mhurhangee/ep-ind-claims huggingface dataset:
A ceramic wall-flow filter, comprising: a plurality of porous ceramic walls forming cell channels (8, 9), at least some of the cell channels (8, 9) including plugs (12, 14), wherein the porous ceramic walls exhibit 152 μ m ≤ T wall < 229 μ m, and 36 > WP > 12 wherein WP is a ratio defined as WP = T wall /MPD, MPD is a median pore diameter of a porosity in the walls in um, and T wall is a wall thickness of the walls in um, and wherein the plurality of porous ceramic walls further comprise a cell density CD wherein 100 cpsi ≥ CD ≥ 400 cpsi. a plurality of porous ceramic walls forming cell channels (8, 9), at least some of the cell channels (8, 9) including plugs (12, 14), wherein the porous ceramic walls exhibit 152 μ m ≤ T wall < 229 μ m, and 36 > WP > 12 wherein WP is a ratio defined as WP = T wall /MPD, MPD is a median pore diameter of a porosity in the walls in um, and T wall is a wall thickness of the walls in um, and wherein the plurality of porous ceramic walls further comprise a cell density CD wherein 100 cpsi ≥ CD ≥ 400 cpsi.
System comprising at least two separate suction units (2,3), with the first suction unit for suction of liquids, for example sewage, being connected to a liquid container for storing the sucked liquid and with the second suction unit for suction of aerosols, for example liquid aerosols and/or solid aerosols, being connected to an aerosol container for storing the sucked aerosols, wherein the two suction units are connected to a single line, to which at least a first suction inlet for liquids, for example sewage and a second suction inlet for aerosols, for example solid and/or liquid aerosols, are connected, with at least one valve arranged such that at suction of the second suction unit the first suction inlet is substantially closed.
A method of decoding a video signal, comprising: obtaining block partition information of a current coding unit; receiving flag information indicating whether the current coding unit is partitioned based on a distance from a reference sample; when the current coding unit is partitioned based on the distance from the reference sample according to the flag information, receiving direction information indicating a partition direction of the current coding unit and deriving an intra prediction mode of a partition block based on the block partition information; and generating a prediction signal of the partition block based on the derived intra prediction mode, wherein the intra prediction mode of the partition block is defined by a limited number based on a prediction direction, such that a first numeric range indicates horizontal direction modes and a distinct second numeric range indicates vertical direction modes, wherein the intra prediction mode is derived by a summation of a transmitted prediction mode value and an offset value, and wherein the offset value corresponds to a minimum value among values indicating a prediction mode of a vertical direction when the direction information indicates a horizontal partition direction, and indicates 0 otherwise. obtaining block partition information of a current coding unit; receiving flag information indicating whether the current coding unit is partitioned based on a distance from a reference sample; when the current coding unit is partitioned based on the distance from the reference sample according to the flag information, receiving direction information indicating a partition direction of the current coding unit and deriving an intra prediction mode of a partition block based on the block partition information; and generating a prediction signal of the partition block based on the derived intra prediction mode, wherein the intra prediction mode of the partition block is defined by a limited number based on a prediction direction, such that a first numeric range indicates horizontal direction modes and a distinct second numeric range indicates vertical direction modes, wherein the intra prediction mode is derived by a summation of a transmitted prediction mode value and an offset value, and wherein the offset value corresponds to a minimum value among values indicating a prediction mode of a vertical direction when the direction information indicates a horizontal partition direction, and indicates 0 otherwise.
