mhurhangee/ep-ind-claims huggingface dataset:
A clay-like composition for forming a sintered precious metal body, the clay-like composition comprising: at least one powder selected from the group consisting of precious metal powders and precious metal alloy powders; 2 to 12 mass% of an organic binder formed from at least one material selected from among cellulose-based binders, polyvinyl-based binders, acrylic-based binders, wax-based binders, resin-based binders, starch, gelatin and flour; 0.1 to 3.0 mass% of propylene glycol; and water, wherein the clay-like composition has an initial hardness measured using a type E durometer of E8 to E20, and has a hardness after standing for one hour at room temperature of E40 or less. at least one powder selected from the group consisting of precious metal powders and precious metal alloy powders; 2 to 12 mass% of an organic binder formed from at least one material selected from among cellulose-based binders, polyvinyl-based binders, acrylic-based binders, wax-based binders, resin-based binders, starch, gelatin and flour; 0.1 to 3.0 mass% of propylene glycol; and water,
A removable passenger seat for an airplane comprising: a suitcase shell for stowing luggage; and a collapsible backrest; wherein the seat further comprises a seat frame, wherein said suitcase shell is arranged in said seat frame, wherein said suitcase shell is arranged in a swiveling manner such that said seat may be converted from a seat configuration into a suitcase configuration and back by collapsing said backrest and by swiveling said suitcase shell from a seat positon to a suitcase position, and wherein the said suitcase shell comprises an access opening, wherein said access opening is covered by means of a cover plate, and wherein said cover plate serves as the seating surface of said seat, wherein, in the seat position, the seating surface is oriented substantially horizontal, wherein a swiveling angle of said suitcase shell between said seat configuration and said suitcase configuration is in a range of from 70 to 100 degrees, preferably 90 degrees, and wherein the removable passenger seat is configured to be attached and detached from the airplane by hand and/or foot and is usable as carry-on piece of luggage. a suitcase shell for stowing luggage; and a collapsible backrest; wherein the seat further comprises a seat frame, wherein said suitcase shell is arranged in said seat frame, wherein said suitcase shell is arranged in a swiveling manner such that said seat may be converted from a seat configuration into a suitcase configuration and back by collapsing said backrest and by swiveling said suitcase shell from a seat positon to a suitcase position, and wherein the said suitcase shell comprises an access opening, wherein said access opening is covered by means of a cover plate, and wherein said cover plate serves as the seating surface of said seat, wherein, in the seat position, the seating surface is oriented substantially horizontal, wherein a swiveling angle of said suitcase shell between said seat configuration and said suitcase configuration is in a range of from 70 to 100 degrees, preferably 90 degrees, and wherein the removable passenger seat is configured to be attached and detached from the airplane by hand and/or foot and is usable as carry-on piece of luggage.
A charging station for inductive charging of an electrical device having a rechargeable battery and a receiving induction coil, the charging station comprising: a housing comprising a plurality of orthogonally oriented panels forming an interior volume arranged to host the electrical device; first, second and third primary transmitting induction coils, wherein the first, second and third primary transmitting induction coils are orthogonally oriented; and a controller arranged to in sequence excite the first, second and third primary transmitting induction coils with charging current; wherein each of the plurality of primary transmitting induction coils is arranged at a separate panel of the housing. a housing comprising a plurality of orthogonally oriented panels forming an interior volume arranged to host the electrical device; first, second and third primary transmitting induction coils, wherein the first, second and third primary transmitting induction coils are orthogonally oriented; and a controller arranged to in sequence excite the first, second and third primary transmitting induction coils with charging current; wherein each of the plurality of primary transmitting induction coils is arranged at a separate panel of the housing.
An electric compressor (10, 110) mountable to a vehicle, the electric compressor (10, 110) comprising: a motor; a compression unit driven by the motor; an inverter unit for driving the motor; a housing for accommodating the motor, the compression unit, and the inverter unit; a cover (20, 120) mounted to the housing for closing a space accommodating the inverter unit; a first mounting leg (18c, 18d, 118a, 118b) to be fixed to the vehicle, the first mounting leg (18c, 18d, 118a, 118b) being provided to the housing; and a second mounting leg (20a, 130) provided to the cover (20,120),the mounting leg to be fixed to the vehicle, characterized in that the second mounting leg (20a, 130) is including a stress concentration part (20d, 140b, 140c, 140d) at which stress concentrates as compared with other portions of the electric compressor (10, 110). a motor; a compression unit driven by the motor; an inverter unit for driving the motor; a housing for accommodating the motor, the compression unit, and the inverter unit; a cover (20, 120) mounted to the housing for closing a space accommodating the inverter unit; a first mounting leg (18c, 18d, 118a, 118b) to be fixed to the vehicle, the first mounting leg (18c, 18d, 118a, 118b) being provided to the housing; and a second mounting leg (20a, 130) provided to the cover (20,120),the mounting leg to be fixed to the vehicle, characterized in that the second mounting leg (20a, 130) is including a stress concentration part (20d, 140b, 140c, 140d) at which stress concentrates as compared with other portions of the electric compressor (10, 110).
