mhurhangee/ep-ind-claims huggingface dataset:
A method of laminating a plurality of layers (35, 37, 39, 40, 41) arranged in a stack to create a data carrier which is formed by at least one support layer with at least one electronic component and with an intermediate layer including a recess in which the at least one electronic component is positioned, and with at least one layer (39, 40, 41) covering the electronic component, said method employing a laminating device which has an upper tool and a lower tool having each a lamination plate (48, 49), and in which the stack to be laminated is positioned between the upper and lower lamination plates (48, 49), and in which the upper and lower lamination plates (48, 49) are moved towards the stack and said stack is at least exposed to pressure and a lamination process is activated which includes a heating stage to cause the layers (35, 37, 39, 40, 41) to be laminated so as to form the data carrier, characterised in that while pressure is exerted on the stack, the upper and lower lamination plates (48, 49) are activated and their heating temperatures (T1, T2) are respectively set in such a manner that between the upper and lower lamination plates (48, 49) a heating characteristic is established in the stack to be laminated in which a temperature minimum is targeted to be located in the support layer and/or in the intermediate layer.
A fuel filter with a housing and a filter element arranged therein, and with a water collection chamber for collecting water separated from the fuel and with a water level sensor for detecting a water level in the water collection chamber, characterized in that on the water level sensor a first terminal of an electrically conductive plastic is formed.
A multilayer sheet, comprising: a first resin layer of a polyolefin-based resin composition having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.5 to 25 g/10 minutes at 230°C under a load of 2.16 kg; a second resin layer of a polyvinylidene fluoride-based resin composition having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.5 to 25 g/10 minutes at 230°C under a load of 2.16 kg; and an adhesion resin layer of a conjugated diene-based polymer, a conjugated diene-based copolymer, or the hydride thereof having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.1 to 50 g/10 minutes at 230°C under a load of 2.16 kg, wherein the first resin layer, the adhesive layer and the second resin layer are laminated in that order. a first resin layer of a polyolefin-based resin composition having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.5 to 25 g/10 minutes at 230°C under a load of 2.16 kg; a second resin layer of a polyvinylidene fluoride-based resin composition having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.5 to 25 g/10 minutes at 230°C under a load of 2.16 kg; and an adhesion resin layer of a conjugated diene-based polymer, a conjugated diene-based copolymer, or the hydride thereof having a melt flow rate, as determined by the method A specified in JIS K7210, of 0.1 to 50 g/10 minutes at 230°C under a load of 2.16 kg, wherein the first resin layer, the adhesive layer and the second resin layer are laminated in that order.
A stator vane comprising: - a vane root, - a vane tip, - a leading edge extending between the root and the tip, the leading edge having a serrated profile having a succession of teeth and of troughs each having an amplitude and a thickness, characterized in that a series of at least three teeth and three troughs that are consecutive starting from the vane root and/or from the vane tip have a growing amplitude and/or thickness. - a vane root, - a vane tip, - a leading edge extending between the root and the tip, the leading edge having a serrated profile having a succession of teeth and of troughs each having an amplitude and a thickness,
A method for controlling a valve device (1, A3) to operate at a valve closing position, characterized by comprising: determining a first valve closing position as the valve closing position in a case that a direction of a system pressure applied on a valve needle of the valve device is identical to a valve closing direction; and determining a second valve closing position as the valve closing position in a case that the direction of the system pressure applied on the valve needle of the valve device is different from the valve closing direction, wherein the valve closing position comprises at least the first valve closing position and the second valve closing position, the first valve closing position is different from the second valve closing position, and the first valve closing position is set farther from a fully-closing position than the second valve closing position, and a total valve closing stroke is a stroke of the valve device (1, A3) from a fully-opening position to the fully-closing position. determining a first valve closing position as the valve closing position in a case that a direction of a system pressure applied on a valve needle of the valve device is identical to a valve closing direction; and determining a second valve closing position as the valve closing position in a case that the direction of the system pressure applied on the valve needle of the valve device is different from the valve closing direction, wherein the valve closing position comprises at least the first valve closing position and the second valve closing position, the first valve closing position is different from the second valve closing position, and the first valve closing position is set farther from a fully-closing position than the second valve closing position, and a total valve closing stroke is a stroke of the valve device (1, A3) from a fully-opening position to the fully-closing position.
