mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle air-conditioning control method for a vehicle having an air-conditioning compressor driven by an engine and capable of changing a discharge capacity (Ccmp) in which the discharge capacity is adjusted in accordance with a state inside a cabin, the vehicle air-conditioning control method comprising: outputting a torque (Te*) to the engine that satisfies a total value of a drive torque (Td) of the vehicle and a drive torque (Tc) of the air-conditioning compressor; characterized by setting a minimum capacity (min) of the discharge capacity (Ccmp) when fuel to the engine is cut; assessing whether or not the discharge capacity (Ccmp) needs to be changed from the minimum capacity (min) in accordance with the state inside the cabin; changing the discharge capacity (Ccmp) from the minimum capacity (min) to an upper limit capacity (max) allowed during normal operation upon accessing that the discharge capacity needs to be changed from the minimum capacity (min); and after a predetermined time elapses following the change, changing the discharge capacity (Ccmp) from the upper limit capacity (max) to a discharge capacity (Ccmp(con)) that corresponds to the state inside the cabin. outputting a torque (Te*) to the engine that satisfies a total value of a drive torque (Td) of the vehicle and a drive torque (Tc) of the air-conditioning compressor; characterized by setting a minimum capacity (min) of the discharge capacity (Ccmp) when fuel to the engine is cut; assessing whether or not the discharge capacity (Ccmp) needs to be changed from the minimum capacity (min) in accordance with the state inside the cabin; changing the discharge capacity (Ccmp) from the minimum capacity (min) to an upper limit capacity (max) allowed during normal operation upon accessing that the discharge capacity needs to be changed from the minimum capacity (min); and after a predetermined time elapses following the change, changing the discharge capacity (Ccmp) from the upper limit capacity (max) to a discharge capacity (Ccmp(con)) that corresponds to the state inside the cabin.
Extrusion preventing device for incorporation into a sealing element of a well tool device , where the extrusion preventing device comprises: - a wire wound with a plurality of turns (T1, T2, T3, ..., Tn) to form a torus-shaped coiled spring ; characterized in that : - each turn of the torus-shaped coiled spring is canted. - a wire wound with a plurality of turns (T1, T2, T3, ..., Tn) to form a torus-shaped coiled spring ; characterized in that : - each turn of the torus-shaped coiled spring is canted. - each turn of the torus-shaped coiled spring is canted.
A micromachined pressure transducer comprising: - a fixed body of semiconductor material, which laterally delimits a main cavity ; - a transduction structure , which is suspended on the main cavity and comprises at least a pair of deformable structures and a movable region , which is formed by semiconductor material and is mechanically coupled to the fixed body through the deformable structures ; characterized in that each deformable structure comprises: - a support structure of semiconductor material, which includes a first and a second beam , each of which has ends respectively fixed to the fixed body and to the movable region , the first beam being superimposed, at a distance, on the second beam ; and - at least one piezoelectric transduction structure , mechanically coupled to the first beam ; and wherein the piezoelectric transduction structures are electrically controllable so as to cause corresponding deformations of the respective support structures and a consequent translation of the movable region along a translation direction (H). - a fixed body of semiconductor material, which laterally delimits a main cavity ; - a transduction structure , which is suspended on the main cavity and comprises at least a pair of deformable structures and a movable region , which is formed by semiconductor material and is mechanically coupled to the fixed body through the deformable structures ; characterized in that each deformable structure comprises: - a support structure of semiconductor material, which includes a first and a second beam , each of which has ends respectively fixed to the fixed body and to the movable region , the first beam being superimposed, at a distance, on the second beam ; and - at least one piezoelectric transduction structure , mechanically coupled to the first beam ; - a support structure of semiconductor material, which includes a first and a second beam , each of which has ends respectively fixed to the fixed body and to the movable region , the first beam being superimposed, at a distance, on the second beam ; and - at least one piezoelectric transduction structure , mechanically coupled to the first beam ; and wherein the piezoelectric transduction structures are electrically controllable so as to cause corresponding deformations of the respective support structures and a consequent translation of the movable region along a translation direction (H).
