mhurhangee/ep-ind-claims huggingface dataset:
Mold for the production of al plin ravioli using dough, wherein said mold comprises a frame and a counter-frame between which at least a couple of drive rollers (22, 23), which drive a dough support and advancement belt, are positioned; wherein at least one shaping roller, at least one cutting wheel, at least one folding group and at least one cutting roller are mounted successively on the frame; wherein said shaping roller, belt, cutting roller and drive rollers (22, 23) have mutually parallel rotation axes; wherein the shaping roller is a drum bearing at least one area with a smooth surface on the frame side, while on the other end it has a series of pockets with constant pitch in order to shape the ravioli; wherein the cutting wheel is driven by the belt by friction and wherein the cutting roller is a drum which has a series of pockets with constant pitch which end with blades; the mold being characterized in that the cutting wheel comprises at the two ends at least two cylindrical sponges and made of material suitable for handling food and a central circular element provided with a series of blades; the sponges and are positioned such that they are in contact with the smooth surface of the shaping roller.
A disposable package having a reservoir filled with a portion of an ingredient to be combined with a base liquid for the preparation of a liquid product, e.g. a food product suitable for human consumption, which package has an injection moulded plastic body with a bottom and a circumferential wall, an upper edge of the circumferential wall bounding an aperture which is hermetically sealed by a top sealing film fixed on its circumference to the upper edge, the plastic body furthermore having a central column which is at its lower end integral with the centre of the bottom, which column projects upwards from the bottom to an upper end of the column, the reservoir of the package surrounding said column, wherein a channel extends in the column from an inlet at the upper end of the column, wherein the top sealing film is breakable so that a base liquid feed lance can be passed through the top sealing film, be engaged with the upper end of column, and dispense base liquid into the channel, and wherein the bottom has an annular flexible portion (3a-c) around the column such that the column is movable, preferably elastically movable, downwards from an initial position to a lower operative position through engagement with feed lance and suitable relative displacement of the feed lance and the package, and wherein the package is provided with a bottom sealing film fixed at is circumference to the plastic body and extending underneath the bottom, which bottom seal film is adapted to break upon relative motion of the column and of the bottom to the lower operative position, said breakage creating one or more outflow openings in the bottom sealing film allowing for outflow of the obtained product from the package characterized in that the channel extends in the column from the inlet at the upper end of the column to a blind end, preferably near the bottom, wherein the column, preferably at its upper end, is provided with one or more apertures that are in communication with the channel in the column and with the reservoir, so as to allow base liquid that is dispensed from the feed lance, to flow to and through the one or more apertures and then into the reservoir to be combined with the ingredient therein, wherein the bottom is embodied as a closed bottom with a multitude, of discharge openings therein for the product or with a multitude of filter holes, so that the liquid introduced via the feed lance into the reservoir interacts with the ingredient and the product thus obtained flows out of the reservoir through the one or more discharge openings or filter holes in the bottom.
A motor vehicle charging inlet structure, comprising a first charging socket, a lid and a lock member, wherein the first charging socket is disposed in a recess portion of a vehicle body and connected to an electricity storage unit of a motor vehicle and the first charging socket is configured to be connected to a charging connector which supplies electric power from an external power supply to the electricity storage unit; the lid is configured to open and close the recess portion; and the lock member is configured to, when the lid is closed, come into engagement with the lid to fix the lid in a closed state and configured to, when the charging connector is connected to the first charging socket in a state in which the engagement of the lock member with the lid is released, come into press-contact with the charging connector to fix the charging connector in a connected state, the motor vehicle charging inlet structure being characterized in that: the lock member includes a lock pin which is axially reciprocated by an actuator, when the lock pin is driven in one direction, one end portion of the lock pin engages with the lid, and when the lock pin is driven in another direction, the other end portion of the lock pin comes into press-contact with the charging connector. the lock member includes a lock pin which is axially reciprocated by an actuator, when the lock pin is driven in one direction, one end portion of the lock pin engages with the lid, and when the lock pin is driven in another direction, the other end portion of the lock pin comes into press-contact with the charging connector.
