mhurhangee/patent-ind-claim-en huggingface dataset:
An automatic take-off and landing control device for an aircraft , the control device comprising: at least one of a radar-based tracking device or a pseudo-lite system based tracking device, the radar-based tracking device or the pseudo-lite system based tracking device being adapted for receiving at least one local signal from at least one local ground station and for determining a position of the aircraft based on the at least one local signal, and at least one of: at least one GNSS tracking device adapted for receiving a GNSS signal and for determining a position of the aircraft based on the GNSS signal, at least one camera device adapted for observing an environment of the aircraft and for determining a position of the aircraft based on the camera signal; and further comprising at least one monitoring device adapted for continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device based on analyzing signals received from the radar based or pseudo-lite system based tracking device and one of the at least one GNSS tracking device , and the at least one camera device ; wherein continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device comprises determining a quality of position data provided by the at least one radar-based or pseudo-lite system based tracking device. at least one GNSS tracking device adapted for receiving a GNSS signal and for determining a position of the aircraft based on the GNSS signal, at least one camera device adapted for observing an environment of the aircraft and for determining a position of the aircraft based on the camera signal; and further comprising at least one monitoring device adapted for continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device based on analyzing signals received from the radar based or pseudo-lite system based tracking device and one of the at least one GNSS tracking device , and the at least one camera device ; wherein continuously supervising a performance and a health status of the at least one radar-based or pseudo-lite system based tracking device comprises determining a quality of position data provided by the at least one radar-based or pseudo-lite system based tracking device.
Plug for a temporary closure of the tap hole of a tilting converter , consisting of a cylindrical, malleable plug body consisting of a clay mixture , lightweight bodies consisting of easily meltable hydrocarbon compounds, plasticizers and celluloses as well as oil as a moulding aid, a base plate limiting the plug body underneath, a end plate limiting the plug body above and a pipe connecting both plates , whereby the plug body can be introduced into the tapping hole from the cold edge via an applicator and fixed in it and is washed out of the tap hole via the liquid steel , characterized in that the plug body is easily malleable as a soft mass through the addition of viscous oils and that it is provided with retaining claws , which are shaped to attach themselves to the inner wall of the tapping hole with their hooks when the plug body is inserted, whereby the base plate is then movable in the direction of the end plate connected with retaining claws and thereby a distortion of the plug body between base plate and end plate is carried out with the help of the rod-shaped applicator .
Device for simulating traffic obstacles on a road, characterized by at least one light source adapted to be installed in a road and adapted to emit light signals in response to respective activation, at least one sensor adapted to detect an overrun status, and an electronic component adapted to control the at least one light source and to receive and to evaluate data from the at least one sensor .
Turnbuckle, which comprises a screw rod provided with a thread and a frame part that is provided with a corresponding thread and is rotatable in relation to the screw rod, which frame part has vertical bars , and on the top end of which screw rod a retainer is installed, and installed on at least one vertical bar is a locking means (10, 10', 10") that slides in the direction of the vertical bar, and that in its locking position collides with the retainer on the screw rod and prevents movement of the frame part around the screw rod , characterized in that the locking means (10, 10', 10") is shaped and dimensioned in such a way that it is possible for the bottom end of a lashing bar connected to the turnbuckle to extend in its extreme position up to the top end of the screw rod without the locking means preventing this, regardless of the attitude and height position of the locking means.
A decorative material comprising: a base material ; a first cover layer that is laminated on the base material, covers the base material, and is made of opaque synthesis resin; and a second cover layer that is laminated on the first cover layer, covers the first cover layer, and is made of chromatic and transparent synthesis resin, wherein the first cover layer contains first coloring pigmet having no luster, and bright pigment having luster, and the second cover layer contains second coloring pigment having no luster, characterized in that a bonding layer is provided between the base material and the first cover layer in the lamination direction, said bonding layer joining the base material and the first cover layer integrated with the second cover layer and in that the first cover layer, the second cover layer and the bonding layer are based on a synthetic resin of the same material. a base material ; a first cover layer that is laminated on the base material, covers the base material, and is made of opaque synthesis resin; and a second cover layer that is laminated on the first cover layer, covers the first cover layer, and is made of chromatic and transparent synthesis resin, wherein the first cover layer contains first coloring pigmet having no luster, and bright pigment having luster, and the second cover layer contains second coloring pigment having no luster, characterized in that a bonding layer is provided between the base material and the first cover layer in the lamination direction, said bonding layer joining the base material and the first cover layer integrated with the second cover layer and in that the first cover layer, the second cover layer and the bonding layer are based on a synthetic resin of the same material.