An apparatus for crimping a sheet of material, the apparatus comprising a first and second facing crimping roller (11, 21) defining a first and second rotation axis (17, 27), respectively, the first roller including: ∘ a first plurality of circumferential ridges, each ridge defining a ridge amplitude; ∘ wherein each of said first plurality of ridges is interrupted along its circumferential extension forming an interruption gap where for a given interruption angle an amplitude of the ridge differs from the ridge amplitude in the remaining circumferential extension of the ridge; characterized in that ∘ said plurality of interruption gaps forms an interruption band defining a direction of extension, said direction of extension being angled with respect to a direction defined by the first rotation axis of an angle (α) comprised between about 2° to about 25°. ∘ a first plurality of circumferential ridges, each ridge defining a ridge amplitude; ∘ wherein each of said first plurality of ridges is interrupted along its circumferential extension forming an interruption gap where for a given interruption angle an amplitude of the ridge differs from the ridge amplitude in the remaining circumferential extension of the ridge; characterized in that ∘ said plurality of interruption gaps forms an interruption band defining a direction of extension, said direction of extension being angled with respect to a direction defined by the first rotation axis of an angle (α) comprised between about 2° to about 25°.
A liquid nutrient medium comprising • 10 to 20 parts by weight of yeast extract; • 15 to 30 parts by weight of peptone; • 35 to 75 parts by weight of mono- and disaccharides; • up to 3 parts by weight of minerals; • 0.02 to 1 part by weight of stable gelling agent that is so stable that the product withstands autoclavation or an industry-standard UHT process; and • water, the nutrient medium having been autoclaved or heated at ultrahigh temperatures. • 10 to 20 parts by weight of yeast extract; • 15 to 30 parts by weight of peptone; • 35 to 75 parts by weight of mono- and disaccharides; • up to 3 parts by weight of minerals; • 0.02 to 1 part by weight of stable gelling agent that is so stable that the product withstands autoclavation or an industry-standard UHT process; and • water, the nutrient medium having been autoclaved or heated at ultrahigh temperatures.
Pressing tool network comprising a pressing tool being a hand pressing tool which is actuated manually by the application of forces by a user on hand levers of the hand pressing tool, for pressing a workpiece by use of a die accommodation (10, 11) for accommodating an exchangeable die (3, 4), the pressing tool comprising a sensing device which is configured for sensing an identification (18, 19) of the die (3, 4), a control unit being provided which is embodied externally from the pressing tool and arranged remote therefrom, the control unit communicating with the sensing device of the pressing tool, wherein the electronic control unit which is arranged externally from the pressing tool communicates with a cloud storage via a public network by use of an encryption.
A method for planning a heart valve implantation in a subject, the method comprising: (a) providing a subject-specific three-dimensional representation of the geometry of at least a portion of the heart and/or aorta and of blood flow therein, (b) training a mathematical model based on a training dataset comprising experimental blood flow characteristics in phantoms of at least the portion of the heart and/or aorta; (c) determining blood flow characteristics using the previously trained mathematical model in the presence and absence of an implanted heart valve based on the three-dimensional representation obtained in (a) and varied size, design, implantation depth, deployment thickness and/or orientation of the implanted heart valve, and (d) determining the size, design, implantation depth, deployment thickness and orientation of the implanted heart valve based on the determined blood flow characteristics in the presence and absence of the implanted heart valve, wherein the size, design, implantation depth, deployment thickness and/or orientation of the implanted heart valve are determined to minimize pressure drop, regurgitation volume, turbulence intensity, high shear stress regions, stagnation regions and/or flow separation regions. (a) providing a subject-specific three-dimensional representation of the geometry of at least a portion of the heart and/or aorta and of blood flow therein, (b) training a mathematical model based on a training dataset comprising experimental blood flow characteristics in phantoms of at least the portion of the heart and/or aorta; (c) determining blood flow characteristics using the previously trained mathematical model in the presence and absence of an implanted heart valve based on the three-dimensional representation obtained in (a) and varied size, design, implantation depth, deployment thickness and/or orientation of the implanted heart valve, and (d) determining the size, design, implantation depth, deployment thickness and orientation of the implanted heart valve based on the determined blood flow characteristics in the presence and absence of the implanted heart valve,
An electrolyte for a lithium secondary battery, the electrolyte comprising: a lithium salt; a non-aqueous solvent containing a fluorine-based organic solvent; and a fluorine-based compound represented by Formula 1. wherein, in Formula 1, n is an integer of 1 to 300, R is hydrogen, an alkyl group having 1 to 6 carbon atoms, or a halogen-substituted alkyl group having 1 to 6 carbon atoms, and X is a functional group represented by Formula 2. wherein, in Formula 2, m is an integer of 0 to 4, I is an integer of 1 to 3, R 1 and R 2 are each independently hydrogen, an alkyl group having 1 to 6 carbon atoms, or a halogen-substituted alkyl group having 1 to 6 carbon atoms, and, when two or more R 1 and R 2 are present, each of R 1 and R 2 is a same or different. a lithium salt; a non-aqueous solvent containing a fluorine-based organic solvent; and a fluorine-based compound represented by Formula 1. wherein, in Formula 1, n is an integer of 1 to 300, R is hydrogen, an alkyl group having 1 to 6 carbon atoms, or a halogen-substituted alkyl group having 1 to 6 carbon atoms, and X is a functional group represented by Formula 2. wherein, in Formula 2, m is an integer of 0 to 4, I is an integer of 1 to 3, R 1 and R 2 are each independently hydrogen, an alkyl group having 1 to 6 carbon atoms, or a halogen-substituted alkyl group having 1 to 6 carbon atoms, and, when two or more R 1 and R 2 are present, each of R 1 and R 2 is a same or different.
