mhurhangee/ep-ind-claims huggingface dataset:
Processing station for processing plate and/or board like workpieces: - having an elongated workpiece support fence on which the workpieces contact with one side in a displaceable manner, - having a support device, which is integrated into the workpiece support fence and which supports and/or fixes the workpieces during processing, - having a transport system for the workpieces, by means of which transport system said workpieces are at least supported, guided and moved along the workpiece support fence, characterized in that - the processing station has at least two handling devices (7, 80) which are automatically controlled, freely programmable multi-purpose manipulators - movable in three or more axes, - wherein each handling device (7, 80) supports and guides one multifunctional unit of the processing station, said multifunctional unit comprising a plurality of tools (51-58, 71), movably incorporated in a base body, with at least one central drive, - wherein at least one multifunctional unit is arranged on the supporting handling device (7, 80) via a spacer flange, and - wherein at least one tool (51-58, 71) can be moved into engagement on the workpiece for processing the stationary or moving workpiece via the individual handling device (7, 80). - having an elongated workpiece support fence on which the workpieces contact with one side in a displaceable manner, - having a support device, which is integrated into the workpiece support fence and which supports and/or fixes the workpieces during processing, - having a transport system for the workpieces, by means of which transport system said workpieces are at least supported, guided and moved along the workpiece support fence, - the processing station has at least two handling devices (7, 80) which are automatically controlled, freely programmable multi-purpose manipulators - movable in three or more axes, - wherein each handling device (7, 80) supports and guides one multifunctional unit of the processing station, said multifunctional unit comprising a plurality of tools (51-58, 71), movably incorporated in a base body, with at least one central drive, - wherein at least one multifunctional unit is arranged on the supporting handling device (7, 80) via a spacer flange, and - wherein at least one tool (51-58, 71) can be moved into engagement on the workpiece for processing the stationary or moving workpiece via the individual handling device (7, 80).
Mechanical wheelchair drive comprising a rotatably mounted lever, a handle fastened to the lever and a force transfer unit for transferring a rotational motion of the lever to a wheelchair wheel, characterized in that the lever has a variable length and can be guided along a closed guide of a guide plate, which guide deviates from the circular form, so that a length variation of the lever takes place during the rotational motion.
A lighting device comprising: a light source for emitting illumination lights along an optical axis toward a field of view including a far field region and a near field region; a liquid crystal element disposed at a position along the optical axis, having an electrode pattern in a first region corresponding to the far field region and having no electrode pattern in a second region corresponding to the near field region; a pair of polarizers (P1, P2) including an input side polarizer disposed on a light source side of the liquid crystal element, and an output side polarizer disposed on a field of view side of the liquid crystal element, and constituting crossed Nicol polarizers; a driver circuit for forming voltages to be applied to the electrode pattern; and a phase shift forming element disposed between the pair of polarizers (P1, P2) so as to overlap the second region of the liquid crystal element. a light source for emitting illumination lights along an optical axis toward a field of view including a far field region and a near field region; a liquid crystal element disposed at a position along the optical axis, having an electrode pattern in a first region corresponding to the far field region and having no electrode pattern in a second region corresponding to the near field region; a pair of polarizers (P1, P2) including an input side polarizer disposed on a light source side of the liquid crystal element, and an output side polarizer disposed on a field of view side of the liquid crystal element, and constituting crossed Nicol polarizers; a driver circuit for forming voltages to be applied to the electrode pattern; and a phase shift forming element disposed between the pair of polarizers (P1, P2) so as to overlap the second region of the liquid crystal element.
A method of audio reproduction, comprising: splitting a first digital audio signal into at least a first and a second frequency subbands to generate at least a first and a second subband signal, said first and second frequency subbands separated by a transition frequency band; generating a first downsampled subband signal by downsampling or decimating the first subband signal; injecting at least one tone signal that lies within the transition frequency band into the first downsampled subband signal; generating a first processed subband signal by performing an audio processing on the first downsampled subband signal; measuring in real-time amplitude and phase in the transition frequency band of the first downsampled subband signal and the first processed subband signal; processing in real-time the measurements to calculate a change in amplitude and phase in the transition frequency band; calculating in real-time both an amplitude compensation and a phase compensation for the second frequency subband to approximately match the measured change in amplitude and phase in the first frequency subband; generating in real-time a second processed subband signal by applying said amplitude and phase compensation to the transition band of the second subband signal; removing said at least one tone signal from the first processed subband signal; and combining the first and second processed subband signals to reconstruct an output audio signal. splitting a first digital audio signal into at least a first and a second frequency subbands to generate at least a first and a second subband signal, said first and second frequency subbands separated by a transition frequency band; generating a first downsampled subband signal by downsampling or decimating the first subband signal; injecting at least one tone signal that lies within the transition frequency band into the first downsampled subband signal; generating a first processed subband signal by performing an audio processing on the first downsampled subband signal; measuring in real-time amplitude and phase in the transition frequency band of the first downsampled subband signal and the first processed subband signal; processing in real-time the measurements to calculate a change in amplitude and phase in the transition frequency band; calculating in real-time both an amplitude compensation and a phase compensation for the second frequency subband to approximately match the measured change in amplitude and phase in the first frequency subband; generating in real-time a second processed subband signal by applying said amplitude and phase compensation to the transition band of the second subband signal; removing said at least one tone signal from the first processed subband signal; and combining the first and second processed subband signals to reconstruct an output audio signal.