A method for manufacturing an electrode assembly for a secondary battery, the method comprising: preparing at least one first bi-cell consisting in a stack of first electrode/separator/second electrode/separator/first electrode arranged in order; preparing at least one second bi-cell having a stack of outer separator/second electrode/separator/first electrode/separator/second electrode/outer separator arranged in order; and alternately stacking the at least one first bi-cell and the at least one second bi-cell. preparing at least one first bi-cell consisting in a stack of first electrode/separator/second electrode/separator/first electrode arranged in order; preparing at least one second bi-cell having a stack of outer separator/second electrode/separator/first electrode/separator/second electrode/outer separator arranged in order; and alternately stacking the at least one first bi-cell and the at least one second bi-cell.
An oil composition comprising at least 0.4 wt.% of at least one polyunsaturated fatty acid having four or more carbon-carbon double bonds or a derivative thereof based upon the total weight of fatty acids or derivatives thereof in the composition, the composition having a peroxide value of less than 1 meq/kg or an anisidine value of less than 3, and the composition being a refined, bleached, deodorized oil from Arabidopsis, carrot, coconut, corn, cotton, flax, linseed, maize, palm kernel, peanut, potato, safflower, soybean, sunflower, or tobacco oil, or a mixture thereof, genetically-modified to express elevated levels of polyunsaturated fatty acids, the composition being obtainable by a process comprising deodorizing the bleached oil or refined, bleached oil in a continuous deodorizer at a temperature from 240°C to 250°C at a pressure of from 0.002 to 1.4 kPa and a residence time of up to 30 minutes to form the oil composition.
Valve guide manufactured by powder-metallurgical processes for combustion engines, said guide comprising a central section, an end piece facing the cam, and an end piece facing the duct, characterized in that the central section consists of a first material and the duct-side end piece of a second material, with the second material having a hardness in excess of 70 HRB and the first material having a hardness that is by at least 10 HRB lower than that of the second material.
Thermally expandable composition, comprising (a) at least one epoxy-functional polymer EP, (b) optionally at least one thermoplastic polymer P, (c) at least one chemical blowing agent B, (d) at least one activator for said chemical blowing agent A, wherein said epoxy-functional polymer EP is present in the composition before expansion with an amount of between 30 and 75 wt.-%, based on the total composition, and said epoxy-functional polymer EP comprises at least 400 mmol epoxy groups per kg polymer EP, wherein the amount (in mmol) of epoxy groups per kg polymer is determined by ASTM D1652 or DIN 16945 standard methods or is calculated from the weight percentage of epoxy group-containing monomers in the case of a copolymer, and wherein said chemical blowing agent B is able to form at least one reaction product with at least two amino groups upon thermal decomposition and is selected from azo compounds, nitroso compounds, and carbamates, and said chemical blowing agent B is present in the composition before expansion with an amount of between 7 and 25 wt.-%, based on the total composition. (a) at least one epoxy-functional polymer EP, (b) optionally at least one thermoplastic polymer P, (c) at least one chemical blowing agent B, (d) at least one activator for said chemical blowing agent A, wherein said epoxy-functional polymer EP is present in the composition before expansion with an amount of between 30 and 75 wt.-%, based on the total composition, and said epoxy-functional polymer EP comprises at least 400 mmol epoxy groups per kg polymer EP, wherein the amount (in mmol) of epoxy groups per kg polymer is determined by ASTM D1652 or DIN 16945 standard methods or is calculated from the weight percentage of epoxy group-containing monomers in the case of a copolymer, and wherein said chemical blowing agent B is able to form at least one reaction product with at least two amino groups upon thermal decomposition and is selected from azo compounds, nitroso compounds, and carbamates, and said chemical blowing agent B is present in the composition before expansion with an amount of between 7 and 25 wt.-%, based on the total composition.
An arrangement comprising a drawer (1, 2) and an extension guide (3, 4) for the drawer (1, 2), wherein the drawer (1, 2) has a drawer container and two front panels connectable to the drawer container and the drawer (1, 2) can be releasably fixed to the extension guide (3, 4) by way of a fixing device (5, 6) and the extension guide (3, 4) has at least a front and a rear latching position (E 1, E 2) for fixing the drawer (1, 2), characterized in that the drawer (1, 2) has a front panel for a front pull-out extension or a front panel for an internal pull-out arrangement, wherein only one of the two front panels has an abutment, wherein the respective drawer (1, 2) is latched or fixed, respectively, in dependence of the front panel for the internal pull-out arrangement or of the front panel for the front pull-out extension in the rear (E 1) or front latching position (E 2), wherein the latching position (E 1, E 2) is established by the abutment which is arranged on the front panel.
