mhurhangee/ep-ind-claims huggingface dataset:
A dental imager for imaging an intraoral cavity, comprising: an elongated handle having a proximal end and a distal end; a head (22, 88, 98) at the distal end of the elongated handle and having a size and shape for select insertion into the intraoral cavity; a pair of lateral scanning arms (104, 104') coupled to the head (22, 88, 98) of the elongated handle, each including a scanner (40, 40', 42, 42', 110, 110') associated therewith for imaging at least a portion of the intraoral cavity; and a guide (36, 36', 94, 94', 102, 102', 112, 112') having a size and shape for substantial continuous engagement with the intraoral cavity while simultaneously substantially biasing the scanner (40, 40', 42, 42', 110, 110') at a relatively consistent distance from the intraoral cavity; characterized in that the dental imager includes a front pad and a rear pad mounted to the head; and the lateral scanning arms (104, 104') are static, being coupled immovably to the head (22, 88, 98) of the elongated handle. an elongated handle having a proximal end and a distal end; a head (22, 88, 98) at the distal end of the elongated handle and having a size and shape for select insertion into the intraoral cavity; a pair of lateral scanning arms (104, 104') coupled to the head (22, 88, 98) of the elongated handle, each including a scanner (40, 40', 42, 42', 110, 110') associated therewith for imaging at least a portion of the intraoral cavity; and a guide (36, 36', 94, 94', 102, 102', 112, 112') having a size and shape for substantial continuous engagement with the intraoral cavity while simultaneously substantially biasing the scanner (40, 40', 42, 42', 110, 110') at a relatively consistent distance from the intraoral cavity;
2-(4-[2-(1[2-(4-Chlorophenyl)-1,3-thiazol-4-yl]methyl}sulphanyl)-3,5-dicyano-6-(pyrrolidin-1-yl)pyridin-4-yl]phenoxy}ethyl-L-alanyl L-alaninate monohydrochloride of the formula in crystalline form of modification I characterized in that the X-ray diffractogram of the compound has peak maxima of the 2 theta angle at 6.5, 8.7 and 24.3, measured using copper K alpha1 radiation (1.54060 Å).
A data receiving method, applied to an object storage system, wherein the method comprises: receiving a simple storage service S3 request from a client, wherein the S3 request is used to request to upload a large object, and the large object comprises a plurality of small objects, and each of the small objects is an object whose amount of data is less than or equal to a data amount threshold, sending a response message for the S3 request to the client, wherein the response message is used to indicate to start to upload the large object; and receiving the large object from the client; storing the plurality of small objects to a persistence layer of the object storage system, wherein storage spaces of the plurality of small objects are consecutive storage spaces; and storing metadata corresponding to each small object in the plurality of small objects to an index layer of the object storage system, wherein the metadata is used to indicate a generation time point or an upload time point of the small object, scanning metadata of the plurality of small objects, and determining generation time points or upload time points of the plurality of small objects, and deleting a first small object when a generation time point or an upload time point of the first small object in the plurality of small objects falls within an expiration time range. receiving a simple storage service S3 request from a client, wherein the S3 request is used to request to upload a large object, and the large object comprises a plurality of small objects, and each of the small objects is an object whose amount of data is less than or equal to a data amount threshold, sending a response message for the S3 request to the client, wherein the response message is used to indicate to start to upload the large object; and receiving the large object from the client; storing the plurality of small objects to a persistence layer of the object storage system, wherein storage spaces of the plurality of small objects are consecutive storage spaces; and storing metadata corresponding to each small object in the plurality of small objects to an index layer of the object storage system, wherein the metadata is used to indicate a generation time point or an upload time point of the small object, scanning metadata of the plurality of small objects, and determining generation time points or upload time points of the plurality of small objects, and deleting a first small object when a generation time point or an upload time point of the first small object in the plurality of small objects falls within an expiration time range.