A method for detecting and controlling banknote dispensing quality of a self-service terminal, comprising: Step S1: detecting an empty cashbox in the self-service terminal, setting a qualified rate of dispensed banknotes of the empty cashbox as 0, and permanently shielding the empty cashbox; Step S2: detecting a banknote-jammed cashbox in the self-service terminal, setting a qualified rate of dispensed banknotes of the banknote-jammed cashbox as 0, and permanently shielding the banknote-jammed cashbox; Step S3: detecting qualified rates of dispensed banknotes of all non-empty cashboxes and non-banknote-jammed cashboxes, wherein the qualified rate of dispensed banknotes is a percentage of qualified banknotes to all banknotes dispensed from a cashbox after the banknotes being checked by a machine core of the self-service terminal, classifying all the non-empty and non-banknote-jammed cashboxes according to nominal values, and sequencing the cashboxes per nominal value in a descending order of the qualified rates of dispensed banknotes; and Step S4: maintaining cashboxes ranked top M of the qualified rates of dispensed banknotes per nominal value in an open state, in which the cashboxes are in an operational state, and maintaining the other cashboxes in a temporarily shielded state, in which the cashboxes are in a closed state and not in service in next banknote dispensing; wherein the qualified rates of dispensed banknotes are re-sequenced every time after banknote dispensing. Step S1: detecting an empty cashbox in the self-service terminal, setting a qualified rate of dispensed banknotes of the empty cashbox as 0, and permanently shielding the empty cashbox; Step S2: detecting a banknote-jammed cashbox in the self-service terminal, setting a qualified rate of dispensed banknotes of the banknote-jammed cashbox as 0, and permanently shielding the banknote-jammed cashbox; Step S3: detecting qualified rates of dispensed banknotes of all non-empty cashboxes and non-banknote-jammed cashboxes, wherein the qualified rate of dispensed banknotes is a percentage of qualified banknotes to all banknotes dispensed from a cashbox after the banknotes being checked by a machine core of the self-service terminal, classifying all the non-empty and non-banknote-jammed cashboxes according to nominal values, and sequencing the cashboxes per nominal value in a descending order of the qualified rates of dispensed banknotes; and Step S4: maintaining cashboxes ranked top M of the qualified rates of dispensed banknotes per nominal value in an open state, in which the cashboxes are in an operational state, and maintaining the other cashboxes in a temporarily shielded state, in which the cashboxes are in a closed state and not in service in next banknote dispensing; wherein the qualified rates of dispensed banknotes are re-sequenced every time after banknote dispensing.
A digital voltage detection device (100; 200; 600; 700), comprising: one or more circuit hardware components configured to: detect a source of voltage (EC; 1502; 1702) present within a particular proximity of a location of the digital voltage detection device, and detect a direction in which the source of voltage is located with respect to the location of the digital voltage detection device by detecting absolute orientation using a gravitational vector and an earth magnetic field vector and associate an orientation with a peak in an electric or magnetic field value, when the device is tilted or rotated, respectively, the direction being an approximate direction; and an electronic indication component (112; 114; 116; 118; 120; 122; 802; 1108) coupled with the one or more circuit hardware components, the electronic indication component configured to indicate the direction in which the source of voltage is located with respect to the location of the digital voltage detection device. one or more circuit hardware components configured to: detect a source of voltage (EC; 1502; 1702) present within a particular proximity of a location of the digital voltage detection device, and detect a direction in which the source of voltage is located with respect to the location of the digital voltage detection device by detecting absolute orientation using a gravitational vector and an earth magnetic field vector and associate an orientation with a peak in an electric or magnetic field value, when the device is tilted or rotated, respectively, the direction being an approximate direction; and detect a source of voltage (EC; 1502; 1702) present within a particular proximity of a location of the digital voltage detection device, and detect a direction in which the source of voltage is located with respect to the location of the digital voltage detection device by detecting absolute orientation using a gravitational vector and an earth magnetic field vector and associate an orientation with a peak in an electric or magnetic field value, when the device is tilted or rotated, respectively, the direction being an approximate direction; and an electronic indication component (112; 114; 116; 118; 120; 122; 802; 1108) coupled with the one or more circuit hardware components, the electronic indication component configured to indicate the direction in which the source of voltage is located with respect to the location of the digital voltage detection device.
