mhurhangee/patent-ind-claim-en huggingface dataset:
A sound detection system comprising: a plurality of microphones each configured to detect a sound inside a living body and output a sound signal generated based on the detected sound; and an information processing device , wherein the information processing device includes an acquisition unit configured to acquire the sound signals from the plurality of microphones, a control unit , and an output unit , the control unit specifies a first position that is a position of a prescribed living body site based on the sound signals acquired by the acquisition unit, estimates a second position that is in a prescribed relative positional relation with the first position, and controls directivities of the plurality of microphones to increase a sensitivity with respect to the second position, and the output unit outputs information generated based on the sound signals acquired by the acquisition unit in a state in which the directivities of the plurality of microphones are controlled to increase the sensitivity with respect to the second position. a plurality of microphones each configured to detect a sound inside a living body and output a sound signal generated based on the detected sound; and an information processing device , wherein the information processing device includes an acquisition unit configured to acquire the sound signals from the plurality of microphones, a control unit , and an output unit , a control unit , and an output unit , the control unit specifies a first position that is a position of a prescribed living body site based on the sound signals acquired by the acquisition unit, estimates a second position that is in a prescribed relative positional relation with the first position, and controls directivities of the plurality of microphones to increase a sensitivity with respect to the second position, and the output unit outputs information generated based on the sound signals acquired by the acquisition unit in a state in which the directivities of the plurality of microphones are controlled to increase the sensitivity with respect to the second position.
A method for transmitting uplink control information, UCI, performed by a terminal, the method comprising: receiving, from a base station, BS, an uplink, UL, grant; and transmitting, to the BS, the UCI including periodic channel state information, CSI, on a physical uplink shared channel, PUSCH, of a scheduled secondary cell, Scell, with a smallest secondary cell, index, SCellIndex, in a licensed band wherein the terminal is configured for simultaneous physical uplink control channel, PUCCH, and PUSCH transmission, and the terminal is not transmitting the PUSCH on a primary cell, and the UCI includes the periodic CSI and acknowledgement information. receiving, from a base station, BS, an uplink, UL, grant; and transmitting, to the BS, the UCI including periodic channel state information, CSI, on a physical uplink shared channel, PUSCH, of a scheduled secondary cell, Scell, with a smallest secondary cell, index, SCellIndex, in a licensed band wherein the terminal is configured for simultaneous physical uplink control channel, PUCCH, and PUSCH transmission, and the terminal is not transmitting the PUSCH on a primary cell, and the UCI includes the periodic CSI and acknowledgement information.
Method for controlling a boost converter with N switching cells in synchronous pulse-width modulation mode, wherein N is a non-zero natural integer, the converter receiving at its input a DC voltage (V in ) from a voltage source and delivering at its output an output voltage (V out ) which is greater than or equal to the input voltage (V in ), the method comprising: - a step of measuring the input voltage (V in ) and output voltage (V out ) of said boost converter ; - a step of determining an output vector (y) designed for globally linearizing the system of equations of the boost converter ; - a step of calculating the variation in power of the electrical load at the output of the converter (Ṗ out ) ; - a step of determining the N duty cycles (α k ) of the converter depending on the second derivative (ÿ) of the output vector (y), the derivative of the power of the electrical load (Ṗ out ) and the ratio between the input voltage (V in ) and the output voltage (V out ) which are measured; and - a step of controlling each switching cell (k) of the converter , depending on the duty cycle (α k ) which is determined. - a step of measuring the input voltage (V in ) and output voltage (V out ) of said boost converter ; - a step of determining an output vector (y) designed for globally linearizing the system of equations of the boost converter ; - a step of calculating the variation in power of the electrical load at the output of the converter (Ṗ out ) ; - a step of determining the N duty cycles (α k ) of the converter depending on the second derivative (ÿ) of the output vector (y), the derivative of the power of the electrical load (Ṗ out ) and the ratio between the input voltage (V in ) and the output voltage (V out ) which are measured; and - a step of controlling each switching cell (k) of the converter , depending on the duty cycle (α k ) which is determined.