A dryer sheet comprising a non-woven fabric, which is a blended long-fiber non-woven fabric comprising 70 wt% or more and 90 wt% or less of a first polyester filament having a melting point of 250 °C or higher and 10 wt% or more and 30 wt% or less of a second polyester filament having a melting point of 235 °C or lower, wherein the first filament has a deformed cross section with a degree of deformity (diameter of circumscribed circle/diameter of inscribed circle) of 2.5 or more and 3.0 or less, and a fineness of 5.56 dtex (5 denier) or more and 11.11 dtex (10 denier) or less, wherein the fineness is measured using a ASTM D1577 method, and wherein the degree of deformity is calculated according to the following equation: degree of deformity = diameter of circumscribed circle/diameter of inscribed circle, after photographing a deformed cross-sectional structure of the filament using an optical microscope, wherein the diameters of the circumscribed circle and the inscribed circle are measured using an image analysis software for the deformed cross-sectional structure of the filament photographed using the optical microscope. wherein the first filament has a deformed cross section with a degree of deformity (diameter of circumscribed circle/diameter of inscribed circle) of 2.5 or more and 3.0 or less, and a fineness of 5.56 dtex (5 denier) or more and 11.11 dtex (10 denier) or less, wherein the fineness is measured using a ASTM D1577 method, and wherein the degree of deformity is calculated according to the following equation: degree of deformity = diameter of circumscribed circle/diameter of inscribed circle, after photographing a deformed cross-sectional structure of the filament using an optical microscope, wherein the diameters of the circumscribed circle and the inscribed circle are measured using an image analysis software for the deformed cross-sectional structure of the filament photographed using the optical microscope.
A method of making a customized dental blank comprising the steps of: providing individual tooth color information associated with one or more teeth of a patient; forming an open-celled dental blank precursor from particles by an automated build-up technique; providing the open-celled dental blank precursor with color in accordance with the individual tooth color information, wherein the particles are provided with different colors in accordance with the individual tooth color information; providing individual dental restoration shape information associated with the patient; providing the dental blank precursor with a shape that is independent from the dental restoration shape; compressing the dental blank precursor to provide the dental blank; successively providing layers of particles, whereby at least one colored liquid is dispensed on selected layers before a subsequent layer is provided. providing individual tooth color information associated with one or more teeth of a patient; forming an open-celled dental blank precursor from particles by an automated build-up technique; providing the open-celled dental blank precursor with color in accordance with the individual tooth color information, wherein the particles are provided with different colors in accordance with the individual tooth color information; providing individual dental restoration shape information associated with the patient; providing the dental blank precursor with a shape that is independent from the dental restoration shape; individual tooth color information, wherein the particles are provided with different colors in accordance with the individual tooth color information; providing individual dental restoration shape information associated with the patient; providing the dental blank precursor with a shape that is independent from the dental restoration shape; compressing the dental blank precursor to provide the dental blank; successively providing layers of particles, whereby at least one colored liquid is dispensed on selected layers before a subsequent layer is provided.
A stave protection system for a metallurgical furnace, comprising: a stave comprising a front face having an X direction and a Y direction which is perpendicular to the X direction such as to define an X-Y plane, the front face comprising rows of grooves which extend in the X direction; and inserts which are slidingly received by the grooves, the inserts so received by each respective groove being spaced apart from each other along the groove, the centres of the inserts which are received by one of the grooves being offset in each of the X and Y directions from the centres of the inserts which are received by an adjacent groove, each of the inserts projecting from the front face of the stave and comprising flow guiding surfaces (102c1-6) which are inclined with respect to each of the X and Y directions in the X-Y plane, such that in use the offsets of the inserts in each of the X and Y directions and the inclined flow guiding surfaces (102c1-6) cause a flow of furnace burden material, under gravity, to flow in a direction having a component in each of the X and Y directions, so as to distribute the burden material between the inserts over the front face of the stave and/or trap the burden material between the inserts. a stave comprising a front face having an X direction and a Y direction which is perpendicular to the X direction such as to define an X-Y plane, the front face comprising rows of grooves which extend in the X direction; and inserts which are slidingly received by the grooves, the inserts so received by each respective groove being spaced apart from each other along the groove, the centres of the inserts which are received by one of the grooves being offset in each of the X and Y directions from the centres of the inserts which are received by an adjacent groove, each of the inserts projecting from the front face of the stave and comprising flow guiding surfaces (102c1-6) which are inclined with respect to each of the X and Y directions in the X-Y plane, such that in use the offsets of the inserts in each of the X and Y directions and the inclined flow guiding surfaces (102c1-6) cause a flow of furnace burden material, under gravity, to flow in a direction having a component in each of the X and Y directions, so as to distribute the burden material between the inserts over the front face of the stave and/or trap the burden material between the inserts.
