mhurhangee/ep-ind-claims huggingface dataset:
A connector system comprising: a receptacle connector comprising a receptacle housing having a front and a rear opposite the front, the front having a front opening, the receptacle housing having a top and a bottom, the receptacle housing having a cavity accessible through the front opening, the receptacle connector having a receptacle connector platform below the cavity supporting receptacle contacts, the receptacle connector platform being angled relative to the front and being angled relative to the top; and a first plug connector received in the cavity through the front opening, the first plug connector having a plug housing holding plug conductors, the plug housing having a top and a bottom, the plug housing having a mating end and a cable end with a cable extending from the cable end, the plug housing having a plug connector platform at the bottom having a mating interface with the plug conductors exposed at the mating interface, the plug connector platform being angled at a complementary angle to the receptacle connector platform for mating the plug conductors with the receptacle contacts, characterised by the receptacle housing top having a top opening open to the front opening, and by the cavity being accessible through the top opening, whereby the top opening provides access to the cavity for cleaning components of the receptacle connector for removing contaminants and debris from the cavity. a receptacle connector comprising a receptacle housing having a front and a rear opposite the front, the front having a front opening, the receptacle housing having a top and a bottom, the receptacle housing having a cavity accessible through the front opening, the receptacle connector having a receptacle connector platform below the cavity supporting receptacle contacts, the receptacle connector platform being angled relative to the front and being angled relative to the top; and a first plug connector received in the cavity through the front opening, the first plug connector having a plug housing holding plug conductors, the plug housing having a top and a bottom, the plug housing having a mating end and a cable end with a cable extending from the cable end, the plug housing having a plug connector platform at the bottom having a mating interface with the plug conductors exposed at the mating interface, the plug connector platform being angled at a complementary angle to the receptacle connector platform for mating the plug conductors with the receptacle contacts, characterised by the receptacle housing top having a top opening open to the front opening, and by the cavity being accessible through the top opening, whereby the top opening provides access to the cavity for cleaning components of the receptacle connector for removing contaminants and debris from the cavity.
A method of producing a structure for producing a casting, the method comprising: a process of obtaining a slurry composition containing an organic fiber, an inorganic fiber, a thermosetting resin, and water; a process of obtaining a fiber laminate by subjecting the slurry composition to papermaking; and a process of dehydrating the fiber laminate and thereafter drying and molding the resultant fiber laminate to form the structure, wherein the process includes: a process (I-1) of beating a mixture containing the organic fiber and water, a process (I-2) of mixing the mixture obtained in the process (I-1) and water, and a process (I-3) of mixing the mixture obtained in the process (I-2) and the inorganic fiber, the thermosetting resin is mixed in at least any of the process (I-1), the process (I-2), and the process (I-3), and an average fiber length of the inorganic fiber in the structure for producing a casting is 1 mm or longer and 5 mm or shorter. a process of obtaining a slurry composition containing an organic fiber, an inorganic fiber, a thermosetting resin, and water; a process of obtaining a fiber laminate by subjecting the slurry composition to papermaking; and a process of dehydrating the fiber laminate and thereafter drying and molding the resultant fiber laminate to form the structure, wherein the process includes: a process (I-1) of beating a mixture containing the organic fiber and water, a process (I-2) of mixing the mixture obtained in the process (I-1) and water, and a process (I-3) of mixing the mixture obtained in the process (I-2) and the inorganic fiber, a process (I-1) of beating a mixture containing the organic fiber and water, a process (I-2) of mixing the mixture obtained in the process (I-1) and water, and a process (I-3) of mixing the mixture obtained in the process (I-2) and the inorganic fiber, the thermosetting resin is mixed in at least any of the process (I-1), the process (I-2), and the process (I-3), and an average fiber length of the inorganic fiber in the structure for producing a casting is 1 mm or longer and 5 mm or shorter.
