mhurhangee/ep-ind-claims huggingface dataset:
Hydraulic binder comprising: - at least one first calcium aluminosilicate derivative with a fineness of less than 6000 Blaine, a unit for measuring the fineness of grinding of a solid ingredient, expressed in cm 2 per gram of solid, comprising at least one of the components selected from a ground granulated blast furnace slag, fly ash, such as aluminosilicate fly ash and lime-alumina-silica fly ash, calcined clay and expanded clay dust, the ground granulated blast furnace slag being in an amount of between 50 and 98% of the total weight of the binder, - slag microparticles with a fineness of greater than or equal to 6000 Blaine, a unit for measuring the fineness of grinding of a solid ingredient, expressed in cm 2 per gram of solid, in an amount of between 1 and 35% of the total weight of the binder, preferably of between 5 and 15%, - at least one source of calcium sulphate and - at least one base chosen from an alkali metal or alkaline earth metal hydroxide, an alkali metal or alkaline earth metal carbonate, and an alkali metal or alkaline earth metal silicate derivative, in an amount of less than or equal to 1% of the total weight of the binder. - at least one first calcium aluminosilicate derivative with a fineness of less than 6000 Blaine, a unit for measuring the fineness of grinding of a solid ingredient, expressed in cm 2 per gram of solid, comprising at least one of the components selected from a ground granulated blast furnace slag, fly ash, such as aluminosilicate fly ash and lime-alumina-silica fly ash, calcined clay and expanded clay dust, the ground granulated blast furnace slag being in an amount of between 50 and 98% of the total weight of the binder, - slag microparticles with a fineness of greater than or equal to 6000 Blaine, a unit for measuring the fineness of grinding of a solid ingredient, expressed in cm 2 per gram of solid, in an amount of between 1 and 35% of the total weight of the binder, preferably of between 5 and 15%, - at least one source of calcium sulphate and - at least one base chosen from an alkali metal or alkaline earth metal hydroxide, an alkali metal or alkaline earth metal carbonate, and an alkali metal or alkaline earth metal silicate derivative, in an amount of less than or equal to 1% of the total weight of the binder.
A method, performed at a downstream audio rendering stage in an end-to-end audio processing chain, comprising: receiving and decoding a coded bitstream generated by an upstream audio processor, wherein the coded bitstream is encoded with audio content and audio metadata corresponding to the audio content; wherein the audio content includes first audio objects corresponding to a first audio program or audiovisual program of two consecutive audio or audiovisual programs and second audio objects corresponding to a second audio program or audiovisual program of the two consecutive audio or audiovisual programs; wherein the audio metadata includes first and second audio object gains, respectively for the first and second audio objects, generated at least in part based on a first fading curve of the first audio program or audiovisual program and a second fading curve of the second audio program or audiovisual program, respectively; applying the first and second audio object gains generated at least in part based on the first and second fading curves to the first and second audio objects, respectively; rendering a sound field represented by the first audio object with the applied first audio object gain and the second audio object with the applied second audio object gain. receiving and decoding a coded bitstream generated by an upstream audio processor, wherein the coded bitstream is encoded with audio content and audio metadata corresponding to the audio content; wherein the audio content includes first audio objects corresponding to a first audio program or audiovisual program of two consecutive audio or audiovisual programs and second audio objects corresponding to a second audio program or audiovisual program of the two consecutive audio or audiovisual programs; wherein the audio metadata includes first and second audio object gains, respectively for the first and second audio objects, generated at least in part based on a first fading curve of the first audio program or audiovisual program and a second fading curve of the second audio program or audiovisual program, respectively; applying the first and second audio object gains generated at least in part based on the first and second fading curves to the first and second audio objects, respectively; rendering a sound field represented by the first audio object with the applied first audio object gain and the second audio object with the applied second audio object gain.
An aircraft electric actuator drive apparatus (40, 50), comprising: 1.1 a plurality of electric actuators (41, 51) configured to be driven using electric power from a main power unit (21, 22) provided in an aircraft; 1.2 a flywheel battery (27, 27A) configured to temporarily supply electric power to the electric actuators (41, 51) while electric power from the main power unit (21, 22) is applied to the electric actuators (41, 51); 1.3 a flywheel battery control device (35, 35A) configured to control the flywheel battery (27, 27A), wherein 1.4 the flywheel battery control device (35, 35A) is configured to operate the flywheel battery (27, 27A) based on a total value of necessary electric power required for operations of the respective electric actuators (41, 51). 1.1 a plurality of electric actuators (41, 51) configured to be driven using electric power from a main power unit (21, 22) provided in an aircraft; 1.2 a flywheel battery (27, 27A) configured to temporarily supply electric power to the electric actuators (41, 51) while electric power from the main power unit (21, 22) is applied to the electric actuators (41, 51); 1.3 a flywheel battery control device (35, 35A) configured to control the flywheel battery (27, 27A), wherein 1.4 the flywheel battery control device (35, 35A) is configured to operate the flywheel battery (27, 27A) based on a total value of necessary electric power required for operations of the respective electric actuators (41, 51).
