mhurhangee/ep-ind-claims huggingface dataset:
A corrugated fiberboard sheet manufacturing system comprising: production state information acquisition means for acquiring production state information related to a production state of a corrugated fiberboard manufacturing device; control value information acquisition means for acquiring control value information of a control element of the corrugated fiberboard manufacturing device which affects a warped amount of a manufactured corrugated fiberboard; warping information acquisition means (7, 25a) for acquiring warping information related to the warped amount of the corrugated fiberboard; storage means for storing an actual data set including at least the production state information, the control value information, and the warping information; a pre-control table in which a standard control value of the control element is set according to the production state; a correction table for setting an initial control value by correcting the standard control value; updating means (24, 24A, 24B, 24C) for updating the correction table by reflecting the actual data set; and control means for feedforward-controlling the control element by using the initial control value. production state information acquisition means for acquiring production state information related to a production state of a corrugated fiberboard manufacturing device; control value information acquisition means for acquiring control value information of a control element of the corrugated fiberboard manufacturing device which affects a warped amount of a manufactured corrugated fiberboard; warping information acquisition means (7, 25a) for acquiring warping information related to the warped amount of the corrugated fiberboard; storage means for storing an actual data set including at least the production state information, the control value information, and the warping information; a pre-control table in which a standard control value of the control element is set according to the production state; a correction table for setting an initial control value by correcting the standard control value; updating means (24, 24A, 24B, 24C) for updating the correction table by reflecting the actual data set; and control means for feedforward-controlling the control element by using the initial control value.
A process for the production of a yarn, the process comprising providing a bundle comprising continuous filaments of a thermoplastic polymer, contacting the bundle with a sliver comprising fibres of a heat resistant material characterised in that the process further comprises: combining the filaments and the sliver in a drawing step to produce a new bundle and applying a gas jet to the new bundle to distribute the fibres of the heat resistant material in the mixed bundle, thereby distributing the fibres between and among the filaments. providing a bundle comprising continuous filaments of a thermoplastic polymer, contacting the bundle with a sliver comprising fibres of a heat resistant material combining the filaments and the sliver in a drawing step to produce a new bundle and applying a gas jet to the new bundle to distribute the fibres of the heat resistant material in the mixed bundle, thereby distributing the fibres between and among the filaments.
A medical device (1, 1', 1"), comprising: a shaft; a handle including a proximal portion and a distal portion, wherein the distal portion is fixed to a proximal portion of the shaft; and a working channel for receiving a tool, the working channel extending from the handle into the shaft, wherein the working channel includes a proximal working channel and a distal working channel, the proximal working channel being rotatable relative to the distal working channel and aligned with the distal working channel throughout rotation of the proximal working channel, wherein the proximal working portion includes the proximal working channel and the distal portion includes the distal working channel, wherein the distal portion is rotatable relative to the proximal portion of the handle, and the shaft is configured to rotate with the distal portion of the handle. a shaft; a handle including a proximal portion and a distal portion, wherein the distal portion is fixed to a proximal portion of the shaft; and a working channel for receiving a tool, the working channel extending from the handle into the shaft, wherein the working channel includes a proximal working channel and a distal working channel, the proximal working channel being rotatable relative to the distal working channel and aligned with the distal working channel throughout rotation of the proximal working channel, wherein the proximal working portion includes the proximal working channel and the distal portion includes the distal working channel, wherein the distal portion is rotatable relative to the proximal portion of the handle, and the shaft is configured to rotate with the distal portion of the handle.
A frequency characteristic adjusting jig configured to be attached to a loop antenna including a conductor that is formed in the shape of a loop such that a width of said conductor measured in a direction perpendicular to a plane of the loop is larger than a width of said conductor measured in the plane of the loop and that includes a feed point formed in a portion of the loop, the frequency characteristic adjusting jig comprising: a conductive first member (3b, 4b) which is configured to be located along an outer periphery of the loop for a portion of the conductor and electromagnetically coupled or electrically connected to the portion of the conductor; a conductive second member (3c, 4c) which is configured to be located along the outer periphery of the loop for another portion of the conductor and electromagnetically coupled or electrically connected to the other portion of the conductor; and a conductive third member (3d, 3e, 4g) configured to connect the first and second members together via a different path than a path formed along the loop, wherein the first and second members are chosen to have a length along the loop such that a frequency characteristic of the loop antenna is shifted according to the length. a conductive first member (3b, 4b) which is configured to be located along an outer periphery of the loop for a portion of the conductor and electromagnetically coupled or electrically connected to the portion of the conductor; a conductive second member (3c, 4c) which is configured to be located along the outer periphery of the loop for another portion of the conductor and electromagnetically coupled or electrically connected to the other portion of the conductor; and a conductive third member (3d, 3e, 4g) configured to connect the first and second members together via a different path than a path formed along the loop, wherein the first and second members are chosen to have a length along the loop such that a frequency characteristic of the loop antenna is shifted according to the length.
