mhurhangee/patent-ind-claim-en huggingface dataset:
Method of antireflection scratch-resistant treatment in the visible range of a synthetic sapphire material, characterized in that it consists of two successive steps: a first step that carries out a bombardment by a beam of gas ions where: - the dose of gas ions implanted per unit of surface area is chosen within a range between 10 16 ions/cm 2 and 10 18 ions/cm 2 so as to obtain an atomic concentration of gas ions such that the refractive index n of the implanted layer is approximately equal to (n1*n2) 1/2 where n1 is the index of the air and n2 is the index of the synthetic sapphire; - the acceleration voltage is chosen within a range between 5 kV and 1000 kV so as to obtain an implanted thickness e equal to p*λ/4*n where e is the implanted thickness corresponding to an implantation zone where the atomic concentration of implanted gas ions is greater than or equal to 1%, where p is an integer, λ is the incident wavelength and n is the index of the implanted layer, a second step where the implanted surface of the synthetic sapphire is annealed by microwave-induced heating where: - annealing temperatures are chosen within a range between 800°C and 2000°C; - annealing times are chosen within between 1 and 1000 seconds. a first step that carries out a bombardment by a beam of gas ions where: - the dose of gas ions implanted per unit of surface area is chosen within a range between 10 16 ions/cm 2 and 10 18 ions/cm 2 so as to obtain an atomic concentration of gas ions such that the refractive index n of the implanted layer is approximately equal to (n1*n2) 1/2 where n1 is the index of the air and n2 is the index of the synthetic sapphire; - the acceleration voltage is chosen within a range between 5 kV and 1000 kV so as to obtain an implanted thickness e equal to p*λ/4*n where e is the implanted thickness corresponding to an implantation zone where the atomic concentration of implanted gas ions is greater than or equal to 1%, where p is an integer, λ is the incident wavelength and n is the index of the implanted layer, - the dose of gas ions implanted per unit of surface area is chosen within a range between 10 16 ions/cm 2 and 10 18 ions/cm 2 so as to obtain an atomic concentration of gas ions such that the refractive index n of the implanted layer is approximately equal to (n1*n2) 1/2 where n1 is the index of the air and n2 is the index of the synthetic sapphire; - the acceleration voltage is chosen within a range between 5 kV and 1000 kV so as to obtain an implanted thickness e equal to p*λ/4*n where e is the implanted thickness corresponding to an implantation zone where the atomic concentration of implanted gas ions is greater than or equal to 1%, where p is an integer, λ is the incident wavelength and n is the index of the implanted layer, a second step where the implanted surface of the synthetic sapphire is annealed by microwave-induced heating where: - annealing temperatures are chosen within a range between 800°C and 2000°C; - annealing times are chosen within between 1 and 1000 seconds. - annealing temperatures are chosen within a range between 800°C and 2000°C; - annealing times are chosen within between 1 and 1000 seconds.
Integrated air supply unit , in particular for air suspension systems for motor vehicles, comprising an air compressor having an electric motor and an air dryer , wherein the air compressor together with the electric motor , the air dryer and multiple pneumatic connectors form a functional unit, wherein the functional unit is formed at least from a pneumatic block and an electronic control device , wherein the air compressor is arranged in the pneumatic block and is driven by way of the electric motor which is attached to the pneumatic block on the front side characterized in that the electronic control device is attached to the pneumatic block opposite to the electric motor , wherein a plurality of pneumatic valves are arranged in part in the pneumatic block and in part in the electronic control device .
A film comprising a blend of from 0.5 to 60 wt% of a polyalphaolefin and 40 to 99.5 wt% of a propylene-based elastomer, where the propylene-based polymer elastomer is a reactor blend of a first polymer component and a second polymer component, wherein the first polymer component comprises propylene and an α-olefin and has an α-olefin content R 1 of from greater than 5 to less than 30 wt% α-olefin, where the percentage by weight is based upon the total weight of the propylene-derived and α-olefin derived units of the first polymer component, and wherein the second polymer component comprises propylene and α-olefin and has an α-olefin content R 2 of from greater than 1 to less than 10 wt% α-olefin, where the percentage by weight is based upon the total weight of the propylene-derived and α-olefin derived units of the second polymer component, the α-olefin being selected from ethylene and C 4 -C 12 α-olefins, and where the polyalphaolefin has a kinematic viscosity (KV) at 100 °C of from 3 to 3000 cSt (as measured according to ASTM D445 at 100°C).