A christmas tree assembly for a subsea hydrocarbon extraction facility, the christmas tree assembly comprising: a fluid pipeline ; and a sensor assembly comprising a plurality of sensors configured to monitor a plurality of properties relating to hydrocarbon fluid flow through the fluid pipeline, the sensor assembly characterized by comprising: a differential pressure sensor that is disposed across one or more of a choke , around a bend or restriction in the pipeline or a dedicated flow restrictor integrated within the pipeline; and a bulk density sensor that is disposed in one or more locations before or after a choke or in a vertical section of the flow pipeline, the sensor assembly characterised by a gas void fraction sensor disposed in a flow region of the flow pipeline . a fluid pipeline ; and a sensor assembly comprising a plurality of sensors configured to monitor a plurality of properties relating to hydrocarbon fluid flow through the fluid pipeline, the sensor assembly characterized by comprising: a differential pressure sensor that is disposed across one or more of a choke , around a bend or restriction in the pipeline or a dedicated flow restrictor integrated within the pipeline; and a bulk density sensor that is disposed in one or more locations before or after a choke or in a vertical section of the flow pipeline, the sensor assembly characterised by a gas void fraction sensor disposed in a flow region of the flow pipeline . a differential pressure sensor that is disposed across one or more of a choke , around a bend or restriction in the pipeline or a dedicated flow restrictor integrated within the pipeline; and a bulk density sensor that is disposed in one or more locations before or after a choke or in a vertical section of the flow pipeline, the sensor assembly characterised by a gas void fraction sensor disposed in a flow region of the flow pipeline .
A casting mold designed as a permanent mold with at least one cavity for producing at least one cast article , with which at least some sections of a casting face of the casting mold delimiting the cavity have a surface structured portion , which consists of a plurality of unit cells , wherein each unit cell has a structure that projects and/or is recessed relative to the casting face and ends within the respective unit cell , and • the unit cells of the surface structured portion form a pattern with identically formed structures , and • all the unit cells of the surface structured portion have the same size and/or shape, and • directional structures are formed at locations of the casting mold with an expected strongly directed flow of a metal melt , and in this case the directed structure has at least one elevation and/or depression extending in the flow direction of a metal melt in the cavity , and • non-directional structures are formed in regions of expected undefined flow of the metal melt , and in this case the non-directional structure ∘ is spherical. • the unit cells of the surface structured portion form a pattern with identically formed structures , and • all the unit cells of the surface structured portion have the same size and/or shape, and • directional structures are formed at locations of the casting mold with an expected strongly directed flow of a metal melt , and in this case the directed structure has at least one elevation and/or depression extending in the flow direction of a metal melt in the cavity , and • non-directional structures are formed in regions of expected undefined flow of the metal melt , and in this case the non-directional structure ∘ is spherical.
An imaging apparatus, the apparatus comprising: an image sensor arranged to photograph an object through at least one aperture of a pixel of a display panel; a distance measurement unit arranged to measure distance to the object included in the obtained image, CHARACTERIZED by a distance measurement table arranged to store disparity distances generated by a blur effect for zoom levels of the image sensor and distances to the object; and in that the distance measurement unit is arranged to - determine a zoom level of the image sensor, - determine the disparity distance as a distance between a sharpest edge of the object in the obtained image and a second sharpest edge corresponding to the first sharpest edge generated by the blur effect, and - determine the distance to the object based on the determined zoom level and the determined disparity distance using the distance measurement table an image sensor arranged to photograph an object through at least one aperture of a pixel of a display panel; a distance measurement unit arranged to measure distance to the object included in the obtained image, CHARACTERIZED by a distance measurement table arranged to store disparity distances generated by a blur effect for zoom levels of the image sensor and distances to the object; and in that the distance measurement unit is arranged to - determine a zoom level of the image sensor, - determine the disparity distance as a distance between a sharpest edge of the object in the obtained image and a second sharpest edge corresponding to the first sharpest edge generated by the blur effect, and - determine the distance to the object based on the determined zoom level and the determined disparity distance using the distance measurement table - determine a zoom level of the image sensor, - determine the disparity distance as a distance between a sharpest edge of the object in the obtained image and a second sharpest edge corresponding to the first sharpest edge generated by the blur effect, and - determine the distance to the object based on the determined zoom level and the determined disparity distance using the distance measurement table
An apparatus , comprising: one or more processing elements configured to: determine a respective wireless transmission energy budget for each of a plurality of time periods, wherein the wireless transmission energy budget for at least a first period is based on an amount of unused energy budget in a previous period ; schedule wireless transmissions for the plurality of time periods based on the respective energy budgets ; blank one or more scheduled transmissions in at least one of the time periods in response to a battery signal; and cause at least a portion of the scheduled wireless transmissions to be performed for the plurality of time periods , wherein a subset of the portion of the scheduled wireless transmissions are transmitted during a second period using a power back-off in response to a determination that a wireless transmission energy budget for the second period is within a threshold of a required power for the subset of the portion of the scheduled wireless transmissions. determine a respective wireless transmission energy budget for each of a plurality of time periods, wherein the wireless transmission energy budget for at least a first period is based on an amount of unused energy budget in a previous period ; schedule wireless transmissions for the plurality of time periods based on the respective energy budgets ; blank one or more scheduled transmissions in at least one of the time periods in response to a battery signal; and cause at least a portion of the scheduled wireless transmissions to be performed for the plurality of time periods , wherein a subset of the portion of the scheduled wireless transmissions are transmitted during a second period using a power back-off in response to a determination that a wireless transmission energy budget for the second period is within a threshold of a required power for the subset of the portion of the scheduled wireless transmissions.