Distributor rod system of an agricultural field spray, which distributor rod system has an extent perpendicularly to the direction of travel and is mounted, by means of a suspension device which permits movement of the entire distributor rod system is approximately in the direction of travel, so as to be movable with respect to the frame to which it is attached, wherein a movement device for damping and/or preventing elastic rod system bending, occurring at least approximately in the direction of travel is arranged between the frame and the distributor rod system, characterized in that one or more actuators which are arranged between the frame and the distributor rod system are provided, said actuators bringing about damping and/or preventing the elastic bending of the distributor rod system, caused by the dynamics of the field spray, by changing the distance between the distributor rod system and the frame.
Use of a composition for producing ice-cream, low-caloric ice-cream, plant-based ice-cream, or ice-cream comprising insect protein, wherein the composition comprises: a. plant fibre having a content of water-soluble pectin of between 2 and 10 wt.% b. low-esterified soluble pectin having a degree of esterification of less than 50%; c. high-esterified soluble pectin having a degree of esterification of at least 50%; and d. optionally sugar. a. plant fibre having a content of water-soluble pectin of between 2 and 10 wt.% b. low-esterified soluble pectin having a degree of esterification of less than 50%; c. high-esterified soluble pectin having a degree of esterification of at least 50%; and d. optionally sugar.
Rotary piston displacement machine with a rotor, which is arranged in a housing and is designed as a polygonal prism-like body, in which the connecting lines of the corners of the base surfaces form an equilateral polygon and which rotates around a circle running on a circular path of the housing and at least approximately touching it, wherein alternately, on the longitudinal inner wall surface of the housing, the longitudinal edges of the prism-like body alternate with at least an opening for the low-pressure supply and an opening for the high-pressure supply of.the working medium, wherein at least the longitudinal inner wall surface of the housing, the end of the opening for the low-pressure supply or discharge and the beginning of the opening for the high-pressure supply or discharge as well as the end of the opening for the high-pressure supply or discharge and the beginning of the opening for the low-pressure supply or discharge are disposed offset with respect to the respective centre of the rotor by the centre angle of the equilateral polygon formed from the connecting straight lines of the corners of the base surfaces of the prism-like body, characterized in that plural rotary piston displacement machines are provided in a hydroelectric power plant as a motor driven by the working medium for driving a generator for generating electric current, and can also be used as a pump which is driven in the opposite direction of rotation by a motor or the generator operating as a motor for conveying the working medium water to a higher-level reservoir, wherein the conduits for each supply or discharge (7, 8, respectively) are interconnected.
Motor generator, intended to be installed on board hybrid propulsion vehicles according to the series hybrid scheme, comprising: - an internal combustion engine, which is provided with a drive shaft and is a two-cylinder boxer engine; - an electric generator having a rotor, which is mechanically connected through mechanical transmission means to the drive shaft of said internal combustion engine, and it can be rotationally actuated by said drive shaft; whereby said internal combustion engine has a cyclic irregularity substantially ranging from 0.031 to 0.033 with: - at a rotational speed substantially ranging from 2800 rpm to 3200 rpm; - a rotating inertial masses having a total polar moment of inertia (I T), obtained by the sum of the polar moment of inertia of said drive shaft; the polar moment of inertia of said mechanical transmission means; and the polar moment of inertia of the rotor of said electric generator; substantially ranging from 0.075 Kg·m 2 to 0.092 Kg·m 2 and preferably equal to 0.0836 Kg·m 2; and the mechanical transmission means comprise a clutch unit and a transmission. - an internal combustion engine, which is provided with a drive shaft and is a two-cylinder boxer engine; - an electric generator having a rotor, which is mechanically connected through mechanical transmission means to the drive shaft of said internal combustion engine, and it can be rotationally actuated by said drive shaft; - at a rotational speed substantially ranging from 2800 rpm to 3200 rpm; - a rotating inertial masses having a total polar moment of inertia (I T), obtained by the sum of the polar moment of inertia of said drive shaft; the polar moment of inertia of said mechanical transmission means; and the polar moment of inertia of the rotor of said electric generator; substantially ranging from 0.075 Kg·m 2 to 0.092 Kg·m 2 and preferably equal to 0.0836 Kg·m 2; and
