mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a slab having a front layer and a rear layer, said slab comprising fillers, organic binders and additives, said method comprises mixing starting materials comprising fillers, organic binders and additives, heating, shaping, pressing and cooling, characterized in that said method comprises the following steps: i) providing a mixture comprising organic binders, additives and fillers, wherein said fillers comprise fine particles and a first amount of coarse particles, and heating said mixture, the particle size distribution of the fine particles is chosen from a range below 63 micron, the particle size distribution of the first amount of coarse particles is chosen from a range between 63-800 micron; ii) providing a porous substrate layer, said fine particles having a size smaller than the pore size of the porous substrate layer; iii) contacting the mixture of step i) with the porous substrate layer of step ii); iv) exerting a pressure on the construction obtained in step iii) for migrating said organic binder and said fine particles from said mixture of step i) into said porous substrate layer; v) cooling the construction obtained in step iv) for obtaining a slab, wherein due to said step iv) the concentration of said first amount of coarse particles in said front layer of said slab is higher than in said rear layer of said slab. i) providing a mixture comprising organic binders, additives and fillers, wherein said fillers comprise fine particles and a first amount of coarse particles, and heating said mixture, the particle size distribution of the fine particles is chosen from a range below 63 micron, the particle size distribution of the first amount of coarse particles is chosen from a range between 63-800 micron; ii) providing a porous substrate layer, said fine particles having a size smaller than the pore size of the porous substrate layer; iii) contacting the mixture of step i) with the porous substrate layer of step ii); iv) exerting a pressure on the construction obtained in step iii) for migrating said organic binder and said fine particles from said mixture of step i) into said porous substrate layer; v) cooling the construction obtained in step iv) for obtaining a slab, wherein due to said step iv) the concentration of said first amount of coarse particles in said front layer of said slab is higher than in said rear layer of said slab.
An ultrasonic apparatus comprising: a three-terminal ultrasonic transducer including a common electrode, a transmitting electrode, a receiving electrode independent of the transmitting electrode, and a piezoelectric body including a transmitting region for transmitting ultrasonic waves and a receiving region for receiving reflected ultrasonic waves; a transmitting circuit configured to output a driving signal to the transmitting electrode to cause the ultrasonic transducer to transmit ultrasonic waves; a receiving circuit configured to receive a receive signal from the receiving electrode; a frequency measuring circuit (200, 250) configured to measure a resonant frequency of the ultrasonic transducer from a reverberation signal in the receive signal; a Q-factor measuring circuit (200, 240) configured to measure a Q factor of the ultrasonic transducer from the reverberation signal, and an anomaly determining unit configured to determine an anomaly of the ultrasonic transducer on the basis of the Q factor measured by the Q-factor measuring circuit (200, 240) and the resonant frequency measured by the frequency measuring circuit (200, 250). a three-terminal ultrasonic transducer including a common electrode, a transmitting electrode, a receiving electrode independent of the transmitting electrode, and a piezoelectric body including a transmitting region for transmitting ultrasonic waves and a receiving region for receiving reflected ultrasonic waves; a transmitting circuit configured to output a driving signal to the transmitting electrode to cause the ultrasonic transducer to transmit ultrasonic waves; a receiving circuit configured to receive a receive signal from the receiving electrode; a frequency measuring circuit (200, 250) configured to measure a resonant frequency of the ultrasonic transducer from a reverberation signal in the receive signal; a Q-factor measuring circuit (200, 240) configured to measure a Q factor of the ultrasonic transducer from the reverberation signal, and an anomaly determining unit configured to determine an anomaly of the ultrasonic transducer on the basis of the Q factor measured by the Q-factor measuring circuit (200, 240) and the resonant frequency measured by the frequency measuring circuit (200, 250).
Method for preparing a mineral foam material-filled concrete block, the method comprising the following steps: providing a concrete block comprising at least one cavity, filling the at least one cavity with a volume of the mineral foam material greater than the volume of the at least one cavity, characterized by bringing a scraper element into contact with a top surface of the concrete block, moving the scraper element over the top surface of the concrete block to scrape off excess fresh mineral foam material from the top surface, removing the excess mineral foam material from the scraper element by suction. providing a concrete block comprising at least one cavity, filling the at least one cavity with a volume of the mineral foam material greater than the volume of the at least one cavity, characterized by bringing a scraper element into contact with a top surface of the concrete block, moving the scraper element over the top surface of the concrete block to scrape off excess fresh mineral foam material from the top surface, removing the excess mineral foam material from the scraper element by suction.
