impedance value Z cn at the combining node is within 50 % of a value determined by the following expression Z optm R L / 1 + α where Z optm is an impedance load for the main amplifier that, when connected at an output of the main amplifier, would provide maximum power transfer from the main amplifier, R L is a resistance of a load to be driven by the inverted Doherty amplifier, α is an asymmetry factor for the inverted Doherty amplifier, and the asymmetry factor is a ratio of a maximum power output by the peaking amplifier to a maximum power output by the main amplifier. a main amplifier in a first circuit branch; a peaking amplifier in a second circuit branch arranged to operate as a class C amplifier; a combining node located where a first portion of the first circuit branch after the main amplifier connects with a second portion of the second circuit branch after the peaking amplifier; and an impedance inverter connected in the second portion of the second circuit branch between the peaking amplifier and the combining node, wherein: the impedance inverter adds a phase delay of 270 degrees within ± 20%; and an impedance value Z cn at the combining node is within 50 % of a value determined by the following expression Z optm R L / 1 + α where Z optm is an impedance load for the main amplifier that, when connected at an output of the main amplifier, would provide maximum power transfer from the main amplifier, R L is a resistance of a load to be driven by the inverted Doherty amplifier, α is an asymmetry factor for the inverted Doherty amplifier, and the asymmetry factor is a ratio of a maximum power output by the peaking amplifier to a maximum power output by the main amplifier. the impedance inverter adds a phase delay of 270 degrees within ± 20%; and an impedance value Z cn at the combining node is within 50 % of a value determined by the following expression Z optm R L / 1 + α where Z optm is an impedance load for the main amplifier that, when connected at an output of the main amplifier, would provide maximum power transfer from the main amplifier, R L is a resistance of a load to be driven by the inverted Doherty amplifier, α is an asymmetry factor for the inverted Doherty amplifier, and the asymmetry factor is a ratio of a maximum power output by the peaking amplifier to a maximum power output by the main amplifier.
A cooker comprising: a cooking chamber having an opening; a door opening and closing the opening; heaters provided in an upper portion and a lower portion of the cooking chamber ; a hydrogen water generating section turning raw water into hydrogen water upon coming the raw water into contact with a hydrogen generator of the hydrogen water generating section ; a superheated steam generator generating superheated steam from the hydrogen water supplying the superheated steam into the cooking chamber ; and a water spraying section spraying water into the cooking chamber , a reducing state being established in the cooking chamber , and characterized in that the hydrogen generator being a mineral that includes 5 to 15% of diatomaceous earth, 30 to 50% of kaolinite, 15 to 25% of bentonite, 15 to 20% of sodium silicate, and 15 to 25% of magnesium. a cooking chamber having an opening; a door opening and closing the opening; heaters provided in an upper portion and a lower portion of the cooking chamber ; a hydrogen water generating section turning raw water into hydrogen water upon coming the raw water into contact with a hydrogen generator of the hydrogen water generating section ; a superheated steam generator generating superheated steam from the hydrogen water supplying the superheated steam into the cooking chamber ; and a water spraying section spraying water into the cooking chamber , a reducing state being established in the cooking chamber , and characterized in that the hydrogen generator being a mineral that includes 5 to 15% of diatomaceous earth, 30 to 50% of kaolinite, 15 to 25% of bentonite, 15 to 20% of sodium silicate, and 15 to 25% of magnesium.
A method for manufacturing a three-dimensional structure, comprising: a first application step of applying a non-sinterable paste onto the surface of a base member to produce a separation aid layer; a second application step of applying a glass powder-containing paste A onto the surface of the separation aid layer to produce a coating film A; a pattern formation step of processing the coating film A to produce a pre-firing pattern; a firing step of firing the pre-firing pattern and the separation aid layer to produce a post-firing pattern and an unsintered layer, respectively; and a separation step of separating the post-firing pattern and the unsintered layer from the base member to manufacture the three-dimensional structure. a first application step of applying a non-sinterable paste onto the surface of a base member to produce a separation aid layer; a second application step of applying a glass powder-containing paste A onto the surface of the separation aid layer to produce a coating film A; a pattern formation step of processing the coating film A to produce a pre-firing pattern; a firing step of firing the pre-firing pattern and the separation aid layer to produce a post-firing pattern and an unsintered layer, respectively; and a separation step of separating the post-firing pattern and the unsintered layer from the base member to manufacture the three-dimensional structure.
A method of manufacture of a display device, the method comprising: forming (Sio) a display module including a first area (GRA) defined therein, the display module comprising a display panel including a lower surface and an upper surface opposite the lower surface, a first film under the lower surface of the display panel, a second film on the upper surface of the display panel, and an adhesive layer between the lower surface of the display panel and the first film; weakening (S20) an adhesive force of a first adhesive portion of the adhesive layer in the first area to be weaker than an adhesive force of a second adhesive portion of the adhesive layer outside the first area; cutting (S30) the first film and the adhesive layer along an edge of the first area; and removing (S40) a portion of the first film and the first adhesive portion from the first area; wherein the first film includes a burr protruding away from the lower surface of the display panel and adjacent to the edge of the first area. forming (Sio) a display module including a first area (GRA) defined therein, the display module comprising a display panel including a lower surface and an upper surface opposite the lower surface, a first film under the lower surface of the display panel, a second film on the upper surface of the display panel, and an adhesive layer between the lower surface of the display panel and the first film; weakening (S20) an adhesive force of a first adhesive portion of the adhesive layer in the first area to be weaker than an adhesive force of a second adhesive portion of the adhesive layer outside the first area; cutting (S30) the first film and the adhesive layer along an edge of the first area; and removing (S40) a portion of the first film and the first adhesive portion from the first area; wherein the first film includes a burr protruding away from the lower surface of the display panel and adjacent to the edge of the first area.