A waveguide structure (11; 12; 13; 14; 15) comprising: an output grating ; a polarization conversion element (410; 420) disposed parallel to the output grating ; a polarization separation element provided between the output grating and the polarization conversion element (410; 420); and a first input grating provided on the surface of the polarization conversion element (410; 420), wherein the first input grating is configured to provide light to the polarization separation element , wherein the polarization separation element is configured to: transmit, to the output grating , light having a first polarization direction among light incident on the polarization separation element , and reflect, to the polarization conversion element (410; 420), light having a second polarization direction different from the light having the first polarization direction among the light incident on the polarization separation element , and characterized in that the polarization separation element comprises a first area having a first light transfer efficiency, and a second area having a second light transfer efficiency that is greater than the first light transfer efficiency, wherein the first area is closer to the first input grating than the second area. an output grating ; a polarization conversion element (410; 420) disposed parallel to the output grating ; a polarization separation element provided between the output grating and the polarization conversion element (410; 420); and a first input grating provided on the surface of the polarization conversion element (410; 420), wherein the first input grating is configured to provide light to the polarization separation element , wherein the polarization separation element is configured to: transmit, to the output grating , light having a first polarization direction among light incident on the polarization separation element , and reflect, to the polarization conversion element (410; 420), light having a second polarization direction different from the light having the first polarization direction among the light incident on the polarization separation element , and characterized in that the polarization separation element comprises a first area having a first light transfer efficiency, and a second area having a second light transfer efficiency that is greater than the first light transfer efficiency, wherein the first area is closer to the first input grating than the second area. transmit, to the output grating , light having a first polarization direction among light incident on the polarization separation element , and reflect, to the polarization conversion element (410; 420), light having a second polarization direction different from the light having the first polarization direction among the light incident on the polarization separation element , and characterized in that the polarization separation element comprises a first area having a first light transfer efficiency, and a second area having a second light transfer efficiency that is greater than the first light transfer efficiency, wherein the first area is closer to the first input grating than the second area.
A unit including two hydraulic units and a control plate mounted between the two hydraulic units , in particular between the two hydraulic units of a transmission, wherein the control plate comprises an intermediate layer having apertures for guiding fluid, and metal sealing layers that are arranged on either side of the intermediate layer and have apertures for guiding fluid, and linearly formed sealing beads which run between the apertures, for sealing between the intermediate layer and the opposing hydraulic units on either side thereof and wherein, for sealing, the sealing beads abut by means of their bead feet against the intermediate layer and have on their side remote from the intermediate layer a bead crest for linearly sealing to the respective hydraulic unit , wherein the sealing beads in the sealing layers are formed such that when the sealing beads are compressed in the course of installing the control plate between the hydraulic units a plasto-elastic deformation is established, at least in certain regions, and characterised in that there is achieved over the entire linear extent of the respective bead crest a sealing force which is above a predetermined minimum sealing force of 5 N/mm 2 , and the sealing force is 100 N/mm 2 or less, and in that after the plasto-elastic deformation for achieving the predetermined minimum sealing force, the sealing beads still have a rebound travel of 10 μm or more, and in that with a plasto-elastic deformation of the respective sealing bead to a bead height (HD) that is 5 μm greater than the bead height (HD) on complete compression, the sealing force (DK) is in a range of from 40 N/mm 2 to 80 N/mm 2 , and/or in that , with a plasto-elastic deformation of the sealing beads to a bead height (HD) that is 50 μm above the bead height (HD) on complete compression, the sealing force (DK) is in a range of from 5 N/mm 2 to 20 N/mm 2 , wherein a complete compression is defined by a bead height equal to zero.