A liquid ejecting head, comprising: a piezoelectric member including a plurality of piezoelectric elements formed of a piezoelectric material; a plurality of electrodes formed on the piezoelectric member; and a wiring substrate joined to the plurality of electrodes by solder, wherein a melting point of the solder is less than or equal to 1/2 of the Curie point of the piezoelectric material. a piezoelectric member including a plurality of piezoelectric elements formed of a piezoelectric material; a plurality of electrodes formed on the piezoelectric member; and a wiring substrate joined to the plurality of electrodes by solder, wherein a melting point of the solder is less than or equal to 1/2 of the Curie point of the piezoelectric material.
A method for substantially eliminating true-azimuth three dimensional internal multiple reflections, the method being characterized in that it comprises: defining M upper windows that correspond physically to a space below a plurality of seismic data receivers and that include a geographical area of interest, and a pair of lower windows that are below the M upper windows; defining a first set of surface apertures and a second set of surface apertures in a different location from said first set of surface apertures; allocating seismic data to each of said windows using the first and second sets of surface apertures, so as to obtain segmented seismic data; determining a total internal 3D multiple model based on an iteratively generated internal 3D multiple model using the segmented seismic data; and subtracting said total internal 3D multiple model from said seismic data to substantially eliminate the influence of internal multiples in determining the geography of the geographical area of interest. defining M upper windows that correspond physically to a space below a plurality of seismic data receivers and that include a geographical area of interest, and a pair of lower windows that are below the M upper windows; defining a first set of surface apertures and a second set of surface apertures in a different location from said first set of surface apertures; allocating seismic data to each of said windows using the first and second sets of surface apertures, so as to obtain segmented seismic data; determining a total internal 3D multiple model based on an iteratively generated internal 3D multiple model using the segmented seismic data; and subtracting said total internal 3D multiple model from said seismic data to substantially eliminate the influence of internal multiples in determining the geography of the geographical area of interest.
A device for access control with access authorizations which are saved on data carriers (2, 3) which act in a contactless manner and can be checked by means of radio-frequency fields, having at least two access lanes (A, B) and having blocking and/or recognition means (4, 5) and a reading unit for reading the data carriers (2, 3), the blocking and recognition means (4, 5) authorizing access at the respective access lane (A, B) when an access authorization saved on the data carrier (2, 3) is read by the reading unit, two part antennae (A1, A2) being arranged next to one another between two access lanes (A, B), which antennae are assigned to one or the other access lane (A, B), are connected to the reading unit, are formed by conductor loops and check the data carriers (2, 3) by means of the radio-frequency fields, characterized in that the spacing between the two part antennae (A1, A2) is at least 1 mm and is not larger than half of the diameter of the conductor loops, for detecting the position of the data carrier (2, 3) on one or the other access lane (A, B), the reading unit has a circuit for determining the modulation depth (T1, T2) of the signals received using the two part antennae (A1, A2), and, for increasing the reading range using the reading unit, anti-phase output signals can be sent if the two part antennae (A1, A2) are orientated in the opposite direction or in-phase output signals can be sent if the two part antennae (A1, A2) are orientated in the same direction.
A transmitter (104, 204, 404, 804) for transmitting wireless power to a receive coil (118, 218,518), comprising: a first spiral coil comprising a plurality of turns, a center of the first spiral coil to an outermost turn of the first spiral coil defining a first cross section; and a second spiral coil comprising a plurality of turns, a center of the second spiral coil to an outermost turn of the second spiral coil defining a second cross section, the second spiral coil counter-wound relative to the first spiral coil, wherein the first and second coil are substantially within a common plane, having a common center, characterized in that a turn distance from the common center to a particular turn along the first or second cross section of the first or second spiral coil is such that spacings between consecutive turns of the transmit coil increase from an outermost turn to the common center such that a mutual inductance with respect to the receive coil (118,218,518) located above or below the common plane is greater than 65% of a maximum mutual inductance along the first and second cross sections when the first and second spiral coils are positioned to wirelessly transmit power to the receive coil. a first spiral coil comprising a plurality of turns, a center of the first spiral coil to an outermost turn of the first spiral coil defining a first cross section; and a second spiral coil comprising a plurality of turns, a center of the second spiral coil to an outermost turn of the second spiral coil defining a second cross section, the second spiral coil counter-wound relative to the first spiral coil, wherein the first and second coil are substantially within a common plane, having a common center, characterized in that a turn distance from the common center to a particular turn along the first or second cross section of the first or second spiral coil is such that spacings between consecutive turns of the transmit coil increase from an outermost turn to the common center such that a mutual inductance with respect to the receive coil (118,218,518) located above or below the common plane is greater than 65% of a maximum mutual inductance along the first and second cross sections when the first and second spiral coils are positioned to wirelessly transmit power to the receive coil.