An aqueous antiperspirant composition having pH 2 to 5, comprising a phase wherein said phase comprises: (i) a water-soluble phosphate salt; and (ii) a water-soluble non-phosphate salt; wherein said water-soluble non-phosphate salt is the salt of a carboxylic acid, amino acid or a sulfonic acid; wherein said water-soluble non-phosphate salt is selected from calcium gluconate, calcium formate, calcium lactate, calcium propanoate, calcium acetate, calcium dobesilate, magnesium citrate, magnesium gluconate, magnesium acetate, magnesium lactate, magnesium malate, zinc citrate, zinc gluconate, copper acetate, copper gluconate, iron citrate, calcium glycinate, zinc glycinate, copper glycinate, zirconium chloride glycinate, lanthanum acetate and silver acetate; wherein said water-soluble phosphate salt is selected from monosodium phosphate, disodium phosphate, trisodium phosphate, monopotassium phosphate, dipotassium phosphate, tripotassium phosphate, monoammonium phosphate, diammonium phosphate, triammonium phosphate, lithium dihydrogen phosphate, dilithium hydrogen phosphate and lithium phosphate; wherein said composition is not an oral care composition; wherein the solubility of said salt in water is assessed at 25°C and 101.325 kPa (atmospheric pressure). (i) a water-soluble phosphate salt; and (ii) a water-soluble non-phosphate salt;
A throttle opening detecting apparatus for a saddle riding vehicle which includes a handle cover, a handle switch group (61, 62, 63), and a handlebar, and in which a throttle opening sensor fixed to the handlebar and detecting a displacement of a rotor in a sensor case is included in the handle cover, wherein at least one switch of the handle switch group (61, 62, 63) is disposed at a position facing the sensor case in the handle cover, the sensor case has a step portion formed on a side surface thereof on a side opposite to a throttle pipe rotated integrally with the rotor, the step portion is formed in an arcuate shape forming a space for arranging the handle switch group (61, 62, 63), and the step portion is disposed behind the throttle pipe, a set plate holding the handlebar is connected to the sensor case, the set plate includes two divided parts divided in a front-rear direction, that is, a front half body and a rear half body, the set plate has at a center thereof halved tubular portions (71c, 72c) between which the handlebar is fitted in, and, at opposite ends of the halved tubular portions (71c, 72c), upper portion and lower portion, which are plate portions (71a, 71b), to be connected to the sensor case, and the plate portions (71a, 71b) are disposed offset from each other in the front-rear direction with the handlebar interposed therebetween.
An isolated bacterial strain of the genus Lactobacillus or Bifidobacterium, isolated from the honey producing tract of at least one bee, wherein the honey producing tract of a bee consists of the trunk, mouth, esophagus and honey sac and wherein the strain has the ability to inhibit the growth of food spoilage and pathogenic microorganisms, wherein the bacterial strain is selected from the group consisting of: Lactobacillus strain Biut2 (LMG P-24094), Lactobacillus strain Hma2 (LMG P-24093), Lactobacillus strain Hma8 (LMG P-24092), Lactobacillus strain Bma5 (LMG P-24090), Lactobacillus strain Hon2 (LMG P-24091) said strains being deposited at BCCM/LMG Bacteria Collection in Belgium on 3 April 2007, Bifidobacterium strain Bin7 (LMG P-23986), Bifidobacterium strain Hma3 (LMG P-23983), Bifidobacterium strain Bin2 (LMG P-23984), Bifidobacterium strain Bma6 (LMG P-23985) and Lactobacillus kunkeei Fhon2 (LMG P-23987), said strains being deposited at BCCM/LMG Bacteria Collection in Belgium on 15 January 2007 and Hma11 (LMG P-24612) deposited at BCCM/LMG Bacteria Collection in Belgium on 28 April 2008.