A system for storage and dosing of ammonia that comprises a solid ammonia storage material capable of binding and releasing ammonia reversibly by adsorption/absorption, said system being able to release ammonia gradually according to a demand that can vary over time with intermediate periods of no ammonia demand, said system comprising: - a main storage unit and a start-up storage unit, the storage units holding ammonia storage material, - at least one one-way valve via which the main storage unit is in communication with the start-up storage unit, the one-way valve preventing any back-flow of ammonia from the start-up storage unit to the main storage unit; - heating devices (8, 9) arranged to heat the main storage unit and the start-up storage unit separately to generate gaseous ammonia by thermal desorption from the solid storage material; - a controller arranged to control the heating power of the main storage unit and the start-up storage unit, thereby enabling ammonia release from the start-up and/or the main storage unit; - a dosing valve arranged to control ammonia flow from the storage units according to a demand - a first line between the at least one one-way valve and the dosing valve; - a valve-free second line between the start-up unit and the first line; and - a pressure sensor arranged downstream of the at least one one-way valve to measure the pressure in the first and second lines. - a main storage unit and a start-up storage unit, the storage units holding ammonia storage material, - at least one one-way valve via which the main storage unit is in communication with the start-up storage unit, the one-way valve preventing any back-flow of ammonia from the start-up storage unit to the main storage unit; - heating devices (8, 9) arranged to heat the main storage unit and the start-up storage unit separately to generate gaseous ammonia by thermal desorption from the solid storage material; - a controller arranged to control the heating power of the main storage unit and the start-up storage unit, thereby enabling ammonia release from the start-up and/or the main storage unit; - a dosing valve arranged to control ammonia flow from the storage units according to a demand - a first line between the at least one one-way valve and the dosing valve; - a valve-free second line between the start-up unit and the first line; and - a pressure sensor arranged downstream of the at least one one-way valve to measure the pressure in the first and second lines.
A method implemented in a data processing system for processing a hardcopy document, the hardcopy document having been printed by a printer based on an original image, the original image being a binary digital image, comprising the steps of: (a) generating a grayscale scanned image from the hardcopy document using an imaging device; (b) obtaining the original image from a database, (c) dividing the original image into a plurality of original sub-image; (d) for each original sub-image, using template matching to find a grayscale scanned sub-image in the grayscale scanned image corresponding to the original sub-image; obtaining an initial threshold for binarizing the grayscale scanned sub-image; and obtaining an optimal threshold for binarizing the grayscale scanned sub-image using the initial threshold and an iterative search, wherein the optimal threshold generates an optimum binarized scanned sub-image that minimizes a measure of difference between the original sub-image and the binarized grayscale scanned sub-image; and (e) generating a binarized scanned image by combining the optimum binarized scanned sub-images generated in step (d), (a) generating a grayscale scanned image from the hardcopy document using an imaging device; (b) obtaining the original image from a database, (c) dividing the original image into a plurality of original sub-image; (d) for each original sub-image, using template matching to find a grayscale scanned sub-image in the grayscale scanned image corresponding to the original sub-image; obtaining an initial threshold for binarizing the grayscale scanned sub-image; and obtaining an optimal threshold for binarizing the grayscale scanned sub-image using the initial threshold and an iterative search, wherein the optimal threshold generates an optimum binarized scanned sub-image that minimizes a measure of difference between the original sub-image and the binarized grayscale scanned sub-image; and (e) generating a binarized scanned image by combining the optimum binarized scanned sub-images generated in step (d),
A method of providing a heat barrier layer to a surface of a radiator, said method comprising: obtaining a piece of layered material comprising a magnetic first layer defining magnetic poles and a second layer having a higher reflectance of infrared than said first layer; and attaching said piece of layered material to a radiator by means of a force produced by said magnetic poles, characterised in that: said first layer is attached directly to said radiator such that said second layer provides the radiator with a low emissivity rear surface relative to a front surface of said radiator. obtaining a piece of layered material comprising a magnetic first layer defining magnetic poles and a second layer having a higher reflectance of infrared than said first layer; and attaching said piece of layered material to a radiator by means of a force produced by said magnetic poles, characterised in that: said first layer is attached directly to said radiator such that said second layer provides the radiator with a low emissivity rear surface relative to a front surface of said radiator. said first layer is attached directly to said radiator such that said second layer provides the radiator with a low emissivity rear surface relative to a front surface of said radiator.
