mhurhangee/ep-ind-claims huggingface dataset:
A door for a home appliance, comprising: a glass panel assembly; and a frame assembly having an opening connected with an edge of the glass panel assembly to support the glass panel assembly, and comprising a foaming space for receiving a thermal insulator between edges of the frame assembly and the glass panel assembly, wherein the frame assembly includes a rear frame located on a rear surface of the door, an upper frame, a lower frame, and side frames (300, 400) connected with the rear frame, making the foaming space, characterized in that a foaming injection hole (B4, B5) through which the thermal insulator is injected is provided on at least one of the ends of the upper frame and the lower frame, and the foaming injection hole (B4, B5) is arranged to face a portion of the foaming space between a side surface of the glass panel assembly and at least one of the side frames (300, 400). a glass panel assembly; and a frame assembly having an opening connected with an edge of the glass panel assembly to support the glass panel assembly, and comprising a foaming space for receiving a thermal insulator between edges of the frame assembly and the glass panel assembly, wherein the frame assembly includes a rear frame located on a rear surface of the door, an upper frame, a lower frame, and side frames (300, 400) connected with the rear frame, making the foaming space, characterized in that a foaming injection hole (B4, B5) through which the thermal insulator is injected is provided on at least one of the ends of the upper frame and the lower frame, and the foaming injection hole (B4, B5) is arranged to face a portion of the foaming space between a side surface of the glass panel assembly and at least one of the side frames (300, 400).
A connector, comprising: a first body that defines a first rod-receiving recess; a hinge pin extending laterally from the first body to a free end; a second body that defines a second rod-receiving recess, the second body having a cavity in which the free end of the hinge pin is received to couple the second body to the first body such that the first and second bodies rotate relative to one another about a rotation axis of the hinge pin; a first fastener configured to secure a first rod within the first rod-receiving recess; and a second fastener configured to secure a second rod within the second rod-receiving recess, and wherein the hinge pin has a plurality of planar surfaces that intersect to form one or more corners, the one or more corners of the hinge pin applying a force against the cavity of the second body that locks the hinge pin in place when the second fastener secures the second rod within the second rod-receiving recess. a first body that defines a first rod-receiving recess; a hinge pin extending laterally from the first body to a free end; a second body that defines a second rod-receiving recess, the second body having a cavity in which the free end of the hinge pin is received to couple the second body to the first body such that the first and second bodies rotate relative to one another about a rotation axis of the hinge pin; a first fastener configured to secure a first rod within the first rod-receiving recess; and a second fastener configured to secure a second rod within the second rod-receiving recess, and wherein the hinge pin has a plurality of planar surfaces that intersect to form one or more corners, the one or more corners of the hinge pin applying a force against the cavity of the second body that locks the hinge pin in place when the second fastener secures the second rod within the second rod-receiving recess.
A dynamic lighting method, characterized in that the method comprises: a power supply output module of a dynamic lighting device outputs a first power supply signal according to a lighting control signal, wherein electric parameters of the first power supply signal include one or more groups of dynamically changed electrical parameters, one or multiple lighting parts of the dynamic lighting device generate a dynamically changed light signal under driving of the first power supply signal, so that the dynamic lighting device outputs a dynamic changed light, wherein a change rate of illumination of the light is not more than 0.02 during any time period of 0.1 second, and a ratio of the minimum and maximum values of the illumination of the light outputted by the dynamic lighting device is not more than 50%, and the illumination of the dynamic changed light ranges from 50lux to 10000lux. a power supply output module of a dynamic lighting device outputs a first power supply signal according to a lighting control signal, wherein electric parameters of the first power supply signal include one or more groups of dynamically changed electrical parameters, one or multiple lighting parts of the dynamic lighting device generate a dynamically changed light signal under driving of the first power supply signal, so that the dynamic lighting device outputs a dynamic changed light, wherein a change rate of illumination of the light is not more than 0.02 during any time period of 0.1 second, and a ratio of the minimum and maximum values of the illumination of the light outputted by the dynamic lighting device is not more than 50%, and the illumination of the dynamic changed light ranges from 50lux to 10000lux.
A printing device (100,400), comprising: a printer module (102,402) to print on a continuous web of print media (110,410); a plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n) located downstream from the printer module (102,402), wherein the continuous web of print media (110,410) is fed in a wrap-around direction into, and out of, each of the plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n) from an outermost dryer module (104 1, 104 n, 404 1,404 n) to a center dryer module (104 3,404 3); and a side exit unit (106,406 1,406 2) coupled to the center dryer module (104 3,404 3) to redirect the continuous web of print media (110,410) along an outer side of the plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n). a printer module (102,402) to print on a continuous web of print media (110,410); a plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n) located downstream from the printer module (102,402), wherein the continuous web of print media (110,410) is fed in a wrap-around direction into, and out of, each of the plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n) from an outermost dryer module (104 1, 104 n, 404 1,404 n) to a center dryer module (104 3,404 3); and a side exit unit (106,406 1,406 2) coupled to the center dryer module (104 3,404 3) to redirect the continuous web of print media (110,410) along an outer side of the plurality of dryer modules (104 1 to 104 n, 404 1 to 404 n).