Method of producing (tobacco) bag packs made of sheet material and having a pocket, which comprises a bag front wall and bag rear wall and is intended for the bag contents, and having a flap, which, in the closed position, are fixed on the bag front wall or on the bag rear wall by hook-and-loop pieces (18, 19), wherein one hook-and-loop piece is fastened by adhesive bonding on the flap and the other hook-and-loop piece is fastened by adhesive bonding on the bag front wall or on the bag rear wall, characterized by the following features: (a) two hook-and-loop pieces (18, 19), which adhere to one another by way of their hook-and-loop coating, are connected, as a prefabricated unit, to the flap, in the open position of the same, or to the bag front wall or to the bag rear wall on the one hand, and then, by virtue of the flap being closed, are connected to the bag front wall or to the bag rear wall or to the flap on the other hand, by layers of adhesive agent, in particular glue, applied to the outer sides of the hook-and-loop pieces (18, 19), (b) the unit, which comprises two hook-and-loop pieces (18, 19), is severed as a single portion from a double strip, which comprises two hook-and-loop bands (25, 26) connected to one another by the hook-and-loop action, (c) the units made up of two hook-and-loop pieces (18, 19), once severed from the double strip, are applied cyclically or continuously to an associated bag. (a) two hook-and-loop pieces (18, 19), which adhere to one another by way of their hook-and-loop coating, are connected, as a prefabricated unit, to the flap, in the open position of the same, or to the bag front wall or to the bag rear wall on the one hand, and then, by virtue of the flap being closed, are connected to the bag front wall or to the bag rear wall or to the flap on the other hand, by layers of adhesive agent, in particular glue, applied to the outer sides of the hook-and-loop pieces (18, 19), (b) the unit, which comprises two hook-and-loop pieces (18, 19), is severed as a single portion from a double strip, which comprises two hook-and-loop bands (25, 26) connected to one another by the hook-and-loop action, (c) the units made up of two hook-and-loop pieces (18, 19), once severed from the double strip, are applied cyclically or continuously to an associated bag.
A capsule for receiving and dosing high-viscosity materials comprising a housing, wherein the housing defines an interior chamber and has an opening for inserting a piston, and a delivery opening; and wherein the housing comprises following sections: a first housing section, which defines a first interior chamber section, wherein the first housing section has a first central longitudinal axis, a first end and a second end; a second housing section, which forms an exit nozzle, wherein the second housing section has a second central longitudinal axis, a first end and a second end, and the second housing section defines an exit channel, which opens into the delivery opening formed at the second end; and a transition section, whose first end is connected to the second end of the first housing section, and whose second end is connected to the first end of the second housing section; wherein the first central longitudinal axis and the second central longitudinal axis intersect at an angle (α), characterised by the fact that the transition section tapers between its first end and its second end in the form of an oblique truncated cone, with the taper angle (β) corresponding to the opening angle of the cone and the taper angle (β) is at least 50°. a first housing section, which defines a first interior chamber section, wherein the first housing section has a first central longitudinal axis, a first end and a second end; a second housing section, which forms an exit nozzle, wherein the second housing section has a second central longitudinal axis, a first end and a second end, and the second housing section defines an exit channel, which opens into the delivery opening formed at the second end; and a transition section, whose first end is connected to the second end of the first housing section, and whose second end is connected to the first end of the second housing section; wherein the first central longitudinal axis and the second central longitudinal axis intersect at an angle (α), characterised by the fact that the transition section tapers between its first end and its second end in the form of an oblique truncated cone, with the taper angle (β) corresponding to the opening angle of the cone and the taper angle (β) is at least 50°.