An aortic valve device suitable for treating mitral regurgitation, comprising: a frame having an annulus support, an aortic flange extending from one end of the annulus support, and a ventricular flange extending from another end of the annulus support, the ventricular flange flared radially outwardly so that the ventricular flange gradually increases in diameter until it reaches a ventricular end; a set of leaflets sutured into the interior frame, with the leaflets assuming the valve function of the patient's native aortic valve, characterized in that the frame further includes a tenting element that extends from a portion of the circumference of the ventricular end that is less than 90% of the circumference of the ventricular end, with the tenting element defining one or more cellular elements that are formed by struts that are connected to the ventricular end and with the tenting element being located at a side of the circumference of the ventricular end that is positioned closer to a patient's aortic curtain when the frame is implanted in the aortic portion so that the tenting element pushes the anterior structure of the mitral valve towards the posterior side of the mitral valve. a frame having an annulus support, an aortic flange extending from one end of the annulus support, and a ventricular flange extending from another end of the annulus support, the ventricular flange flared radially outwardly so that the ventricular flange gradually increases in diameter until it reaches a ventricular end; a set of leaflets sutured into the interior frame, with the leaflets assuming the valve function of the patient's native aortic valve, characterized in that the frame further includes a tenting element that extends from a portion of the circumference of the ventricular end that is less than 90% of the circumference of the ventricular end, with the tenting element defining one or more cellular elements that are formed by struts that are connected to the ventricular end and with the tenting element being located at a side of the circumference of the ventricular end that is positioned closer to a patient's aortic curtain when the frame is implanted in the aortic portion so that the tenting element pushes the anterior structure of the mitral valve towards the posterior side of the mitral valve.
A method comprising: determining, at an encoder, a sum of energy values corresponding to outputs of an analysis filter bank, the sum of energy values corresponding to an upper frequency range of a high-band portion of an audio signal; performing an averaging operation based on the sum of energy values to determine a signal characteristic; determining, at the encoder, whether the signal characteristic satisfies a threshold; generating a high-band excitation signal corresponding to the high-band portion; generating a synthesized high-band portion based on the high-band excitation signal; determining a value of a temporal gain parameter based on a comparison of the synthesized high-band portion to the high-band portion; and responsive to the signal characteristic satisfying the threshold, adjusting the value of the temporal gain parameter, wherein adjusting the value of the temporal gain parameter controls a variability of the temporal gain parameter. determining, at an encoder, a sum of energy values corresponding to outputs of an analysis filter bank, the sum of energy values corresponding to an upper frequency range of a high-band portion of an audio signal; performing an averaging operation based on the sum of energy values to determine a signal characteristic; determining, at the encoder, whether the signal characteristic satisfies a threshold; generating a high-band excitation signal corresponding to the high-band portion; generating a synthesized high-band portion based on the high-band excitation signal; determining a value of a temporal gain parameter based on a comparison of the synthesized high-band portion to the high-band portion; and responsive to the signal characteristic satisfying the threshold, adjusting the value of the temporal gain parameter, wherein adjusting the value of the temporal gain parameter controls a variability of the temporal gain parameter.
A method for determining when an estimated altitude of a mobile device can be used for calibration or location determination, the method comprising: determining an area in which the mobile device is expected to reside, the area comprising a plurality of sections, each section of the plurality of sections being a terrain tile; for each section of the plurality of sections in the area, determining an altitude value of that section; determining if a threshold percentage of the altitude values meets a threshold condition; and if the threshold percentage of altitude values meets the threshold condition, determining that the estimated altitude of the mobile device can be used for determining a position of the mobile device or for calibrating a pressure sensor of the mobile device, the estimated altitude of the mobile device being determined using a pressure measured by the pressure sensor of the mobile device. determining an area in which the mobile device is expected to reside, the area comprising a plurality of sections, each section of the plurality of sections being a terrain tile; for each section of the plurality of sections in the area, determining an altitude value of that section; determining if a threshold percentage of the altitude values meets a threshold condition; and if the threshold percentage of altitude values meets the threshold condition, determining that the estimated altitude of the mobile device can be used for determining a position of the mobile device or for calibrating a pressure sensor of the mobile device, the estimated altitude of the mobile device being determined using a pressure measured by the pressure sensor of the mobile device.
