mhurhangee/patent-ind-claim-en huggingface dataset:
A base frame assembly for supporting a main shaft housing of a wind turbine , the base frame assembly comprising: a base frame having a plurality of mounting pads for receiving the main shaft housing thereon; a brace component comprising a plurality of arm portions , each arm portion terminating in a respective support plate ; wherein each one of the mounting pads of the base frame is configured to interface with and be secured to a corresponding one of the support plates of the brace component , wherein when the main shaft housing is received onto the base frame , each support plate of the brace component is sandwiched between and secured to a respective support foot of the main shaft housing and the respective mounting pad of the base frame . a base frame having a plurality of mounting pads for receiving the main shaft housing thereon; a brace component comprising a plurality of arm portions , each arm portion terminating in a respective support plate ; wherein each one of the mounting pads of the base frame is configured to interface with and be secured to a corresponding one of the support plates of the brace component , wherein when the main shaft housing is received onto the base frame , each support plate of the brace component is sandwiched between and secured to a respective support foot of the main shaft housing and the respective mounting pad of the base frame .
An image forming apparatus comprising: an inkjet head ; an ink storage section that stores ink circulating between the inkjet head and the ink storage section ; a pressure generating section that communicates with the inkjet head and generates a first pressure so that an internal pressure of the ink storage section becomes the first pressure; and a first fluid resistance section that gives resistance to a fluid flowing through a communication path between the ink storage section and the pressure generating section so that the internal pressure of the ink storage section becomes a second pressure different from the first pressure, an atmosphere communication path that is connected to the ink storage section and is communicable with an atmosphere; and an opening/closing section that opens and closes the atmosphere communication path . an inkjet head ; an ink storage section that stores ink circulating between the inkjet head and the ink storage section ; a pressure generating section that communicates with the inkjet head and generates a first pressure so that an internal pressure of the ink storage section becomes the first pressure; and a first fluid resistance section that gives resistance to a fluid flowing through a communication path between the ink storage section and the pressure generating section so that the internal pressure of the ink storage section becomes a second pressure different from the first pressure, an atmosphere communication path that is connected to the ink storage section and is communicable with an atmosphere; and an opening/closing section that opens and closes the atmosphere communication path .
A hood for a wearer comprising: a first layer and a particle barrier layer that at least partially covers the first layer, wherein the particle barrier layer comprises an interior surface toward the wearer and a particle collection surface opposite the interior surface, wherein each layer comprises at least one seam that is not a seam around at least a portion of a first or second peripheral edge and wherein the seam of one layer is offset when compared to the seam of the adjacent layer, and wherein the hood comprises a) a head portion comprising a first peripheral edge defining a face opening , wherein the first layer and particle barrier layer are joined along at least a portion of the first peripheral edge ; b) a bib portion comprising a second peripheral edge defining a neck opening , wherein the first layer and particle barrier layer are joined along at least a portion of the second peripheral edge , wherein the first layer and the particle barrier layer are separable, and wherein the first layer is adjacent to the particle collection surface , and the bib and/or the head portion comprise at least one aperture to provide access to the particle collection surface of the particle barrier layer . a first layer and a particle barrier layer that at least partially covers the first layer, wherein the particle barrier layer comprises an interior surface toward the wearer and a particle collection surface opposite the interior surface, wherein each layer comprises at least one seam that is not a seam around at least a portion of a first or second peripheral edge and wherein the seam of one layer is offset when compared to the seam of the adjacent layer, and wherein the hood comprises a) a head portion comprising a first peripheral edge defining a face opening , wherein the first layer and particle barrier layer are joined along at least a portion of the first peripheral edge ; b) a bib portion comprising a second peripheral edge defining a neck opening , wherein the first layer and particle barrier layer are joined along at least a portion of the second peripheral edge , wherein the first layer and the particle barrier layer are separable, and wherein the first layer is adjacent to the particle collection surface , and the bib and/or the head portion comprise at least one aperture to provide access to the particle collection surface of the particle barrier layer . a) a head portion comprising a first peripheral edge defining a face opening , wherein the first layer and particle barrier layer are joined along at least a portion of the first peripheral edge ; b) a bib portion comprising a second peripheral edge defining a neck opening , wherein the first layer and particle barrier layer are joined along at least a portion of the second peripheral edge , wherein the first layer and the particle barrier layer are separable, and wherein the first layer is adjacent to the particle collection surface , and the bib and/or the head portion comprise at least one aperture to provide access to the particle collection surface of the particle barrier layer .
