mhurhangee/ep-ind-claims huggingface dataset:
A method of cooking a snack food, the method comprising the steps of: a. providing a bed comprising a plurality of hollow particles, wherein the hollow particles are composed of, comprise or consist of a material which is magnetic and/or electroconductive; b. heating the hollow particles in the bed to form a cooking medium in the form of a heated bed of hollow particles, wherein in step b the hollow particles are heated at least partially by electromagnetic induction; c. providing a plurality of snack food precursor elements in the cooking medium thereby to cook the snack food precursor elements to form a plurality of cooked snack food pieces, wherein the heated particles transfer heat into the snack food precursor elements by thermal conduction, and wherein the snack food precursor elements comprise starch-containing pellets and when the pellets are cooked to form the cooked snack food pieces the pellets expand and reduce in density; and d. separating the plurality of cooked snack food pieces from the cooking medium. a. providing a bed comprising a plurality of hollow particles, wherein the hollow particles are composed of, comprise or consist of a material which is magnetic and/or electroconductive; b. heating the hollow particles in the bed to form a cooking medium in the form of a heated bed of hollow particles, wherein in step b the hollow particles are heated at least partially by electromagnetic induction; c. providing a plurality of snack food precursor elements in the cooking medium thereby to cook the snack food precursor elements to form a plurality of cooked snack food pieces, wherein the heated particles transfer heat into the snack food precursor elements by thermal conduction, and wherein the snack food precursor elements comprise starch-containing pellets and when the pellets are cooked to form the cooked snack food pieces the pellets expand and reduce in density; and d. separating the plurality of cooked snack food pieces from the cooking medium.
A detection apparatus for an object flying in space comprising: a first laminated body in which two detection sheet elements (1a, 1b) that retain in a predetermined array pitch a plurality of conductive detection lines on a non-conductive thin film that can be exposed in a space environment are laminated so that the direction in which the detection lines extend is mutually orthogonal, a second laminated body in which two detection sheet elements (1a, 1b) that retain in a predetermined array pitch a plurality of conductive detection lines on a non-conductive thin film that can be exposed in a space environment are laminated so that the direction in which the detection lines extend is mutually orthogonal, the first and second laminated bodies are disposed in two layers separated by a predetermined interval; and a detection circuit connected to each detection line, wherein when a detection line on a detection sheet element is ruptured by a collision with an object flying in space, detection of the object flying in space that has collided with each detection sheet element is enabled by the detection circuit. a first laminated body in which two detection sheet elements (1a, 1b) that retain in a predetermined array pitch a plurality of conductive detection lines on a non-conductive thin film that can be exposed in a space environment are laminated so that the direction in which the detection lines extend is mutually orthogonal, a second laminated body in which two detection sheet elements (1a, 1b) that retain in a predetermined array pitch a plurality of conductive detection lines on a non-conductive thin film that can be exposed in a space environment are laminated so that the direction in which the detection lines extend is mutually orthogonal, the first and second laminated bodies are disposed in two layers separated by a predetermined interval; and a detection circuit connected to each detection line, wherein when a detection line on a detection sheet element is ruptured by a collision with an object flying in space, detection of the object flying in space that has collided with each detection sheet element is enabled by the detection circuit.
System for changing the operating state of at least one electrically operated apparatus, in particular a medical-technical apparatus, comprising at least one apparatus (12; 62; 94; 102) that is transferable from a first state into a second state, at least one object (28; 74; 86; 114) that is formed by the at least one apparatus (12; 62; 94; 102) or is associated therewith, a support device that is wearable on the body of an operator, and a detection device that is held on said support device, wherein the support device is arrangeable on the body of the operator in such a way that by movement of the operator, the detection device is aligned to the at least one object (28; 74; 86; 114) and the at least one object (28; 74; 86; 114) is positioned in a detection region of the detection device and is detected and identified thereby, wherein when the object (28; 74; 86; 114) is identified, the detection device transmits a signal relating thereto to the at least one apparatus (12; 62; 94; 102) in such a way that the at least one apparatus (12; 62; 94; 102) is transferred from the first state into the second state, wherein the at least one apparatus (12; 62; 94; 102) is transferred from the first state into the second state or vice versa only when the at least one object (28; 74; 86; 114) is detected by the detection device for a predetermined or predeterminable duration.