A method for bonding a first substrate wafer (104, 104') and a second substrate wafer (102, 102') by creating an aluminum/germanium bond (110, 110'), the first substrate wafer (104, 104') being a CMOS substrate wafer including an aluminum top layer, a germanium layer disposed on the second substrate wafer (102, 102'), the method comprising: placing the first substrate wafer (104, 104') in a first chuck; placing the second substrate wafer (102, 102') in a second chuck; aligning the first substrate wafer and the second substrate wafer; and forming a eutectic bond (110, 110') between the germanium layer and the aluminum top layer, wherein the eutectic bond is formed by applying a force across the first chuck and the second chuck, and ramping temperature of the first substrate wafer and the second substrate wafer over a eutectic temperature of the aluminum/germanium bond, wherein the aluminum top layer disposed on the first substrate wafer is an aluminum layer disposed on the CMOS substrate wafer. placing the first substrate wafer (104, 104') in a first chuck; placing the second substrate wafer (102, 102') in a second chuck; aligning the first substrate wafer and the second substrate wafer; and forming a eutectic bond (110, 110') between the germanium layer and the aluminum top layer, wherein the eutectic bond is formed by applying a force across the first chuck and the second chuck, and ramping temperature of the first substrate wafer and the second substrate wafer over a eutectic temperature of the aluminum/germanium bond, wherein the aluminum top layer disposed on the first substrate wafer is an aluminum layer disposed on the CMOS substrate wafer.
Device for camber and/or toe adjustment of a vehicle wheel, with a hub carrier, between the wheel-side, vehicle wheel receiving carrier part of which and the axle-side guiding part, connected with a wheel mounting, of which is placed at least one actuating element (26, 28) rotatable around a rotation axis, which is adjustable for camber and/or toe adjustment of the vehicle wheel by means of a spur gearwheel drive by means of a drive rotation unit, wherein in the drive path between the drive rotation unit and the actuating element (26, 28) is placed a shut-off element, which in a release position releases the drive path for a transmission of a drive torque (M A) from the drive rotation unit to the actuating element (26, 28), and in a shut-off position generates a shut-off torque, which counters a reaction torque (M R) directed from the actuating element (26, 28) onto the drive rotation unit, characterised in that the shut-off element is a double acting freewheel, which opens with a drive torque (M A) of the drive rotation unit and closes with a reaction torque (M R) of the actuating element (26, 28).
A system for distributing heat transfer fluid for a thermal energy storage device including a thermal storage tank stratified by heat transfer fluid, for injecting and/or withdrawing heat transfer fluid within the thermal storage tank, said distribution system being in a telescopic shape, including a plurality of distribution elements (2a-2e) fitted inside one another and sliding relative to each other, to allow deployment and/or retraction of the distribution system according to a predetermined configuration for distributing heat transfer fluid within a target thermal stratum of the thermal storage tank having a temperature substantially equal to the temperature of the heat transfer fluid intended to be distributed, at least one of the distribution elements (2a-2e) including a heat transfer fluid diffuser element, the solid density (ρ s) of the solid part of the distribution system, comprising the plurality of distribution elements (2a-2e), being substantially equal to the fluid density (ρ l) of the fluid part of the distribution system, comprising the heat transfer fluid intended to be distributed within said target thermal stratum, by injection and/or withdrawal, to allow flotation of said diffuser element at the level of said target thermal stratum, all or part of the distribution elements (2a-2e) including at least one flotation element, configured to give the plurality of distribution elements (2a-2e) of the distribution system a density (ρ s) substantially equal to the density (ρ l) of the heat transfer fluid intended to be distributed, and said at least one flotation element being integrated inside a side wall of at least one distribution element (2a-2e).
Ventilation device with a housing, the top side of which is formed by a cover plate, and with at least one fastening device for fastening the ventilation device in an assembly wall, wherein at least one fastening device is arranged on the cover plate and wherein the fastening device has a base plate and a support element arranged at least partially above the base plate in a mobile manner, wherein the base plate of the fastening device is fastened to the top side of the housing of the ventilation device or is formed by part of the top side of the housing of the ventilation device, wherein the support element has an angled shape with a first and a second limb (210, 211), characterised in that the second limb is directed downwards in relation to the first limb, the support element is retained on the first limb such that it can be displaced on the base plate and the support element can be pivoted in relation to the base plate, such that the support element can be moved between a prefixed position, in which the second limb protrudes beyond the edge of the base plate by an overhang, an assembly position, in which the second limb is pivoted downwards in relation to the prefixed position, and an insertion position, in which the second limb protrudes beyond the edge of the base plate by an overhang which is smaller than the overhang in the prefixed position.