An information processing system comprising a stationary type device, a hand-held type device, and a server, the stationary type device being installed around a user in bed, and sensing, from the user in sleep, user information for evaluating health of the user, the hand-held type device transmitting, to the server as transmission information, the user information sensed by the stationary type device and/or information calculated from the user information, and the server accumulating, in a predetermined storage section as accumulation information, the transmission information transmitted from the hand-held type device and/or information calculated from the transmission information, the information processing system calculating a sleep index related to the sleep of the user on the basis of the user information, at a sleep onset of the user, the information processing system determining that the user has entered a sleep state through the process of calculating the sleep index, and in response, the hand-held type device altering an operation mode thereof from ON-mode to OFF-mode, and the hand-held type device in the OFF-mode shutting down a wireless communication function with respect to the server, while the stationary type device senses user information from the user in sleep. the stationary type device being installed around a user in bed, and sensing, from the user in sleep, user information for evaluating health of the user, the hand-held type device transmitting, to the server as transmission information, the user information sensed by the stationary type device and/or information calculated from the user information, and the server accumulating, in a predetermined storage section as accumulation information, the transmission information transmitted from the hand-held type device and/or information calculated from the transmission information, the information processing system calculating a sleep index related to the sleep of the user on the basis of the user information, at a sleep onset of the user, the information processing system determining that the user has entered a sleep state through the process of calculating the sleep index, and in response, the hand-held type device altering an operation mode thereof from ON-mode to OFF-mode, and the hand-held type device in the OFF-mode shutting down a wireless communication function with respect to the server, while the stationary type device senses user information from the user in sleep.
An apparatus comprising: a micromirror ; an excitation structure containing or supporting the micromirror and comprising at least one piezoelectric actuator (106_1:106 _n), the excitation structure being configured to resonantly excite the micromirror so as to cause a deflection of the micromirror ; and at least one piezoelectric sensor (108_1:108_m) for providing a sensor signal dependent on the deflection of the micromirror , the piezoelectric sensor (108_1:108_m) being mechanically connected to the excitation structure so that, during the resonant excitation of the micromirror , the sensor signal and the deflection of the micromirror exhibit a fixed mutual phase relationship; the excitation structure comprising a spring structure supporting the micromirror ; the excitation structure comprising two piezoelectric actuators (106_1, 106_2), and the spring structure being arranged between the two piezoelectric actuators (106_1, 106_2) and being connected to the at least two piezoelectric actuators (106_1:106_n); and the at least one piezoelectric sensor (108_1:108_m) being connected to the spring structure so as to move along with the spring structure ; the at least one piezoelectric sensor (108_1:108_m) extending at least partially across the spring structure 130; the spring structure being H-shaped, the micromirror being supported by a crossbar of the H-shaped spring structure , the at least one piezoelectric sensor (108_1:108_m) being connected to at least one longitudinal bar of the H-shaped spring structure . a micromirror ; an excitation structure containing or supporting the micromirror and comprising at least one piezoelectric actuator (106_1:106 _n), the excitation structure being configured to resonantly excite the micromirror so as to cause a deflection of the micromirror ; and at least one piezoelectric sensor (108_1:108_m) for providing a sensor signal dependent on the deflection of the micromirror , the piezoelectric sensor (108_1:108_m) being mechanically connected to the excitation structure so that, during the resonant excitation of the micromirror , the sensor signal and the deflection of the micromirror exhibit a fixed mutual phase relationship; the excitation structure comprising a spring structure supporting the micromirror ; the excitation structure comprising two piezoelectric actuators (106_1, 106_2), and the spring structure being arranged between the two piezoelectric actuators (106_1, 106_2) and being connected to the at least two piezoelectric actuators (106_1:106_n); and the at least one piezoelectric sensor (108_1:108_m) being connected to the spring structure so as to move along with the spring structure ; the at least one piezoelectric sensor (108_1:108_m) extending at least partially across the spring structure 130; the spring structure being H-shaped, the micromirror being supported by a crossbar of the H-shaped spring structure , the at least one piezoelectric sensor (108_1:108_m) being connected to at least one longitudinal bar of the H-shaped spring structure .