A carbon nanotube fiber consisting of CNTs, having: a thickness of 0.01 μm to 3 mm, a coefficient of variation for thickness irregularity, determined as described in the description, of 0.2 or less, a distribution rate a, determined as described in the description, of 40% or more and a distribution rate b, determined as described in the description, of 70% or more as indicators of roundness, and a fiber density, determined as described in the description, of 0.8 g/cm 3 or more to 2.0 g/cm 3, wherein in a spectrum obtained by resonance Raman spectroscopic measurement, when the maximum peak intensity in the range of 1550 cm -1 to 1650 cm -1 is defined as G and the maximum peak intensity in the range from 1300 cm -1 to 1400 cm -1 is defined as D, the ratio G/D, determined as described in the description, is 30 or more. a thickness of 0.01 μm to 3 mm, a coefficient of variation for thickness irregularity, determined as described in the description, of 0.2 or less, a distribution rate a, determined as described in the description, of 40% or more and a distribution rate b, determined as described in the description, of 70% or more as indicators of roundness, and a fiber density, determined as described in the description, of 0.8 g/cm 3 or more to 2.0 g/cm 3, wherein in a spectrum obtained by resonance Raman spectroscopic measurement, when the maximum peak intensity in the range of 1550 cm -1 to 1650 cm -1 is defined as G and the maximum peak intensity in the range from 1300 cm -1 to 1400 cm -1 is defined as D, the ratio G/D, determined as described in the description, is 30 or more.
A deflectable catheter comprising: an elongated catheter body; a deflectable section distal the catheter body; a control handle proximal the catheter body, the control handle having a deflection assembly including at least one pulley; a puller member responsive to operator manipulation of the deflection assembly to deflect the deflectable section, characterised by the puller member having a distal puller wire portion extending through the catheter body and into the deflectable section and a proximal tensile fiber portion trained around the pulley; and a molded member (60,60a,60b,60c) in the control handle, the molded member encasing a proximal end of the puller wire portion and a distal end of the tensile fiber portion. an elongated catheter body; a deflectable section distal the catheter body; a control handle proximal the catheter body, the control handle having a deflection assembly including at least one pulley; a puller member responsive to operator manipulation of the deflection assembly to deflect the deflectable section, characterised by the puller member having a distal puller wire portion extending through the catheter body and into the deflectable section and a proximal tensile fiber portion trained around the pulley; and a molded member (60,60a,60b,60c) in the control handle, the molded member encasing a proximal end of the puller wire portion and a distal end of the tensile fiber portion.
A prosthetic heart valve (100, 400, 500), comprising: an outer frame (120, 220, 320); an inner frame (150, 450, 550) coupled to the outer frame, the inner frame including a tether coupling portion (144, 444, 544) disposed at a proximal end portion of the prosthetic heart valve; and an anchoring tether (136, 436, 536) coupled to the tether coupling portion of the inner frame with at least one suture (435, 535), the anchoring tether configured to be secured to a wall of a heart a patient to secure a position of the prosthetic heart valve within the heart of the patient characterised in that the tether coupling portion includes a plurality of struts (453, 553) organized into pairs, each strut pair including a first strut portion and a second strut portion that converge to form a third strut portion (448, 548), the third strut portion defining at least one opening (451, 551), the plurality of struts collectively defining an interior region, a distal end portion of the anchoring tether disposed within the interior region, the at least one suture being received through the at least one opening and wrapped around at least a portion of the tether coupling portion and a portion of the anchoring tether to secure the anchoring tether to the tether connection portion. an outer frame (120, 220, 320); an inner frame (150, 450, 550) coupled to the outer frame, the inner frame including a tether coupling portion (144, 444, 544) disposed at a proximal end portion of the prosthetic heart valve; and an anchoring tether (136, 436, 536) coupled to the tether coupling portion of the inner frame with at least one suture (435, 535), the anchoring tether configured to be secured to a wall of a heart a patient to secure a position of the prosthetic heart valve within the heart of the patient characterised in that the tether coupling portion includes a plurality of struts (453, 553) organized into pairs, each strut pair including a first strut portion and a second strut portion that converge to form a third strut portion (448, 548), the third strut portion defining at least one opening (451, 551), the plurality of struts collectively defining an interior region, a distal end portion of the anchoring tether disposed within the interior region, the at least one suture being received through the at least one opening and wrapped around at least a portion of the tether coupling portion and a portion of the anchoring tether to secure the anchoring tether to the tether connection portion.