A self-contained breathing apparatus incorporating an adjustable buoyancy system, configured for use with breathing gas while a user is submerged in a fluid, comprising: a vessel comprising an outer shell defining an interior volume; a dynamic partitioning element mounted within the interior volume separating the interior volume into a breathing gas portion configured to contain high pressure air and to supply breathing gas to the user, and a fluid portion; a fluid pressurization element in fluid communication with the fluid portion of the vessel and having an inlet (not numbered, showing under 504) configured to accept fluid, configured to communicate fluid from the inlet into the fluid portion. a vessel comprising an outer shell defining an interior volume; a dynamic partitioning element mounted within the interior volume separating the interior volume into a breathing gas portion configured to contain high pressure air and to supply breathing gas to the user, and a fluid portion; a fluid pressurization element in fluid communication with the fluid portion of the vessel and having an inlet (not numbered, showing under 504) configured to accept fluid, configured to communicate fluid from the inlet into the fluid portion.
Spring or damping element between an unsprung mass and a sprung mass of a rail vehicle, having a carrier plate and having a threaded element for the screw connection of the spring or damping element, which is fastened to the carrier plate, to rail vehicles, wherein the spring or damping element is equipped with a rubber spring or rubber-metal spring vulcanized on on one side of a carrier plate, wherein the carrier plate is equipped with a bore through which the thread extends through the threaded element, in the form of a standardized screw with screw head and external thread, such that the screw head bears against the carrier plate on the side of the vulcanized-on rubber spring and is covered and surrounded by the rubber spring, characterized in that the carrier plate has, in the region of the bore, an elevated embossment (6, 7) which projects toward the screw head and which bears in form-fitting fashion against parts of the outer circumference of the screw head.
A temperature detection circuit comprising: a plurality of thermostats (2, 4, 6, 30, 32, 34) configured to change a level of signals to output, upon detecting an anomaly in temperature; a microprocessor (8, 36) configured to receive signals from the thermostats (2, 4, 6, 30, 32, 34); a plurality of circuits that connects between the thermostats (2, 4, 6, 30, 32, 34) and the microprocessor (8, 36); a connection point (26, 28, 60, 62) at which the circuits connect to each other; resistors (20, 22, 24, 46, 48, 50) in respective circuits that connect between the connection point (26, 28, 60, 62) and the thermostats (2, 4, 6, 30, 32, 34); and voltage detection terminals (10, 12, 14, 16, 38, 40, 42, 44) included respectively in circuits that connect between the resistors (20, 22, 24, 46, 48, 50) and the thermostats (2, 4, 6, 30, 32, 34), a circuit that connects between the connection point (26, 28, 60, 62) and at least one of the resistors, and a circuit that connects between the connection point and the microprocessor (8, 36). a plurality of thermostats (2, 4, 6, 30, 32, 34) configured to change a level of signals to output, upon detecting an anomaly in temperature; a microprocessor (8, 36) configured to receive signals from the thermostats (2, 4, 6, 30, 32, 34); a plurality of circuits that connects between the thermostats (2, 4, 6, 30, 32, 34) and the microprocessor (8, 36); a connection point (26, 28, 60, 62) at which the circuits connect to each other; resistors (20, 22, 24, 46, 48, 50) in respective circuits that connect between the connection point (26, 28, 60, 62) and the thermostats (2, 4, 6, 30, 32, 34); and voltage detection terminals (10, 12, 14, 16, 38, 40, 42, 44) included respectively in circuits that connect between the resistors (20, 22, 24, 46, 48, 50) and the thermostats (2, 4, 6, 30, 32, 34), a circuit that connects between the connection point (26, 28, 60, 62) and at least one of the resistors, and a circuit that connects between the connection point and the microprocessor (8, 36).
