mhurhangee/patent-ind-claim-en huggingface dataset:
Transport securing means for a washing machine for fixing a suds container of the washing machine relative to a rear wall of the washing machine in a transport securing state of the transport securing means , comprising a main body and a fastening screw which can be held on the main body , the main body being designed as a spacer which can be inserted into a transport securing opening of the rear wall along an insertion axis in an insertion direction , and being arranged at least in part between the rear wall and the suds container in the transport securing state of the transport securing means , characterised in that the main body of the transport securing means has a hinge by means of which the main body can be transferred back and forth between a transport securing position of the main body for producing the transport securing state and a rest position of the main body in which the transport securing means is not in engagement with the suds container, the main body being designed such that the main body remains in its transport securing position, in its rest position and, when transferred from its transport securing position into its rest position and vice versa, in engagement with the transport securing opening .
A process for the manufacture of a faux leather material, bio-based and vegan, with reduced environmental impact and free from treatments with metal salts, comprising the steps of: i ) wetting with water a polyurethane coagulate from renewable sources in a drum; i i) treating said coagulate with synthetic tannins by their addition into said drum; iii) drying and applying by spraying and/or rolling a polyurethane adhesive agent. i ) wetting with water a polyurethane coagulate from renewable sources in a drum; i i) treating said coagulate with synthetic tannins by their addition into said drum; iii) drying and applying by spraying and/or rolling a polyurethane adhesive agent.
An egg identification system for determining viability of an avian egg, comprising: a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat , the emitter assembly having a collimation lens configured to collimate the electromagnetic radiation emitted therefrom; a non-contact detector assembly having a spectrometer for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that the egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly having a light pipe for reducing optical noise and a collimation lens for collecting the electromagnetic radiation transmitted through the egg within the field of view of the non-contact detector assembly ; and a processor in communication with the spectrometer and configured to process an output signal of the non-contact detector assembly for determining whether the egg is viable, the processor being configured to generate a spectrum based on the output signal that represents light intensity as a function of wavelength, the processor being further configured to compare the generated spectrum with at least one spectrum associated with a known egg condition to identify a viability condition of the egg. a conveyor system for conveying an egg flat containing a plurality of eggs; an emitter assembly for emitting electromagnetic radiation toward one of the eggs conveyed in the egg flat , the emitter assembly having a collimation lens configured to collimate the electromagnetic radiation emitted therefrom; a non-contact detector assembly having a spectrometer for detecting the electromagnetic radiation transmitted through the egg, the non-contact detector assembly being disposed in a non-contact position such that the egg positioned for identification is spaced-apart from the non-contact detector assembly during operation thereof, the non-contact detector assembly having a light pipe for reducing optical noise and a collimation lens for collecting the electromagnetic radiation transmitted through the egg within the field of view of the non-contact detector assembly ; and a processor in communication with the spectrometer and configured to process an output signal of the non-contact detector assembly for determining whether the egg is viable, the processor being configured to generate a spectrum based on the output signal that represents light intensity as a function of wavelength, the processor being further configured to compare the generated spectrum with at least one spectrum associated with a known egg condition to identify a viability condition of the egg.
Coating source for physical vapour deposition, comprising: - a coating material which consists of a material having an elongation at break of less than or equal to 1% and has cracks , - a support element which is joined to the coating material at a surface of the coating material , characterized in that the coating material has structuring on at least parts of a surface of the coating material , wherein the structuring consists of depressions, grooves, notches or slits, with the proviso, that the depth of the structuring is that great that at least 1 mm of coating material remains in depth direction. - a coating material which consists of a material having an elongation at break of less than or equal to 1% and has cracks , - a support element which is joined to the coating material at a surface of the coating material ,
A pneumatic tire comprising a tread , the tread comprising a radially outermost, ground contacting tread cap layer and a tread base layer disposed radially inward of and at least partially underlying the tread cap layer , the tread cap layer comprising a central cap zone and lateral cap zones , the lateral cap zones being located axially adjacent to the central cap zone and on axially opposite sides of the central cap zone , the central cap zone comprising a first rubber composition and the lateral cap zones comprising a second rubber composition, the first rubber composition comprising a diene elastomer, silica, a blocked mercaptosilane, a resin, and a polybutadiene functionalized with a hydroxyl functional group, the polybutadiene having a weight average molecular weight (Mw) in a range of from 1000 to 25000 g/gmol; and the second rubber composition comprising a diene elastomer, silica, a blocked mercaptosilane, and a polybutadiene functionalized with an alkoxysilane functional group, the polybutadiene having a weight average molecular weight (Mw) in a range of from 1000 to 25000 g/gmol; wherein the weight average molecular weight (Mw) is measured according to ASTM 3536.