LED module for installation in a luminaire, in particular in a street luminaire, wherein the LED module has a power interface which is set up for detachable connection to an electronic ballast, EB, in the luminaire in order to supply the LED module with electrical power when it is installed in the luminaire, wherein the LED module has at least one group of LEDs and the power interface is connected to the group of LEDs, so that the electrical power provided at the power interface is supplied to the LED group, wherein the LED module furthermore has a data bus interface which is set up to be coupled to a data bus in the EB, characterized in that the LED module is set up to communicate an available functional scope of the LED module to the EB via the data bus interface. wherein the LED module has a power interface which is set up for detachable connection to an electronic ballast, EB, in the luminaire in order to supply the LED module with electrical power when it is installed in the luminaire, wherein the LED module has at least one group of LEDs and the power interface is connected to the group of LEDs, so that the electrical power provided at the power interface is supplied to the LED group, wherein the LED module furthermore has a data bus interface which is set up to be coupled to a data bus in the EB, characterized in that the LED module is set up to communicate an available functional scope of the LED module to the EB via the data bus interface.
The use of a water treatment device, comprising a plurality of water treatment lines (10a, 10b, 10c) with which influent water can be subjected to a water treatment function, wherein the water treatment lines (10a, 10b, 10c) are connected parallel to one another with respect to the flow of influent water, and wherein switching means are provided with which a water treatment line (10a, 10b, 10c) can be selected for water treatment, wherein the other water treatment lines (10a, 10b, 10c) are blocked for a water flow, characterized in that the device is used for treating influent water of a water cycle, with which the water cycle is filled, wherein water to be treated flows through a water treatment line (10a, 10b, 10c) and the other water treatment lines (10a, 10b, 10c) are separated from the water to be treated, and wherein each water treatment line (10a, 10b, 10c) has a different water treatment function.
A cargo management system comprising: a shuttle drive unit comprising: a spool; a pulley proximate the spool comprising a groove of the pulley aligned with a groove of the spool; and a motor configured to rotate the spool; and a belt coupled to the spool and configured to turn around the pulley and to wind flat on the spool; characterized in that the cargo management system further comprises: an air cushion cargo shuttle coupled to the belt, wherein the air cushion cargo shuttle comprises one or more centrifugal air blowers coupled to its structure so as to blow air beneath the air cushion cargo shuttle. a shuttle drive unit comprising: a spool; a pulley proximate the spool comprising a groove of the pulley aligned with a groove of the spool; and a motor configured to rotate the spool; and a spool; a pulley proximate the spool comprising a groove of the pulley aligned with a groove of the spool; and a motor configured to rotate the spool; and a belt coupled to the spool and configured to turn around the pulley and to wind flat on the spool; characterized in that the cargo management system further comprises: an air cushion cargo shuttle coupled to the belt, wherein the air cushion cargo shuttle comprises one or more centrifugal air blowers coupled to its structure so as to blow air beneath the air cushion cargo shuttle. an air cushion cargo shuttle coupled to the belt, wherein the air cushion cargo shuttle comprises one or more centrifugal air blowers coupled to its structure so as to blow air beneath the air cushion cargo shuttle.
Communication device for a vehicle for wirelessly transmitting vehicle-related data to another vehicle or infrastructure, said communication device having: a first communication unit (115, 116) for transmitting first vehicle-related data to the other vehicle; a second communication unit (121, 124) for transmitting selected second vehicle-related data to the other vehicle, characterized in that the first vehicle-related data are transmitted at a first band-limited frequency and the second vehicle-related data are transmitted at a second band-limited frequency, which is lower than the first frequency, wherein the second communication unit (121, 124) is in the form of a wireless access and driving authorization unit and the first and second data respectively have a vehicle identification and the first data are associated with the second data by means of said vehicle identification.
A method for forecasting maintenance operations to be applied to an engine or a part of the engine including a set of components (C1-C5), characterised in that it includes the following steps: - building a lifetime model for each component of said set of components, - analysing the lifetime model associated with each component to build a set of failure models corresponding to said set of components, each component being associated with a failure model defining an inter-inspection interval reflecting an advanced degradation risk rate lower than a predetermined safety threshold, - defining a maintenance strategy comprising opportunistic inspections on said set of components, - iteratively simulating maintenance actions on said set of components by using said set of failure models and said maintenance strategy to build a global model of relaxed maintenance operations which takes the opportunistic inspections into account while fulfilling the predetermined safety threshold of each component. - building a lifetime model for each component of said set of components, - analysing the lifetime model associated with each component to build a set of failure models corresponding to said set of components, each component being associated with a failure model defining an inter-inspection interval reflecting an advanced degradation risk rate lower than a predetermined safety threshold, - defining a maintenance strategy comprising opportunistic inspections on said set of components, - iteratively simulating maintenance actions on said set of components by using said set of failure models and said maintenance strategy to build a global model of relaxed maintenance operations which takes the opportunistic inspections into account while fulfilling the predetermined safety threshold of each component.