A display device comprising: a display module (DM) that is foldable with respect to a first bending axis (BX1) and a second bending axis (BX2) spaced apart from the first bending axis (BX1); a protection film (PF) below the display module (DM), overlapping the first bending axis (BX1) and comprising a polymer material, wherein the display device is in-foldable with respect to the first bending axis (BX1); characterized in that the display device is in-foldable and out-foldable with respect to the second bending axis (BX2), the protection film (PF) is overlapping the second bending axis (BX2); and the display device comprises a complementary film (MF) below the protection film (PF), overlapping only the second bending axis (BX2) of the first and second bending axes (BX1, BX2), and comprising a metal. a display module (DM) that is foldable with respect to a first bending axis (BX1) and a second bending axis (BX2) spaced apart from the first bending axis (BX1); a protection film (PF) below the display module (DM), overlapping the first bending axis (BX1) and comprising a polymer material, wherein the display device is in-foldable with respect to the first bending axis (BX1); characterized in that the display device is in-foldable and out-foldable with respect to the second bending axis (BX2), the protection film (PF) is overlapping the second bending axis (BX2); and the display device comprises a complementary film (MF) below the protection film (PF), overlapping only the second bending axis (BX2) of the first and second bending axes (BX1, BX2), and comprising a metal.
A method of growing a nitride semiconductor layer, the method comprising: providing a Sapphire substrate having a different lattice constant and different thermal expansion coefficients from the nitride semiconductor layer to be grown; creating vacancies in the surface of the substrate by removing atoms; forming a plurality of Aluminium Nitride, AlN, seeds in said vacancies; growing a plurality of Gallium Nitride, GaN, semiconductor dots from said seeds using a halide vapor phase epitaxy, HVPE, process; and growing the nitride semiconductor layer directly on said surface from the GaN semiconductor dots; characterised in that the growing of the GaN semiconductor dots includes (i) growing at least 90% of the GaN semiconductor dots at about 1040°C to a size of 0.4 μm to 0.8 μm or (ii) growing at least 90% of the GaN semiconductor dots at about 980°C to about 990°C to a size less than or equal to 0.4 μm. providing a Sapphire substrate having a different lattice constant and different thermal expansion coefficients from the nitride semiconductor layer to be grown; creating vacancies in the surface of the substrate by removing atoms; forming a plurality of Aluminium Nitride, AlN, seeds in said vacancies; growing a plurality of Gallium Nitride, GaN, semiconductor dots from said seeds using a halide vapor phase epitaxy, HVPE, process; and growing the nitride semiconductor layer directly on said surface from the GaN semiconductor dots; characterised in that the growing of the GaN semiconductor dots includes (i) growing at least 90% of the GaN semiconductor dots at about 1040°C to a size of 0.4 μm to 0.8 μm or (ii) growing at least 90% of the GaN semiconductor dots at about 980°C to about 990°C to a size less than or equal to 0.4 μm.
Method for adapting one or more parameters of a driver assistance system assisting the driver of a motor vehicle, determining a current viewing direction of the driver by means of a gaze direction device , determining a time period during which the driver is not looking at the road from the current viewing direction, and adapting the parameter or parameters of the driver assistance system if the time period determined exceeds a predefined critical time value, characterized in that the detection of the current viewing direction is used to determine a frequency with which the driver takes his eyes off the road, and one or more parameters of the driver system are adapted when the frequency is greater than a predefined threshold.
A control method of a ceiling embedded-type air conditioner, applied to the ceiling embedded-type air conditioner comprising a millimeter wave human sense module and a plurality of individual deflectors, wherein the plurality of individual deflectors are configured to divide a blowing scope of the ceiling embedded-type air conditioner into a corresponding plurality of blowing angle ranges, wherein the control method of the ceiling embedded-type air conditioner is characterised in that it comprises: detecting (S10), by the millimeter wave human sense module, a first angle at which a human deviates from an angular bisector of a target blowing angle range corresponding to a target deflector, a first distance from the human to the ceiling embedded-type air conditioner, a first included angle between a connection line from the human to the ceiling embedded-type air conditioner and a plumb line, wherein the first distance from the human to the ceiling embedded-type air conditioner is a length of the connection line from the human to the ceiling embedded-type air conditioner, and the target deflector is in a blowing to human mode; determining (S20) a target swing angle according to the first angle, the first distance and the first included angle; and controlling (S30) the target deflector to operate according to the target swing angle, to guide the airflow to the human. detecting (S10), by the millimeter wave human sense module, a first angle at which a human deviates from an angular bisector of a target blowing angle range corresponding to a target deflector, a first distance from the human to the ceiling embedded-type air conditioner, a first included angle between a connection line from the human to the ceiling embedded-type air conditioner and a plumb line, wherein the first distance from the human to the ceiling embedded-type air conditioner is a length of the connection line from the human to the ceiling embedded-type air conditioner, and the target deflector is in a blowing to human mode; determining (S20) a target swing angle according to the first angle, the first distance and the first included angle; and controlling (S30) the target deflector to operate according to the target swing angle, to guide the airflow to the human.