An ultraviolet irradiation device for implants, adapted to remove an organic contaminant from the implants by an ultraviolet beam, comprising: an ultraviolet lamp disposed in a housing; a carriage disposed in the housing such that the carriage can be pulled out from the housing; and an implant retainer disposed on the carriage such that the implant retainer faces the ultraviolet lamp in the housing, the implant retainer including an implant support on which the implants are linearly arranged, and a support table on which the implant support is detachably disposed, characterized by the implant retainer including an effective irradiation area confirming unit that is configured to determine an effective irradiation area of an ultraviolet beam emitted from the ultraviolet lamp, the effective irradiation area confirming unit including: a first index formed on the implant retainer and configured to define a range (Xa) of the effective irradiation area in a longitudinal direction of the effective irradiation area; and a second index formed on a handle provided on the support table and configured to define a range (Xb) of the effective irradiation area in a vertical direction of the effective irradiation area. an ultraviolet lamp disposed in a housing; a carriage disposed in the housing such that the carriage can be pulled out from the housing; and an implant retainer disposed on the carriage such that the implant retainer faces the ultraviolet lamp in the housing, the implant retainer including an implant support on which the implants are linearly arranged, and a support table on which the implant support is detachably disposed, characterized by the implant retainer including an effective irradiation area confirming unit that is configured to determine an effective irradiation area of an ultraviolet beam emitted from the ultraviolet lamp, the effective irradiation area confirming unit including: a first index formed on the implant retainer and configured to define a range (Xa) of the effective irradiation area in a longitudinal direction of the effective irradiation area; and a second index formed on a handle provided on the support table and configured to define a range (Xb) of the effective irradiation area in a vertical direction of the effective irradiation area. a first index formed on the implant retainer and configured to define a range (Xa) of the effective irradiation area in a longitudinal direction of the effective irradiation area; and a second index formed on a handle provided on the support table and configured to define a range (Xb) of the effective irradiation area in a vertical direction of the effective irradiation area.
A vehicle equipped with a hydraulically-operated device (15, 16) comprising: an engine that drives the hydraulically-operated device (15, 16); a temperature detection unit that detects a temperature of the engine or hydraulic oil; and a control unit (30, 31) that controls the engine, wherein the control unit (30, 31) is allowed to control torque of the engine in accordance with a predetermined specified torque limit value when the control unit (30, 31) is in an Eco-mode, the control unit (30, 31) controls the engine without controlling the torque of the engine in accordance with the specified torque limit value in the Eco-mode when the temperature detected by the temperature detection unit is at a predetermined release temperature or lower, the release temperature is set as a temperature at which output of the engine is not stabilized when the torque of the engine is controlled, and when the detected temperature is at a predetermined specified temperature or higher, the control unit (30, 31) controls the torque of the engine in accordance with the specified torque limit value, and the specified temperature is higher than the release temperature. an engine that drives the hydraulically-operated device (15, 16); a temperature detection unit that detects a temperature of the engine or hydraulic oil; and a control unit (30, 31) that controls the engine, wherein the control unit (30, 31) is allowed to control torque of the engine in accordance with a predetermined specified torque limit value when the control unit (30, 31) is in an Eco-mode, the control unit (30, 31) controls the engine without controlling the torque of the engine in accordance with the specified torque limit value in the Eco-mode when the temperature detected by the temperature detection unit is at a predetermined release temperature or lower, the release temperature is set as a temperature at which output of the engine is not stabilized when the torque of the engine is controlled, and when the detected temperature is at a predetermined specified temperature or higher, the control unit (30, 31) controls the torque of the engine in accordance with the specified torque limit value, and the specified temperature is higher than the release temperature.
