mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the safe storage of flammable materials, in particular lithium-ion accumulators, comprising • a lower container , which is refractory and has an opening at the top side , • an upper container , which preferably comprises solid, free-flowing extinguishing agent, and has an opening at the bottom side , • and a release device with a fuse, wherein the upper container is detachably attachable above the lower container , characterized in that the release device provides a releasable connection between the upper container and the lower container in the area of the respective opening , wherein the releasable connection closes the opening at the top side of the lower container and the opening at the bottom side of the upper container and wherein the fuse , after being triggered by a trigger temperature, opens the opening at the bottom side of the upper container and the opening at the top side of the lower container and establishes a material-conducting connection. • a lower container , which is refractory and has an opening at the top side , • an upper container , which preferably comprises solid, free-flowing extinguishing agent, and has an opening at the bottom side , • and a release device with a fuse, wherein the upper container is detachably attachable above the lower container , characterized in that the release device provides a releasable connection between the upper container and the lower container in the area of the respective opening , wherein the releasable connection closes the opening at the top side of the lower container and the opening at the bottom side of the upper container and wherein the fuse , after being triggered by a trigger temperature, opens the opening at the bottom side of the upper container and the opening at the top side of the lower container and establishes a material-conducting connection.
A symbol reading device , comprising: a plurality of reading units (A-H) configured to read symbols (BK) on articles (M) being conveyed along a conveyance path ; and a processor configured to: acquire symbol information by controlling the plurality of reading units to read symbols on each article and store the symbol information in association with each of the reading units that respectively has read the symbols on each of the articles, identify a first reading unit in the plurality that can be substituted by another reading unit in the plurality based on a low contribution to successful symbol reading according to the symbol information associated with each of the reading units, and control the first reading unit to enter into a power saving state; characterized in that the processor is further configured to control the first reading unit to return to a normal power state from the power saving state when no symbol has been read by any reading unit for a predetermined time period. acquire symbol information by controlling the plurality of reading units to read symbols on each article and store the symbol information in association with each of the reading units that respectively has read the symbols on each of the articles, identify a first reading unit in the plurality that can be substituted by another reading unit in the plurality based on a low contribution to successful symbol reading according to the symbol information associated with each of the reading units, and control the first reading unit to enter into a power saving state; characterized in that the processor is further configured to control the first reading unit to return to a normal power state from the power saving state when no symbol has been read by any reading unit for a predetermined time period.
A lift truck comprising: a chassis having a front side, a rear side, a left side, and a right side; a plurality of wheels attached to the chassis , the plurality of wheels including one or more drive wheels ; a counterweight attached to the rear side of the chassis ; a chassis compartment situated between the one or more drive wheels and the counterweight and between the left side and right side of the chassis ; an operator seat ; an operator compartment floor above the chassis compartment, wherein the floor is situated between the left side and right side of the chassis and between the one or more of the plurality of wheels and the counterweight such that the operator compartment floor is at least partially under the operator seat ; a battery located in the chassis compartment; a motor located in the chassis compartment and operably connected to the battery and to the one or more drive wheels ; a hydraulic system operably connected to the battery ; and characterized in that the lift truck has no steering wheel extending from the operator compartment floor and has no foot controls . a chassis having a front side, a rear side, a left side, and a right side; a plurality of wheels attached to the chassis , the plurality of wheels including one or more drive wheels ; a counterweight attached to the rear side of the chassis ; a chassis compartment situated between the one or more drive wheels and the counterweight and between the left side and right side of the chassis ; an operator seat ; an operator compartment floor above the chassis compartment, wherein the floor is situated between the left side and right side of the chassis and between the one or more of the plurality of wheels and the counterweight such that the operator compartment floor is at least partially under the operator seat ; a battery located in the chassis compartment; a motor located in the chassis compartment and operably connected to the battery and to the one or more drive wheels ; a hydraulic system operably connected to the battery ; and characterized in that the lift truck has no steering wheel extending from the operator compartment floor and has no foot controls .