Side wall for a driver's cab of a utility vehicle, with a driver's cab door and a storage box which is arranged laterally next to the driver's cab door, is expediently accessible from outside the driver's cab, serves for storing goods and has a preferably pivotable storage box outer wall, characterized in that, in the closed state of the driver's cab door and of the storage box outer wall, the driver's cab door overlaps the storage box outer wall in sections and therefore secures or blocks same against opening.
A connector comprising: a body having a through-way which is open at one end; a shoulder in the through-way faces the open end and supports an O-ring a cap fitted to an open end of the body and extending from the open end towards the opposite end, the cap being a different colour to the body; a gripping ring (3,100) in the cap and having a plurality of inwardly facing teeth (32, 101) to grip, in use, a tube in the through-way to prevent it from being pulled out of the open end of the connector; a locking ring fitted over the open end of the body and cap, the locking ring being rotatable between a locked position in which the teeth of the gripping ring can engage the tube and an unlocked position in which the teeth of the gripping ring are prevented from engaging the tube; the locking ring having a window which lines up with the body in one of the locked and unlocked positions and the cap in the other of the locked and unlocked positions. a body having a through-way which is open at one end; a shoulder in the through-way faces the open end and supports an O-ring a cap fitted to an open end of the body and extending from the open end towards the opposite end, the cap being a different colour to the body; a gripping ring (3,100) in the cap and having a plurality of inwardly facing teeth (32, 101) to grip, in use, a tube in the through-way to prevent it from being pulled out of the open end of the connector; a locking ring fitted over the open end of the body and cap, the locking ring being rotatable between a locked position in which the teeth of the gripping ring can engage the tube and an unlocked position in which the teeth of the gripping ring are prevented from engaging the tube; the locking ring having a window which lines up with the body in one of the locked and unlocked positions and the cap in the other of the locked and unlocked positions.
A fiberglass insulation material comprising glass fibers present in the range from 75% to 99% by weight, the glass fibers being held together by a cured binder obtained by contacting the fibers with a thermally-curable, aqueous binder comprising binder reactants and curing the binder in contact with the glass fibers, in which: - the binder reactants consist of Maillard reactants; - the glass fibers are held together by at least one Maillard reaction product of the cured binder, the at least one Maillard reaction product being a reaction product of i) a carbohydrate reactant which include one or more reactants having one or more reducing sugars and ii) an amine reactant; and wherein the material has a density in a range from 12 kg/m 3 (0.75 lbs/ft 3) to 48 kg/m 3 (3 lbs/ft 3). - the binder reactants consist of Maillard reactants; - the glass fibers are held together by at least one Maillard reaction product of the cured binder, the at least one Maillard reaction product being a reaction product of i) a carbohydrate reactant which include one or more reactants having one or more reducing sugars and ii) an amine reactant; and
A method of determining a long-term prognosis in a subject identified as having diabetes, comprising detecting a total (i.e. combined λ and κ) amount of free light chains in a sample from the subject, wherein the total amount of FLC in the sample is compared to a predetermined normal amount and a higher amount of FLC is associated with increased risk of a cardiovascular disease event or cardiovascular disease related death, wherein the sample is a sample of blood, serum or plasma and the subject does not present with symptoms of a B cell disease or chronic kidney disease, and the long term prognosis is at least 200 days from when the sample is taken.
A film comprising: (a) at least one polymeric base layer; and (b) at least one ink or coating composition deposited on the polymeric base layer, wherein the ink or coating composition comprises at least one chemical blowing agent; wherein said polymeric base layer comprises polyester, copolyester, polystyrene, poly-olefin, or poly(vinyl chloride); said ink or coating composition comprises a pigment or a dye; and said chemical blowing agent comprises carbonates, bicarbonates, carboxylic acids, azo compounds, isocyanates, persulfates, peroxides, or combinations thereof. (a) at least one polymeric base layer; and (b) at least one ink or coating composition deposited on the polymeric base layer, wherein the ink or coating composition comprises at least one chemical blowing agent;
A method for manufacturing cellulose carbamate, in which method an auxiliary agent, which is an alkalization agent, such as an alkali metal hydroxide, or hydrogen peroxide, and urea are absorbed into cellulose, and a reaction between cellulose and urea is carried out in a mixture containing cellulose, a liquid, the auxiliary agent, and urea, characterized in that the liquid content in the mixture is less than 30 %, preferably less than 25 %, and most preferably less than 22 %, and the reaction between cellulose and urea is performed at least partly by subjecting the mixture to mechanical working in a mechanical working device in such a way that the components of the mixture are subjected to working repeatedly by compressing, rubbing and stretching the mixture several times.
