mhurhangee/patent-ind-claim-en huggingface dataset:
Method for casting metals, preferably lightweight metals, under pressure by the cold-chamber process, comprising the steps of: • placing a bolt of the metal to be cast into one of at least two casting chambers , • feeding and introducing a selected casting chamber into a diecasting machine , the casting chamber having in each case an outlet opening , wherein the feeding and changing over of the casting chambers is carried out alternately from at least two available casting chambers , • heating the bolt by means of induction , wherein the melting of the bolt in the casting chamber is carried out after the feeding and introducing of the selected casting chamber into the diecasting machine but before the opening of the outlet opening of the casting chamber for filling the cavities is completed, characterized in that , after the placing in of the bolt , the casting chamber is closed completely by the casting piston . • placing a bolt of the metal to be cast into one of at least two casting chambers , • feeding and introducing a selected casting chamber into a diecasting machine , the casting chamber having in each case an outlet opening , wherein the feeding and changing over of the casting chambers is carried out alternately from at least two available casting chambers , • heating the bolt by means of induction , wherein the melting of the bolt in the casting chamber is carried out after the feeding and introducing of the selected casting chamber into the diecasting machine but before the opening of the outlet opening of the casting chamber for filling the cavities is completed, characterized in that , after the placing in of the bolt , the casting chamber is closed completely by the casting piston .
A printed circuit board for accommodating at least one light emitting diode, comprising: An insulating region (140, 140'; 240, 240') at least on one side of the printed circuit board, which insulating region provides an air gap and leakage path between the conductor tracks (120, 120'; 220, 220') arranged on the printed circuit board (100, 100'; 200, 200') and the outer periphery of the printed circuit board (100, 100'; 200, 200'), characterized in that at least one of the insulating regions (140, 140'; 240, 240') has a tongue and groove means (150, 160, 150', 160'; 250, 260), which can be brought into engagement with a corresponding tongue and groove means (150, 160, 150', 160'; 250, 260) of a further printed circuit board (100, 100'; 200, 200') in such a manner that the respective insulating regions (140, 140'; 240, 240') providing the air gaps and leakage paths at least partially overlap.
A system for separating particulate from water, comprising: a settling tank configured for receiving particulated water and allowing particulate to settle at a bottom of the settling tank ; a means for directing the particulated water into the settling tank to an intermediate elevation below a top of the settling tank; a dynamic plate pack fixed within the settling tank and located at an elevation beneath the directing means, the dynamic plate pack comprises a cylindrical array of a plurality of cantilevered parallel vertical blades; a means for sensing settled particulate level above the bottom of the settling tank; and a means for extruding settled particulate from the bottom of the settling tank responsive to sensed settled particulate level achieving a predetermined setpoint. a settling tank configured for receiving particulated water and allowing particulate to settle at a bottom of the settling tank ; a means for directing the particulated water into the settling tank to an intermediate elevation below a top of the settling tank; a dynamic plate pack fixed within the settling tank and located at an elevation beneath the directing means, the dynamic plate pack comprises a cylindrical array of a plurality of cantilevered parallel vertical blades; a means for sensing settled particulate level above the bottom of the settling tank; and a means for extruding settled particulate from the bottom of the settling tank responsive to sensed settled particulate level achieving a predetermined setpoint.
A method comprising: monitoring user inputs to a content item on a device input by a user; using the user inputs to track an emotional condition of the user; determining whether a change in the tracked emotional condition of the user has occurred; and in response to determining that a change in the tracked emotional condition of the user has occurred, using a camera to capture an image of the user and inserting the image into the content item; and in response to determining that a change in the tracked emotional condition of the user has not occurred continuing to monitor inputs without capturing an image. monitoring user inputs to a content item on a device input by a user; using the user inputs to track an emotional condition of the user; determining whether a change in the tracked emotional condition of the user has occurred; and in response to determining that a change in the tracked emotional condition of the user has occurred, using a camera to capture an image of the user and inserting the image into the content item; and in response to determining that a change in the tracked emotional condition of the user has not occurred continuing to monitor inputs without capturing an image.