A powered air-purifying respirator (PAPR) , comprising: an air pump comprising an electric motor ; an eccentric venturi communicatively coupled to an air channel of the air pump , wherein the eccentric venturi comprises a first sensor port and a second sensor port ; a differential air pressure sensor mechanically coupled to the first sensor port and the second sensor port ; and a controller that is communicatively coupled to an output of the differential air pressure sensor and to the electric motor , wherein the controller is configured to control the speed of the electric motor to maintain a predefined rate of flow of purified air based on the output of the differential air pressure sensor . an air pump comprising an electric motor ; an eccentric venturi communicatively coupled to an air channel of the air pump , wherein the eccentric venturi comprises a first sensor port and a second sensor port ; a differential air pressure sensor mechanically coupled to the first sensor port and the second sensor port ; and a controller that is communicatively coupled to an output of the differential air pressure sensor and to the electric motor , wherein the controller is configured to control the speed of the electric motor to maintain a predefined rate of flow of purified air based on the output of the differential air pressure sensor .
A method for managing the supply of electrical power to the electrical equipment (EE1, ... EE4) of a motor vehicle by means of dynamic supply as a function of at least one state of charge (SOC) of the unit(s) for storing electrical power originating from an electric generator by means of, if necessary, selectively and variably in time, shedding the loads of at least a portion of the biased electrical equipment (EE1, ... EE4), characterized in that it includes the determining of an activation rate of the equipment, permitting the measuring of the biasing time of each of the items of electrical equipment and/or the power consumed by each item of electrical equipment, and the determining of a load-shedding order in which the equipment are sorted by descending order of rate of activation, so that the equipment of which the loads are most often shed are activated as a priority and in that the dynamic supply of the electrical power to the unit(s) for storing electrical power originating from the electric generator has priority with respect to that allocated to the electrical equipment (EE1, ... EE4) according to the state of charge and of a temperature of the or of these storing units.
Boat comprising at least two oscillating hydrodynamic profiles or foils , symmetrical to the longitudinal middle axis of the hull of said boat and hinged in their upper portion, one for each body side, to the topside of said hull so that they can rotate moving away and close to said hull , whereby each of said foil comprises: - fastening means positioned at their upper end, by means of which the foil is hinged to the body side of said hull; and characterized in that each of said foil further comprises: - a first portion having such shape that it can approach the body side of the boat adhering to the same along its whole development; - a second portion , whose hydrodynamic profile is configured to exert a lift thrust after the boat proceeds in water, said second portion being configured to be vertically positioned when said first portion is approached to the shape of the hull, and in that said hull and said foils can take: - a first rest configuration in which said foils have their first portions approached to the shape of the hull, and their second portions vertically positioned at the middle of the hull and under it; - a second configuration in which said second portions are substantially horizontal; - any intermediate configuration between these two. each of said foil comprises: - fastening means positioned at their upper end, by means of which the foil is hinged to the body side of said hull; - fastening means positioned at their upper end, by means of which the foil is hinged to the body side of said hull; and characterized in that each of said foil further comprises: - a first portion having such shape that it can approach the body side of the boat adhering to the same along its whole development; - a second portion , whose hydrodynamic profile is configured to exert a lift thrust after the boat proceeds in water, said second portion being configured to be vertically positioned when said first portion is approached to the shape of the hull, - a first portion having such shape that it can approach the body side of the boat adhering to the same along its whole development; - a second portion , whose hydrodynamic profile is configured to exert a lift thrust after the boat proceeds in water, said second portion being configured to be vertically positioned when said first portion is approached to the shape of the hull, and in that said hull and said foils can take: - a first rest configuration in which said foils have their first portions approached to the shape of the hull, and their second portions vertically positioned at the middle of the hull and under it; - a second configuration in which said second portions are substantially horizontal; - any intermediate configuration between these two. - a first rest configuration in which said foils have their first portions approached to the shape of the hull, and their second portions vertically positioned at the middle of the hull and under it; - a second configuration in which said second portions are substantially horizontal; - any intermediate configuration between these two.
