mhurhangee/patent-ind-claim-en huggingface dataset:
A heat sink, comprising: a heat dissipation substrate , a connector , and a fastener , wherein the heat dissipation substrate is configured to be suitable to dissipate heat for a packaged chip using multi-chip package technology located on a circuit board , and the heat dissipation substrate is suitable to be located on a surface that is of the packaged chip and that is opposite to the circuit board ; and the heat dissipation substrate comprises a first heat dissipation substrate and a second heat dissipation substrate , the first heat dissipation substrate and the second heat dissipation substrate each have a heat conduction surface that is suitable to conduct heat with a chip in the packaged chip, different heat conduction surfaces are suitable to correspond to different chips in the packaged chip, a first end of the connector is fastened to the first heat dissipation substrate , a second end of the connector suspends on an outer side of the second heat dissipation substrate , and the fastener presses against an outer side of the first heat dissipation substrate , to prevent the first heat dissipation substrate from moving far away from the second heat dissipation substrate ; wherein a heat conduction rate of a material that the connector is made of is less than a heat conduction rate of a material that the heat dissipation substrate is made of. a heat dissipation substrate , a connector , and a fastener , wherein the heat dissipation substrate is configured to be suitable to dissipate heat for a packaged chip using multi-chip package technology located on a circuit board , and the heat dissipation substrate is suitable to be located on a surface that is of the packaged chip and that is opposite to the circuit board ; and the heat dissipation substrate comprises a first heat dissipation substrate and a second heat dissipation substrate , the first heat dissipation substrate and the second heat dissipation substrate each have a heat conduction surface that is suitable to conduct heat with a chip in the packaged chip, different heat conduction surfaces are suitable to correspond to different chips in the packaged chip, a first end of the connector is fastened to the first heat dissipation substrate , a second end of the connector suspends on an outer side of the second heat dissipation substrate , and the fastener presses against an outer side of the first heat dissipation substrate , to prevent the first heat dissipation substrate from moving far away from the second heat dissipation substrate ; wherein a heat conduction rate of a material that the connector is made of is less than a heat conduction rate of a material that the heat dissipation substrate is made of.
A method for transmitting data in a wireless communication, comprising: generating a first subframe for transmission based at least in part on a plurality of first pilot symbols using an orthogonal frequency-division multiplexing, OFDM, processing technique, the generated first subframe containing at least one cyclic prefix, wherein the at least one cyclic prefix contained within the first generated subframe includes a repetition of at least one of the first pilot symbols of the generated first subframe; generating a second subframe for transmission based at least in part on a plurality of second pilot symbols using a cyclic prefix single carrier, CP-SC, processing technique, the generated second subframe containing at least one cyclic prefix, wherein the plurality of second pilot symbols are interleaved within time domain data packets in the second subframe, and wherein the at least one cyclic prefix contained within the generated second subframe includes a repetition of at least one of the second pilot symbols or at least one of the time domain data packets in the generated second subframe; and transmitting the first and second subframes. generating a first subframe for transmission based at least in part on a plurality of first pilot symbols using an orthogonal frequency-division multiplexing, OFDM, processing technique, the generated first subframe containing at least one cyclic prefix, wherein the at least one cyclic prefix contained within the first generated subframe includes a repetition of at least one of the first pilot symbols of the generated first subframe; generating a second subframe for transmission based at least in part on a plurality of second pilot symbols using a cyclic prefix single carrier, CP-SC, processing technique, the generated second subframe containing at least one cyclic prefix, wherein the plurality of second pilot symbols are interleaved within time domain data packets in the second subframe, and wherein the at least one cyclic prefix contained within the generated second subframe includes a repetition of at least one of the second pilot symbols or at least one of the time domain data packets in the generated second subframe; and transmitting the first and second subframes.
A method for inhibiting or reducing fungal growth at a location containing a fungus or susceptible to fungal growths, comprising placing a composition comprising one or more bacteria in the proximity of, but not in direct contact with the location, wherein the one or more bacteria are from the genus Rhodococcus, preferably selected from the group consisting of Rhodococcus rhodochrous DAP 96253, Rhodococcus rhodochrous DAP 96622, Rhodococcus erythropolis, and combinations thereof, wherein the bacteria are induced with an inducing agent selected from the group consisting of urea; urea and cobalt; urea, cobalt and asparagine; methacrylamide; acetamide; or methylcarbamate to produce one or more enzymes selected from group consisting of nitrile hydratases, amidases, asparaginases, ACC deaminases, cyanoalanine synthase-like enzymes, monooxygenases, dioxygenases, cyanidases, and combinations thereof; wherein the location does not comprise a plant or plant part, or a human or animal body, and wherein the one or more bacteria are provided in a quantity sufficient to inhibit or reduce fungal growth at the location.