A encoding device, comprising: circuitry configured to: apply a diagonal scan to a plurality of transform blocks including a first transform and a second transform block, of a plurality of variable block sizes, in dependence upon a condition that the plurality of transform blocks are not horizontal or vertical scan transform blocks, wherein the plurality of variable block sizes includes 4×4, 8×8, 16×16, and 32×32, wherein the first transform block is of a first block size of the plurality of variable block sizes and the second transform block is of a second block size of the plurality of variable block sizes, and wherein 4×4 sub-blocks of both the first transform block and the second transform block are diagonally scanned, and the diagonal scan is applied inside each of the 4×4 sub-blocks; and apply the same multi-level significance map encoding to the first transform block of the first block size and the second transform block of the second block size. apply a diagonal scan to a plurality of transform blocks including a first transform and a second transform block, of a plurality of variable block sizes, in dependence upon a condition that the plurality of transform blocks are not horizontal or vertical scan transform blocks, wherein the plurality of variable block sizes includes 4×4, 8×8, 16×16, and 32×32, wherein the first transform block is of a first block size of the plurality of variable block sizes and the second transform block is of a second block size of the plurality of variable block sizes, and wherein 4×4 sub-blocks of both the first transform block and the second transform block are diagonally scanned, and the diagonal scan is applied inside each of the 4×4 sub-blocks; and apply the same multi-level significance map encoding to the first transform block of the first block size and the second transform block of the second block size.
A direct current DC power distribution system for distributing electrical power to a plurality of sets of electrical devices, the DC power distribution system comprising: a DC bus comprising a plurality of bus sections with at least a first bus section and a second bus section electrically coupled to each other via a bus separator, and wherein the bus separator is configured to isolate the first bus section and the second bus section based on occurrence of a fault condition; a controller operatively coupled to the bus separator; and at least one current transfer device electrically coupled to at least one of the plurality of bus sections (110, 112), wherein the at least one current transfer device is configured to create a temporary short circuit for a controllable duration; wherein each of the plurality of bus sections (110, 112) is electrically coupled to at least one set (102, 104) of one or more electrical devices; wherein at least a first set (102, 104) of one or more electrical devices is electrically coupled to the first bus section and has a first importance metric indicative of a priority associated with the one or more electrical devices of the first set (102, 104) and at least a second set of one or more electrical devices is electrically coupled to the second bus section and has a second importance metric indicative of a priority associated with the one or more electrical devices of the second set, the second importance metric being different from the first importance metric; and wherein the controller is operatively coupled to the electrical devices and adapted to monitor the electrical devices for occurrence of the fault condition. a DC bus comprising a plurality of bus sections with at least a first bus section and a second bus section electrically coupled to each other via a bus separator, and wherein the bus separator is configured to isolate the first bus section and the second bus section based on occurrence of a fault condition; a controller operatively coupled to the bus separator; and at least one current transfer device electrically coupled to at least one of the plurality of bus sections (110, 112), wherein the at least one current transfer device is configured to create a temporary short circuit for a controllable duration; wherein each of the plurality of bus sections (110, 112) is electrically coupled to at least one set (102, 104) of one or more electrical devices; wherein at least a first set (102, 104) of one or more electrical devices is electrically coupled to the first bus section and has a first importance metric indicative of a priority associated with the one or more electrical devices of the first set (102, 104) and at least a second set of one or more electrical devices is electrically coupled to the second bus section and has a second importance metric indicative of a priority associated with the one or more electrical devices of the second set, the second importance metric being different from the first importance metric; and wherein the controller is operatively coupled to the electrical devices and adapted to monitor the electrical devices for occurrence of the fault condition.
A method for processing a set of multiple serially acquired magnetic resonance spectroscopy free induction decay frames from a multi-frame MRS acquisition series from a region of interest in a subject, and for providing a post-processed MRS spectrum, comprising: dynamically varying a parameter of a processing step between multiple parameter values affecting a corresponding change between multiple feature values of a feature of a processed result of performing the step on the set; performing the step on the set at each of the multiple parameter values and providing multiple processed results, respectively, comprising multiple respective feature values, respectively; comparing the feature values of the processed results; determining a chosen feature value among the multiple feature values based upon the comparison and corresponding to a chosen parameter value; and setting the parameter to the chosen parameter value for performing the processing step to provide the post-processed MRS spectrum; wherein the feature comprises signal:noise ratio of a spectral peak region of the post-processed MRS spectrum or a line width of a spectral peak region of the post-processed MRS spectrum; and wherein the parameter comprises one or more of a full width half maximum (FWHM) value, a confidence value, a frequency error, and a threshold number of qualifying frames for frame editing. dynamically varying a parameter of a processing step between multiple parameter values affecting a corresponding change between multiple feature values of a feature of a processed result of performing the step on the set; performing the step on the set at each of the multiple parameter values and providing multiple processed results, respectively, comprising multiple respective feature values, respectively; comparing the feature values of the processed results; determining a chosen feature value among the multiple feature values based upon the comparison and corresponding to a chosen parameter value; and setting the parameter to the chosen parameter value for performing the processing step to provide the post-processed MRS spectrum; wherein the feature comprises signal:noise ratio of a spectral peak region of the post-processed MRS spectrum or a line width of a spectral peak region of the post-processed MRS spectrum; and wherein the parameter comprises one or more of a full width half maximum (FWHM) value, a confidence value, a frequency error, and a threshold number of qualifying frames for frame editing.