Method of manufacturing a helmet from thermally deformable reflective material comprising steps for: - providing a base material such as a plate material or a sheet material, - arranging on the base material an adhesive layer in the form of a polymerizable, substantially monomer mixture, preferably a photoactivatable monomer mixture, - positioning reflective particles on the monomer mixture, - subjecting the monomer mixture to a curing process providing a thermoplastic mixture for the purpose of fixing the reflective particles relative to the base material, thereby obtaining the reflective material, and - shaping or deforming the reflective material to a helmet shape wherein substantially the relative orientation between the base material and the reflective particles is retained because, under the influence of a suitable temperature for deforming the base material, the thermoplastic polymer mixture is co-deformable. - providing a base material such as a plate material or a sheet material, - arranging on the base material an adhesive layer in the form of a polymerizable, substantially monomer mixture, preferably a photoactivatable monomer mixture, - positioning reflective particles on the monomer mixture, - subjecting the monomer mixture to a curing process providing a thermoplastic mixture for the purpose of fixing the reflective particles relative to the base material, thereby obtaining the reflective material, and - shaping or deforming the reflective material to a helmet shape wherein substantially the relative orientation between the base material and the reflective particles is retained because, under the influence of a suitable temperature for deforming the base material, the thermoplastic polymer mixture is co-deformable.
A scroll compressor comprising: a housing that has a cylindrical rear housing , and a front housing including a plate placement surface ; a fixed scroll that is provided within the rear housing and fixed to the rear housing ; an orbiting scroll that is provided within the rear housing , which forms a compression chamber between the orbiting scroll and the fixed scroll by meshing the fixed scroll , and is revolved and driven around the fixed scroll ; a ring-like thrust plate that is disposed between an end plate , in the orbiting scroll , disposed on a side opposite to a side where the fixed scroll is provided and the plate placement surface of the front housing ; and a plurality of bolts that are fastened to a plate placement part , of the front housing , which partitions the plate placement surface and that restricts a position of the thrust plate with respect to the plate placement part , characterized in that the plurality of bolts each include a head part , and a shaft part having one end connected to the head part , and at least a portion of the head part is disposed to protrude from the plate placement surface , and the thrust plate has a plurality of through-holes that allow the head part to pass therethrough. a housing that has a cylindrical rear housing , and a front housing including a plate placement surface ; a fixed scroll that is provided within the rear housing and fixed to the rear housing ; an orbiting scroll that is provided within the rear housing , which forms a compression chamber between the orbiting scroll and the fixed scroll by meshing the fixed scroll , and is revolved and driven around the fixed scroll ; a ring-like thrust plate that is disposed between an end plate , in the orbiting scroll , disposed on a side opposite to a side where the fixed scroll is provided and the plate placement surface of the front housing ; and a plurality of bolts that are fastened to a plate placement part , of the front housing , which partitions the plate placement surface and that restricts a position of the thrust plate with respect to the plate placement part , characterized in that the plurality of bolts each include a head part , and a shaft part having one end connected to the head part , and at least a portion of the head part is disposed to protrude from the plate placement surface , and the thrust plate has a plurality of through-holes that allow the head part to pass therethrough.
A feeder arrangement for a rock drilling machine on a drill rig , which feeder arrangement comprises: - a feed beam with a first beam that comprises a first end block and a second end block at opposite ends thereof, - a first pipe connection extending between the first end block and the second end block , and - a rock drilling machine connector including at least a first connector port (P A ) that is connectable to the rock drilling machine , the rock drilling machine connector being slidably arranged with respect to the first pipe connection , wherein the first pipe connection is comprised in the feed beam and is fluidly connectable to a hydraulic arrangement on the drill rig via a first conduit passing through a first end of the first pipe connection and the first end block , the first pipe connection comprising a first fluid port to a first chamber of the rock drilling machine connector ; and wherein the first connector port (P A ) is in fluid connection with the first chamber via the first conduit to connect the rock drilling machine to the hydraulic arrangement on the drill rig and to provide pressurised hydraulic fluid to drive at least one consumer of the hydraulic rock drilling machine . - a feed beam with a first beam that comprises a first end block and a second end block at opposite ends thereof, - a first pipe connection extending between the first end block and the second end block , and - a rock drilling machine connector including at least a first connector port (P A ) that is connectable to the rock drilling machine , the rock drilling machine connector being slidably arranged with respect to the first pipe connection ,