An antenna arrangement comprising an electrical conductor extending along an axis; a first electrically conductive disc in contact with the electrical conductor and extending perpendicularly from the axis, a second electrically conductive disc in contact with the electrical conductor and extending perpendicularly from the axis, an electrically conductive housing enclosing, circumferentially around the axis, the electrical conductor, the first electrically conductive disc and the second electrically conductive disc, feeding means configured to feed electromagnetic energy to the first electrically conductive disc, transmitting means configured to transmit electromagnetic energy from the second electrically conductive disc, and a third electrically conductive disc in contact with the conductor and extending perpendicularly from the axis between the first electrically conductive disc and the second electrically conductive disc at a distance therefrom, wherein the third electrically conductive disc comprises four openings (128a, 128b, 128c, 128d) to form an iris between two cavities (152, 154), the two cavities (152, 154) being configured to support two orthogonal linearly polarized modes; wherein the four openings (128a, 128b, 128c, 128d) are configured symmetrically to ensure no coupling between the orthogonal linearly polarized modes of the two cavities (152, 154). an electrical conductor extending along an axis; a first electrically conductive disc in contact with the electrical conductor and extending perpendicularly from the axis, a second electrically conductive disc in contact with the electrical conductor and extending perpendicularly from the axis, an electrically conductive housing enclosing, circumferentially around the axis, the electrical conductor, the first electrically conductive disc and the second electrically conductive disc, feeding means configured to feed electromagnetic energy to the first electrically conductive disc, transmitting means configured to transmit electromagnetic energy from the second electrically conductive disc, and a third electrically conductive disc in contact with the conductor and extending perpendicularly from the axis between the first electrically conductive disc and the second electrically conductive disc at a distance therefrom, wherein the third electrically conductive disc comprises four openings (128a, 128b, 128c, 128d) to form an iris between two cavities (152, 154), the two cavities (152, 154) being configured to support two orthogonal linearly polarized modes; wherein the four openings (128a, 128b, 128c, 128d) are configured symmetrically to ensure no coupling between the orthogonal linearly polarized modes of the two cavities (152, 154).
A method for producing silicone hydrogel contact lenses with significantly reduced optical defect comprising the steps of: introducing a polymerizable lens-forming material into a lens mold, wherein the lens-forming material is a silicone hydrogel lens-forming material, curing thermally or actinically the polymerizable lens-forming material in the lens mold to form a silicone hydrogel contact lens; extracting the formed silicone hydrogel contact lenses which are hold in extraction trays by at least two extracting stages in a single process tank, Wherein the extracting step comprises the following steps: a) extracting the formed silicone hydrogel contact lenses with a first extracting medium, wherein the first extracting medium is a first solvent or a mixture of the first solvent and water, b) draining the first extracting medium out of the process tank, c) refilling the process tank with a 100% water, wherein during refilling the process tank, subjecting the extraction tray for the formed silicone hydrogel contact lenses to a reciprocating lowering and raising motion thereof to obtain the silicone hydrogel contact lenses, wherein the silicone hydrogel contact lenses have significantly reduced tray marks and/or dimples observed using a Contact Lens Optical Quality Analyzer, relative to control silicone hydrogel contact lenses obtained by the same processes except of eliminating the reciprocating lowering and raising motion in step c). introducing a polymerizable lens-forming material into a lens mold, wherein the lens-forming material is a silicone hydrogel lens-forming material, curing thermally or actinically the polymerizable lens-forming material in the lens mold to form a silicone hydrogel contact lens; extracting the formed silicone hydrogel contact lenses which are hold in extraction trays by at least two extracting stages in a single process tank, a) extracting the formed silicone hydrogel contact lenses with a first extracting medium, wherein the first extracting medium is a first solvent or a mixture of the first solvent and water, b) draining the first extracting medium out of the process tank, c) refilling the process tank with a 100% water, wherein during refilling the process tank, subjecting the extraction tray for the formed silicone hydrogel contact lenses to a reciprocating lowering and raising motion thereof to obtain the silicone hydrogel contact lenses,