A production method of a multiple pane which includes a first glass panel and a second glass panel, the production method comprising: an application step of applying a solution containing material of an adsorbing member mixed with a solvent, the material being made of a powder of an ion-exchanged zeolite for adsorbing a gas inside a hermetically-enclosed space to be formed between the first glass panel and the second glass panel, on a glass surface of the first glass panel at a position within 15 mm of an edge of the first glass panel and along the entire length of the hermetically-bonding member or along a part of the hermetically-bonding member; a fixing step of fixing the adsorbing member to the glass surface of the first glass panel by drying the solvent of the applied solution; a hermetically-bonding step of hermetically-bonding the peripheries of the first glass panel and the second glass panel to form the hermetically-enclosed space between the first glass panel and the second glass panel; a pressure-reduction step of reducing a pressure inside the hermetically-enclosed space by evacuating a gas inside the hermetically-enclosed space through an outlet; and an activating step of heating the adsorbing member on the first glass panel to cause discharging of a gas adsorbed on the adsorbing member while the hermetically-enclosed space is evacuated. an application step of applying a solution containing material of an adsorbing member mixed with a solvent, the material being made of a powder of an ion-exchanged zeolite for adsorbing a gas inside a hermetically-enclosed space to be formed between the first glass panel and the second glass panel, on a glass surface of the first glass panel at a position within 15 mm of an edge of the first glass panel and along the entire length of the hermetically-bonding member or along a part of the hermetically-bonding member; a fixing step of fixing the adsorbing member to the glass surface of the first glass panel by drying the solvent of the applied solution; a hermetically-bonding step of hermetically-bonding the peripheries of the first glass panel and the second glass panel to form the hermetically-enclosed space between the first glass panel and the second glass panel; a pressure-reduction step of reducing a pressure inside the hermetically-enclosed space by evacuating a gas inside the hermetically-enclosed space through an outlet; and an activating step of heating the adsorbing member on the first glass panel to cause discharging of a gas adsorbed on the adsorbing member while the hermetically-enclosed space is evacuated.
An engine-driven tool comprising a rotatable work tool and an engine that is arranged to propel a first driving pulley via a clutch wheel comprised in a power transferring unit, where the first driving pulley and the clutch wheel are arranged to rotate around a common driving axis, and where the clutch wheel has an outer edge that is farthest from the driving pulley along the common driving axis, where furthermore the power transferring unit comprises an endless drive belt that is arranged to at least indirectly propel the rotatable work tool when the first driving pulley is propelled, where the engine-driven tool further comprises a shielding cover that is arranged to shield a part of the rotatable work tool, and a dust channel that is formed between the shielding cover and the rotatable work tool, which dust channel at least indirectly is connected to a fan arrangement that is arranged to convey air from the dust channel and comprises a fan turbine that is connected to a fan pulley comprised in the power transferring unit, where the drive belt is arranged to propel the fan pulley, characterized in that a first overlap line extends along the outer edge of the clutch wheel, perpendicular to the extension of the common driving axis, the first overlap line further extending via the fan turbine.