A nozzle assembly for a servo valve comprising: a nozzle including a nozzle inlet and a nozzle outlet ; a housing including a nozzle cavity , the nozzle being received in the nozzle cavity ; and a tubular filter mounted to the nozzle configured to filter fluid flowing into the nozzle through the nozzle inlet , wherein the tubular filter comprises: a tubular filter body ; and a nozzle fitting adapter ; wherein a first end of the filter body is fixed to the nozzle fitting adapter and a portion of the nozzle fitting adapter is received by a portion of the nozzle at the nozzle inlet ; and characterised in that the portions of the nozzle fitting adapter and the nozzle inlet are complementary threaded portions ; and by the nozzle assembly further comprising: a cap receiving a second, opposing end of the filter body , and providing a removable seal between the environment and the nozzle cavity . a nozzle including a nozzle inlet and a nozzle outlet ; a housing including a nozzle cavity , the nozzle being received in the nozzle cavity ; and a tubular filter mounted to the nozzle configured to filter fluid flowing into the nozzle through the nozzle inlet , wherein the tubular filter comprises: a tubular filter body ; and a nozzle fitting adapter ; a tubular filter body ; and a nozzle fitting adapter ; wherein a first end of the filter body is fixed to the nozzle fitting adapter and a portion of the nozzle fitting adapter is received by a portion of the nozzle at the nozzle inlet ; and characterised in that the portions of the nozzle fitting adapter and the nozzle inlet are complementary threaded portions ; and by the nozzle assembly further comprising: a cap receiving a second, opposing end of the filter body , and providing a removable seal between the environment and the nozzle cavity .
A method for wireless communications for use by a base station, BS, , comprising: transmitting a synchronization signal, SS, burst, wherein different SS blocks of the burst are transmitted using different transmit beams; characterized by : performing frequency division multiplexing, FDM, to include, with the SS burst, one or more other types of signals that need to be multicast and are also transmitted using the different transmit beams, wherein the one or more other types of signals are included for only some SS blocks of the SS burst; and providing signaling to a user equipment, UE, the signaling indicating which SS blocks of the SS burst include the one or more other types of signals, wherein the signaling is included in the SS burst. performing frequency division multiplexing, FDM, to include, with the SS burst, one or more other types of signals that need to be multicast and are also transmitted using the different transmit beams, wherein the one or more other types of signals are included for only some SS blocks of the SS burst; and providing signaling to a user equipment, UE, the signaling indicating which SS blocks of the SS burst include the one or more other types of signals, wherein the signaling is included in the SS burst.
A dry refractory paint precursor composition comprising: 5 to 55 wt.-% mineral filler; 20 to 45 wt.-% glass frit comprising SiO 2 , Na 2 O, B 2 O 3 , Fe 2 O 3 , CoO, CaO, K 2 O, MgO and/or Al 2 O 3 ; and 0.1 to 25 wt.-% of a binder selected from waterglass, cement and mixtures thereof, all based on the total weight of the composition, wherein the amount of B 2 O 3 in the said frit ranges from 10 to 40 wt.-%, based on the total amount of glass frit. 5 to 55 wt.-% mineral filler; 20 to 45 wt.-% glass frit comprising SiO 2 , Na 2 O, B 2 O 3 , Fe 2 O 3 , CoO, CaO, K 2 O, MgO and/or Al 2 O 3 ; and 0.1 to 25 wt.-% of a binder selected from waterglass, cement and mixtures thereof, all based on the total weight of the composition, wherein the amount of B 2 O 3 in the said frit ranges from 10 to 40 wt.-%, based on the total amount of glass frit.
A method of assessing a possibility of cancerization comprising: a culture step of culturing a cell structure which is formed from normal cells, which are non-cancerated cells, and includes a vascular network structure in the presence of a biological specimen derived from a subject; and an assessment step of assessing a possibility of cancerization in the subject using state of vessels in the cell structure after the culture step as an index, wherein the biological specimen is a body fluid specimen taken from the subject, a cell extract from cells taken from the subject, or a culture supernatant of cells taken from the subject, and in the assessment step, when the number of cells constituting the vessels in the cell structure is larger than the number of cells cultured in the absence of the body fluid specimen, or when the vascular network structure in the cell structure extends, it is assessed that the possibility of cancerization is high in the subject, wherein cells constituting the vessels are detectably labeled. a culture step of culturing a cell structure which is formed from normal cells, which are non-cancerated cells, and includes a vascular network structure in the presence of a biological specimen derived from a subject; and an assessment step of assessing a possibility of cancerization in the subject using state of vessels in the cell structure after the culture step as an index, wherein the biological specimen is a body fluid specimen taken from the subject, a cell extract from cells taken from the subject, or a culture supernatant of cells taken from the subject, and in the assessment step, when the number of cells constituting the vessels in the cell structure is larger than the number of cells cultured in the absence of the body fluid specimen, or when the vascular network structure in the cell structure extends, it is assessed that the possibility of cancerization is high in the subject, wherein cells constituting the vessels are detectably labeled.