Wireless, wearable ultrasound device for signalling a change in or determining a volume of a user's bladder using a phased array transducer for ultrasound beam steering comprising: an array of n*m transducer elements operating at a frequency of 20 kHz-50 MHz, transmission control electronics for beam steering of the array comprising at least one high-voltage pulse source, wherein sources are linked to a low-voltage timing circuit for timing of the at least one pulse sources, receiving control electronics simplified to limit energy consumption when processing received ultrasound, wherein less than 20%, of the n*m transducer elements are connected or connectable to the receiving control electronics, and an electrical power source in electrical connection with the array or an electrical connection for providing electrical power to the array. an array of n*m transducer elements operating at a frequency of 20 kHz-50 MHz, transmission control electronics for beam steering of the array comprising at least one high-voltage pulse source, wherein sources are linked to a low-voltage timing circuit for timing of the at least one pulse sources, receiving control electronics simplified to limit energy consumption when processing received ultrasound, wherein less than 20%, of the n*m transducer elements are connected or connectable to the receiving control electronics, and an electrical power source in electrical connection with the array or an electrical connection for providing electrical power to the array.
An electrically operated aerosol-generating system for receiving a liquid aerosol-forming substrate, the aerosol-generating system comprising: a liquid storage portion for holding a liquid aerosol-forming substrate; aerosol-generating means arranged to receive liquid aerosol-forming substrate from the liquid storage portion; one or more capillary wicks arranged to transfer liquid aerosol-forming substrate from the liquid storage portion to the aerosol-generating means; a tilt sensor arranged to sense the orientation of the liquid storage portion; and electric circuitry configured to monitor the orientation of the liquid storage portion as sensed by the tilt sensor and determine depletion of liquid aerosol-forming substrate based on the orientation of the liquid storage portion. a liquid storage portion for holding a liquid aerosol-forming substrate; aerosol-generating means arranged to receive liquid aerosol-forming substrate from the liquid storage portion; one or more capillary wicks arranged to transfer liquid aerosol-forming substrate from the liquid storage portion to the aerosol-generating means; a tilt sensor arranged to sense the orientation of the liquid storage portion; and electric circuitry configured to monitor the orientation of the liquid storage portion as sensed by the tilt sensor and determine depletion of liquid aerosol-forming substrate based on the orientation of the liquid storage portion.
A seat for a driver of a construction machine, in particular for a road roller, comprising a seat surface and a seat backrest which comprise a vertical central plane in longitudinal direction, and comprising at least one armrest attached in an adjustable basic position by means of an armrest support, wherein the armrest extends from the seat backrest next to the seat surface towards the front, wherein a seat console carries at least the seat surface and the seat backrest, and wherein the armrest support respectively comprises at least one first adjustable connection unit to the armrest and one second adjustable connection unit to the seat console. characterized in that the armrest is attached, in an adjustable fashion, to the armrest support via the first or second connection unit (12,14) for adjusting a basic setting with regard to a lateral pivoting angle relative to a parallel to the vertical central plane about a single first axis, preferably in the area of the end of the armrest facing the seat backrest.
A process for the preparation of a carrier system, wherein the carrier system comprises a pharmaceutically active agent and at least one glycerophospholipid, the process comprising the steps of: - providing a solvent stream comprising an organic solvent, the at least one glycerophospholipid and the pharmaceutically active agent, - providing an aqueous stream, and - mixing the solvent stream and the aqueous stream by frontal collision, whereby the carrier system is precipitated as nanoparticles, characterized in that the average particle size of the precipitated nanoparticles measured by dynamic light scattering at a temperature of 25 °C is 10 to 500 nm, the solvent stream contains 1 to 1000 mg/mL of the at least one glycerophospholipid and the hydrodynamic pressure in the aqueous stream is at least 1 bar. - providing a solvent stream comprising an organic solvent, the at least one glycerophospholipid and the pharmaceutically active agent, - providing an aqueous stream, and - mixing the solvent stream and the aqueous stream by frontal collision, whereby the carrier system is precipitated as nanoparticles,
Vaccine comprising live attenuated Pasteurella multocida bacteria for use in protection of a ruminant against pneumonia caused by P. multocida by administration of the vaccine to the upper respiratory tract of the ruminant via atomisation of the vaccine, characterised in that the administration takes place via intranasal atomisation and in that the P. multocida belong to serogroup A.
Ironing device having a steam generating base and an iron connected to the steam generating base, wherein the steam generating base comprises a reservoir and a support part disposed at an angle above the reservoir and on which the iron can be placed during inactive ironing phases, characterised in that the support part has a viewing opening providing visual access to the contents of the reservoir when the iron is removed from the support part.
