mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus comprising: a communication unit configured to receive a recognition level of an own vehicle, the recognition level being calculated by a recognition execution vehicle or an infrastructure facility; and a control unit configured to execute control for improvement of a recognition level of the own vehicle in accordance with the received recognition level; wherein the information processing apparatus is further characterized in that : the recognition level received via the communication unit includes a quantized recognition level value, and the control unit is configured to compare the quantized recognition level value with a predetermined threshold value, and to execute control for improvement of a recognition level of the own vehicle in a case where the quantized recognition level value is equal to or less than the predetermined threshold value. a communication unit configured to receive a recognition level of an own vehicle, the recognition level being calculated by a recognition execution vehicle or an infrastructure facility; and a control unit configured to execute control for improvement of a recognition level of the own vehicle in accordance with the received recognition level; the recognition level received via the communication unit includes a quantized recognition level value, and the control unit is configured to compare the quantized recognition level value with a predetermined threshold value, and to execute control for improvement of a recognition level of the own vehicle in a case where the quantized recognition level value is equal to or less than the predetermined threshold value.
A data transmission indication method, comprising: sending, by an access point, to a terminal, a physical layer signaling that indicates, to the terminal, a subchannel allocated to the terminal for receiving downlink orthogonal frequency division multiple access, OFDMA, data information; sending, by the access point, to the terminal, the downlink OFDMA data information on the subchannel allocated to the terminal, wherein the downlink OFDMA data information carries a request that is used to instruct the terminal to send a response to the access point in an OFDMA mode; and receiving, by the access point, in the OFDMA mode, the response from the terminal, wherein the response is either an acknowledge, ACK, response or a block acknowledge, BA, response. sending, by an access point, to a terminal, a physical layer signaling that indicates, to the terminal, a subchannel allocated to the terminal for receiving downlink orthogonal frequency division multiple access, OFDMA, data information; sending, by the access point, to the terminal, the downlink OFDMA data information on the subchannel allocated to the terminal, wherein the downlink OFDMA data information carries a request that is used to instruct the terminal to send a response to the access point in an OFDMA mode; and receiving, by the access point, in the OFDMA mode, the response from the terminal, wherein the response is either an acknowledge, ACK, response or a block acknowledge, BA, response.
A system for identifying health condition- specific frequencies for a patient, comprising: an electrically powered generator adapted to be actuated to generate low-energy electromagnetic carrier output signals for exposing or applying the low-energy electromagnetic carrier output signals to the patient during an exposure period; a chemical exchange saturation transfer-magnetic resonance imaging system (CEST-MRI) configured to image a contrast agent administered to the patient; and a processing system configured to: obtain a CEST-MRI physiologic parameter before the patient is exposed to a set of modulated frequencies; obtain the CEST-MRI physiologic parameter after exposure of the patient to the set of modulated frequencies; and identify one or more specific radio frequency (RF) carrier signals which have a biological effect in the patient based on changes to the physiologic parameter value after exposure of the patient. an electrically powered generator adapted to be actuated to generate low-energy electromagnetic carrier output signals for exposing or applying the low-energy electromagnetic carrier output signals to the patient during an exposure period; a chemical exchange saturation transfer-magnetic resonance imaging system (CEST-MRI) configured to image a contrast agent administered to the patient; and a processing system configured to: obtain a CEST-MRI physiologic parameter before the patient is exposed to a set of modulated frequencies; obtain the CEST-MRI physiologic parameter after exposure of the patient to the set of modulated frequencies; and identify one or more specific radio frequency (RF) carrier signals which have a biological effect in the patient based on changes to the physiologic parameter value after exposure of the patient. obtain a CEST-MRI physiologic parameter before the patient is exposed to a set of modulated frequencies; obtain the CEST-MRI physiologic parameter after exposure of the patient to the set of modulated frequencies; and identify one or more specific radio frequency (RF) carrier signals which have a biological effect in the patient based on changes to the physiologic parameter value after exposure of the patient.
Flow bag machine for producing flow bag packaging made from paper, comprising: - a removal station for removing a paper web , - a grinding station for continuous grinding of at least one joining portion of the paper web , - a dampening station for dampening at least one joining portion of the paper web , - a shaping station for shaping a bag tube and - an ultrasonic sealing station for sealing the joining portion of the paper web . - a removal station for removing a paper web , - a grinding station for continuous grinding of at least one joining portion of the paper web , - a dampening station for dampening at least one joining portion of the paper web , - a shaping station for shaping a bag tube and - an ultrasonic sealing station for sealing the joining portion of the paper web .
