mhurhangee/ep-ind-claims huggingface dataset:
A control device of an engine, including: - a variable compression-ratio mechanism adapted to change a compression ratio of an engine; and - a supercharger adapted to supercharge an intake air by using exhaust energy of the engine, - a controller configured: - to acquire a load situation of the engine and - to control the variable compression-ratio mechanism to increase the compression ratio as a load of the engine lowers, wherein the controller is further configured: - to control the variable compression-ratio mechanism: - to prevent the compression ratio from increasing as long as a revolution speed of the supercharger is higher than a predetermined value and - to cause the compression ratio to start to increase when the revolution speed of the supercharger falls to the predetermined value or less, and - to set the predetermined value to be lower as the revolution speed of the engine increases. - a variable compression-ratio mechanism adapted to change a compression ratio of an engine; and - a supercharger adapted to supercharge an intake air by using exhaust energy of the engine, - a controller configured: - to acquire a load situation of the engine and - to control the variable compression-ratio mechanism to increase the compression ratio as a load of the engine lowers, - to acquire a load situation of the engine and - to control the variable compression-ratio mechanism to increase the compression ratio as a load of the engine lowers, - to control the variable compression-ratio mechanism: - to prevent the compression ratio from increasing as long as a revolution speed of the supercharger is higher than a predetermined value and - to cause the compression ratio to start to increase when the revolution speed of the supercharger falls to the predetermined value or less, and - to prevent the compression ratio from increasing as long as a revolution speed of the supercharger is higher than a predetermined value and - to cause the compression ratio to start to increase when the revolution speed of the supercharger falls to the predetermined value or less, and - to set the predetermined value to be lower as the revolution speed of the engine increases.
A method of estimating a noise floor of an audio signal, the method comprising: obtaining, using one or more processors, an audio signal; dividing, using the one or more processors, the audio signal into a plurality of buffers; determining, using the one or more processors, time-frequency samples for each buffer of the audio signal; for each buffer and for each frequency, determining, using the one or more processors, a median or mean and a measure of an amount of variation of energy based on the samples in the buffer and samples in neighboring buffers that together span a specified time range of the audio signal; combining, using the one or more processors, the median or mean and the measure of the amount of variation into a cost function; for each frequency: determining, using the one or more processors, a signal energy of a particular buffer of the audio signal that corresponds to a minimum value of the cost function; selecting, using the one or more processors, the signal energy as the estimated noise floor of the audio signal; and reducing, using the one or more processors and the estimated noise floor, noise in the audio signal. obtaining, using one or more processors, an audio signal; dividing, using the one or more processors, the audio signal into a plurality of buffers; determining, using the one or more processors, time-frequency samples for each buffer of the audio signal; for each buffer and for each frequency, determining, using the one or more processors, a median or mean and a measure of an amount of variation of energy based on the samples in the buffer and samples in neighboring buffers that together span a specified time range of the audio signal; combining, using the one or more processors, the median or mean and the measure of the amount of variation into a cost function; for each frequency: determining, using the one or more processors, a signal energy of a particular buffer of the audio signal that corresponds to a minimum value of the cost function; selecting, using the one or more processors, the signal energy as the estimated noise floor of the audio signal; and reducing, using the one or more processors and the estimated noise floor, noise in the audio signal. determining, using the one or more processors, a signal energy of a particular buffer of the audio signal that corresponds to a minimum value of the cost function; selecting, using the one or more processors, the signal energy as the estimated noise floor of the audio signal; and reducing, using the one or more processors and the estimated noise floor, noise in the audio signal.
Cutting device for attachment to a harvester with a frame extending substantially over the working width of the cutting device and comprising several frame parts (8a, 8b, 8c) which each extend over a partial working width (10a, 10b, 10c) and which are connected to one another for articulated movement about an axis extending at least approximately in the working direction of the cutting device, with cutting elements arranged on the front side of the cutting device and connected to the frame, with conveying surfaces and conveying members for conveying the cut crop from the cutting elements to a delivery point, at least one conveying member is a multi-part reel whose reel parts (24a, 24b, 24c) each extend transversely to the working direction of the cutting device over at least a partial working width (10a, 10b, 10c) of the cutting device, and the reel parts (24a, 24b, 24c) are held by reel support arms (26a, 26b, 26c, 26d) which are attached for pivotal movement on the frame or frame parts (8a, 8b, 8c) and which are adjustable in height via adjustment drives for adjusting the height of the reel parts (24a, 24b, 24c), at least two reel support arms supporting a reel part (24a, 24b, 24c) are connected rotationally secured to one another via a torsion shaft (30a, 30b), the reel support arms (26a, 26b, 26c, 26d) and the torsion shaft (30a, 30b) form a reel support unit, the reel support unit is connected to an adjustment drive (28a, 28b) which engages on one or more reel support arms (26a, 26b, 26c, 26d) and/or the torsion shaft (30a, 30b) and during adjusting movements of the remote-controlled adjustment drive (28a, 28b) the associated the associated reel part (24a, 24b, 24c) is raised or lowered, characterized in that the torsion shaft (30a, 30b) on a first side has a fixed bearing point in the axial direction of the torsion shaft (30a, 30b) which is formed as a universal joint, and on a second side is mounted in a plain bearing which permits a pushing movement between the torsion shaft and the frame part so that the torsion shaft can move in the axial direction in relation to the frame part with which the reel part is associated at least in part.
A humanized antibody that specifically binds to human transferrin receptor, wherein the antibody comprises a heavy chain variable domain of SEQ ID NO: 24 and a light chain variable domain of SEQ ID NO: 37.