A method for recovering energy associated with the operation of an elevator, comprising: determining, by a processing device , a battery charging current provided by a battery charger ; estimating a state of charge (SoC) of at least one battery based on charging current acceptance capability; and causing, by the processing device , a charging of the at least one battery to within a threshold amount of 100% of SoC i.e. a level or value that is less than 100% SoC, such that the battery is able to recover energy associated with elevator operation; characterized by the method further comprising subsequent to charging the at least one battery to within the threshold amount of 100% SoC, determining, by the processing device, that the at least one battery has not been fully charged i.e. to approximately 100% SoC for an amount of time greater than a second threshold; and causing, by the processing device, the at least one battery to be charged for an amount of time greater than a third threshold, which causes the battery to be charged to approximately 100% SoC, based on determining that the at least one battery has not been fully charged for the amount of time greater than the second threshold. determining, by a processing device , a battery charging current provided by a battery charger ; estimating a state of charge (SoC) of at least one battery based on charging current acceptance capability; and causing, by the processing device , a charging of the at least one battery to within a threshold amount of 100% of SoC i.e. a level or value that is less than 100% SoC, such that the battery is able to recover energy associated with elevator operation; characterized by the method further comprising subsequent to charging the at least one battery to within the threshold amount of 100% SoC, determining, by the processing device, that the at least one battery has not been fully charged i.e. to approximately 100% SoC for an amount of time greater than a second threshold; and causing, by the processing device, the at least one battery to be charged for an amount of time greater than a third threshold, which causes the battery to be charged to approximately 100% SoC, based on determining that the at least one battery has not been fully charged for the amount of time greater than the second threshold.
Process for the manufacture of an effervescent formulation of ornithine aspartate comprising the following steps: - granulation of an ornithine aspartate-mix comprising ornithine aspartate and a gas generating component, thus yielding granules G, - mixing the components of a final mix comprising granules G and an acid component, thus yielding an effervescent formulation of ornithine aspartate. - granulation of an ornithine aspartate-mix comprising ornithine aspartate and a gas generating component, thus yielding granules G, - mixing the components of a final mix comprising granules G and an acid component, thus yielding an effervescent formulation of ornithine aspartate.
A mechanism for a drug delivery device, comprising - a body defining an axial direction, - a dial that is movable relative to the body for setting a dose, - an indicator member coupled with the dial , and - a movable window displaying a surface area of the indicator member , characterized in that - the indicator member is axially movable relative to the body , - a window arrangement comprising the movable window that is coupled to the indicator member , wherein the movable window is threadedly engaged with the indicator member , and - an axial movement of the indicator member generates a movement of the movable window in the opposite axial direction relative to the indicator member or relative to the body . - a body defining an axial direction, - a dial that is movable relative to the body for setting a dose, - an indicator member coupled with the dial , and - a movable window displaying a surface area of the indicator member , characterized in that - the indicator member is axially movable relative to the body , - a window arrangement comprising the movable window that is coupled to the indicator member , wherein the movable window is threadedly engaged with the indicator member , and - an axial movement of the indicator member generates a movement of the movable window in the opposite axial direction relative to the indicator member or relative to the body .
A milky beverage comprising a low milk content of less than 3.0% of non-fat milk solids, less than 1,000,000 lactic acid bacteria or yeast cells per 1 mL and from 0.0010-0.0600 g of the amino acid proline per 100 g of the milky beverage, wherein the milky beverage does not contain amino acids other than proline.
A method for conveying cores automatically to a slitter-winder comprising a driving side (A) from which the cores are conveyed to the slitter-winder; an inner side (B) and an outer side (C) where a web which has been slit is wound on the cores as customer rolls; on the inner side (B) a vertically moveable safety gate (15', 15", 21', 21") having a lower position which forms a safety position and an upper position which allows movement in the area; and a core magazine (14', 14", 20', 20") supported on the safety gate; and in which slitter-winder each core is kept in place at both ends by their own core spindles against one winding roll, wherein the cores are conveyed in a direction along the core axis, outside the safety gate, from the driving side (A) of the slitter-winder in a horizontal plane above the safety gate (15', 15", 21', 21") which is located in the safety position to the point of, i.e. to the front of, the safety gate, and the cores are conveyed further to the core magazines (14', 14", 20', 20") by a motion performed in a substantially transverse direction in relation to the core axis.