An organic light emitting diode display , comprising: a substrate including an active area that displays an image and a bezel area that does not display an image; an organic light emitting element over the substrate ; a protective layer over the substrate that covers the organic light emitting element; a plurality of planarization layers below the organic light emitting element, including a first planarization layer and a second planarization layer on the first planarization layer ; a bank on the second planarization layer ; a flow control pattern on the second planarization layer and adjacent to the bank , the flow control pattern comprising at least one concave portion that controls a flow of the protective layer from the active area into the bezel area, characterized in that the flow control pattern is disposed in the active area. a substrate including an active area that displays an image and a bezel area that does not display an image; an organic light emitting element over the substrate ; a protective layer over the substrate that covers the organic light emitting element; a plurality of planarization layers below the organic light emitting element, including a first planarization layer and a second planarization layer on the first planarization layer ; a bank on the second planarization layer ; a flow control pattern on the second planarization layer and adjacent to the bank , the flow control pattern comprising at least one concave portion that controls a flow of the protective layer from the active area into the bezel area, characterized in that the flow control pattern is disposed in the active area.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a signal comprising precoded data symbol pairs, wherein the precoded data symbol pairs are precoded by using a transmit diversity scheme, and the transmit diversity scheme comprises at least one of space frequency block coding, SFBC, and frequency switched transmit diversity, FSTD; identifying resource elements, REs, to be used for receiving the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block; demapping the precoded data symbol pairs from the identified REs; performing a channel diversity decoding of the precoded data symbol pairs; and performing a turbo code decoding for obtaining data from values of decoded data symbol pairs, wherein at least one available RE in the OFDM symbol is not used for receiving the precoded data symbol pairs, in case that a difference between subcarrier indices of two available REs in the OFDM symbol is three or more, and wherein the demapping of the precoded data symbol pairs is skipped for the at least one available RE. receiving, from a base station, a signal comprising precoded data symbol pairs, wherein the precoded data symbol pairs are precoded by using a transmit diversity scheme, and the transmit diversity scheme comprises at least one of space frequency block coding, SFBC, and frequency switched transmit diversity, FSTD; identifying resource elements, REs, to be used for receiving the precoded data symbol pairs in available REs in an orthogonal frequency division multiplexing, OFDM, symbol of a resource block; demapping the precoded data symbol pairs from the identified REs; performing a channel diversity decoding of the precoded data symbol pairs; and performing a turbo code decoding for obtaining data from values of decoded data symbol pairs, wherein at least one available RE in the OFDM symbol is not used for receiving the precoded data symbol pairs, in case that a difference between subcarrier indices of two available REs in the OFDM symbol is three or more, and wherein the demapping of the precoded data symbol pairs is skipped for the at least one available RE.
A medical ultrasound apparatus , comprising an ultrasound exposure safety processor configured for: spatially relating (S432) respective definitions of: a) an extended dead-tissue zone that includes both a dead-tissue zone of tissue to be ablated and a surrounding margin ; and b) an imaging zone ; based on whether a focus of a push pulse is to be within said extended dead-tissue zone, automatically deciding (S434, S438, S442) as to a level of acoustic power with which said pulse is to be produced; and causing (S436, S440, S444, S446) said pulse to be produced with the decided upon level of acoustic power. spatially relating (S432) respective definitions of: a) an extended dead-tissue zone that includes both a dead-tissue zone of tissue to be ablated and a surrounding margin ; and b) an imaging zone ; based on whether a focus of a push pulse is to be within said extended dead-tissue zone, automatically deciding (S434, S438, S442) as to a level of acoustic power with which said pulse is to be produced; and causing (S436, S440, S444, S446) said pulse to be produced with the decided upon level of acoustic power.