A control apparatus comprising: a first mounting plate ; a restoring plate having a first surface disposed adjacent to the first mounting plate , and a second surface; an elongate member comprising: a first elongate portion ; a second elongate portion having a compliant member and a retaining portion an axis member between the first elongate portion and the second elongate portion , pivotally mounting the elongate member to the first mounting plate and defining a first axis substantially at the first mounting plate ; and a displaceable force plate having a substantially flat surface disposed adjacent to the second surface of the restoring plate , wherein the compliant member provides a biasing force between the retaining portion and the force plate against the second surface of the restoring plate , and the mass of the second elongate portion substantially offsets the mass of the first elongate portion about the axis member , and wherein the restoring plate is configured to remain substantially fixed relative to movement of the elongated member about the first axis . a first mounting plate ; a restoring plate having a first surface disposed adjacent to the first mounting plate , and a second surface; an elongate member comprising: a first elongate portion ; a second elongate portion having a compliant member and a retaining portion an axis member between the first elongate portion and the second elongate portion , pivotally mounting the elongate member to the first mounting plate and defining a first axis substantially at the first mounting plate ; and a displaceable force plate having a substantially flat surface disposed adjacent to the second surface of the restoring plate , wherein the compliant member provides a biasing force between the retaining portion and the force plate against the second surface of the restoring plate , and the mass of the second elongate portion substantially offsets the mass of the first elongate portion about the axis member , and wherein the restoring plate is configured to remain substantially fixed relative to movement of the elongated member about the first axis . a first elongate portion ; a second elongate portion having a compliant member and a retaining portion an axis member between the first elongate portion and the second elongate portion , pivotally mounting the elongate member to the first mounting plate and defining a first axis substantially at the first mounting plate ; and a displaceable force plate having a substantially flat surface disposed adjacent to the second surface of the restoring plate , wherein the compliant member provides a biasing force between the retaining portion and the force plate against the second surface of the restoring plate , and the mass of the second elongate portion substantially offsets the mass of the first elongate portion about the axis member , and wherein the restoring plate is configured to remain substantially fixed relative to movement of the elongated member about the first axis .
A ventilation system comprising: one or more ventilators which are provided for each floor within a building; a supply duct connected to the ventilator to introduce external air; an exhaust duct connected to the ventilator to exhaust internal air; a center duct which is provided in the building and longitudinally extends through a plurality of floors; and a blowing unit that is provided at one side of the center duct and forcibly blows the air in the center duct, wherein the supply duct is connected to the center duct and the exhaust duct extends outside the building through the outer wall of the building, characterized in that one side of the exhaust duct is exposed to the outside of the building through the outer wall and an end of said one side is covered by an exhaust cap , wherein the exhaust cap allows the internal air to flow outside while preventing foreign substances from flowing inside, wherein the center duct is provided with at least one pressure sensor , and the blowing unit is configured to adjust the amount of air flowing inside the center duct on the basis of the value measured by the pressure sensor. one or more ventilators which are provided for each floor within a building; a supply duct connected to the ventilator to introduce external air; an exhaust duct connected to the ventilator to exhaust internal air; a center duct which is provided in the building and longitudinally extends through a plurality of floors; and a blowing unit that is provided at one side of the center duct and forcibly blows the air in the center duct, wherein the supply duct is connected to the center duct and the exhaust duct extends outside the building through the outer wall of the building, characterized in that one side of the exhaust duct is exposed to the outside of the building through the outer wall and an end of said one side is covered by an exhaust cap , wherein the exhaust cap allows the internal air to flow outside while preventing foreign substances from flowing inside, wherein the center duct is provided with at least one pressure sensor , and the blowing unit is configured to adjust the amount of air flowing inside the center duct on the basis of the value measured by the pressure sensor.