An apparatus for separating water from a water-and-oil mixture, comprising: a first and a second elongated separator inclined vessel, each of the first and second elongated separator inclined vessels (130, 132) having an oil collection portion including an electrode (16, 60) at one end thereof and a water collection portion at the opposite end thereof, the water collection portion including a water level control configured to maintain the water at a selected level; the first elongated separator vessel having an inlet being located between the electrode and the water level control thereof and an oil outlet located adjacent the electrode thereof, the inlet arranged to provide a first predetermined direction of flow within the elongated separator vessel of a water-and-oil mixture entering the first elongated separator vessel; the second elongated separator vessel having an inlet located adjacent the electrode thereof and an oil outlet located between the electrode and the water level control thereof, the inlet arranged to provide a second predetermined direction of flow of a water-and-oil mixture entering the second elongated separator vessel from the outlet of the first elongated separator vessel, the second predetermined direction being opposite to the first predetermined direction; wherein the electrodes (16, 60) are arranged to subject the water-and-oil mixture entering each said first and second elongated separator vessels (130, 132) to an electric field. a first and a second elongated separator inclined vessel, each of the first and second elongated separator inclined vessels (130, 132) having an oil collection portion including an electrode (16, 60) at one end thereof and a water collection portion at the opposite end thereof, the water collection portion including a water level control configured to maintain the water at a selected level; the first elongated separator vessel having an inlet being located between the electrode and the water level control thereof and an oil outlet located adjacent the electrode thereof, the inlet arranged to provide a first predetermined direction of flow within the elongated separator vessel of a water-and-oil mixture entering the first elongated separator vessel; the second elongated separator vessel having an inlet located adjacent the electrode thereof and an oil outlet located between the electrode and the water level control thereof, the inlet arranged to provide a second predetermined direction of flow of a water-and-oil mixture entering the second elongated separator vessel from the outlet of the first elongated separator vessel, the second predetermined direction being opposite to the first predetermined direction; wherein the electrodes (16, 60) are arranged to subject the water-and-oil mixture entering each said first and second elongated separator vessels (130, 132) to an electric field.
A polymer composition comprising A) a poly(arylether ketone) and B) 0.1 to 70 wt.%, based on the combined weight of A) and B), of at least one non-tubular graphene material. A) a poly(arylether ketone) and B) 0.1 to 70 wt.%, based on the combined weight of A) and B), of at least one non-tubular graphene material.
Method for heating a fuel cell system, in particular a component and/or a region of the fuel cell system, using at least one electrical heating element, wherein a heating element composed of a ferrite material or a ferrite mixture is used and an upper temperature limit of at most 90°C, preferably of at most 80°C, further preferably of at most 70°C, is set by means of the Curie temperature of the ferrite material or the ferrite mixture, wherein eddy currents are inductively coupled into the heating element with the aid of a magnet coil arranged on the heating element, characterized in that the magnet coil is interconnected with a rotating field-driven component of the fuel cell system. eddy currents are inductively coupled into the heating element with the aid of a magnet coil arranged on the heating element, characterized in that the magnet coil is interconnected with a rotating field-driven component of the fuel cell system.
Installed fire extinguishing equipment with improved characteristics which has a pressure-resistant storage body with an internal space serving for accommodating a fire extinguishing material composition, furthermore, a monitoring unit connected to the storage body serving for measuring and regulating one or more physical characteristics, at least one discharge outlet also connected to the internal space of the storage body and suitable for discharging the fire-extinguishing material composition from the internal space of the storage body to the use location, and a charging inlet serving for filling the internal space of the storage body with the fire-extinguishing material component or composition, and an extinguishing-launching part-unit is inserted into the pipe section between the use location and the discharge outlet, whereby the storage body is coupled with a pressure-proof circulation unit, which is designed for at least the working pressure of the storage body, where the circulation unit has a feed stub, return stub and a circulation pipe located between these two, and a circulation pump, the feed stub of the circulation unit is connected to the charging inlet of the storage body, or is independently connected to the internal space of the storage body, and the return stub of the circulation unit is connected to the circulation outlet of the storage body, characterised in that a gas inlet fitting is installed in the circulation pipe, a gas tank containing at least the gas phase component of the fire extinguishing material composition is connected to the gas inlet fitting, while the storage body is supplemented with a circulation outlet for returning the fire extinguishing material composition stored in the internal space of the storage body into the circulation unit.
A process for the preparation of a catalyst composition comprising the steps of: A) preparing a salt of boric acid or phosphoric acid and a bivalent or trivalent metal and B) mixing the salt obtained by step A) with a crystalline aluminosilicate zeolite of the faujasite structure with SiO 2 /Al 2 O 3 mole ratio in the range of 2 to 8 and including potassium, rubidium or cesium cations or combinations thereof, wherein step A) comprises the sub-steps of A1) mixing a borate or a phosphate of an alkali metal and a water soluble salt of the bivalent or trivalent metal to obtain a suspension, A2) adding an alkaline solution to the suspension obtained by sub-step A1) to obtain a solution having a pH of 8.5-11.5 and A3) mixing the solution obtained by sub-step A2) to obtain the salt. A) preparing a salt of boric acid or phosphoric acid and a bivalent or trivalent metal and B) mixing the salt obtained by step A) with a crystalline aluminosilicate zeolite of the faujasite structure with SiO 2 /Al 2 O 3 mole ratio in the range of 2 to 8 and including potassium, rubidium or cesium cations or combinations thereof, A1) mixing a borate or a phosphate of an alkali metal and a water soluble salt of the bivalent or trivalent metal to obtain a suspension, A2) adding an alkaline solution to the suspension obtained by sub-step A1) to obtain a solution having a pH of 8.5-11.5 and A3) mixing the solution obtained by sub-step A2) to obtain the salt.