An information processing apparatus comprising: a captured image acquiring section configured to acquire data on a moving image obtained by an imaging apparatus capturing a device including a light-emitting marker with an exposure time shorter than a period of one frame; a synchronous processing section configured to request the device to cause the light-emitting marker to emit light in a predetermined flashing pattern, with each flash being within a minimum unit being a time obtained by dividing the period of the one frame by a predetermined number and configured to identify the exposure time on a time axis of the device, based on whether or not an image of the light-emitting marker appears in a predetermined number of frames of the moving image obtained by capturing the device; a control information transmitting section configured to request the device to cause the light-emitting marker to emit light at a light emission time point corresponding to the identified exposure time; a position and posture acquiring section configured to acquire position and posture information regarding the device, based on the image in a frame of the moving image of the light-emitting marker emitting light at the light emission time point for a fixed period of time equal to or shorter than the exposure time; and an output data generating section configured to generate and output data based on the position and posture information. a captured image acquiring section configured to acquire data on a moving image obtained by an imaging apparatus capturing a device including a light-emitting marker with an exposure time shorter than a period of one frame; a synchronous processing section configured to request the device to cause the light-emitting marker to emit light in a predetermined flashing pattern, with each flash being within a minimum unit being a time obtained by dividing the period of the one frame by a predetermined number and configured to identify the exposure time on a time axis of the device, based on whether or not an image of the light-emitting marker appears in a predetermined number of frames of the moving image obtained by capturing the device; a control information transmitting section configured to request the device to cause the light-emitting marker to emit light at a light emission time point corresponding to the identified exposure time; a position and posture acquiring section configured to acquire position and posture information regarding the device, based on the image in a frame of the moving image of the light-emitting marker emitting light at the light emission time point for a fixed period of time equal to or shorter than the exposure time; and an output data generating section configured to generate and output data based on the position and posture information.
Sanitary fitting for receiving a mixing valve, in particular a mixing valve or thermostat mixing valve cartridge , operable via a rotatably mounted spindle having a non-circular end portion , comprising a base body , which is provided with an axial cartridge receiving space for the mixing valve cartridge and a handle part designed to receive, in a rotationally fixed manner, the non-circular end portion of the spindle, characterised in that at least two radially arranged inlet channels and at least one arranged outlet channel open into the cartridge receiving space and that the sanitary fitting comprises a driver ring , which is rotatably arranged on the base body and on which rests the handle part , wherein driver ring and handle part can be positively connected via an engagement in exactly one relative position to each other and wherein means for the temporary fixing of a rotational position of the driver ring to the base body are arranged.
Anti-flooding hose comprising a safety valve for liquids, wherein the anti-flooding hose comprises: an inner pressurized water hose and an outer safety hose , coaxial to the inner hose for the entire length of the inner hose ; the anti-flooding hose being connectable by an attachment to the water mains and being watertight towards the external environment up to an outlet end; the safety valve comprises a valve body , a shutter body in ferromagnetic material and a valve seat made in the valve body coaxial to said inner hose ; the safety valve further comprises an outer permanent magnet , housed in a movable element , said movable element being sensitive to the flooding of a gap and hydraulically connected thereto; the movable element being positioned between the inner hose and the outer safety hose ; the outer permanent magnet being made with magnetic interaction with said shutter body ; wherein said movable element is positioned and slides on said valve body between an opening position, defined in its manufacture, and a closing position; the movable element being sensitive to the flooding of said gap and wherein the shutter body is held in the opening position with the precise positioning of the outer permanent magnet; said outer permanent magnet being housed on the movable element , the anti-flooding hose being characterized in that the shutter body remains positioned by the magnetic interaction on an axial abutment , housed inside the valve body , against a thrust spring pre-loaded and housed coaxially with the axial abutment and the shutter body in the valve body .