Outsole for a shoe comprising an upper shock-absorbing layer comprising an interface surface interfacing with an upper of the shoe, the interface surface extending along a length-of-upper between an anterior end and a posterior end, the outsole comprising a rigid leaf having an elastic modulus higher than 750 MPa interposed between the upper shock-absorbing layer and a lower shock-absorbing layer (333, 3332), the rigid leaf being arranged at least partly in an anterior half of the outsole, characterized in that it comprises a rigid support having an elastic modulus higher than 100 MPa, comprising • a lower bridge covering part of the lower surface of the upper shock-absorbing layer, the lower bridge extending substantially over the entire width of this upper shock-absorbing layer in at least one transverse segment of a central zone (Zc) located at between 30% and 50% of the length-of-upper, from the posterior end of the interface surface, • a lateral wing covering part of the lateral surface of the upper shock-absorbing layer, the covering portion covering at least a strip of a width of at least ten millimetres, this strip extending lengthwise, towards the rear, from the lower bridge at least as far as a frontal plane of the outsole that is distant, by 20% of the length-of-upper, from the posterior end of the interface surface. • a lower bridge covering part of the lower surface of the upper shock-absorbing layer, the lower bridge extending substantially over the entire width of this upper shock-absorbing layer in at least one transverse segment of a central zone (Zc) located at between 30% and 50% of the length-of-upper, from the posterior end of the interface surface, • a lateral wing covering part of the lateral surface of the upper shock-absorbing layer, the covering portion covering at least a strip of a width of at least ten millimetres, this strip extending lengthwise, towards the rear, from the lower bridge at least as far as a frontal plane of the outsole that is distant, by 20% of the length-of-upper, from the posterior end of the interface surface.
An industrial fluid additive composition comprising one or more sequestering agents and one or more compounds of formula: wherein R 1 and R 2 are independently selected from unsubstituted hydrocarbyl moieties containing from 1 to 10 carbon atoms; and wherein the one or more sequestering agents comprise a compound comprising one or more phosphonate moieties. wherein R 1 and R 2 are independently selected from unsubstituted hydrocarbyl moieties containing from 1 to 10 carbon atoms; and wherein the one or more sequestering agents comprise a compound comprising one or more phosphonate moieties.
Mounting system comprising transmitter receiver modules TRM:s forming a part of an active electronically scanned array AESA, wherein each TRM: - is provided with an upper antenna part and a lower electronic components part, where the upper antenna part is an active antenna and the lower electronic components part is provided with: - TRM contact means on an end opposite the upper antenna part, - a collar between the upper antenna part and the lower electronic component part, wherein said collar is an EMC-shield and is adapted to seal against an earth plane, and wherein the mounting system comprises: - a substrate rear panel provided with TRM contact receiving means on its first side and active support units on a second side, wherein each of said TRM contact receiving means are adapted to receive TRM contact means of one TRM, and wherein said support units are adapted to support a plurality of TRM:s, and wherein said substrate rear panel is constructed such that one single substrate rear panel is adapted to receive said TRM:s in a matrix structure having a plurality of rows and columns, characterized in that said mounting system is provided with the earth plane made of an electric conductive sheet, wherein the earth plane is provided with openings through which the TRM:s can be received, and wherein said earth plane is parallel to the substrate rear panel and is arranged such that when the TRM:s are mounted in the mounting system the earth plane levels with the TRM:s transition from the upper antenna part to the lower electronic components part, and the lower electronic components parts thereby is enclosed by the substrate rear panel and the earth plane. - is provided with an upper antenna part and a lower electronic components part, where the upper antenna part is an active antenna and the lower electronic components part is provided with: - TRM contact means on an end opposite the upper antenna part, - a collar between the upper antenna part and the lower electronic component part, wherein said collar is an EMC-shield and is adapted to seal against an earth plane, and wherein the mounting system comprises: - a substrate rear panel provided with TRM contact receiving means on its first side and active support units on a second side, wherein each of said TRM contact receiving means are adapted to receive TRM contact means of one TRM, and wherein said support units are adapted to support a plurality of TRM:s, and wherein said substrate rear panel is constructed such that one single substrate rear panel is adapted to receive said TRM:s in a matrix structure having a plurality of rows and columns,