An ambient computing system , the ambient computing system configured to monitor and respond to inputs from its environment while in a low-power state, the ambient computing system comprising: a machine learning engine ; a low-power CPU ; and an external memory that is shared among at least the machine learning engine and the low-power CPU ; wherein the machine learning engine comprises virtual address logic to translate from virtual addresses generated by the machine learning engine to physical addresses within the external memory ; wherein the ambient computing system is configured to stream, into the external memory , parameters for a machine learning model from a second memory that is separate from the ambient computing system; and wherein the machine learning engine is configured: to receive one or more sensor signals, or a processed version of one or more sensor signals; to perform an inference pass over the machine learning model by reading, from the external memory , the parameters of the machine learning model; and to generate an output that represents which other processing components should further process the one or more sensor signals. a machine learning engine ; a low-power CPU ; and an external memory that is shared among at least the machine learning engine and the low-power CPU ; wherein the machine learning engine comprises virtual address logic to translate from virtual addresses generated by the machine learning engine to physical addresses within the external memory ; wherein the ambient computing system is configured to stream, into the external memory , parameters for a machine learning model from a second memory that is separate from the ambient computing system; and wherein the machine learning engine is configured: to receive one or more sensor signals, or a processed version of one or more sensor signals; to perform an inference pass over the machine learning model by reading, from the external memory , the parameters of the machine learning model; and to generate an output that represents which other processing components should further process the one or more sensor signals. to receive one or more sensor signals, or a processed version of one or more sensor signals; to perform an inference pass over the machine learning model by reading, from the external memory , the parameters of the machine learning model; and to generate an output that represents which other processing components should further process the one or more sensor signals.
A welding helmet comprising a protective shield and a first swivel mechanism that pivotally connects the protective shield with a head suspension system for swiveling about a swivel axis (A), the first swivel mechanism enabling the protective shield relative to the head suspension system to be swiveled between a lowered position, in which the protective shield covers a wearer's face, and an upraised position, in which the protective shield uncovers the wearer's face, wherein the first swivel mechanism comprises a recess and a retainer for engaging with the recess , wherein the retainer and the recess are arranged to engage with each other in the upraised position, and characterised in that they remain disengaged in the lowered position and between the lowered position and the upraised position.
A method for determining an amount of grain loss during operation of a combine harvester , the method comprising: determining, by an electronic processor , values for a set of operating parameters, the set of operating parameters not including any direct measurement of grain loss; and applying, by the electronic processor , an artificial neural network trained to receive as inputs the set of operating parameters and to produce as an output a value indicative of an estimated amount of grain loss; characterized by receiving, by the electronic processor , an output from a physical grain loss sensor indicative of an amount of grain loss measured by the physical grain loss sensor ; confirming proper operation of the physical grain loss sensor based at least in part on a comparison of the output from the physical grain loss sensor and the output of the artificial neural network. determining, by an electronic processor , values for a set of operating parameters, the set of operating parameters not including any direct measurement of grain loss; and applying, by the electronic processor , an artificial neural network trained to receive as inputs the set of operating parameters and to produce as an output a value indicative of an estimated amount of grain loss; characterized by receiving, by the electronic processor , an output from a physical grain loss sensor indicative of an amount of grain loss measured by the physical grain loss sensor ; confirming proper operation of the physical grain loss sensor based at least in part on a comparison of the output from the physical grain loss sensor and the output of the artificial neural network.
A method of coating one or more surfaces of a medical device comprising: providing a mixture of poly(lactide-co-glycolide) (PLGA) dimethacrylate, a photoinitiator, an organic solvent, and one or more drugs, medicaments, or pharmaceutical compounds; applying the mixture to one or more surfaces of the medical device ; and irradiating the mixture with polymerizing light to form a photo-crosslinked PLGA dimethacrylate coating on the one or more surfaces of the medical device containing the one or more drugs, medicaments, or pharmaceutical compounds. providing a mixture of poly(lactide-co-glycolide) (PLGA) dimethacrylate, a photoinitiator, an organic solvent, and one or more drugs, medicaments, or pharmaceutical compounds; applying the mixture to one or more surfaces of the medical device ; and irradiating the mixture with polymerizing light to form a photo-crosslinked PLGA dimethacrylate coating on the one or more surfaces of the medical device containing the one or more drugs, medicaments, or pharmaceutical compounds.