Process for producing high-purity gadobutrol (= the gadolinium complex of N-(1 -hydroxymethyl-2,3-dihydroxypropyl)-1,4,7-triscarboxymethyl-1,4,7,10-tetraazacyclododecane), characterized in that the starting material cyclen (1,4,7,10-tetraazacyclododecane) is reacted with 4,4-dimethyl-3,5,8-trioxabicyclo octane and lithium chloride in isopropanol at elevated temperatures, then distilled on water and alkylated with sodium monochloroacetate in alkaline medium, worked up under hydrochloric conditions, the salts are removed by addition of methanol and the crude ligand is reacted with gadolinium oxide in water at elevated temperatures, the pH is then adjusted with lithium hydroxide to 7.1-7.4, the solution is concentrated and ethanol is added in such an amount that a water content of 7.0-9.5% is reached, the mixture is then heated under reflux for at least 60 minutes and the crude product is, after cooling, isolated and dried at 46°-48°C, the crude product is then dissolved in water and purified on an ion exchanger cascade, where the solution is passed first through the acidic and then through the basic ion exchanger, the purified solution, which has a conductance of < 20 μS/cm, is then concentrated, treated with activated carbon, subjected to sterile filtration and, by metered addition of ethanol, adjusted to a water content in the range 10 - 12%, then boiled under reflux and cooled, and the product is isolated and dried at 53-55°C.
A spark gap (FS1) with a first ignition circuit (Z1), comprising • a first spark gap (FS1) with a first main electrode (E1) and a second main electrode (E2) as well as an auxiliary ignition electrode (H1), • a first ignition circuit (Z1) with a first voltage-switching element (GDT1), wherein the first ignition circuit (Z1) is connected on one side to the first main electrode (E1) and on the other side to the auxiliary ignition electrode (H), • characterized in that a capacitor (C) is arranged in parallel to the first voltage-switching element (GDT1), • wherein the spark gap arrangement further comprises a second spark gap (FS2), with a first main electrode (E3) and a second main electrode (E4), as well as an auxiliary ignition electrode (H2), • wherein the second spark gap (FS2) further comprises a second ignition circuit (Z2) with a second voltage-switching element (GDT2), • wherein the second ignition circuit (Z2) is connected on one side to the first main electrode (E3) of the second spark gap (FS2) and on the other side to the auxiliary ignition electrode (H2) of the second spark gap (FS2), • wherein the second spark gap (FS2) and the first spark gap (FS1) are electrically connected to one another at, respectively, one of the main electrodes. • a first spark gap (FS1) with a first main electrode (E1) and a second main electrode (E2) as well as an auxiliary ignition electrode (H1), • a first ignition circuit (Z1) with a first voltage-switching element (GDT1), wherein the first ignition circuit (Z1) is connected on one side to the first main electrode (E1) and on the other side to the auxiliary ignition electrode (H), • characterized in that a capacitor (C) is arranged in parallel to the first voltage-switching element (GDT1), • wherein the spark gap arrangement further comprises a second spark gap (FS2), with a first main electrode (E3) and a second main electrode (E4), as well as an auxiliary ignition electrode (H2), • wherein the second spark gap (FS2) further comprises a second ignition circuit (Z2) with a second voltage-switching element (GDT2), • wherein the second ignition circuit (Z2) is connected on one side to the first main electrode (E3) of the second spark gap (FS2) and on the other side to the auxiliary ignition electrode (H2) of the second spark gap (FS2), • wherein the second spark gap (FS2) and the first spark gap (FS1) are electrically connected to one another at, respectively, one of the main electrodes.
A fluid coupling for retaining a hose on said fluid coupling comprising: a coupling body including a hose nipple and a coupling barb formed on said hose nipple , said coupling body having a passageway axially extending along the central axis of the hose coupling, which carries the fluid that is to be transported; a cylindrical coupling collar extending radially from said coupling body ; a hose stop formed in said hose nipple between said coupling collar and said coupling barb , said hose stop functioning to prevent the hose from being inserted past the location of the hose stop by abutting the hose , when the hose is inserted onto the hose nipple and under a retention spring ; and the retention spring having a spring base attached to a first end of said retention spring , said spring base attached to said coupling collar , said retention spring having a spring collar attached to a second end of said retention spring , said retention spring extending to cover a substantial section of said hose nipple and covering said coupling barb and being disposed to contact and apply a clamping force on the hose at the coupling barb . a coupling body including a hose nipple and a coupling barb formed on said hose nipple , said coupling body having a passageway axially extending along the central axis of the hose coupling, which carries the fluid that is to be transported; a cylindrical coupling collar extending radially from said coupling body ; a hose stop formed in said hose nipple between said coupling collar and said coupling barb , said hose stop functioning to prevent the hose from being inserted past the location of the hose stop by abutting the hose , when the hose is inserted onto the hose nipple and under a retention spring ; and the retention spring having a spring base attached to a first end of said retention spring , said spring base attached to said coupling collar , said retention spring having a spring collar attached to a second end of said retention spring , said retention spring extending to cover a substantial section of said hose nipple and covering said coupling barb and being disposed to contact and apply a clamping force on the hose at the coupling barb .