A method comprising: receiving a higher layer configuration message , the higher layer being higher than a physical layer; determining, based on the higher layer configuration message, a first region of a subframe for receiving data packets , the first region comprising a first set of resource elements, the first set of resource elements being a subset of a second set of resource elements in the first region, where the first region is used for control channel monitoring, where the data packets are mapped to at least one resource element of the first set of resource elements; monitoring the first region , where monitoring includes attempting to decode the data packets in the first region; and decoding data in a data packet in the first region . receiving a higher layer configuration message , the higher layer being higher than a physical layer; determining, based on the higher layer configuration message, a first region of a subframe for receiving data packets , the first region comprising a first set of resource elements, the first set of resource elements being a subset of a second set of resource elements in the first region, where the first region is used for control channel monitoring, where the data packets are mapped to at least one resource element of the first set of resource elements; monitoring the first region , where monitoring includes attempting to decode the data packets in the first region; and decoding data in a data packet in the first region .
A solar cell blind comprising: a plurality of slats arranged in a vertical direction; a solar cell integrated with the slat ; a pair of electrodes electrically connected to the solar cell and laterally projecting from two side ends of the slat ; a pair of guide rails each holding an associated one of the pair of electrodes such that the electrodes are slidable in the vertical direction; wires fixedly arranged on the guide rails and configured to be electrically connected to the solar cell via the electrodes ; and a current conduction state-switching mechanism configured to switch the electrodes and the wires between an electrical contact state and a non-contact state according to an angle of the slats . a plurality of slats arranged in a vertical direction; a solar cell integrated with the slat ; a pair of electrodes electrically connected to the solar cell and laterally projecting from two side ends of the slat ; a pair of guide rails each holding an associated one of the pair of electrodes such that the electrodes are slidable in the vertical direction; wires fixedly arranged on the guide rails and configured to be electrically connected to the solar cell via the electrodes ; and a current conduction state-switching mechanism configured to switch the electrodes and the wires between an electrical contact state and a non-contact state according to an angle of the slats .
A method comprising: enabling a first user-input mode, in which user selection of a displayed virtual object in a virtual scene is determined in response to determining a combination of gaze direction detection and selection gesture detection; enabling in response to user selection of the displayed virtual object in the virtual scene during the first user-input mode, a second different user-input mode for the selected virtual object, in which performance of an action in relation to the selected virtual object in the virtual scene is in response to action gesture detection without dependence upon gaze detection; and characterised by, during the second user-input mode, enabling selection of a displayed further virtual object in the virtual scene in response to a combination of gaze direction detection and selection gesture detection. enabling a first user-input mode, in which user selection of a displayed virtual object in a virtual scene is determined in response to determining a combination of gaze direction detection and selection gesture detection; enabling in response to user selection of the displayed virtual object in the virtual scene during the first user-input mode, a second different user-input mode for the selected virtual object, in which performance of an action in relation to the selected virtual object in the virtual scene is in response to action gesture detection without dependence upon gaze detection; and characterised by, during the second user-input mode, enabling selection of a displayed further virtual object in the virtual scene in response to a combination of gaze direction detection and selection gesture detection.
A device for trapping insects, in particular flying insects, which consists of a trapping receptacle, which comprises a lower bowl for receiving said insects, which is surmounted by an upper cap forming on the one hand a trap and on the other hand a lid for the bowl , said lower bowl and said upper cap being shaped to be removably assembled, said cap including an orifice which extends downwards in the direction of said lower bowl to form a funnel-shaped converging passageway , said bowl including in a region of its peripheral wall a first opening having a first surface, this bowl being provided with a movable member having at least one second opening and at least one third opening , or conversely, these second and third openings having surfaces which are different and smaller than that of said first opening , characterised by the fact that the peripheral wall of said bowl is generally cylindrical and that said movable member has the shape of a ring mounted movable in rotation around said peripheral wall , against the outer face of this wall, said member being movable between a first position wherein neither said second nor said third opening are positioned opposite said first opening , and additional positions wherein said at least one second opening or said at least one third opening is positioned opposite said first opening .
A method for producing nickel oxide nanoparticles, the method comprising: preparing Ni(OH) 2 powder and KOH powder; forming a mixed powder by mixing the Ni(OH) 2 powder with the KOH powder, wherein a molar ratio of the Ni(OH) 2 powder to the KOH powder in the mixed powder is 1 : 1.6 to 1 : 3; and heat-treating the mixed powder at a temperature of 90°C to 200°C. preparing Ni(OH) 2 powder and KOH powder; forming a mixed powder by mixing the Ni(OH) 2 powder with the KOH powder, wherein a molar ratio of the Ni(OH) 2 powder to the KOH powder in the mixed powder is 1 : 1.6 to 1 : 3; and heat-treating the mixed powder at a temperature of 90°C to 200°C.