Method for manufacturing a thin sheet with a thickness of 0.5 to 8 mm from an aluminium-based alloy wherein, successively a) a liquid metal bath is produced, comprising 2.3 to 2.7% by weight Cu, 1.3 to 1.6% by weight Li, 0.2 to 0.5% by weight Mg, 0.1 to 0.5% by weight Mn, 0.01 to 0.15% by weight Ti, a quantity of Zn of less than 0.3% by weight, a quantity of Fe and Si of less than or equal to 0.1% by weight each, and unavoidable impurities with a content of less than or equal to 0.05% by weight each and 0.15% by weight in total, b) a plate is cast from said liquid metal bath; c) said plate is homogenised at a temperature of between 490°C and 535°C; d) said plate is rolled by hot rolling and optionally by cold rolling into a sheet having a thickness of between 0.5 and 8 mm, the entry temperature of the hot rolling being between 400°C and 445°C and the exit temperature of the hot rolling being less than 300°C; e) said sheet is solution heat treated at a temperature of between 450°C and 515°C and quenched; f) said sheet is stretched in a controlled manner with a permanent deformation of 0.5 to 6%, the cold deformation after solution heat treatment being less than 15%; g) aging is carried out, comprising heating at a temperature of between 130° and 170°C and preferably between 150° and 160°C for 5 to 100 hours and preferably 10 to 40 h. a) a liquid metal bath is produced, comprising 2.3 to 2.7% by weight Cu, 1.3 to 1.6% by weight Li, 0.2 to 0.5% by weight Mg, 0.1 to 0.5% by weight Mn, 0.01 to 0.15% by weight Ti, a quantity of Zn of less than 0.3% by weight, a quantity of Fe and Si of less than or equal to 0.1% by weight each, and unavoidable impurities with a content of less than or equal to 0.05% by weight each and 0.15% by weight in total, 2.3 to 2.7% by weight Cu, 1.3 to 1.6% by weight Li, 0.2 to 0.5% by weight Mg, 0.1 to 0.5% by weight Mn, 0.01 to 0.15% by weight Ti, b) a plate is cast from said liquid metal bath; c) said plate is homogenised at a temperature of between 490°C and 535°C; d) said plate is rolled by hot rolling and optionally by cold rolling into a sheet having a thickness of between 0.5 and 8 mm, the entry temperature of the hot rolling being between 400°C and 445°C and the exit temperature of the hot rolling being less than 300°C; e) said sheet is solution heat treated at a temperature of between 450°C and 515°C and quenched; f) said sheet is stretched in a controlled manner with a permanent deformation of 0.5 to 6%, the cold deformation after solution heat treatment being less than 15%; g) aging is carried out, comprising heating at a temperature of between 130° and 170°C and preferably between 150° and 160°C for 5 to 100 hours and preferably 10 to 40 h.
A polyacrylamide gel for gel electrophoresis, comprising: a gel buffer comprising: a gel amine buffer selected from bis(2-hydroxyethyl)-amino-tris(hydroxymethyl)-methane, 1,3-bis(tris(hydroxymethyl)methylamino)propane, and tris(hydroxymethyl)aminomethane, wherein the concentration of the gel amine buffer ranges from about 40 mM to about 150 mM; a primary gel ampholyte; and a conjugate gel ampholyte that is threonine. a gel amine buffer selected from bis(2-hydroxyethyl)-amino-tris(hydroxymethyl)-methane, 1,3-bis(tris(hydroxymethyl)methylamino)propane, and tris(hydroxymethyl)aminomethane, wherein the concentration of the gel amine buffer ranges from about 40 mM to about 150 mM; a primary gel ampholyte; and a conjugate gel ampholyte that is threonine.
Series module for a modular designed control arrangement , comprising a first series interface and a first bus interface and a second series interface and a second bus interface , wherein between the two bus interfaces a bus communication line is formed and between the two series interfaces multiple connecting lines are formed, wherein the connecting lines between the two series interfaces are arranged at least partially Z-linked, and wherein the connecting lines form several pairs of connecting lines, each of which comprising a ground line and a supply line, wherein at least one pair of connecting lines is Z-linked.
A preparing method of a super absorbent polymer sheet, comprising the steps of: preparing a monomer composition comprising an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer containing polyethylene glycol (methyl ether) (meth)acrylate, an internal cross-linking agent containing a polyol, an encapsulated blowing agent, and a polymerization initiator; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; and drying the hydrogel polymer to form a super absorbent polymer sheet. preparing a monomer composition comprising an acrylic acid-based monomer having at least partially neutralized acidic groups, a comonomer containing polyethylene glycol (methyl ether) (meth)acrylate, an internal cross-linking agent containing a polyol, an encapsulated blowing agent, and a polymerization initiator; preparing a hydrogel polymer by thermal polymerization or photopolymerization of the monomer composition; and drying the hydrogel polymer to form a super absorbent polymer sheet.