A manufacturing method for manufacturing a molded surface fastener made of synthetic resin and in which a plurality of engaging elements stand on an upper surface of a flat plate-shaped base portion , and each engaging element has a stem portion standing on the base portion and an engaging head portion integrally formed on the stem portion , the method including a primary molding step for molding a primary molded body having the base portion and a plurality of provisional elements standing on the base portion , and a secondary molding step for molding the molded surface fastener by heating the provisional elements of the primary molded body and compressing the provisional elements from above, wherein the manufacturing method includes: in the primary molding step, continuously molding the primary molded body in which at least a part of the provisional elements has a primary stem portion standing on the base portion and at least one protruded portion protruded from an outer peripheral side surface on an upper end part of the primary stem portion using a molding apparatus having a mold member provided with a plurality of penetration holes drilled to penetrate from an outer peripheral surface to an inner peripheral surface and a plurality of concave portions (51, 52, 53, 54a, 54b, 54c, 54d,) concaved on the inner peripheral surface and in which the concave portion is a linear concave groove portion or a concave groove portion curved in a wavy shape, and each penetration hole communicates to at least one of the concave portions , and a driving part rotating the mold member at a predetermined speed; and in the secondary molding step, molding the stem portion and the engaging head portion as well as molding at least one pawl portion protruded on the outer peripheral edge part of the engaging head portion from the protruded portion by compressing an upper end part of the provisional elements from above. in the primary molding step, continuously molding the primary molded body in which at least a part of the provisional elements has a primary stem portion standing on the base portion and at least one protruded portion protruded from an outer peripheral side surface on an upper end part of the primary stem portion using a molding apparatus having a mold member provided with a plurality of penetration holes drilled to penetrate from an outer peripheral surface to an inner peripheral surface and a plurality of concave portions (51, 52, 53, 54a, 54b, 54c, 54d,) concaved on the inner peripheral surface and in which the concave portion is a linear concave groove portion or a concave groove portion curved in a wavy shape, and each penetration hole communicates to at least one of the concave portions , and a driving part rotating the mold member at a predetermined speed; and in the secondary molding step, molding the stem portion and the engaging head portion as well as molding at least one pawl portion protruded on the outer peripheral edge part of the engaging head portion from the protruded portion by compressing an upper end part of the provisional elements from above.
An automatic analyzer comprising: a sample probe which sucks in a sample stored in a sample vessel and discharges the sample into a reaction vessel ; a reagent probe which sucks in a reagent stored in a reagent vessel and discharges the reagent into the reaction vessel ; an analysis unit which analyzes the sample in the reaction vessel ; a pressure sensor which detects the pressure in the sample probe 102); a signal processing unit ; and a controller configured to control the operation of the sample probe , the reagent probe , the analysis unit and the signal processing unit ; characterised in that said signal processing unit is configured to acquire suction pressure data from the pressure sensor during a suction period in a first dispensation when the sample is sucked from the sample vessel by the sample probe , select a piece of normality/abnormality judgment reference data from multiple pieces of normality/abnormality judgment reference data based on the suction pressure data in said first dispensation in cases where the same sample is sucked in from the sample vessel and discharged into the reaction vessel by the sample probe in a n-th dispensation (n: natural number, 2≦n), calculate characteristic variables of the suction pressure data of the same sample detected by the pressure sensor in the n-th dispensation by the sample probe , and judge whether there was an abnormality in the suction of the sample by the sample probe or not by comparing the calculated characteristic variables with the normality/abnormality judgment reference data. a sample probe which sucks in a sample stored in a sample vessel and discharges the sample into a reaction vessel ; a reagent probe which sucks in a reagent stored in a reagent vessel and discharges the reagent into the reaction vessel ; an analysis unit which analyzes the sample in the reaction vessel ; a pressure sensor which detects the pressure in the sample probe 102); a signal processing unit ; and a controller configured to control the operation of the sample probe , the reagent probe , the analysis unit and the signal processing unit ; characterised in that said signal processing unit is configured to acquire suction pressure data from the pressure sensor during a suction period in a first dispensation when the sample is sucked from the sample vessel by the sample probe , select a piece of normality/abnormality judgment reference data from multiple pieces of normality/abnormality judgment reference data based on the suction pressure data in said first dispensation in cases where the same sample is sucked in from the sample vessel and discharged into the reaction vessel by the sample probe in a n-th dispensation (n: natural number, 2≦n), calculate characteristic variables of the suction pressure data of the same sample detected by the pressure sensor in the n-th dispensation by the sample probe , and judge whether there was an abnormality in the suction of the sample by the sample probe or not by comparing the calculated characteristic variables with the normality/abnormality judgment reference data.