Window or door comprising a frame or casing in which a casement is pivotally arranged, wherein the frame or the casing consists of an upper horizontally arranged and two perpendicularly arranged profiles and wherein a sill profile is incorporated at the end between the perpendicularly arranged profiles, which sill profile is fixed to the inner side of the profiles by means of a sill adapter formed from a moulded part, and the sill adapter is formed from an angle profile whose horizontal legs correspond to the profiling of the door sill wherein its perpendicularly running legs comprise a plate-shaped holder for fixing on the wall pointing towards the inside of the perpendicularly running profile, wherein the sill adapter formed from a moulded part is penetrated by at least one channel for draining water, wherein the channel has an upper mouth opening which lies in the region of the profiling of the sill adapter, wherein a drain opening is arranged in the wind-protected region of the sill adapter, characterized in that the mouth opening is arranged on the outer side in the gusset region of tread region and ramp region of the profiling of the door sill for draining driving rain water, wherein the drain opening is arranged below the sill adapter and lies below the ramp region of the door sill.
A data processing system comprising: a data processor (320, 324, 330, 334, 340, 346) operable to process a data sector to detect blocks of data and to yield corresponding processed output blocks of data, and to retain the blocks of data for reprocessing when requested, wherein processing the data sector comprises decoding the data sector in a low density parity check decoder up to a first predetermined number of iterations until the data sector converges; and a scheduler operable to receive reprocessing requests (372, 412) for the retained blocks of data and to initiate a reprocessing operation in the data processor for the retained blocks of data, wherein the operation of reprocessing the retained blocks of data comprises decoding the retained blocks of data in the low density parity check decoder up to a second predetermined number of iterations until the data sector converges, the second predetermined number of iterations being larger than the first predetermined number of iterations. a data processor (320, 324, 330, 334, 340, 346) operable to process a data sector to detect blocks of data and to yield corresponding processed output blocks of data, and to retain the blocks of data for reprocessing when requested, wherein processing the data sector comprises decoding the data sector in a low density parity check decoder up to a first predetermined number of iterations until the data sector converges; and a scheduler operable to receive reprocessing requests (372, 412) for the retained blocks of data and to initiate a reprocessing operation in the data processor for the retained blocks of data, wherein the operation of reprocessing the retained blocks of data comprises decoding the retained blocks of data in the low density parity check decoder up to a second predetermined number of iterations until the data sector converges, the second predetermined number of iterations being larger than the first predetermined number of iterations.
A method of a reception apparatus for processing a trigger, comprising: receiving content included in a transport stream from a content source, the transport stream including a trigger associated with the content; retrieving a service map table, SMT, from a service signaling channel, SSC, corresponding to the content in an IP subnet of the transport stream; obtaining, based on the SMT at least one of an IP address and a port for a File Delivery over Unidirectional Transport, FLUTE, session included in the transport stream; retrieving (S510, S512) the trigger from the transport stream, the trigger including a resource location of a trigger parameters table, TPT, transported in the FLUTE session, wherein parameters associated with the trigger are provided in the TPT; downloading a FLUTE File Delivery Table, FDT, from the transport stream, the FLUTE FDT representing a directory of files including a content identifier that identifies content present in IP packets in the transport stream, retrieving the TPT from the FLUTE session of the transport stream based on the resource location included in the trigger and the FLUTE FDT; and processing the TPT to identify resources. receiving content included in a transport stream from a content source, the transport stream including a trigger associated with the content; retrieving a service map table, SMT, from a service signaling channel, SSC, corresponding to the content in an IP subnet of the transport stream; obtaining, based on the SMT at least one of an IP address and a port for a File Delivery over Unidirectional Transport, FLUTE, session included in the transport stream; retrieving (S510, S512) the trigger from the transport stream, the trigger including a resource location of a trigger parameters table, TPT, transported in the FLUTE session, wherein parameters associated with the trigger are provided in the TPT; downloading a FLUTE File Delivery Table, FDT, from the transport stream, the FLUTE FDT representing a directory of files including a content identifier that identifies content present in IP packets in the transport stream, retrieving the TPT from the FLUTE session of the transport stream based on the resource location included in the trigger and the FLUTE FDT; and processing the TPT to identify resources.
An amphibian for use in land and marine modes comprising: a planing hull; three wheel stations (50, 52, 54), two of the three wheel stations being front wheel stations provided one on each side of and in the front half of the amphibian, and the third wheel station being a rear wheel station provided in a central region in the rear half of the amphibian; at least one wheel (51, 53, 55) provided at each wheel station, each wheel being movable between a protracted land mode position and a retracted marine mode position; land propulsion means to propel the amphibian on land in the land mode, the land propulsion means comprising at least one of the wheels; and marine propulsion means (72, 74) to propel the amphibian on water in the marine mode, the marine propulsion means comprising at least two impellers or propellers provided one on each side of the rear wheel station. a planing hull; three wheel stations (50, 52, 54), two of the three wheel stations being front wheel stations provided one on each side of and in the front half of the amphibian, and the third wheel station being a rear wheel station provided in a central region in the rear half of the amphibian; at least one wheel (51, 53, 55) provided at each wheel station, each wheel being movable between a protracted land mode position and a retracted marine mode position; land propulsion means to propel the amphibian on land in the land mode, the land propulsion means comprising at least one of the wheels; and marine propulsion means (72, 74) to propel the amphibian on water in the marine mode, the marine propulsion means comprising at least two impellers or propellers provided one on each side of the rear wheel station.