A compound selected from the group consisting of: and the pharmaceutically acceptable salts, stereoisomers, hydrates, solvates, and complexes of said compound.
A method for forming an Atomic Force Microscopy probe configuration , comprising a cantilever and a planar tip attached to a sidewall of the cantilever and extending along a longitudinal direction (x) of the cantilever, the method comprising: - providing a flat substrate , - forming a planar diamond layer on this flat substrate , - forming the planar tip by patterning this planar diamond layer in an essentially two-dimensional geometry having at least one corner , whereby diamond nano-crystallites protrude from the diamond surface of the planar tip , - forming a cantilever portion and a holder chip area by a subsequent deposition step of a metallic seedlayer for plating the cantilever and the holder chip area , lithographic patterning thereof to outline the cantilever and holder chip area and plating the seedlayer exposed at the location of the cantilever and holder chip area, in such a way that the planar tip is attached by a sidewall thereof to the cantilever portion at a location remote from the corner of the planar tip , and; releasing the planar tip , the attached cantilever and the holder chip area from the flat substrate . - providing a flat substrate , - forming a planar diamond layer on this flat substrate , - forming the planar tip by patterning this planar diamond layer in an essentially two-dimensional geometry having at least one corner , whereby diamond nano-crystallites protrude from the diamond surface of the planar tip , - forming a cantilever portion and a holder chip area by a subsequent deposition step of a metallic seedlayer for plating the cantilever and the holder chip area , lithographic patterning thereof to outline the cantilever and holder chip area and plating the seedlayer exposed at the location of the cantilever and holder chip area, in such a way that the planar tip is attached by a sidewall thereof to the cantilever portion at a location remote from the corner of the planar tip , and; releasing the planar tip , the attached cantilever and the holder chip area from the flat substrate .
An apparatus comprising: a digital interference cancelation element between a digital transmit element and a receiver element for generating a filter delay control signal and a baseband interference cancelation signal ; a combining element in a radio frequency, RF, receiver signal path; and an RF cancelation filter positioned between an RF transmit signal path and the combining element in the RF receiver signal path, the combining element being configured to receive at a first input an RF frequency signal generated by the RF cancelation filter from a signal received at the RF signal transmit path, the RF frequency signal being delayed in accordance with delay control information received from the digital interference cancelation element , the RF cancelation filter comprising: a first interference signal component generation chain including a first optomechanical modulator and a first configurable delay element ; and a first optical to electrical, O/E, converter configured to generate an electrical version of the first interference signal component. a digital interference cancelation element between a digital transmit element and a receiver element for generating a filter delay control signal and a baseband interference cancelation signal ; a combining element in a radio frequency, RF, receiver signal path; and an RF cancelation filter positioned between an RF transmit signal path and the combining element in the RF receiver signal path, the combining element being configured to receive at a first input an RF frequency signal generated by the RF cancelation filter from a signal received at the RF signal transmit path, the RF frequency signal being delayed in accordance with delay control information received from the digital interference cancelation element , the RF cancelation filter comprising: a first interference signal component generation chain including a first optomechanical modulator and a first configurable delay element ; and a first optical to electrical, O/E, converter configured to generate an electrical version of the first interference signal component. a first interference signal component generation chain including a first optomechanical modulator and a first configurable delay element ; and a first optical to electrical, O/E, converter configured to generate an electrical version of the first interference signal component.
Multi-junction solar cell, comprising at least one layer sequence of a tunnel diode which is disposed between two semiconductor layers in the manner of a sandwich and has degenerate layers and optionally barrier layers with a layer thickness of 10 nm to 100 nm, which are disposed between the degenerate layers and the semiconductor layers wherein the degenerate layers are one degenerate n-conducting layer and one degenerate p-conducting layer , with the proviso that the degenerate n-conducting layer and the degenerate p-conducting layer respectively have a thickness between 10 nm and 100 nm, wherein at least one further tunnel diode abuts against at least one of the two semiconductor layers and at least one further layer sequence abuts against the further tunnel diode in an iterative manner, outside the sandwich-like arrangement, wherein the degenerate n-conducting layer is voltage-compensated with the degenerate p-conducting layer or wherein the degenerate n-conducting layer or the degenerate p-conducting layer is voltage-compensated with the adjacent barrier layer and the lattice constants of the materials of the layers being voltage-compensated with each other have a difference of at least 0.5%.