A film comprising: a first phase comprising an acrylate and quantum dots, and a second phase comprising an epoxy or a polyurethane, wherein regions of the first phase are dispersed throughout the second phase, and the film is a cured emulsion. a first phase comprising an acrylate and quantum dots, and a second phase comprising an epoxy or a polyurethane,
A method for making a composite substrate circulator component, comprising: disposing a sleeve about a rod, wherein at least one of the rod and the sleeve comprises a plurality of longitudinally spaced recesses (322, 332); disposing the rod and the sleeve in an opening in a block to form an assembly; and dividing the assembly at the longitudinally spaced recesses to form a plurality of plates, each plate having a portion of the sleeve and the rod. disposing a sleeve about a rod, wherein at least one of the rod and the sleeve comprises a plurality of longitudinally spaced recesses (322, 332); disposing the rod and the sleeve in an opening in a block to form an assembly; and dividing the assembly at the longitudinally spaced recesses to form a plurality of plates, each plate having a portion of the sleeve and the rod.
A device for explosive disposal, with a detonation chamber, in which an explosive substance which is to be disposed of / detonated, can be deposited, wherein the detonation chamber comprises a casing which is manufactured of a wound sheet, characterised in that the casing has a cylindrical shape and is formed by way of a commercially available coil of rolled sheet.
Steam iron, having a system completely independent from the dosing system, comprising: - a water container, which can be connected to a steam chamber hydraulically via pre-chamber in order to unify the steam chambers, wherein the pre-chamber has an inlet connection, which is connected to the water container, and an outlet connection, which is connected to the steam chamber, - a valve for opening and closing the inlet connection and - an actuating element for actuating the valve to enable the passage of water from the water container, through the inlet connection, via the pre-chamber, through the outlet connection and into the steam chamber, characterised in that the valve made from a piece of flexible material has - a stopper part, which can be introduced into the inlet connection in order to close off the same, and - a spring part, which pressed the stopper part against the inlet connection. - a water container, which can be connected to a steam chamber hydraulically via pre-chamber in order to unify the steam chambers, wherein the pre-chamber has an inlet connection, which is connected to the water container, and an outlet connection, which is connected to the steam chamber, - a valve for opening and closing the inlet connection and - an actuating element for actuating the valve to enable the passage of water from the water container, through the inlet connection, via the pre-chamber, through the outlet connection and into the steam chamber, characterised in that the valve made from a piece of flexible material has - a stopper part, which can be introduced into the inlet connection in order to close off the same, and - a spring part, which pressed the stopper part against the inlet connection.
A method for processing infusion data, comprising the steps of - measuring a downstream pressure and providing downstream pressure measurement results per infusion and per rate, wherein the downstream pressure statistics comprise a resistance of flow A and a time constant τ, - providing downstream pressure statistics on the basis of the downstream pressure measurement results per infusion and per rate, - storing in a database the downstream pressure statistics and linking the stored downstream pressure statistics with infusion attributes, and linking the infusion attributes with a health thread or event, so that the database includes a plurality of patient and infusion data over a long time period according to the attributes and events and statistics, - querying the database so as to decide on the provision of infusion pump limits for warning and/or alarm per health thread or event type, and - transferring these alarm and/or warning limits to a pump system as an alarm and/or warning per health thread or event type. - measuring a downstream pressure and providing downstream pressure measurement results per infusion and per rate, wherein the downstream pressure statistics comprise a resistance of flow A and a time constant τ, - providing downstream pressure statistics on the basis of the downstream pressure measurement results per infusion and per rate, - storing in a database the downstream pressure statistics and linking the stored downstream pressure statistics with infusion attributes, and linking the infusion attributes with a health thread or event, so that the database includes a plurality of patient and infusion data over a long time period according to the attributes and events and statistics, - querying the database so as to decide on the provision of infusion pump limits for warning and/or alarm per health thread or event type, and - transferring these alarm and/or warning limits to a pump system as an alarm and/or warning per health thread or event type.