An extrusion and blow molding machine with control device, comprising an extrusion head adapted to form a parison at a mold which has a mold cavity wherein the part is formed by means of air suction and insufflation; said machine being characterized in that it comprises a video control device that is configured to check the proper insertion of said parison in said mold cavity.
An additive manufacturing system for making dental restorations, comprising a resin vat forming a light permeable base, a build carrier for holding a workpiece built up by the system and a light source which is arranged to emit light through the light permeable base toward a region between the light permeable base and the build carrier, the light permeable base and the build carrier being positionable relative to each other in a build dimension in which the workpiece is built up, wherein the system further comprises at least one resin supply (13, 14) for supplying different light hardenable resins in direct contact with each other in said vat, wherein the system comprises a plurality of resin supplies (13, 14) for supplying different light hardenable resins, and wherein the system is set up to build up a dental restoration by performing the following steps: (a) using the at least one of the resin supplies (13, 14) to provide a portion of a light hardenable resin in the resin vat; (b) positioning the build carrier and the light permeable base at a predetermined distance relative to each other; (c) emitting light by the light source toward the region between the light permeable base and the build carrier for hardening the hardenable resin in said region; (d) successively repeating steps (a) to (c); whereby during building up the dental restoration step (a) is performed at least a first time for supplying a first light hardenable resin in the resin vat and a second time for supplying a different second light hardenable resin in the resin vat, and wherein the first and second light hardenable resin have different colors. (a) using the at least one of the resin supplies (13, 14) to provide a portion of a light hardenable resin in the resin vat; (b) positioning the build carrier and the light permeable base at a predetermined distance relative to each other; (c) emitting light by the light source toward the region between the light permeable base and the build carrier for hardening the hardenable resin in said region; (d) successively repeating steps (a) to (c);
A heat-resistant ultrasonic sensor comprising: a flexible metal plate; a piezo-electric ceramics portion attached on said metal plate and having a thickness of 0.5 mm or smaller and a Curie point of 200°C or higher; and an electrode member disposed on said piezo-electric ceramics portion and connected to said piezo-electric ceramics portion; characterized by a metal wire mesh attached to a top surface of said electrode member using a junction material such as metal paste which enters between the metal wire mesh, and covering said top surface of said electrode member; a cable whose core is connected to said metal wire mesh; and an electric insulating cover attached to said metal plate and covering said piezo-electric ceramics portion, said electrode member, said metal wire mesh and a part of said cable. a flexible metal plate; a piezo-electric ceramics portion attached on said metal plate and having a thickness of 0.5 mm or smaller and a Curie point of 200°C or higher; and an electrode member disposed on said piezo-electric ceramics portion and connected to said piezo-electric ceramics portion; characterized by a metal wire mesh attached to a top surface of said electrode member using a junction material such as metal paste which enters between the metal wire mesh, and covering said top surface of said electrode member; a cable whose core is connected to said metal wire mesh; and an electric insulating cover attached to said metal plate and covering said piezo-electric ceramics portion, said electrode member, said metal wire mesh and a part of said cable.
A high velocity oxygen fuel (HVOF) or high velocity air fuel (HVAF) thermal spray apparatus to apply coatings to external and internal surfaces, said apparatus comprising: a. a fuel input line; b. an oxidizing gas input line (28, 29); c. coolant input and outlet (30, 34); d. a combustion chamber for primary combustion of the fuel; e. a nozzle comprising a feedstock injection zone and a nozzle throat downstream of said injection zone; f. a divergence section upstream of said nozzle that splits the primary combustion flow into two or more combustion streams; g. an elbow section downstream of said divergence section which redirects the diverged combustion streams (38, 40) by an angle greater than 30 degrees relative to the longitudinal axis of said combustion chamber; h. a convergence section downstream of said elbow section that recombines the diverged combustion streams into a single combustion stream within said injection zone of said nozzle; and i. a feedstock injector for the injection of feedstock material for forming said coatings into said injection zone of said nozzle. a. a fuel input line; b. an oxidizing gas input line (28, 29); c. coolant input and outlet (30, 34); d. a combustion chamber for primary combustion of the fuel; e. a nozzle comprising a feedstock injection zone and a nozzle throat downstream of said injection zone; f. a divergence section upstream of said nozzle that splits the primary combustion flow into two or more combustion streams; g. an elbow section downstream of said divergence section which redirects the diverged combustion streams (38, 40) by an angle greater than 30 degrees relative to the longitudinal axis of said combustion chamber; h. a convergence section downstream of said elbow section that recombines the diverged combustion streams into a single combustion stream within said injection zone of said nozzle; and i. a feedstock injector for the injection of feedstock material for forming said coatings into said injection zone of said nozzle.