A continuous-flow steam explosion reactor for pre-treatment of organic material for further processing to value-added products, comprising: a loading section , a high-pressure retention section , a pressure relief section , and a-discharge section , and wherein said high-pressure retention section comprises at least one adjustable-speed conveyor for transporting a stream of source material through said section, further comprising steam provision means connected to a source of steam, for providing steam into at least said high-pressure retention section , wherein said loading section is configured to transfer material at ambient pressure upstream of the loading section to said high-pressure retention section while retaining high pressure and temperature in the high-pressure retention section by means of steam injection to said loading section , characterised in that said pressure relief section is configured to transfer material from said high-pressure retention section to a discharge section while retaining high pressure in the high-pressure retention section by means of steam injection to said pressure relief section , and wherein said steam injection means in said loading section and said steam injection means in said pressure relief section and loading and release from sections are synchronised such that pressure drop in the high-pressure retention section is minimal and high operating pressure and temperature is maintained during operation. a loading section , a high-pressure retention section , a pressure relief section , and a-discharge section , and wherein said high-pressure retention section comprises at least one adjustable-speed conveyor for transporting a stream of source material through said section, further comprising steam provision means connected to a source of steam, for providing steam into at least said high-pressure retention section , wherein said loading section is configured to transfer material at ambient pressure upstream of the loading section to said high-pressure retention section while retaining high pressure and temperature in the high-pressure retention section by means of steam injection to said loading section , characterised in that said pressure relief section is configured to transfer material from said high-pressure retention section to a discharge section while retaining high pressure in the high-pressure retention section by means of steam injection to said pressure relief section , and wherein said steam injection means in said loading section and said steam injection means in said pressure relief section and loading and release from sections are synchronised such that pressure drop in the high-pressure retention section is minimal and high operating pressure and temperature is maintained during operation.
An inter-master node, MN, handover method to a target MN from a source MN which provides dual-connectivity together with a secondary node, SN, the method comprising: receiving , by the target MN from the source MN, a handover request message, wherein the handover request message comprises an identity, ID, of a user equipment, UE, allocated at the SN and an ID of the SN; sending , by the target MN to the SN, a SCG configuration request message including the ID of the UE allocated at the SN; receiving , by the target MN from the SN, a SCG configuration response message indicating that an UE context in the SN is kept; and sending , by the target MN to the source MN, a handover request acknowledge message including information indicating that an UE context in the SN is kept, wherein the ID of the UE allocated at the SN is an ID to identify the UE over an interface between the source MN and the SN. receiving , by the target MN from the source MN, a handover request message, wherein the handover request message comprises an identity, ID, of a user equipment, UE, allocated at the SN and an ID of the SN; sending , by the target MN to the SN, a SCG configuration request message including the ID of the UE allocated at the SN; receiving , by the target MN from the SN, a SCG configuration response message indicating that an UE context in the SN is kept; and sending , by the target MN to the source MN, a handover request acknowledge message including information indicating that an UE context in the SN is kept, wherein the ID of the UE allocated at the SN is an ID to identify the UE over an interface between the source MN and the SN.
An imaging apparatus for imaging an object using Fourier-domain optical coherence tomography comprising: a light source for emitting light; a splitting unit for splitting the light from the light source into reference light and measuring light ; a combining unit for combining returning light obtained by radiating the measuring light to the object and the reference light to combined light ; a detecting unit for alternatively detecting either the combined light or the reference light ; an optical scanning unit for scanning the measuring light on the object ; and an interferometric information acquiring unit for acquiring interferometric information on the returning light and the reference light by using the combined light and the reference light detected by the detecting unit , characterized in that the optical scanning unit is configured to function as a first switching unit ; the imaging apparatus further comprises a controlling unit configured to control the first switching unit to switch between a first state and a second state by changing the light path of the measuring light; and the detecting unit is configured to detect the combined light in the first state and the reference light in the second state. a light source for emitting light; a splitting unit for splitting the light from the light source into reference light and measuring light ; a combining unit for combining returning light obtained by radiating the measuring light to the object and the reference light to combined light ; a detecting unit for alternatively detecting either the combined light or the reference light ; an optical scanning unit for scanning the measuring light on the object ; and an interferometric information acquiring unit for acquiring interferometric information on the returning light and the reference light by using the combined light and the reference light detected by the detecting unit , characterized in that the optical scanning unit is configured to function as a first switching unit ; the imaging apparatus further comprises a controlling unit configured to control the first switching unit to switch between a first state and a second state by changing the light path of the measuring light; and the detecting unit is configured to detect the combined light in the first state and the reference light in the second state.
Casting apparatus for producing metal matrix composite materials comprising a melt channel which is inclined in a flow direction (A, A') of the casting apparatus with a flow pathway for a metal melt, and a particle feed device for adding solid particles to the metal melt, characterized in that the particle feed device is formed as a particle feed chute that extends at least to a base of the flow pathway and has a particle exit window formed in a chute casing of the particle feed chute .