A flexible cable comprising: a sheet-like dielectric substance (1, 2, 3) first and second conductive wire groups provided in the sheet-like dielectric substance (1, 2, 3) and a sheet-like shield member that is laminated on the sheet-like dielectric substance so as to cover the first conductive wire group, characterized in that the sheet-like shield member is laminated on the sheet-like dielectric substance so as not to cover the second conductive wire group. a sheet-like dielectric substance (1, 2, 3) first and second conductive wire groups provided in the sheet-like dielectric substance (1, 2, 3) and a sheet-like shield member that is laminated on the sheet-like dielectric substance so as to cover the first conductive wire group,
An ex vivo or in vitro method for producing activated T cells, comprising: contacting provided immature dendritic cells with an amount of Bacillus-Calmette-Guerin consisting of 10 5 to 10 7 cfu per ml of tissue culture media and 100 to 1000 Units of Interferon gamma (IFNγ) per ml of tissue culture media and a predetermined antigen under culture conditions suitable for maturation of the immature dendritic cells to form a mature dendritic cell population or mature dendritic cells; wherein the mature dendritic cell population produces at least 10-fold more Interleukin 12 than Interleukin 10 than a similar dendritic cell population cultured in the presence of BCG without IFNγ, and contacting the mature dendritic cells with naive T cells to form activated T cells producing IFNγ, and wherein the activated T cells produce a type 1 immune response. contacting provided immature dendritic cells with an amount of Bacillus-Calmette-Guerin consisting of 10 5 to 10 7 cfu per ml of tissue culture media and 100 to 1000 Units of Interferon gamma (IFNγ) per ml of tissue culture media and a predetermined antigen under culture conditions suitable for maturation of the immature dendritic cells to form a mature dendritic cell population or mature dendritic cells; wherein the mature dendritic cell population produces at least 10-fold more Interleukin 12 than Interleukin 10 than a similar dendritic cell population cultured in the presence of BCG without IFNγ, and contacting the mature dendritic cells with naive T cells to form activated T cells producing IFNγ, and wherein the activated T cells produce a type 1 immune response.
A centrifugal compressor, comprising: a rotor that includes a shaft rotatably disposed inside a casing and impellers fixed to an outer periphery of the shaft; a diaphragm that surrounds the impellers from an outer peripheral side; a suction-side casing head disposed separately from the diaphragm on a side on which fluid is sucked; a temperature controlling mechanism that is provided inside the suction-side casing head and is configured to control ambient temperature through flow of a heating medium; characterised in that the centrifugal compressor further comprises: a heat insulating body disposed between the suction-side casing head and the diaphragm; and a locking structure that locks the heat insulating body and the suction-side casing head with each other to be relatively displaceable in a radial direction.
A water-soluble unit dose article comprising a water-soluble fibrous structure and a plurality of particles distributed throughout the structure, wherein the water-soluble fibrous structure comprises a plurality of fibrous elements and each fibrous element comprises at least one filament-forming material and a first surfactant, wherein said first surfactant is characterized by a Hydrophilic Index of no more than 7.5; wherein each of said particles comprises a second surfactant, wherein said second surfactant is characterized by a HI of greater than 7.5, and wherein each of said particles further comprises from 0.5% to 20%, preferably from 1% to 15%, more preferably from 2% to 10% by total weight of said each discrete particle of a rheology modifier selected from the group consisting of an alkoxylated polyalkyleneimine, an ethylene oxide-propylene oxide-ethylene oxide (EOx 1 POyEOx 2) triblock copolymer wherein each of x 1 and x 2 is in the range of 2 to 140, preferably 2 to 100, more preferably 2 to 80, and y is in the range of from 15 to 70, N,N,N',N'-tetra(2-hydroxyethyl)ethylenediamine, and mixtures thereof, wherein preferably said alkoxylated polyalkyleneimine has an empirical formula of a(CH2CH2O)b(CH2CH2CH2O)c, wherein PEI is a polyethyleneimine core; wherein a is the number average molecular weight (MWn) of the PEI core prior to modification, which ranges from 100 to 100,000 Daltons, preferably from 200 to 5000 Daltons, more preferably from 500 to 1000 Daltons; wherein b is the weight average number of ethylene oxide (CH2CH2O) units per nitrogen atom in the PEI core, which ranges from 0 to 60, preferably from 1 to 50, more preferably from 5 to 40, most preferably from 10 to 30; and wherein c is the weight average number of propylene oxide (CH2CH2CH2O) units per nitrogen atom in the PEI core, which ranges from 0 to 60, preferably from 0 to 40, more preferably from 0 to 30, most preferably from 0 to 20.
A gRNA molecule comprising a targeting domain that comprises the nucleotide sequence set forth in SEQ ID NO: 6208, SEQ ID NO: 6152, SEQ ID NO: 6178, SEQ ID NO: 6169, SEQ ID NO: 6607, or SEQ ID NO: 18949.