A method, comprising: receiving, by a fifth generation, 5G, telecommunication network (104, 108) and from a user equipment, UE, a network registration message comprising a UE voice capability indicator (130, 304); determining, by the 5G telecommunication network and based on the UE voice capability indicator, that the UE does not support emergency calls via the 5G telecommunication network; and transmitting, by the 5G telecommunication network and to the UE in response to the network registration message, an emergency call instruction (132, 306) that configures the UE to use Long-Term Evolution, LTE, emergency fallback procedures, wherein the emergency call instruction causes the UE to include an emergency service fallback indicator in a service request for an emergency call sent by the UE to the 5G telecommunication network; wherein the 5G telecommunication network supports emergency calls. receiving, by a fifth generation, 5G, telecommunication network (104, 108) and from a user equipment, UE, a network registration message comprising a UE voice capability indicator (130, 304); determining, by the 5G telecommunication network and based on the UE voice capability indicator, that the UE does not support emergency calls via the 5G telecommunication network; and transmitting, by the 5G telecommunication network and to the UE in response to the network registration message, an emergency call instruction (132, 306) that configures the UE to use Long-Term Evolution, LTE, emergency fallback procedures, wherein the emergency call instruction causes the UE to include an emergency service fallback indicator in a service request for an emergency call sent by the UE to the 5G telecommunication network; wherein the 5G telecommunication network supports emergency calls.
Measuring device for the determination of a measuring capacitance, - comprising a clock oscillator which oscillates at a scanning frequency (fA), - a measuring oscillator which oscillates at a measurement frequency depending upon a measuring capacitance, and - an edge counter which counts the number of clock oscillations during a specific number of measuring oscillations, wherein a circuit is provided for a measurement refinement, characterised in that the circuit for said measurement refinement is started by a measuring edge of a last scanned measuring oscillation and stopped by an equally oriented and immediately following edge of a subsequent clock oscillation, wherein the circuit for measurement refinement has a plurality of series-connected delay elements (31, 32, 33, 34), to which the measurement signal can be supplied and at the outputs of which the respective measurement signals which are delayed relative to one another can be tapped as the comparison signal, and wherein the circuit for measurement refinement has a plurality of comparators (K1, K2, K3, K4), to which the clock signal is supplied on the one hand and one of the comparison signals (s1, s2, s3, s4) is supplied on the other hand, wherein the comparison signals (s1, s2, s3, s4) are each compared with the clock signal and the result of this comparison represents a portion of a clock period, which is subtracted from the number of clock oscillations. - comprising a clock oscillator which oscillates at a scanning frequency (fA), - a measuring oscillator which oscillates at a measurement frequency depending upon a measuring capacitance, and - an edge counter which counts the number of clock oscillations during a specific number of measuring oscillations, wherein a circuit is provided for a measurement refinement,
A process for the production of an at least two-layer thermoplastic foam sheet via thermal welding of at least two thinner thermoplastic foam sheets, comprising the following steps a) to e): a) two thinner thermoplastic foam sheets (3, 4) are oriented parallel to one another with a separation (a), in such a way that they form an intermediate space, b) at least one heating element (1, 2) is introduced parallel to the two thinner thermoplastic foam sheets, into the intermediate space, and the surfaces of the two thinner thermoplastic foam sheets here do not touch the heating element, c) the heating element is introduced between the two thinner thermoplastic foam sheets to an extent such that, in relation to every location on the respective surface of the two thinner thermoplastic foam sheets, the heating element has been present at least temporarily between the two thinner thermoplastic foam sheets, d) the heating element is in turn removed completely from the intermediate space, e) at least one of the two thinner thermoplastic foam sheets is forced against the surface of the respective other thinner thermoplastic foam sheet, wherein, during the steps b), c) and d), warm air is passed between the two thinner thermoplastic foam sheets. a) two thinner thermoplastic foam sheets (3, 4) are oriented parallel to one another with a separation (a), in such a way that they form an intermediate space, b) at least one heating element (1, 2) is introduced parallel to the two thinner thermoplastic foam sheets, into the intermediate space, and the surfaces of the two thinner thermoplastic foam sheets here do not touch the heating element, c) the heating element is introduced between the two thinner thermoplastic foam sheets to an extent such that, in relation to every location on the respective surface of the two thinner thermoplastic foam sheets, the heating element has been present at least temporarily between the two thinner thermoplastic foam sheets, d) the heating element is in turn removed completely from the intermediate space, e) at least one of the two thinner thermoplastic foam sheets is forced against the surface of the respective other thinner thermoplastic foam sheet,