A liquid or semisolid emulsion seasoning comprising: fine food particles of a vegetable, a grain, a potato, a mushroom, a pulse or a nut/seed wherein the fine food particles comprise dietary fibers; a fat/oil; an organic acid; and a food-derived emulsifier, wherein the dietary fibers include a water-soluble dietary fiber and a water-insoluble dietary fiber, and a total amount thereof is 0.8% by mass or more and 23% by mass or less; the fine food particles have a modal diameter of 0.3 μm or more and 115 μm or less; a water content is 20% by mass or more; and the content ratio of the water-soluble dietary fiber to the water-insoluble dietary fiber, (A1/A2), is 0.1 or more and 4 or less. the dietary fibers include a water-soluble dietary fiber and a water-insoluble dietary fiber, and a total amount thereof is 0.8% by mass or more and 23% by mass or less; the fine food particles have a modal diameter of 0.3 μm or more and 115 μm or less; a water content is 20% by mass or more; and the content ratio of the water-soluble dietary fiber to the water-insoluble dietary fiber, (A1/A2), is 0.1 or more and 4 or less.
A redox flow battery (1000, 1100, 2000, 2100) comprising: a first electrode; a second electrode; a separator separating the first electrode and the second electrode; a first active material; a first electrolytic solution containing a first redox species; and a first circulation mechanism, wherein the first active material is insoluble in the first electrolytic solution; the first circulation mechanism circulates the first electrolytic solution between the first electrode and the first active material; the first redox species performs oxidation and reduction at the first electrode; the first redox species is oxidized and reduced by the first active material; the first circulation mechanism includes a first electrolytic solution container and a first permeation preventing unit; the first active material is contained in the first electrolytic solution container; the first electrolytic solution is brought into contact with the first active material in the first electrolytic solution container to oxidize and reduce the first redox species by the first active material; the first permeation preventing unit is disposed adjacent an outlet for the first electrolytic solution of the first electrolytic solution container; and the first permeation preventing unit prevents permeation of the first active material. a first electrode; a second electrode; a separator separating the first electrode and the second electrode; a first active material; a first electrolytic solution containing a first redox species; and a first circulation mechanism, wherein the first active material is insoluble in the first electrolytic solution; the first circulation mechanism circulates the first electrolytic solution between the first electrode and the first active material; the first redox species performs oxidation and reduction at the first electrode; the first redox species is oxidized and reduced by the first active material; the first circulation mechanism includes a first electrolytic solution container and a first permeation preventing unit; the first active material is contained in the first electrolytic solution container; the first electrolytic solution is brought into contact with the first active material in the first electrolytic solution container to oxidize and reduce the first redox species by the first active material; the first permeation preventing unit is disposed adjacent an outlet for the first electrolytic solution of the first electrolytic solution container; and the first permeation preventing unit prevents permeation of the first active material.
A method of wireless communication performed by a user equipment, UE, comprising receiving carrier information identifying a frequency offset from a reference frequency; identifying a subcarrier spacing supported by the UE; identifying the reference frequency based at least in part on a synchronization signal block or a physical broadcast channel, PBCH, received by the UE; wherein the reference frequency is located a particular distance from an edge of a carrier, and wherein the particular distance is wider than a maximum supported channel bandwidth of the UE; and determining a configuration of the carrier based at least in part on the subcarrier spacing supported by the UE, the reference frequency, and the frequency offset, wherein determining the configuration of the carrier further comprises determining, based at least in part on the reference frequency, at least one of: a pseudo-noise sequence for the carrier, a resource block group for the carrier, a precoder resource block granularity for the carrier, or a location of a sounding reference signal for the carrier. receiving carrier information identifying a frequency offset from a reference frequency; identifying a subcarrier spacing supported by the UE; identifying the reference frequency based at least in part on a synchronization signal block or a physical broadcast channel, PBCH, received by the UE; wherein the reference frequency is located a particular distance from an edge of a carrier, and wherein the particular distance is wider than a maximum supported channel bandwidth of the UE; and determining a configuration of the carrier based at least in part on the subcarrier spacing supported by the UE, the reference frequency, and the frequency offset, wherein determining the configuration of the carrier further comprises determining, based at least in part on the reference frequency, at least one of: a pseudo-noise sequence for the carrier, a resource block group for the carrier, a precoder resource block granularity for the carrier, or a location of a sounding reference signal for the carrier. a pseudo-noise sequence for the carrier, a resource block group for the carrier, a precoder resource block granularity for the carrier, or a location of a sounding reference signal for the carrier.