A telemetry wireless beacon data fleet management condition determination method for a vehicular telemetry system, the vehicular telemetry system comprising at least one wireless beacon communication device , at least one beacon device , at least one remote device and at least one vehicle including a vehicular telemetry hardware system and a resident vehicular portion ; wherein the at least one beacon device is associated with at least one object relating to the at least one vehicle and is configured to periodically communicate with the at least one wireless communication device in the form of a message including a unique identifier and therewith associated beacon data depending on the types of sensors of the at least one beacon device , and the at least one wireless beacon communication device is configured to communicate with the vehicular telemetry hardware system ; the method comprising providing, via said at least one remote device , access to first data for identifying a unique beacon identifier communicated from the at least one beacon device , and for associating said beacon unique identifier with the at least one object, providing, via said at least one remote device , access to second data of threshold values and limits associated with beacon data, providing, via said at least one remote device , access to a preprocessed log of telemetry data of the at least one vehicle , wherein said preprocessed log of telemetry includes engine codes, speed, G forces, map locations, unique identifiers and associated beacon data such as temperature data, illumination data, pressure data or user defined sensor data, determining, via said at least one remote device , each of the at least one object located with said at least one vehicle , said determining each of the at least one object located with said at least one vehicle comprising identifying, from said first data, beacon unique identifiers disposed with an initial location of said at least one vehicle , determining, from said preprocessed log of telemetry data of said at least one vehicle , a second location of said at least one vehicle by one of a speed, distance, location or geofence, and for determining an accurate number of the at least one object disposed with said at least one vehicle identifying, from said first data, each of said beacon identifiers disposed with said second location of said at least one vehicle .
A method for monitoring an extruder which is in operation or an injection moulding machine which is in operation, wherein the method comprises the following steps: emitting (S10) a radar wave signal in the extruder or in the injection moulding machine; detecting (S20) a response signal corresponding to the emitted radar wave signal; determining (S30) a run time Δt, phase shift Δφ and/or intensity change ΔI of the radar wave signal on the basis of the detected response signal; and determining (S40) at least one operating parameter on the basis of the determined run time Δt, phase shift Δφ and/or intensity change AI of the radar wave signal, wherein the operating parameter points to a wear state of the extruder or of the injection moulding machine, a melting state and/or a material composition of a material which is received in the extruder or in the injection moulding machine and which is to be processed, wherein the melting state means the ratio of solid to liquid phase of the material which is received and is to be processed. emitting (S10) a radar wave signal in the extruder or in the injection moulding machine; detecting (S20) a response signal corresponding to the emitted radar wave signal; determining (S30) a run time Δt, phase shift Δφ and/or intensity change ΔI of the radar wave signal on the basis of the detected response signal; and determining (S40) at least one operating parameter on the basis of the determined run time Δt, phase shift Δφ and/or intensity change AI of the radar wave signal, wherein the operating parameter points to a wear state of the extruder or of the injection moulding machine, a melting state and/or a material composition of a material which is received in the extruder or in the injection moulding machine and which is to be processed, wherein the melting state means the ratio of solid to liquid phase of the material which is received and is to be processed.