A method of automatically preparing a Musical Instrument Digital Interface, MIDI, file based on a target MIDI file (T) comprising respective note information (I n ) about each of a plurality of target notes (n T ) of the target MIDI file and a source MIDI file (S) comprising respective note information (I n ) about each of a plurality of source notes (ns) of the source MIDI file, each note information comprising pitch information (I p ) defining a pitch (p) of the note, the method comprising: ranking (M1) the plurality of target notes (n T ) based on the pitch (p) of each target note; for each of the ranked (M1) target notes (n T ), removing (M2) the pitch information (I p ) from the note information (I n ) of the target note; and for each of the ranked (M1) target notes (n T ), replacing (M3) the removed (M2) pitch information with pitch information (I p ) of a corresponding source note (n S ), whereby the target note has the same pitch (p) as the corresponding source note, forming a plurality of new notes (n N ) of a new MIDI file (N). ranking (M1) the plurality of target notes (n T ) based on the pitch (p) of each target note; for each of the ranked (M1) target notes (n T ), removing (M2) the pitch information (I p ) from the note information (I n ) of the target note; and for each of the ranked (M1) target notes (n T ), replacing (M3) the removed (M2) pitch information with pitch information (I p ) of a corresponding source note (n S ), whereby the target note has the same pitch (p) as the corresponding source note, forming a plurality of new notes (n N ) of a new MIDI file (N).
A porous carbon structure for an air battery positive electrode, the porous carbon structure comprising pores and a skeleton containing carbon, and satisfying all of conditions (a) to (e) shown as follows: (a) a t-plot external specific surface area is in a range of 900 m 2 /g or more and 1,600 m 2 /g or less; determined by the t-plot method from a graph of an adsorption isotherm, which was obtained by the nitrogen adsorption method, and in which the layer thickness of adsorbed nitrogen was plotted on the horizontal axis, and the amount of adsorbed nitrogen was plotted on the vertical axis. (b) a pore volume of the pores having a diameter of 1 nm or more and 200 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 2.2 cm 3 /g or more and 7.0 cm 3 /g or less; (c) a pore volume of the pores having a diameter of 1 nm or more and 1,000 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 4.0 cm 3 /g or more and 10.0 cm 3 /g or less; (d) an overall porosity is in a range of 92% or more and 99% or less; and (e) a pore volume of the pores having a diameter of 200 nm or more and 10,000 nm or less, determined using a value obtained by the mercury intrusion method, is in a range of 2.3 cm 3 /g or more and 8.0 cm 3 /g or less. (a) a t-plot external specific surface area is in a range of 900 m 2 /g or more and 1,600 m 2 /g or less; determined by the t-plot method from a graph of an adsorption isotherm, which was obtained by the nitrogen adsorption method, and in which the layer thickness of adsorbed nitrogen was plotted on the horizontal axis, and the amount of adsorbed nitrogen was plotted on the vertical axis. (b) a pore volume of the pores having a diameter of 1 nm or more and 200 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 2.2 cm 3 /g or more and 7.0 cm 3 /g or less; (c) a pore volume of the pores having a diameter of 1 nm or more and 1,000 nm or less, determined by means of the Barrett-Joyner-Halenda method from an adsorption isotherm obtained by nitrogen adsorption measurement, is in a range of 4.0 cm 3 /g or more and 10.0 cm 3 /g or less; (d) an overall porosity is in a range of 92% or more and 99% or less; and (e) a pore volume of the pores having a diameter of 200 nm or more and 10,000 nm or less, determined using a value obtained by the mercury intrusion method, is in a range of 2.3 cm 3 /g or more and 8.0 cm 3 /g or less.
An internal combustion engine comprising: a piston including a cavity configured to cause the internal combustion engine perform compression self-ignition combustion; and a fuel injection valve configured to inject fuel toward a side wall of the cavity, wherein the fuel injection valve includes a first injection hole for injecting fuel, a second injection hole for injecting fuel, a first needle configured to open and close the first injection hole, and a second needle configured to open and close the second injection hole, wherein the first injection hole and the second injection hole are configured such that a portion of a fuel spray injected from the first injection hole and a portion of a fuel spray injected from the second injection hole overlap each other at a position apart at a predetermined distance from the side wall of the cavity, and wherein the second needle is configured to start operation in order to open the second injection hole after a predetermined time has elapsed from a point of time when the first needle starts operation in order to open the first injection hole , characterized in that the first injection hole and the second injection hole are configured such that a ratio of an amount of fuel that faces a top part side of the piston and an amount of fuel that faces a bottom part side of the piston becomes a predetermined ratio after the fuel sprays hit the side wall of the cavity. a piston including a cavity configured to cause the internal combustion engine perform compression self-ignition combustion; and a fuel injection valve configured to inject fuel toward a side wall of the cavity, wherein the fuel injection valve includes a first injection hole for injecting fuel, a second injection hole for injecting fuel, a first needle configured to open and close the first injection hole, and a second needle configured to open and close the second injection hole, wherein the first injection hole and the second injection hole are configured such that a portion of a fuel spray injected from the first injection hole and a portion of a fuel spray injected from the second injection hole overlap each other at a position apart at a predetermined distance from the side wall of the cavity, and wherein the second needle is configured to start operation in order to open the second injection hole after a predetermined time has elapsed from a point of time when the first needle starts operation in order to open the first injection hole , characterized in that the first injection hole and the second injection hole are configured such that a ratio of an amount of fuel that faces a top part side of the piston and an amount of fuel that faces a bottom part side of the piston becomes a predetermined ratio after the fuel sprays hit the side wall of the cavity.