An apparatus, comprising: a tissue-repair implant configured to reside chronically in a heart of a patient; a tissue anchor comprising: a distal tissue coupling element configured to couple the tissue anchor to tissue of the heart of the patient; and a proximal implant-receiving element (47a; 47b) configured to receive at least a portion of the tissue-repair implant and facilitate coupling of the tissue-repair implant to the tissue anchor , and a proximal implant-restraining element (53a; 53b) coupled to a proximal portion of the implant-receiving element (47a; 47b), the proximal implant-restraining element (53a; 53b) being configured to restrain the implant from separating from the implant-receiving element (47a; 47b). a tissue-repair implant configured to reside chronically in a heart of a patient; a tissue anchor comprising: a distal tissue coupling element configured to couple the tissue anchor to tissue of the heart of the patient; and a proximal implant-receiving element (47a; 47b) configured to receive at least a portion of the tissue-repair implant and facilitate coupling of the tissue-repair implant to the tissue anchor , and a proximal implant-restraining element (53a; 53b) coupled to a proximal portion of the implant-receiving element (47a; 47b), the proximal implant-restraining element (53a; 53b) being configured to restrain the implant from separating from the implant-receiving element (47a; 47b). a distal tissue coupling element configured to couple the tissue anchor to tissue of the heart of the patient; and a proximal implant-receiving element (47a; 47b) configured to receive at least a portion of the tissue-repair implant and facilitate coupling of the tissue-repair implant to the tissue anchor , and a proximal implant-restraining element (53a; 53b) coupled to a proximal portion of the implant-receiving element (47a; 47b), the proximal implant-restraining element (53a; 53b) being configured to restrain the implant from separating from the implant-receiving element (47a; 47b).
A method of mixing a solid thiobis phenolic antioxidant with polyethylene, the method comprising the steps of (A) mixing the thiobis phenolic antioxidant with polyalkylene glycol (PAG) to form a blend, wherein the blend consists of the thiobis phenolic antioxidant and the PAG at a thiobis phenolic antioxidant to PAG weight ratio from 0.5:1 to 1:1, and (B) mixing the blend with polyethylene to form a polyethylene composition consisting of the polyethylene and from 0.1 wt% to 3 wt% of the blend, based on the weight of the polyethylene composition; in which the thiobis phenolic antioxidant and PAG are dry blended to form the blend prior to mixing the blend with the polyethylene. (A) mixing the thiobis phenolic antioxidant with polyalkylene glycol (PAG) to form a blend, wherein the blend consists of the thiobis phenolic antioxidant and the PAG at a thiobis phenolic antioxidant to PAG weight ratio from 0.5:1 to 1:1, and (B) mixing the blend with polyethylene to form a polyethylene composition consisting of the polyethylene and from 0.1 wt% to 3 wt% of the blend, based on the weight of the polyethylene composition;
Process for the preparation of a sugar product from lignocellulosic material, comprising the following steps: a) optionally, pretreatment of the lignocellulosic material, b) optionally, washing of the optionally pretreated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pretreated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises lytic polysaccharide monooxygenase (LPMO), wherein the amount of formed gluconic acid at the end of the enzymatic hydrolysis by the oxidation by LPMO of the lignocellulosic material containing cellulose and/or cello-oligosaccharides is kept between 3 to 10 g/kg glucan present in the lignocellulosic material by adding a suitable amount of oxygen during the enzymatic hydrolysis step (c) to the lignocellulosic material, and d) optionally, recovery of a glucose containing composition. a) optionally, pretreatment of the lignocellulosic material, b) optionally, washing of the optionally pretreated lignocellulosic material, c) enzymatic hydrolysis of the optionally washed and/or optionally pretreated lignocellulosic material using an enzyme composition comprising at least two cellulases and whereby the enzyme composition at least comprises lytic polysaccharide monooxygenase (LPMO), wherein the amount of formed gluconic acid at the end of the enzymatic hydrolysis by the oxidation by LPMO of the lignocellulosic material containing cellulose and/or cello-oligosaccharides is kept between 3 to 10 g/kg glucan present in the lignocellulosic material by adding a suitable amount of oxygen during the enzymatic hydrolysis step (c) to the lignocellulosic material, and d) optionally, recovery of a glucose containing composition.