Apparatus for generating steam, the apparatus comprising an evaporation surface, a heater disposed adjacent to the evaporation surface to heat the evaporation surface, a water inlet positioned relative to the evaporation surface so that water is fed onto the evaporation surface from the water inlet and forms a film on the evaporation surface, wherein the heating of the evaporation surface is for evaporating said film from said evaporation surface, and a scale collection region positioned such that, during use of the apparatus, scale dislodged from the evaporation surface falls away from said evaporation surface into said scale collection region, characterized in that the apparatus comprises a controller which is configured to control the flow of water through the water inlet and onto the evaporation surface in dependence on the temperature of the evaporation surface so that substantially all the water fed onto the evaporation surface is evaporated from said evaporation surface without flowing from the evaporation surface into the scale collection region.
Fibers comprising standard fibers and one or more identification fibers, wherein the standard fibers comprise cellulose acetate, wherein the identification fibers comprise one or more branded fibers, wherein the branded fibers exhibit distinct features comprising one or more taggant surface markings, wherein the taggant surface markings form a repeated pattern along a length of the branded fibers, wherein the length of the repeated pattern ranges from 5 mm to 200 mm, and wherein the repeated pattern is representative of at least one supply chain component of the fibers or the standard fibers; and wherein the branded fibers are essentially insoluble in acetone or methylene chloride.
A replication-defective, dominant-negative Herpes simplex virus 2 (HSV-2) recombinant virus, comprising within its genome: a) a first sequence encoding a first HSV-2 glycoprotein D, wherein said sequence is operably linked to a first tet-O-containing HSV-1 ICP4 promoter; b) a second sequence encoding a second HSV-2 gD2, wherein said second sequence is operably linked to a second tet-O-containing HSV-1 ICP4 promoter; c) a third sequence encoding a first UL9 C535C protein (SEQ ID NO:2), wherein said third sequence is operably linked to a first tet-O-containing hCMV immediate early promoter with a truncation at the -236bp of the full length promoter; and d) a fourth sequence encoding a second UL9 C535C protein (SEQ. ID NO:2) wherein said fourth sequence is operably linked to a second tet-O-containing hCMV immediate early promoter with a truncation at the -236 bp of the full length promoter; and wherein said genome does not comprise a sequence encoding a functional ICP0 protein. a) a first sequence encoding a first HSV-2 glycoprotein D, wherein said sequence is operably linked to a first tet-O-containing HSV-1 ICP4 promoter; b) a second sequence encoding a second HSV-2 gD2, wherein said second sequence is operably linked to a second tet-O-containing HSV-1 ICP4 promoter; c) a third sequence encoding a first UL9 C535C protein (SEQ ID NO:2), wherein said third sequence is operably linked to a first tet-O-containing hCMV immediate early promoter with a truncation at the -236bp of the full length promoter; and d) a fourth sequence encoding a second UL9 C535C protein (SEQ. ID NO:2) wherein said fourth sequence is operably linked to a second tet-O-containing hCMV immediate early promoter with a truncation at the -236 bp of the full length promoter;
Lighting system comprising a base-container on top of which an inflatable bearing structure is provided made of fabric or plastic material and supporting one or more light sources, said base-container containing a solenoid valve or diaphragm valve (Vg) of said bearing structure, characterized in that said bearing structure is made up of a single airtight tube.
A process for treating a zirconium containing feedstock, which includes fluorinating a feedstock comprising dissociated zircon ('DZ') to obtain a zirconium fluorine compound and a silicon fluorine compound; separating the zirconium fluorine compound from the silicon fluorine compound; reacting the zirconium fluorine compound with a non-fluorine halogen, an alkali metal non-fluorine halide or an alkaline-earth metal non-fluorine halide, thereby to obtain a zirconium non-fluorine halide; and subjecting the zirconium non-fluorine halide to plasma reduction, in a plasma reduction stage, in the presence of a reductant, by introducing a feedstock comprising the zirconium non-fluorine halide into a tail flame of a plasma reactor, to obtain metallic zirconium in powdered form.