A substance detection system comprising: A substance sensor that is disposed in a first space and detects a target substance (M); a gas supplier that supplies a gas in a second space to the first space ; and a controller configured to control the substance sensor and the gas supplier , wherein the substance sensor includes a substance attachment element to which the target substance (M) attaches, the gas supplier includes a blow-out port from which the gas existing in the second space is blown out into the first space , and the substance attachment element is disposed on a flow path of the gas blown out from the blow-out port , the substance sensor includes a vibrator that has the substance attachment element mounted thereon and vibrates to detach the target substance (M) attached to the substance attachment element , characterized in that the controller is configured to repeat a process in which the gas supplier is held in an on-state for a first predetermined period (Ta) and thereafter is held in an off-state for a second predetermined period (Tb), at a repetition period (T), wherein the substance sensor is configured to detect attachment of the target substance (M) to the substance attachment element for the first predetermined period (Ta), based on a change in a frequency characteristic of the vibrator, and the vibrator is configured to vibrate for detaching the target substance (M) from the substance attachment element while the blow-out of the gas is stopped for the second predetermined period (Tb). A substance sensor that is disposed in a first space and detects a target substance (M); a gas supplier that supplies a gas in a second space to the first space ; and a controller configured to control the substance sensor and the gas supplier , wherein the substance sensor includes a substance attachment element to which the target substance (M) attaches, the gas supplier includes a blow-out port from which the gas existing in the second space is blown out into the first space , and the substance attachment element is disposed on a flow path of the gas blown out from the blow-out port , the substance sensor includes a vibrator that has the substance attachment element mounted thereon and vibrates to detach the target substance (M) attached to the substance attachment element , characterized in that the controller is configured to repeat a process in which the gas supplier is held in an on-state for a first predetermined period (Ta) and thereafter is held in an off-state for a second predetermined period (Tb), at a repetition period (T), wherein the substance sensor is configured to detect attachment of the target substance (M) to the substance attachment element for the first predetermined period (Ta), based on a change in a frequency characteristic of the vibrator, and the vibrator is configured to vibrate for detaching the target substance (M) from the substance attachment element while the blow-out of the gas is stopped for the second predetermined period (Tb).
A method for establishing a connection between evolved Node Bs, eNBs, the method comprising: receiving , by a gateway, GW, from a mobility management entity, MME, a first request message comprising information of a first network node connected to the GW; transmitting , by the GW to the MME, a first response message comprising a transmission layer address of the GW, wherein the transmission layer address of the GW is transmitted from the MME to a second network node; receiving , by the GW from the second network node, a second request message for requesting an establishment of an X2 interface between the first network node and the second network node based on the transmission layer address of the GW; transmitting , by the GW to the first network node, the second request message; receiving , by the GW from the first network node, a second response message comprising an identifier, ID, of the first network node; and transmitting , by the GW to the second network node, the second response message, wherein the second network node comprises at least one of a relay eNB, a home eNB, HeNB, or an eNB. receiving , by a gateway, GW, from a mobility management entity, MME, a first request message comprising information of a first network node connected to the GW; transmitting , by the GW to the MME, a first response message comprising a transmission layer address of the GW, wherein the transmission layer address of the GW is transmitted from the MME to a second network node; receiving , by the GW from the second network node, a second request message for requesting an establishment of an X2 interface between the first network node and the second network node based on the transmission layer address of the GW; transmitting , by the GW to the first network node, the second request message; receiving , by the GW from the first network node, a second response message comprising an identifier, ID, of the first network node; and transmitting , by the GW to the second network node, the second response message, wherein the second network node comprises at least one of a relay eNB, a home eNB, HeNB, or an eNB.
An adsorptive bed comprising a particulate adsorbent material dispersed in a matrix comprising a polysilazane polymer and a polysiloxane polymer.
A T-type calcium channel antagonist for use in a method of treating Dravet syndrome in a subject, wherein the method comprises administering to the subject in need thereof a therapeutically effective amount of the T-type calcium channel antagonist, wherein the T-type calcium channel antagonist is MK-8998: or a pharmaceutically acceptable salt thereof.