A system comprising: a coating system configured to apply a thermal coating material to a component, the component having a plurality of cooling holes, wherein the plurality of cooling holes includes a plurality of distinct subsets (16A, 16B) of cooling holes located in a region of the component, wherein fluid flow through a first distinct subset of cooling holes will not flow through a second distinct subset of cooling holes; an airflow system coupled with the coating system, the airflow system configured to force air through the region of the component to selectively force air through one or more of the distinct subsets (16A, 16B) of cooling holes, wherein the airflow system comprises an air supply manifold including independent cooling channels selectively engagable via one or more actuators with distinct subsets (16A, 16B) of cooling holes; and a control system coupled with the airflow system and the coating system, the control system configured to: detect coating instructions for the coating system, and instruct the coating system to apply the thermal coating material to a subset (16A, 16B) of the plurality of cooling holes; and instruct the airflow system to force air through only the subset (16A, 16B) of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions. a coating system configured to apply a thermal coating material to a component, the component having a plurality of cooling holes, wherein the plurality of cooling holes includes a plurality of distinct subsets (16A, 16B) of cooling holes located in a region of the component, wherein fluid flow through a first distinct subset of cooling holes will not flow through a second distinct subset of cooling holes; an airflow system coupled with the coating system, the airflow system configured to force air through the region of the component to selectively force air through one or more of the distinct subsets (16A, 16B) of cooling holes, wherein the airflow system comprises an air supply manifold including independent cooling channels selectively engagable via one or more actuators with distinct subsets (16A, 16B) of cooling holes; and a control system coupled with the airflow system and the coating system, the control system configured to: detect coating instructions for the coating system, and instruct the coating system to apply the thermal coating material to a subset (16A, 16B) of the plurality of cooling holes; and instruct the airflow system to force air through only the subset (16A, 16B) of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions. detect coating instructions for the coating system, and instruct the coating system to apply the thermal coating material to a subset (16A, 16B) of the plurality of cooling holes; and instruct the airflow system to force air through only the subset (16A, 16B) of the plurality of cooling holes during application of the thermal coating material to the component in response to detecting the coating instructions.
A system for collecting information from a beverage preparation machine, comprising: the beverage preparation machine including, a capsule holder arranged to hold a capsule containing ingredients and use the capsule ingredients to form a beverage, a precursor liquid supply including components to supply a precursor liquid used to form the beverage with the capsule ingredients, an imaging device arranged to capture an image of a portion of the capsule in the capsule holder bearing indicia, and control circuitry arranged to control the imaging device to capture the image of the portion of the capsule in the capsule holder, and arranged to control components of the precursor liquid supply to form the beverage using the capsule in the capsule holder, the control circuitry including a beverage preparation machine data module arranged to send, for each beverage preparation operation, undecoded image data representing the image of the portion of the capsule bearing the indicia to a remote computer system via a network. a capsule holder arranged to hold a capsule containing ingredients and use the capsule ingredients to form a beverage, a precursor liquid supply including components to supply a precursor liquid used to form the beverage with the capsule ingredients, an imaging device arranged to capture an image of a portion of the capsule in the capsule holder bearing indicia, and control circuitry arranged to control the imaging device to capture the image of the portion of the capsule in the capsule holder, and arranged to control components of the precursor liquid supply to form the beverage using the capsule in the capsule holder, the control circuitry including a beverage preparation machine data module arranged to send, for each beverage preparation operation, undecoded image data representing the image of the portion of the capsule bearing the indicia to a remote computer system via a network.
A micro-electromechanical systems (MEMS) switch array comprising: a first substrate comprising at least an electrically conductive substrate region shared by at least some of the mems switch array, without via structures being disposed in the electrically conductive substrate of the first substrate; an electrical isolation layer disposed over a first surface of the first substrate; a plurality of movable actuators; at least one substrate contact electrically coupled to at least one of the plurality of movable actuators and said at least electrically conductive region of the first substrate so that a flow of electrical current being switched is established during an electrically-closed condition of the MEMS switch array, wherein said at least electrically conductive region of the first substrate defines an electrically conductive path for the flow of electrical current. a first substrate comprising at least an electrically conductive substrate region shared by at least some of the mems switch array, without via structures being disposed in the electrically conductive substrate of the first substrate; an electrical isolation layer disposed over a first surface of the first substrate; a plurality of movable actuators; at least one substrate contact electrically coupled to at least one of the plurality of movable actuators and said at least electrically conductive region of the first substrate so that a flow of electrical current being switched is established during an electrically-closed condition of the MEMS switch array, wherein said at least electrically conductive region of the first substrate defines an electrically conductive path for the flow of electrical current.