A special-shaped display panel with a curved or oblique edge, the special-shaped display panel including a display substrate, the display substrate comprising a display region in which a pixel unit array is provided and a light-shielding region at periphery of the display region , wherein: the pixel unit array comprises a plurality of pixel units arranged in rows and columns; the display region has an irregular edge portion along the curved or oblique edge of the display panel, the irregular edge portion including a plurality of edge pixel units arranged adjacent to the light-shielding region ; the irregular edge portion of the display region comprises at least one protruding region (A), each of the at least one protruding region (A) comprising a plurality of consecutive edge pixel units aligned in a same row or a same column and forming a protruding step with respect to a directly adjacent row or column of pixel units, the plurality of edge pixel units of each protruding region (A) having gradually varying light transmission rates along the protruding region ; each pixel unit and each edge pixel unit comprise a plurality of pixels , respectively; characterised in that any two neighboring edge pixel units in each of the at least one protruding region (A) have a substantially same difference in light-emitting area. the pixel unit array comprises a plurality of pixel units arranged in rows and columns; the display region has an irregular edge portion along the curved or oblique edge of the display panel, the irregular edge portion including a plurality of edge pixel units arranged adjacent to the light-shielding region ; the irregular edge portion of the display region comprises at least one protruding region (A), each of the at least one protruding region (A) comprising a plurality of consecutive edge pixel units aligned in a same row or a same column and forming a protruding step with respect to a directly adjacent row or column of pixel units, the plurality of edge pixel units of each protruding region (A) having gradually varying light transmission rates along the protruding region ; each pixel unit and each edge pixel unit comprise a plurality of pixels , respectively; characterised in that any two neighboring edge pixel units in each of the at least one protruding region (A) have a substantially same difference in light-emitting area.
A device for capacitively measuring the powder level in a filling apparatus for filling cavities of a die plate of a rotary press with powder material to be pressed in the rotary press, comprising a filling pipe of the filling apparatus , wherein a first measuring electrode which forms a first electrical capacitor with a reference electrode is arranged on the filling pipe , so that an electrical field can be formed between the first measuring electrode and the reference electrode , and wherein the first measuring electrode is covered on its side facing away from the filling pipe by an electrically conductive protective shielding , wherein the protective shielding is at ground potential, characterized in that the first measuring electrode is arranged in an electrically non-conductive holding portion , and in that the holding portion is arranged on the filling pipe in a recess of the filling pipe .
Device to be applied in correspondence with a passage of a fluid, such as gas, water, oil or other liquid in general, preferably in correspondence with the end section of a passage of a fluid, said device comprising a containment body which is configured to be closed and/or wrapped around said passage and, inside said containment body , are housed: - at least one sensor for detecting movements and/or vibrations of said containment body , - at least one sensor for detecting variations in the angular orientation of said containment body , - at least an electronic processing unit which is electronically connected to said sensors and which is configured to receive the data detected by said sensors, said data being then intended to be used by said electronic processing unit and/or by an external electronic unit to identify tampering with said containment body , - wireless connection means of said electronic processing unit with at least one external electronic unit . and characterized in that said processing unit of said device is configured so that, when it identifies a trigger event, the acquisition/sampling frequency is increased, thus passing from a first acquisition/sampling frequency based on a second and higher acquisition/sampling frequency, of the signals coming from said at least one sensor to detect movements and/or vibrations of said containment body and coming from said at least one sensor to detect variations in the angular orientation of said containment body . - at least one sensor for detecting movements and/or vibrations of said containment body , - at least one sensor for detecting variations in the angular orientation of said containment body , - at least an electronic processing unit which is electronically connected to said sensors and which is configured to receive the data detected by said sensors, said data being then intended to be used by said electronic processing unit and/or by an external electronic unit to identify tampering with said containment body , - wireless connection means of said electronic processing unit with at least one external electronic unit .
A method for prelithiating an anode of a lithium ion battery, comprising the following steps: (a) charging the battery to a voltage from about 4.2 to about 4.5 V at a first temperature; and (b) discharging the battery to a voltage from about 2.5 to about 3.2 V at a second temperature which is about 25 °C, wherein the first temperature is from about 45 to about 65 °C. (a) charging the battery to a voltage from about 4.2 to about 4.5 V at a first temperature; and (b) discharging the battery to a voltage from about 2.5 to about 3.2 V at a second temperature which is about 25 °C,