A latch assembly for releasably securing a first member in a closed position relative to a second member , one of said first member and said second member having a striker in a fixed positional relationship therewith, the latch assembly comprising: a housing ; a pawl pivotally supported by said housing and being movable between a latched position and an unlatched position by pivotal movement about a pawl pivot axis, said pawl being provided with a torsion spring that biases said pawl toward the unlatched position; actuation means ; and a trigger pivotally supported by said housing , said trigger being movable between an engaged position and a disengaged position, said trigger having a first lever arm adapted to engage said pawl and maintain said pawl in said latched position when said pawl is in said latched position and said trigger is in said engaged position, said trigger having a second lever arm capable of engagement by said actuation means, said actuation means selectively engaging said second lever arm to move said trigger to said disengaged position to thereby allow said pawl to move to said unlatched position, said second lever arm pivoting toward said pawl and said pawl pivoting toward said trigger as said trigger is moved from said engaged position to said disengaged position, and said trigger is pivotally movable about a trigger pivot axis that is parallel to and spaced apart from said pawl pivot axis. a housing ; a pawl pivotally supported by said housing and being movable between a latched position and an unlatched position by pivotal movement about a pawl pivot axis, said pawl being provided with a torsion spring that biases said pawl toward the unlatched position; actuation means ; and a trigger pivotally supported by said housing , said trigger being movable between an engaged position and a disengaged position, said trigger having a first lever arm adapted to engage said pawl and maintain said pawl in said latched position when said pawl is in said latched position and said trigger is in said engaged position, said trigger having a second lever arm capable of engagement by said actuation means, said actuation means selectively engaging said second lever arm to move said trigger to said disengaged position to thereby allow said pawl to move to said unlatched position, said second lever arm pivoting toward said pawl and said pawl pivoting toward said trigger as said trigger is moved from said engaged position to said disengaged position, and said trigger is pivotally movable about a trigger pivot axis that is parallel to and spaced apart from said pawl pivot axis.
Spoiler assembly , comprising: a first air-guiding element which is adjustable between a basic position and an activated driving position by a first adjustment device , a second air-guiding element which is adjustable between a basic position and an activated driving position by a second adjustment device , characterized in that , during the adjustment from the basic position into the driving position, in a first partial adjustment the first air-guiding element is adjustable and the second air-guiding element is not adjustable, and, in a second partial adjustment following the first partial adjustment, the second air-guiding element is adjustable, wherein the second adjustment device is activated via a second position-switching device which is switchable between an open position for actuating the second adjustment device and a blocking position depending on an adjustment position of the first air-guiding element . a first air-guiding element which is adjustable between a basic position and an activated driving position by a first adjustment device , a second air-guiding element which is adjustable between a basic position and an activated driving position by a second adjustment device , characterized in that , during the adjustment from the basic position into the driving position, in a first partial adjustment the first air-guiding element is adjustable and the second air-guiding element is not adjustable, and, in a second partial adjustment following the first partial adjustment, the second air-guiding element is adjustable, wherein the second adjustment device is activated via a second position-switching device which is switchable between an open position for actuating the second adjustment device and a blocking position depending on an adjustment position of the first air-guiding element .
A peptide consisting of the amino acid sequence according to SEQ ID No. 243; or a pharmaceutically acceptable salt thereof.
A deployment instrument for sealing a puncture in a wall of an artery, the deployment instrument , comprising: a closure device including a toggle , a plug , and a contiguous filament attached to the toggle and the plug , wherein application of tension to the filament in a proximal direction away from the toggle draws the plug toward the toggle when the toggle is disposed in the artery; a lock disposed along the filament ; and a tamper having a first lumen through which the filament extends, and a second lumen through which a guidewire is extendable, wherein the first lumen is sized and dimensioned to permit movement of the tamper relative to the filament 80, and second lumen is sized and dimensioned to permit movement of the tamper relative to the guide wire , the tamper enabling tamping action along the guidewire and filament to contact the lock and compress the plug in place. a closure device including a toggle , a plug , and a contiguous filament attached to the toggle and the plug , wherein application of tension to the filament in a proximal direction away from the toggle draws the plug toward the toggle when the toggle is disposed in the artery; a lock disposed along the filament ; and a tamper having a first lumen through which the filament extends, and a second lumen through which a guidewire is extendable, wherein the first lumen is sized and dimensioned to permit movement of the tamper relative to the filament 80, and second lumen is sized and dimensioned to permit movement of the tamper relative to the guide wire , the tamper enabling tamping action along the guidewire and filament to contact the lock and compress the plug in place.