Semiconductor switch with a monolithically integrated field effect transistor, in which a source or emitter region of the field effect transistor is electrically connected to a first electrical connection (10, K), and a drain or collector region of the field effect transistor is electrically connected to a second electrical connection (10, A) of the semiconductor switch, wherein - the source or emitter region of the field effect transistor is connected to the first electrical connection (10, K) via a semiconductor region and a n-doped contact region, and - a semiconductor structure with n-doped channels is formed in the semiconductor region between the n-doped contact region and the source or emitter region of the field effect transistor, which channels electrically connect the n-doped contact region to the source or emitter region of the field effect transistor and extend between p-doped regions, which are connected to the n-doped contact region within the semiconductor switch, characterized in that the p-doped regions are connected to the source or emitter region via an ohmic connection. - the source or emitter region of the field effect transistor is connected to the first electrical connection (10, K) via a semiconductor region and a n-doped contact region, and - a semiconductor structure with n-doped channels is formed in the semiconductor region between the n-doped contact region and the source or emitter region of the field effect transistor, which channels electrically connect the n-doped contact region to the source or emitter region of the field effect transistor and extend between p-doped regions, which are connected to the n-doped contact region within the semiconductor switch,
A method comprising: electrodepositing polynuclear aluminum oxide hydroxide clusters from a polynuclear aluminum oxide hydroxide cluster solution on a metallic substrate to form a precursor coating, wherein the polynuclear aluminum oxide hydroxide clusters have a formula [AlO 4 Al 12 24 (H 2 O) 12] 7+ and diameters between 1.0 nanometers and 1.8 nanometers; and post-treating the precursor coating to form an aluminum oxide coating on the metallic substrate. electrodepositing polynuclear aluminum oxide hydroxide clusters from a polynuclear aluminum oxide hydroxide cluster solution on a metallic substrate to form a precursor coating, wherein the polynuclear aluminum oxide hydroxide clusters have a formula [AlO 4 Al 12 24 (H 2 O) 12] 7+ and diameters between 1.0 nanometers and 1.8 nanometers; and post-treating the precursor coating to form an aluminum oxide coating on the metallic substrate.
A method of manufacturing an offloading and reduced-pressure treatment device, the method comprising: providing a sheet of offloading manifold material, the offloading manifold, material comprising: a support layer having a first surface and a second surface, a pressure-transmitting layer having a first surface and a second surface, the first surface of the pressure-transmitting member coupled to the second surface of the support layer, and a first barrier layer having a first surface and a second surface, the first surface of the first barrier layer coupled to the second surface of the pressure-transmitting layer; and cutting the sheet to form the offloading and reduced-pressure treatment device, wherein: the pressure-transmitting layer of the offloading manifold material comprises an open-cell foam material, and characterised in that the support layer of the offloading manifold material comprises a closed-cell foam material. providing a sheet of offloading manifold material, the offloading manifold, material comprising: a support layer having a first surface and a second surface, a pressure-transmitting layer having a first surface and a second surface, the first surface of the pressure-transmitting member coupled to the second surface of the support layer, and a first barrier layer having a first surface and a second surface, the first surface of the first barrier layer coupled to the second surface of the pressure-transmitting layer; and a support layer having a first surface and a second surface, a pressure-transmitting layer having a first surface and a second surface, the first surface of the pressure-transmitting member coupled to the second surface of the support layer, and a first barrier layer having a first surface and a second surface, the first surface of the first barrier layer coupled to the second surface of the pressure-transmitting layer; and cutting the sheet to form the offloading and reduced-pressure treatment device, wherein: the pressure-transmitting layer of the offloading manifold material comprises an open-cell foam material, and characterised in that the support layer of the offloading manifold material comprises a closed-cell foam material. the pressure-transmitting layer of the offloading manifold material comprises an open-cell foam material, and characterised in that the support layer of the offloading manifold material comprises a closed-cell foam material.
A method for releasing a requested amount of power from a power facility to an associated power grid, the method comprising the following sequential steps: 1) providing a release signal as to when the requested amount of power is to be released from the power facility to the associated power grid, 2) ramping up a power generated at the power facility, and 3) releasing the requested amount of power to the associated power grid in accordance with the release signal wherein at least a part of an excess power generated during ramping up is dissipated and/or stored in suitable power handling modules, characterised in that a power provided to the associated power grid is maintained at a substantially unchanged level while ramping up the power generated at the power facility, and wherein the release signal provides an exact time as to when the requested amount of power is to be released, such that after the time of release the power generated at the power facility and the power provided to the associated power grid may be maintained at an increased power level. 1) providing a release signal as to when the requested amount of power is to be released from the power facility to the associated power grid, 2) ramping up a power generated at the power facility, and 3) releasing the requested amount of power to the associated power grid in accordance with the release signal
A communication device (10, AP1) comprising a control unit that performs control to: transmit a frame of data to a reception-side communication device (STAG), by a coordinated transmission performed to simultaneously transmit frames comprising the same data from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information comprising information regarding frequency or spatial multiplexing resources for returning the acknowledgement signal by a technique of simultaneous multiplex access, for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal in accordance with the acknowledgement return information. transmit a frame of data to a reception-side communication device (STAG), by a coordinated transmission performed to simultaneously transmit frames comprising the same data from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information comprising information regarding frequency or spatial multiplexing resources for returning the acknowledgement signal by a technique of simultaneous multiplex access, for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal in accordance with the acknowledgement return information.