A cleaner head for a wet cleaning apparatus, the cleaner head having: at least one cleaning liquid outlet through which cleaning liquid is deliverable; at least one dirt inlet for receiving dirty liquid from a surface to be cleaned; and a porous material covering the at least one dirt inlet, the porous material comprising a porous material layer , a liquid pick-up region (PR) of the porous material layer being delimited by sealing attachment of the porous material layer around the at least one dirt inlet, characterized in that the liquid pick-up region (PR) is arranged relative to each of the at least one cleaning liquid outlet such that the liquid pick-up region (PR) is bypassed by the cleaning liquid delivered towards the surface to be cleaned. at least one cleaning liquid outlet through which cleaning liquid is deliverable; at least one dirt inlet for receiving dirty liquid from a surface to be cleaned; and a porous material covering the at least one dirt inlet, the porous material comprising a porous material layer , a liquid pick-up region (PR) of the porous material layer being delimited by sealing attachment of the porous material layer around the at least one dirt inlet, characterized in that the liquid pick-up region (PR) is arranged relative to each of the at least one cleaning liquid outlet such that the liquid pick-up region (PR) is bypassed by the cleaning liquid delivered towards the surface to be cleaned.
A method of wireless communication by a user equipment, UE, comprising: receiving pre-configuration information for one or more reference signal transmissions; performing , at a first time during an ON duration of a discontinuous reception, DRX, cycle, measurements on one or more reference signals based, at least in part, on the pre-configuration information; determining if a trigger frame associated with the one or more reference signal transmissions has been received; and transmitting a measurement report corresponding to the measurements if a trigger frame has been received, the method characterized in that the determining occurs at a second time during the ON duration after the first time. receiving pre-configuration information for one or more reference signal transmissions; performing , at a first time during an ON duration of a discontinuous reception, DRX, cycle, measurements on one or more reference signals based, at least in part, on the pre-configuration information; determining if a trigger frame associated with the one or more reference signal transmissions has been received; and transmitting a measurement report corresponding to the measurements if a trigger frame has been received, the method characterized in that the determining occurs at a second time during the ON duration after the first time.
Single-use disposable beverage barrel , made of a predominantly cylindrical shell part , as well as one base and one cover part which are each deep-drawn, provided with an opening in the centre of the cover part , said opening being sealed using a plastics material fitting , the shell part , the base part and the cover part being made of stainless steel, characterised in that the shell part has a wall thickness of 0.8 mm or less and the base part and the cover part likewise have a wall thickness of 0.8 mm or less, the longitudinal seam of the shell part being laser-butt-welded, a sleeve , into which the fitting is injected in a sealing manner, being inserted into the cover part from the inside, or the fitting itself being inserted into the opening of the cover part from the inside.
Thermal desorption device , comprising: - at least one magazine configured to contain two or more objects and provided with at least one outlet to eject the objects; - ejection means configured to eject the objects from said magazine through said outlet; - at least one shuttle with at least one support configured to receive at least one object, said shuttle being movable between at least one receiving position, where said shuttle receives an object ejected from said outlet, and at least one desorption position, where the object is in a thermal desorber ; - first actuator means for moving said shuttle between said receiving position and said desorption position; characterized by - a thermal desorber with an opening to receive the object carried by said shuttle through said opening ; - closing means carried by said shuttle and configured to assume at least one first position, in which the closing means seals said opening during desorption, and at least one second position. - at least one magazine configured to contain two or more objects and provided with at least one outlet to eject the objects; - ejection means configured to eject the objects from said magazine through said outlet; - at least one shuttle with at least one support configured to receive at least one object, said shuttle being movable between at least one receiving position, where said shuttle receives an object ejected from said outlet, and at least one desorption position, where the object is in a thermal desorber ; - first actuator means for moving said shuttle between said receiving position and said desorption position; - a thermal desorber with an opening to receive the object carried by said shuttle through said opening ; - closing means carried by said shuttle and configured to assume at least one first position, in which the closing means seals said opening during desorption, and at least one second position.