A water-absorbent sheet structure consisting of a structure in which an absorbent layer is sandwiched with nonwoven fabrics from an upper side and a lower side of the absorbent layer wherein an upper nonwoven fabric of the water-absorbent sheet structure is a water-permeable nonwoven fabric having a water permeation rate of 10 s or less; a lower nonwoven fabric of the water-absorbent sheet structure is a water-retaining nonwoven fabric having an amount of water absorption of 250 g/m 2 or more; the water absorbent sheet structure is 4 mm thick or less in a dry state; and the absorbent layer comprises a water-absorbent resin and an adhesive (11, 16). an upper nonwoven fabric of the water-absorbent sheet structure is a water-permeable nonwoven fabric having a water permeation rate of 10 s or less; a lower nonwoven fabric of the water-absorbent sheet structure is a water-retaining nonwoven fabric having an amount of water absorption of 250 g/m 2 or more; the water absorbent sheet structure is 4 mm thick or less in a dry state; and the absorbent layer comprises a water-absorbent resin and an adhesive (11, 16).
Method for measuring the air-tightness of the enclosure isolating the internal space of a room from the external atmosphere, comprising the following steps: a) disposing, in at least one opening of the enclosure, a blower door provided with at least one fan capable of generating an air pressure difference between the internal space of the room and the external atmosphere; b) rotating the fan according to a series of distinct rotation sequences capable of generating a series of air pressure differences selected and tiered between a minimum and a maximum pressure difference value; c) measuring the pressure difference during each rotation sequence; d) assessing the leak rate of the enclosure during each rotation sequence; e) deducing therefrom the leak rate of the enclosure for a normalised air pressure difference; wherein: - during step b), the air pressure differences are modified by modifying the speed of the fan; characterized in that: - during each rotation sequence of step b), the air pressure difference is controlled so that it is kept within a variation range below a predefined deviation by adjusting the speed of the fan; - during step d), the speed of the air flow in the fan is measured directly, and the leak rate of the enclosure is deduced therefrom through computation using a transfer function. a) disposing, in at least one opening of the enclosure, a blower door provided with at least one fan capable of generating an air pressure difference between the internal space of the room and the external atmosphere; b) rotating the fan according to a series of distinct rotation sequences capable of generating a series of air pressure differences selected and tiered between a minimum and a maximum pressure difference value; c) measuring the pressure difference during each rotation sequence; d) assessing the leak rate of the enclosure during each rotation sequence; e) deducing therefrom the leak rate of the enclosure for a normalised air pressure difference; - during step b), the air pressure differences are modified by modifying the speed of the fan; - during each rotation sequence of step b), the air pressure difference is controlled so that it is kept within a variation range below a predefined deviation by adjusting the speed of the fan; - during step d), the speed of the air flow in the fan is measured directly, and the leak rate of the enclosure is deduced therefrom through computation using a transfer function.