Pivot bearing assembly comprising a pivot pin and at least one bearing block, in which a bearing bush having a bearing bore is received and the pivot pin is slidingly supported in the bearing bore, characterised in that the bearing bush has a spherical outer surface which is inserted into a negatively rounded inner surface (9b, 12a) in order to orient the bearing bush, and the bearing bush, after being oriented, is fixed in the bearing block.
A data transmission method, comprising: inserting a first bit block into a physical coding sublayer, PCS, to form a physical coding sublayer lane, PCSL, wherein the first bit block represents an Ethernet link to which the PCSL belongs (step 101); and sending the PCSL (step 102). inserting a first bit block into a physical coding sublayer, PCS, to form a physical coding sublayer lane, PCSL, wherein the first bit block represents an Ethernet link to which the PCSL belongs (step 101); and sending the PCSL (step 102).
Aiming device for forming a fastening of a prosthesis to a bone fastening element on a bone, comprising: - holding means for positioning the prosthesis in a first axis, - a receptacle that forms a guide opening, which is oriented along a second axis and penetrates the aiming device and is configured for receiving a protective sleeve, and - a locking means which comprises at least one resiliently deflectable finger which dan be deflected axially and/or radially with respect to the second axis and is configured for fixing the protective sleeve along the second axis, - wherein the first axis and the second axis intersect, - wherein the at least one finger protrudes into the guide opening, characterised in that the locking means comprises a bush. - holding means for positioning the prosthesis in a first axis, - a receptacle that forms a guide opening, which is oriented along a second axis and penetrates the aiming device and is configured for receiving a protective sleeve, and - a locking means which comprises at least one resiliently deflectable finger which dan be deflected axially and/or radially with respect to the second axis and is configured for fixing the protective sleeve along the second axis, - wherein the first axis and the second axis intersect, - wherein the at least one finger protrudes into the guide opening,
An electrolysis apparatus operating to produce aluminium, the apparatus comprising a plurality of anodes, wherein each anode is attached to a top plate by a metal bolt extending from the top plate to the anode top, wherein each anode is configured to have a lower portion immersed in a cryolite-based molten electrolyte bath, and wherein each anode comprises a solid circumscribing material that contacts and completely circumscribes the anode, wherein the solid circumscribing material comprises from 40 wt.% to 80 wt.% cryolite, 2 wt.% to 25 wt.% alumina and from 5 wt.% to 25 wt.% of an alumina-based refractory cementitious binder material and wherein the solid circumscribing material is adapted to dissolve into the molten electrolyte during electrolysis leaving the lower portion of the anodes free to contact the bath.
Method of operating a strip guide in a continuous casting plant for casting liquid metals, wherein the strip guide comprises at least one roller segment by which a cast strip is guided after casting in a mould, comprising the following steps: displacing at least a part of the roller segment in the form of an oscillation in and against the casting direction during casting operation, characterised in that the oscillating part of the roller segment is the upper frame with the strip guide rollers rotatably mounted thereon, wherein the lower frame is stationary during oscillation of the upper frame; or the oscillating part of the roller segment is the lower frame with the strip guide rollers rotatably mounted thereon, wherein the upper frame is stationary during oscillation of the lower frame; or the two, i.e. both the upper frame and the lower frame, together with the respective strip guide rollers thereof oscillate asynchronously relative to one another. displacing at least a part of the roller segment in the form of an oscillation in and against the casting direction during casting operation, characterised in that the oscillating part of the roller segment is the upper frame with the strip guide rollers rotatably mounted thereon, wherein the lower frame is stationary during oscillation of the upper frame; or the oscillating part of the roller segment is the lower frame with the strip guide rollers rotatably mounted thereon, wherein the upper frame is stationary during oscillation of the lower frame; or the two, i.e. both the upper frame and the lower frame, together with the respective strip guide rollers thereof oscillate asynchronously relative to one another.