A system, comprising: a rotary isobaric pressure exchanger, IPX configured to exchange pressures between a first fluid and a second fluid; and a motor system coupled to the rotary IPX and configured to power the rotary IPX , characterized by further comprising a sensor ; and a controller with one or more modes of operation configured to control the motor system based on feedback from the sensor , wherein the one or more modes of operation comprise at least one of a startup mode, a speed control mode, a continuous power mode, or a periodic power mode. a rotary isobaric pressure exchanger, IPX configured to exchange pressures between a first fluid and a second fluid; and a motor system coupled to the rotary IPX and configured to power the rotary IPX , characterized by further comprising a sensor ; and a controller with one or more modes of operation configured to control the motor system based on feedback from the sensor , wherein the one or more modes of operation comprise at least one of a startup mode, a speed control mode, a continuous power mode, or a periodic power mode.
A divergence reshaping apparatus for laser diodes having a fast axis and a slow axis, the divergence reshaping apparatus comprising: a fast axis collimator element having positive optical power in the fast axis and no optical power in the slow axis; a slow axis magnifier element having no optical power in the fast axis and positive optical power in the slow axis; and an objective element having positive optical power in the fast axis and no optical power in the slow axis, wherein the objective element is an off-axis objective element aligned to shift a beam travelling through the objective element in the fast axis, and wherein the positive optical power of the objective element compresses the beam in the fast axis; and a slow axis collimator element having negative optical power in the fast axis and positive optical power in the slow axis, wherein the negative optical power of the slow axis collimator element collimates the compressed beam in the fast axis, and wherein the positive optical power of the slow axis collimator element collimates the beam in the slow axis, wherein every element is optically aligned along an optical axis, and wherein the beam travelling through every element is collimated, compressed and shifted in the fast axis and expanded and collimated in the slow axis. a fast axis collimator element having positive optical power in the fast axis and no optical power in the slow axis; a slow axis magnifier element having no optical power in the fast axis and positive optical power in the slow axis; and an objective element having positive optical power in the fast axis and no optical power in the slow axis, wherein the objective element is an off-axis objective element aligned to shift a beam travelling through the objective element in the fast axis, and wherein the positive optical power of the objective element compresses the beam in the fast axis; and a slow axis collimator element having negative optical power in the fast axis and positive optical power in the slow axis, wherein the negative optical power of the slow axis collimator element collimates the compressed beam in the fast axis, and wherein the positive optical power of the slow axis collimator element collimates the beam in the slow axis, wherein every element is optically aligned along an optical axis, and
A client device for hearing device communication, the client device comprising - a processing unit ; - a memory unit ; and - an interface , wherein the processing unit is configured to: - send a session request for a session to the hearing device via the interface ; - receive a session response from the hearing device via the interface , the session response comprising a hearing device identifier; - obtain a session key based on the session response , wherein to obtain a session key comprises to establish a connection to a session key device via the interface , to send a session key request to the session key device via the interface , the session key request comprising the hearing device identifier, to receive a session key response from the session key device via the interface , and to determine the session key based on the session key response ; - determine hearing device data; - generate session data based on the session key and the hearing device data; and - send the session data to the hearing device via the interface . - a processing unit ; - a memory unit ; and - an interface , - send a session request for a session to the hearing device via the interface ; - receive a session response from the hearing device via the interface , the session response comprising a hearing device identifier; - obtain a session key based on the session response , wherein to obtain a session key comprises to establish a connection to a session key device via the interface , to send a session key request to the session key device via the interface , the session key request comprising the hearing device identifier, to receive a session key response from the session key device via the interface , and to determine the session key based on the session key response ; - determine hearing device data; - generate session data based on the session key and the hearing device data; and - send the session data to the hearing device via the interface .
Device for diffusing volatile substances, comprising: - a container that contains a volatile substance ; - a perforable sheet that closes at least a portion of said container ; - at least one perforating element characterized in that the device comprises: - a porous element placed between said perforable sheet and said perforating element , comprising at least one weakened area in correspondence with said at least one perforating element , said perforating element is configured to perforate the perforable sheet and the porous element simultaneously, said porous element being impregnated with the volatile substance when the perforable sheet is perforated. - a container that contains a volatile substance ; - a perforable sheet that closes at least a portion of said container ; - at least one perforating element - a porous element placed between said perforable sheet and said perforating element , comprising at least one weakened area in correspondence with said at least one perforating element , said perforating element is configured to perforate the perforable sheet and the porous element simultaneously, said porous element being impregnated with the volatile substance when the perforable sheet is perforated.