A modular waste liquid separator and collector device for collecting waste liquid during a washing operation of an aircraft engine, comprising the following component modules: a support structure; a droplet separator connectable to said support structure; and a waste liquid collector device; characterised in that said component modules are individually portable. a support structure; a droplet separator connectable to said support structure; and a waste liquid collector device; characterised in that
A tamping punch station for filling capsules with filling material in a capsule filling machine, comprising a rotatably drivable dosing disc, which comprises at least one group of bores, a filling device for filling the bores with the filling material, at least one group of tamping punches and a group of ejection punches, wherein the tamping punches and the ejection punches are held on a vertically movable punch support, wherein the tamping punches for pressing the filling material into the bores and the ejection punches for ejecting pellets created by the tamping punches in the bores can move into the bores through vertical movement of the punch support, characterised in that first drive devices for incremental rotation of the dosing disc along the at least one group of tamping punches and the group of ejection punches, and second drive devices for vertically moving the punch support for entrance of the tamping punches and the ejection punches into the bores are provided, wherein the drive trains for rotating the dosing disc on the one hand, and those for vertical movement of the punch support on the other hand are separated, wherein the second drive devices comprise at least two spindle drives acting on the punch support, each with one spindle nut and one vertical drive spindle guided in the spindle nut, and wherein the second drive means comprise at least two driving motors from which each one drives one of the spindle drives at a time for vertical movement of the punch support.
A machine tool for machining a workpiece, which is attached to a table, by moving a tool attached to a spindle and the workpiece relative to each other, characterized in that the machine tool comprises: a bed providing a base and defining a top to which the table is disposed; a pair of left and right side walls extending rearward from the rear side of the bed; supporting members (11a, 11b) for supporting the bed on a floor at the rearwardly extending left and right side walls and at least the front center of the bed, whereby the bed is supported by one of the supporting members at the front side and by two of the supporting members at the backside; a vertically moving body adapted to move vertically along a pair of left-right vertically extending guides mounted to the rear side of the bed so as to extend near the floor; and vertically driving means (30, 35) for moving the vertically moving body as one of the relative motions, the vertical driving means (30, 35) having a pair of left-right feed screws in parallel to the vertically extending guides, and feed motors, mounted to motor brackets provided on the left and right side walls of the bed adjacent the supporting members supporting the backside of the bed, for rotationally driving the lower ends of the feed screws, wherein the feed motors and the supporting members supporting the backside of the bed are disposed adjacent to each other. a bed providing a base and defining a top to which the table is disposed; a pair of left and right side walls extending rearward from the rear side of the bed; supporting members (11a, 11b) for supporting the bed on a floor at the rearwardly extending left and right side walls and at least the front center of the bed, whereby the bed is supported by one of the supporting members at the front side and by two of the supporting members at the backside; a vertically moving body adapted to move vertically along a pair of left-right vertically extending guides mounted to the rear side of the bed so as to extend near the floor; and vertically driving means (30, 35) for moving the vertically moving body as one of the relative motions, the vertical driving means (30, 35) having a pair of left-right feed screws in parallel to the vertically extending guides, and feed motors, mounted to motor brackets provided on the left and right side walls of the bed adjacent the supporting members supporting the backside of the bed, for rotationally driving the lower ends of the feed screws, wherein the feed motors and the supporting members supporting the backside of the bed are disposed adjacent to each other.