A method of controlling power input into an energy transferring resonant inductive network, the network comprising: - a resonant tank exhibiting a resonance frequency; and - a number of power consuming loads connected to the resonant tank at the resonance frequency, and being connected with at least one energy source comprising at least a converter connecting the source to the network, and configured to convert energy from the source into energy having a central frequency at the resonance frequency of the resonant tank, wherein the method comprises: - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network , CHARACTERISED BY varying, during energy transfer to the number of power consuming loads, at least a sliding-mode control input u p for the converter; determining whether a balance factor α increases or decreases with the variation of the control input ( u p ); and varying at least the control input ( u p ) further to approximate a minimum value of the balance factor (α), at which α * E source = E network , and assuming u p ̅ 2 ⋅ α ≡ constant . - a resonant tank exhibiting a resonance frequency; and - a number of power consuming loads connected to the resonant tank at the resonance frequency, and being connected with at least one energy source comprising at least a converter connecting the source to the network, and configured to convert energy from the source into energy having a central frequency at the resonance frequency of the resonant tank, wherein the method comprises: - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network , CHARACTERISED BY - determining an amount of power to be input by the source into the network by adaptively balancing energy of the source E source against energy in the network E network , CHARACTERISED BY
- A method of forming a flange on a ventilation canal edge using a machine according to any of claims 7-14, the method comprising the following process steps: - positioning of a square elbow bracket (D) and / or a square canal (K) on the carrier grid , the elbow bracket (D) and/or the square canal (K) comprising bend tears (B) at its corners, - moving the elbow bracket (D) which positioned on the carrier grid and/or the sheet metal (S) at the mouth of the square canal (K), to the starting position by compressing it with the help of pressure group , thrust group and miter group , - moving the sheet metal (S) brought into the starting position into the first position by pressing between the form (6.5) and the thread form (4.1) - moving the sheet metal (S) brought into the first position into the second position by turning it 90 degrees together with the bending piston (9.4) and the press plate (1.1) - moving the sheet metal (S) brought into the second position into the third position by being pressed between the steep pressure plate (5.5) and the aiding stand (6.4) - moving the sheet metal (S) that brought into the third position into the fourth position by the inner mold (8.1) and the standing and tilting press (3.4) - forming a one piece flange at the mouth of the square canal (K) and / or the elbow bracket (D) by pressing the sheet metal (S) brought into the fourth position by the tilt piston (3.1) and the joint (3.3). - positioning of a square elbow bracket (D) and / or a square canal (K) on the carrier grid , the elbow bracket (D) and/or the square canal (K) comprising bend tears (B) at its corners, - moving the elbow bracket (D) which positioned on the carrier grid and/or the sheet metal (S) at the mouth of the square canal (K), to the starting position by compressing it with the help of pressure group , thrust group and miter group , - moving the sheet metal (S) brought into the starting position into the first position by pressing between the form (6.5) and the thread form (4.1) - moving the sheet metal (S) brought into the first position into the second position by turning it 90 degrees together with the bending piston (9.4) and the press plate (1.1) - moving the sheet metal (S) brought into the second position into the third position by being pressed between the steep pressure plate (5.5) and the aiding stand (6.4) - moving the sheet metal (S) that brought into the third position into the fourth position by the inner mold (8.1) and the standing and tilting press (3.4) - forming a one piece flange at the mouth of the square canal (K) and / or the elbow bracket (D) by pressing the sheet metal (S) brought into the fourth position by the tilt piston (3.1) and the joint (3.3).