A process for the production of composites consisting of at least one outer layer (b) and one rigid foam based on isocyanate (a), where the outer layer (b) is continuously moved and the starting material for the rigid foam based on isocyanate (a) is applied to the outer layer (b) and the application of the liquid starting material for the rigid foam based on isocyanate (a) is achieved by means of at least two fixed tubes (c) arranged alongside one another and provided with apertures (f), the arrangement of said tubes alongside one another and parallel to the plane of the outer layer being such, in relation to the direction of movement of the outer layer (b), that they cover at least 70% of the width of the outer layer, where the apertures (f) have a diameter and a length, and the length of the apertures (f) differs along the length of the tubes (c), wherein the input takes place in the middle of the tubes.
Arrangement for compensating pressure in a housing, wherein at least one housing wall has a pressure compensation opening , which is closed with a semipermeable membrane , wherein the membrane is fixed, at least in a materially bonded way, on the housing wall and is covered by means of a protective element , wherein the housing wall has, in the region of the pressure compensation opening , an indentation and/or recess (1.1) for receiving the membrane , the respective circumference thereof corresponding to a circumference of the membrane and the height thereof corresponding at least to the thickness of the membrane , characterized in that the housing wall has a further indentation and/or recess (1.2) for the arrangement of the protective element , the dimensions of said indentation or recess corresponding to the dimensions of the protective element , and the indentation and/or recess (1.1) for the membrane is formed within the further indentation and/or recess (1.2) for the protective element .
Hydraulic end-of-travel stop for a motor vehicle suspension, braking an axial movement directed towards a front direction (AV), comprising a rear compression chamber which, during braking, transmits its fluid passing through a column of inertial fluid , to a reservoir maintaining a pressure in the fluid, the compression chamber being connected to an axially sliding piston , which undergoes a force towards the front coming from a forward spring connected to an element of the suspension, characterized in that said sliding piston undergoes a force towards the rear coming from a height compensation chamber bearing on a body of the stop , supplied with pressurized fluid by the reservoir passing through a fluid passage restriction .
A contact socket for an implantable medical device, comprising a plurality of electrical contacts and at least one sealing ring ; each electrical contact of the plurality of electrical contacts comprising: - a housing of the respective electrical contact; the sealing ring comprising: - an outer ring , which comprises or essentially consists of a high-performance thermoplastic material selected from a polyaryl and a liquid crystal polymer, the polyaryl being selected from a polyarylethersulfone, a polyaryletherketone and a polyphenylene sulfide; and - an inner ring , which comprises or essentially consists of a liquid silicone or a polyurethane; the inner ring and the outer ring being arranged with form fit relative to one another, and the at least one sealing ring being arranged between two electrical contacts of the plurality of electrical contacts, characterized in that the outer ring has a larger outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts, and the inner ring has a smaller outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts. each electrical contact of the plurality of electrical contacts comprising: - a housing of the respective electrical contact; - a housing of the respective electrical contact; the sealing ring comprising: - an outer ring , which comprises or essentially consists of a high-performance thermoplastic material selected from a polyaryl and a liquid crystal polymer, the polyaryl being selected from a polyarylethersulfone, a polyaryletherketone and a polyphenylene sulfide; and - an inner ring , which comprises or essentially consists of a liquid silicone or a polyurethane; the inner ring and the outer ring being arranged with form fit relative to one another, and the at least one sealing ring being arranged between two electrical contacts of the plurality of electrical contacts, characterized in that the outer ring has a larger outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts, and the inner ring has a smaller outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts. - an outer ring , which comprises or essentially consists of a high-performance thermoplastic material selected from a polyaryl and a liquid crystal polymer, the polyaryl being selected from a polyarylethersulfone, a polyaryletherketone and a polyphenylene sulfide; and - an inner ring , which comprises or essentially consists of a liquid silicone or a polyurethane; the inner ring and the outer ring being arranged with form fit relative to one another, and the at least one sealing ring being arranged between two electrical contacts of the plurality of electrical contacts, characterized in that the outer ring has a larger outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts, and the inner ring has a smaller outside diameter than the outside diameter of the respective housing of each of the two adjoining electrical contacts.