Apparatus for release of chemically bound hydrogen from a hydrogen carrier medium in the form of hydrogen gas under pressure, wherein the apparatus has a. an anode chamber for provision of the at least partly laden hydrogen carrier medium (TM + ), b. an anode adjoining the anode chamber and having an anode catalyst , c. a cathode connected to the anode via a proton-conducting membrane and via a voltage source , where the proton-conducting membrane includes a perfluorinated copolymer containing a sulfo group as ionic group, d. a cathode chamber for receiving hydrogen gas released at the cathode , adjoining the cathode with a cathode catalyst , characterized in that a pressure conduit with a pressure valve is connected to the cathode chamber . a. an anode chamber for provision of the at least partly laden hydrogen carrier medium (TM + ), b. an anode adjoining the anode chamber and having an anode catalyst , c. a cathode connected to the anode via a proton-conducting membrane and via a voltage source , where the proton-conducting membrane includes a perfluorinated copolymer containing a sulfo group as ionic group, d. a cathode chamber for receiving hydrogen gas released at the cathode , adjoining the cathode with a cathode catalyst ,
A medicant delivery method, wherein a fluid is firstly introduced into a pressure-in pathway of a pressure route at a container containing thereinside a medicant, a first connecting channel is sealed to allow the fluid to enter a pressure-out pathway of the pressure route as a flow rate of the fluid is stable, the fluid leaves the pressure-out pathway via a pressure-route outlet , and then the fluid pushes and conveys the medicant out of the container via a container outlet, characterized in that the medicant is pushed and conveyed further to a pressure-adjusting assembly in order to improve the pressure of the medicant and to discharge the medicant directly, wherein the pressure-adjusting assembly includes an injection nozzle , the injection nozzle has an injection-nozzle inlet , an injection-nozzle outlet having a tunnel wall forming an axial angle with the injection nozzle, and a buffer segment disposed between the injection-nozzle inlet and the injection-nozzle outlet .
An aqueous inorganic or hybrid binder composition, characterized in that it comprises (as % by weight of the solid matter): - from 55 to 100% of at least one alkali metal silicate exhibiting an Si/alkali metal weight ratio which varies from 0.3 to 2, - from 0 to 35% of at least one plasticizing agent chosen from the group consisting of copolymers of styrene and butadiene, homopolymers and copolymers of alkyl (meth)acrylates, copolymers of alkyl (meth)acrylates and styrene, copolymers of (meth)acrylic acid and styrene, poly(vinyl acetate)s, silicones, such as poly(dimethylsiloxane)s, and siliconates, preferably potassium siliconates, especially potassium methyl siliconate, and - from 0 to 10% of one or more additives. - from 55 to 100% of at least one alkali metal silicate exhibiting an Si/alkali metal weight ratio which varies from 0.3 to 2, - from 0 to 35% of at least one plasticizing agent chosen from the group consisting of copolymers of styrene and butadiene, homopolymers and copolymers of alkyl (meth)acrylates, copolymers of alkyl (meth)acrylates and styrene, copolymers of (meth)acrylic acid and styrene, poly(vinyl acetate)s, silicones, such as poly(dimethylsiloxane)s, and siliconates, preferably potassium siliconates, especially potassium methyl siliconate, and - from 0 to 10% of one or more additives.
A roto-percussion pipe , comprising a tubular portion having at its ends a female coupling carrying a female thread and a male coupling carrying a male thread, said male coupling and female coupling enabling the pipe to be connected to other pipes identical therewith to form a roto-percussion drill string of the required length, said threads having at least three starts, the pipe being characterised in that said tubular portion and said couplings (3; 4) are formed as separate pieces, said couplings (3; 4) being welded to said tubular portion , wherein said couplings (3; 4) are hardened on their surfaces, a surface hardening treatment being carried out on said couplings (3; 4) before being welded to said tubular portion , the hardened portion of the surface of the couplings' portions at which the weld is to be made being removed mechanically subsequent to said treatment to provide the welding machine with a non-treated surface presenting mechanical characteristics suitable for the subsequent welding, wherein said tubular portion is provided with end portions , centering profiles are created on the end portions of the tubular portion and on joining surfaces of said couplings to facilitate coaxial mounting of said tubular portion and said couplings (3; 4), wherein said tubular portion is made of N80 special steel that is different from 42 Cr Mo 4 steel with which said couplings (3; 4) are made of, and wherein a weld seam made of an AISI 312 stainless steel welding wire is formed between said tubular portion and said couplings (3; 4).