Light-emitting diode chip comprising a semiconductor layer sequence comprising a phosphide compound semiconductor material, wherein the semiconductor layer sequence contains - a p-type semiconductor region, - an n-type semiconductor region, and - an active layer arranged between the p-type semiconductor region and the n-type semiconductor region and serving for emitting electromagnetic radiation, wherein the n-type semiconductor region faces a radiation exit area of the light-emitting diode chip, and the p-type semiconductor region faces a carrier of the light-emitting diode chip, characterized in that a current spreading layer having a thickness of less than 500 nm, is arranged between the carrier and the p-type semiconductor region, said current spreading layer having one or a plurality of p-doped Al x Ga 1-x As layer(s) with 0.5 < x ≤ 1, and wherein at least one layer composed of In x Ga y Al 1-x-y As where 0 ≤ x ≤ 1, 0 ≤ y ≤ 1 and x + y ≤ 1 adjoins the current spreading layer, and has a smaller band gap and a lower dopant concentration than the current spreading layer. - a p-type semiconductor region, - an n-type semiconductor region, and - an active layer arranged between the p-type semiconductor region and the n-type semiconductor region and serving for emitting electromagnetic radiation, wherein the n-type semiconductor region faces a radiation exit area of the light-emitting diode chip, and the p-type semiconductor region faces a carrier of the light-emitting diode chip, characterized in that a current spreading layer having a thickness of less than 500 nm, is arranged between the carrier and the p-type semiconductor region, said current spreading layer having one or a plurality of p-doped Al x Ga 1-x As layer(s) with 0.5 < x ≤ 1, and wherein at least one layer composed of In x Ga y Al 1-x-y As where 0 ≤ x ≤ 1, 0 ≤ y ≤ 1 and x + y ≤ 1 adjoins the current spreading layer, and has a smaller band gap and a lower dopant concentration than the current spreading layer.
A hernia repair system, comprising: a deployment device adapted to deploy a hernia repair patch within a body of a patient, wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient and an expanded configuration for deploying the hernia repair patch; a fixating component extending from the deployment device and being adapted to attach the hernia repair patch to the deployment device; and characterised by a centering component extending from the deployment device adapted to position the deployment device relative to a hernia, the centering component adapted for insertion through the hernia repair patch. a deployment device adapted to deploy a hernia repair patch within a body of a patient, wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient and an expanded configuration for deploying the hernia repair patch; a fixating component extending from the deployment device and being adapted to attach the hernia repair patch to the deployment device; and characterised by a centering component extending from the deployment device adapted to position the deployment device relative to a hernia, the centering component adapted for insertion through the hernia repair patch.
Method for managing the operation of an object capable of contactlessly communicating with a reader magnetically coupled to said object, comprising at least one phase of transmission of information from said object to the reader including a modulation of the impedance of a load connected to the terminals of the antenna of said object, at least one control phase including an estimation of the distance between said object and the reader and an adjustment of the impedance of said load according to the estimated distance, characterised in that said object comprises a controllable circuit for limiting voltage, connected to the terminals of the antenna, and the estimation of said distance comprises a determination of the level of activity of the circuit for limiting voltage and a comparison of this level of activity to at least one threshold (F1, F2).
Process for preparing one or more polyether-modified amino-functional polybutadienes, comprising the steps of: a) reacting at least one polybutadiene with at least one epoxidizing reagent to give at least one epoxy-functional polybutadiene; b) reacting the at least one epoxy-functional polybutadiene with at least one amino-functional compound to give at least one hydroxy- and amino-functional polybutadiene; c) reacting the at least one hydroxy- and amino-functional polybutadiene with at least one epoxy-functional compound to give at least one polyether-modified amino-functional polybutadiene. a) reacting at least one polybutadiene with at least one epoxidizing reagent to give at least one epoxy-functional polybutadiene; b) reacting the at least one epoxy-functional polybutadiene with at least one amino-functional compound to give at least one hydroxy- and amino-functional polybutadiene; c) reacting the at least one hydroxy- and amino-functional polybutadiene with at least one epoxy-functional compound to give at least one polyether-modified amino-functional polybutadiene.
A fibre reinforcement fabric for a wind turbine component, the fabric comprising a first plurality of fibre bundles (512, 812) arranged in parallel in a warp direction and stitched together, the fabric having a first outermost fibre bundle (581, 881, 1381) defining a first fabric edge (851, 1051, 1351) parallel to the warp direction and a second outermost fibre bundle defining a second fabric edge (852, 1052, 1352) opposite the first fabric edge, the fabric having a first tapered portion including the first outermost fibre bundle (581, 881, 1381), wherein a thickness of the fabric in the first tapered portion is tapering from a first fabric thickness (835, 1035, 1335) to a second fabric thickness (836, 1036, 1336) in a direction towards the first fabric edge (851, 1051, 1351).