An image reading device comprising: a document table having a plate-shaped transparent member for a document to be placed thereon; an image reading unit configured to read the document placed on an upper surface of the transparent member from a lower surface side of the transparent member, the image reading unit extending in a main scanning direction (X); a carriage for driving the image reading unit to reciprocally move in a sub-scanning direction (Y), the sub-scanning direction being a direction intersecting the main scanning direction; a case for containing the carriage, the case having a support portion (52a-c) for contacting and supporting the document table at the lower surface side of the transparent member; and a frame member arranged along a peripheral edge of the transparent member; wherein the transparent member has a pair of first sides extending in parallel with each other in the main scanning direction and a pair of second sides extending in parallel with each other in the sub-scanning direction, characterized in that the device is provided with an engagement section where the case and the frame member are mutually engaged with each other, the engagement section being provided on either of the pair of second sides at an underside of the support portion as viewed in a vertical direction (Z). a document table having a plate-shaped transparent member for a document to be placed thereon; an image reading unit configured to read the document placed on an upper surface of the transparent member from a lower surface side of the transparent member, the image reading unit extending in a main scanning direction (X); a carriage for driving the image reading unit to reciprocally move in a sub-scanning direction (Y), the sub-scanning direction being a direction intersecting the main scanning direction; a case for containing the carriage, the case having a support portion (52a-c) for contacting and supporting the document table at the lower surface side of the transparent member; and a frame member arranged along a peripheral edge of the transparent member; wherein the transparent member has a pair of first sides extending in parallel with each other in the main scanning direction and a pair of second sides extending in parallel with each other in the sub-scanning direction, characterized in that the device is provided with an engagement section where the case and the frame member are mutually engaged with each other, the engagement section being provided on either of the pair of second sides at an underside of the support portion as viewed in a vertical direction (Z).
A transfer apparatus for a content distribution network in which a content is divided into one or more objects and distributed, the transfer apparatus comprising: determination means for, upon receiving a first request packet, determining whether the first request packet is to be processed; monitor means for, when the first request packet is to be processed, determining a requested content corresponding to a requested object that is requested by the first request packet, and monitoring a second request packet that requests an object of the requested content for a predetermined period; and transmission means for, when the second request packet satisfies a predetermined condition, generating and transmitting a third request packet that requests an object that differs from the objects requested by the first request packet and the second request packet among objects of the requested content. determination means for, upon receiving a first request packet, determining whether the first request packet is to be processed; monitor means for, when the first request packet is to be processed, determining a requested content corresponding to a requested object that is requested by the first request packet, and monitoring a second request packet that requests an object of the requested content for a predetermined period; and transmission means for, when the second request packet satisfies a predetermined condition, generating and transmitting a third request packet that requests an object that differs from the objects requested by the first request packet and the second request packet among objects of the requested content.
A method performed by a first radio device , for handling 802.11 signals transmitted by a second radio device , wherein the second radio device is a non-Wi-Fi certified device, wherein the method comprises: - receiving a transmission from the second radio device comprising an 802.11 signal, - detecting that the second radio device is a non-Wi-Fi certified device , by determining that the signaling behavior of the second radio device deviates from the signaling behavior of a Wi-Fi certified device, wherein the step of detecting that the second radio device is a non-Wi-Fi certified device comprises one or more of the following: - determining that an 802.11 management frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 physical layer frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 management frame is received from the second radio device in the absence of a following 802.11 preamble; - determining that a Direct Current, DC, null tone of the transmission received from the second radio device has a width different than the DC null tone for 802.11 of 312.5 kHz. - receiving a transmission from the second radio device comprising an 802.11 signal, - detecting that the second radio device is a non-Wi-Fi certified device , by determining that the signaling behavior of the second radio device deviates from the signaling behavior of a Wi-Fi certified device, wherein the step of detecting that the second radio device is a non-Wi-Fi certified device comprises one or more of the following: - determining that an 802.11 management frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 physical layer frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 management frame is received from the second radio device in the absence of a following 802.11 preamble; - determining that a Direct Current, DC, null tone of the transmission received from the second radio device has a width different than the DC null tone for 802.11 of 312.5 kHz. - determining that an 802.11 management frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 physical layer frame is received from the second radio device in the absence of an 802.11 beacon frame; - determining that an 802.11 management frame is received from the second radio device in the absence of a following 802.11 preamble; - determining that a Direct Current, DC, null tone of the transmission received from the second radio device has a width different than the DC null tone for 802.11 of 312.5 kHz.