A fitting comprising: a front ferrule and a rear ferrule, a drive nut that is adapted to receive said front ferrule and said rear ferrule, said drive nut being characterized by: an inner wall that provides a recess that is adapted to receive said front ferrule and said rear ferrule, said inner wall comprising a drive surface that engages said rear ferrule to drive said rear ferrule against said front ferrule during pull-up of the fitting; said inner wall further comprising a tapered first longitudinal surface and a tapered second longitudinal surface, said tapered first longitudinal surface extending between said drive surface and said tapered second longitudinal surface, said tapered first longitudinal surface and said tapered second longitudinal surface being discontinuous with respect to each other and each being radially outward of said drive surface, said first tapered longitudinal surface will be axially aligned with said rear ferrule and said tapered second longitudinal surface will be axially aligned with said front ferrule when the fitting is assembled. a front ferrule and a rear ferrule, a drive nut that is adapted to receive said front ferrule and said rear ferrule, said drive nut being characterized by: an inner wall that provides a recess that is adapted to receive said front ferrule and said rear ferrule, said inner wall comprising a drive surface that engages said rear ferrule to drive said rear ferrule against said front ferrule during pull-up of the fitting; said inner wall further comprising a tapered first longitudinal surface and a tapered second longitudinal surface, said tapered first longitudinal surface extending between said drive surface and said tapered second longitudinal surface, said tapered first longitudinal surface and said tapered second longitudinal surface being discontinuous with respect to each other and each being radially outward of said drive surface, said first tapered longitudinal surface will be axially aligned with said rear ferrule and said tapered second longitudinal surface will be axially aligned with said front ferrule when the fitting is assembled. an inner wall that provides a recess that is adapted to receive said front ferrule and said rear ferrule, said inner wall comprising a drive surface that engages said rear ferrule to drive said rear ferrule against said front ferrule during pull-up of the fitting; said inner wall further comprising a tapered first longitudinal surface and a tapered second longitudinal surface, said tapered first longitudinal surface extending between said drive surface and said tapered second longitudinal surface, said tapered first longitudinal surface and said tapered second longitudinal surface being discontinuous with respect to each other and each being radially outward of said drive surface, said first tapered longitudinal surface will be axially aligned with said rear ferrule and said tapered second longitudinal surface will be axially aligned with said front ferrule when the fitting is assembled.
An oligosaccharide chain added glucagon-like peptide-1 (GLP-1 peptide), wherein the oligosaccharide chain added GLP-1 peptide is: an oligosaccharide chain added GLP-1 peptide having one or several amino acids further added to the C terminal (position 37) of GLP-1, wherein at least one of the added amino acids is substituted with an oligosaccharide chain added amino acid; an oligosaccharide chain added GLP-1 peptide having one amino acid further added to the C terminal (position 37) of GLP-1, wherein said added amino acid is substituted with an oligosaccharide chain added amino acid; an oligosaccharide chain added GLP-1 peptide wherein at least one amino acid is substituted with an oligosaccharide chain added amino acid and the substituted site is selected from positions 18, 20, 22, 30 and 36 of GLP-1; wherein said oligosaccharide chain is of the following formula: wherein R 1 and R 2 are the same or different and each are of the and Ac is an acetyl group. an oligosaccharide chain added GLP-1 peptide having one or several amino acids further added to the C terminal (position 37) of GLP-1, wherein at least one of the added amino acids is substituted with an oligosaccharide chain added amino acid; an oligosaccharide chain added GLP-1 peptide having one amino acid further added to the C terminal (position 37) of GLP-1, wherein said added amino acid is substituted with an oligosaccharide chain added amino acid; an oligosaccharide chain added GLP-1 peptide wherein at least one amino acid is substituted with an oligosaccharide chain added amino acid and the substituted site is selected from positions 18, 20, 22, 30 and 36 of GLP-1;
A system comprising: a digital-to-analog converter DAC comprising a plurality of DAC cells; characterized by further comprising an auxiliary DAC cell comprising a replica of one of the plurality of DAC cells; a clock-multiplying phase locked loop PLL configured to receive a PLL reference clock signal (1102, 1202) and generate an output clock signal (1108, 1208) having a frequency greater than that of the PLL reference clock signal, wherein the output clock signal is configured to time the operation of each of the plurality of DAC cells and of the auxiliary DAC cell; a data path generator, adapted to generate a reference frequency pilot pattern for the auxiliary DAC cell; and phase alignment means responsive to the PLL reference clock and an output of the auxiliary DAC cell adapted to control a phase of an output generated by each of the DAC and the auxiliary DAC cell to be at a predefined phase difference from a phase of the PLL reference clock signal, wherein the data path pilot generator is further configured to provide, to the DAC, a digital data signal (1114, 1214) aligned to the reference pilot signal. a digital-to-analog converter DAC comprising a plurality of DAC cells; characterized by further comprising an auxiliary DAC cell comprising a replica of one of the plurality of DAC cells; a clock-multiplying phase locked loop PLL configured to receive a PLL reference clock signal (1102, 1202) and generate an output clock signal (1108, 1208) having a frequency greater than that of the PLL reference clock signal, wherein the output clock signal is configured to time the operation of each of the plurality of DAC cells and of the auxiliary DAC cell; a data path generator, adapted to generate a reference frequency pilot pattern for the auxiliary DAC cell; and phase alignment means responsive to the PLL reference clock and an output of the auxiliary DAC cell adapted to control a phase of an output generated by each of the DAC and the auxiliary DAC cell to be at a predefined phase difference from a phase of the PLL reference clock signal, wherein the data path pilot generator is further configured to provide, to the DAC, a digital data signal (1114, 1214) aligned to the reference pilot signal.