A belt sensor system comprising: a first infra-red sensor disposed adjacent to a toothed belt to detect a relative distance of a first back belt surface and generate a first signal therefore; a second infra-red sensor disposed adjacent to the toothed belt to detect a periodic signal and a relative distance of a tooth land area: between adjacent belt teeth of a second toothed belt surface to generate a second signal therefore; a signal processor operating on the first signal and second signal to calculate a frequency of oscillation (f) of the belt and a dynamic belt tension using the equation: T: = μ ⋅ f ⋅ 2 L n 2 Where T = belt tension f = the frequency of oscillation of the belt n = harmonic mode L = drive length μ = mass per belt unit length. a first infra-red sensor disposed adjacent to a toothed belt to detect a relative distance of a first back belt surface and generate a first signal therefore; a second infra-red sensor disposed adjacent to the toothed belt to detect a periodic signal and a relative distance of a tooth land area: between adjacent belt teeth of a second toothed belt surface to generate a second signal therefore; a signal processor operating on the first signal and second signal to calculate a frequency of oscillation (f) of the belt and a dynamic belt tension using the equation: T: = μ ⋅ f ⋅ 2 L n 2 Where T = belt tension f = the frequency of oscillation of the belt n = harmonic mode L = drive length μ = mass per belt unit length. T = belt tension f = the frequency of oscillation of the belt n = harmonic mode L = drive length μ = mass per belt unit length.
A winding machine suitable for delicate linear media, comprising: a transposition means comprising at least one turntable or wheel that supports a plurality of supply spools that store delicate linear media and from which the delicate linear media can be unwound, the at least one turntable or wheel being rotatable about a virtual axis; characterized by a means for supporting a flexible element supply spool for an elongate flexible element; and at least one motor for translationally moving the elongate flexible element relative to a revolving tube and onto a take-up spool, the revolving tube being rotated by a means about a longitudinal axis of the revolving tube, which is angled relative to the virtual axis of the at least one turntable or wheel; wherein the transposition means is interconnected to the revolving tube such that rotation of the revolving tube rotates the transposition means about the elongate flexible element; wherein the at least one turntable or wheel is configured to wrap the delicate linear media from the plurality of supply spools onto the elongate flexible element, wherein rotation of the at least one turntable or wheel and rotation of the revolving tube transposes the delicate linear media onto the elongate flexible element as it moves relative to the revolving tube. a transposition means comprising at least one turntable or wheel that supports a plurality of supply spools that store delicate linear media and from which the delicate linear media can be unwound, the at least one turntable or wheel being rotatable about a virtual axis; characterized by a means for supporting a flexible element supply spool for an elongate flexible element; and at least one motor for translationally moving the elongate flexible element relative to a revolving tube and onto a take-up spool, the revolving tube being rotated by a means about a longitudinal axis of the revolving tube, which is angled relative to the virtual axis of the at least one turntable or wheel; wherein the transposition means is interconnected to the revolving tube such that rotation of the revolving tube rotates the transposition means about the elongate flexible element; wherein the at least one turntable or wheel is configured to wrap the delicate linear media from the plurality of supply spools onto the elongate flexible element, wherein rotation of the at least one turntable or wheel and rotation of the revolving tube transposes the delicate linear media onto the elongate flexible element as it moves relative to the revolving tube.
Connecting rod for an internal combustion engine with variable compression, having at least one hydraulic chamber (510, 511), wherein the hydraulic chamber (510, 511) can be connected by means of a check valve (1, 101, 301) to a bearing shell or a supply port of the connecting rod or a further hydraulic chamber (511, 510), wherein the check valve (1, 101, 301) has a valve body (3, 103, 303) with a fluid path (4, 104, 304) which can be opened and closed by means of a closing element (5, 105, 305), characterized in that the closing element (5, 105, 305) is provided as a radially outwardly openable ring band and, in the installed position, ends of the ring band are arranged on the circumference of the valve body (3, 103, 303) so as to face one another, wherein a bolt (7, 107, 307) is provided for positionally securing the ring band.