A method of manufacturing a microchannel plate, the method comprising: a first step of fabricating a multifiber having a polygonal cross-section, by bundling a plurality of fibers (12, 18) and reducing the same in diameter; a second step of fabricating a microchannel plate base material, by use of a plurality of the multifibers; and a third step of fabricating a microchannel plate, by slicing the microchannel plate base material into flat plates, wherein the plurality of fibers bundled in the first step includes: a first fiber whose predetermined-thickness outer circumferential part surrounding a center part including a core is formed of a predetermined-component glass material; and a second fiber (18, 118, 218, 318, 418, 518) which has a center part including a core and an outer circumferential part surrounding the same, formed of a glass material and the second fiber (18, 118, 218, 318, 418, 518) is arranged at, at least, one corner of a polygonal cross-section of the multifiber, wherein the predetermined-component glass material has an insolubility in response to a predetermined-component solvent, wherein the center part of the first fiber is formed of a glass material having solubility in response to the predetermined-component solvent, wherein the entire second fiber (18, 118, 218, 318, 418, 518) has an insolubility in response to the predetermined-component solvent, wherein the third step includes a step of exposing a sliced flat plate to the predetermined-component solvent, and eluting the core of the first fiber to form a channel. a first step of fabricating a multifiber having a polygonal cross-section, by bundling a plurality of fibers (12, 18) and reducing the same in diameter; a second step of fabricating a microchannel plate base material, by use of a plurality of the multifibers; and a third step of fabricating a microchannel plate, by slicing the microchannel plate base material into flat plates, wherein a first fiber whose predetermined-thickness outer circumferential part surrounding a center part including a core is formed of a predetermined-component glass material; and a second fiber (18, 118, 218, 318, 418, 518) which has a center part including a core and an outer circumferential part surrounding the same, formed of a glass material and the second fiber (18, 118, 218, 318, 418, 518) is arranged at, at least, one corner of a polygonal cross-section of the multifiber,
Gripper weaving loom with a device for the removal of wrong wefts from the gripper path, the device comprising one or more compressed-air flows controlled in opening and closing by at least one valve, said compressed air flows being arranged on said loom in an area comprised between the weft presenting levers and the edge of the fabric being formed characterised in that said compressed-air flows are oriented so as to form an air jet apt to move the wrong weft vertically away from a carrying gripper guide.
A method of operating a modular top drive system, comprising: positioning a tool (110;112;114;200;240;270;300;340;370;400;440;470) adjacent a top drive unit (102;102') and within a range of an identification reader (524;602;738), wherein positioning the tool comprises: retrieving the tool from a tool storage unit; and transporting the tool to a plurality of slips positioned underneath the top drive unit; reading one or more identification devices (202;302;402) on the tool using the identification reader; determining whether the tool is a correct tool using a tool identification information obtained from the one or more identification devices; if the tool is the correct tool: configuring the top drive unit according to the tool identification information; and engaging the tool to the top drive unit; if the tool is not the correct tool, positioning another tool adjacent to the top drive unit. positioning a tool (110;112;114;200;240;270;300;340;370;400;440;470) adjacent a top drive unit (102;102') and within a range of an identification reader (524;602;738), wherein positioning the tool comprises: retrieving the tool from a tool storage unit; and transporting the tool to a plurality of slips positioned underneath the top drive unit; retrieving the tool from a tool storage unit; and transporting the tool to a plurality of slips positioned underneath the top drive unit; reading one or more identification devices (202;302;402) on the tool using the identification reader; determining whether the tool is a correct tool using a tool identification information obtained from the one or more identification devices; if the tool is the correct tool: configuring the top drive unit according to the tool identification information; and engaging the tool to the top drive unit; configuring the top drive unit according to the tool identification information; and engaging the tool to the top drive unit; if the tool is not the correct tool, positioning another tool adjacent to the top drive unit.
Pyrotechnical separator designed to allow the separation between two mechanical parts (4, 6) temporarily assembled together via said separator, the pyrotechnical separator comprising: - a first and a second flank (22, 24) connected with one another along a connection line, at least one of said flanks (22, 24) having an zone of weakness (32, 34) running substantially parallel to the connection line, - at least one pyrotechnical cord capable of being deformed during activation of said cord along a direction of deformation, said pyrotechnical cord being enclosed between the first and second flanks (22, 24) and running substantially parallel to said connection line, and - means of activation of said pyrotechnical cord to cause the breakage of at least one of the first and second flanks (22, 24) along the or each zone of weakness (32, 34), the or each zone of weakness (32, 34) being interposed between the axis of the or each pyrotechnical cord and the connection line, the first and second flanks (22, 24) being formed respectively by a first structural element and a second structural element independent of each other and assembled with one another along the connection line, characterized in that the first and second structural elements (12, 14) are flush-fitted together along a direction forming an angle with the direction of deformation of the pyrotechnical cord. - a first and a second flank (22, 24) connected with one another along a connection line, at least one of said flanks (22, 24) having an zone of weakness (32, 34) running substantially parallel to the connection line, - at least one pyrotechnical cord capable of being deformed during activation of said cord along a direction of deformation, said pyrotechnical cord being enclosed between the first and second flanks (22, 24) and running substantially parallel to said connection line, and - means of activation of said pyrotechnical cord to cause the breakage of at least one of the first and second flanks (22, 24) along the or each zone of weakness (32, 34),
Adjustment device for a chassis of a vehicle, comprising at least one spindle, at least one sliding block, an axial guide for the sliding block, and at least one connecting element (4, 17), which connecting element (4, 17) is, at one side, arranged rotationally conjointly on the spindle and, at the other side, connected to the sliding block, characterized in that an articulated connection is provided between the connecting element (4, 17) and the sliding block.
A process for the preparation of 4-aminoindane derivatives of Formula, salts and enantiomers thereof comprising the following steps: a) hydrogenating a 1,2-dihydroquinoline of Formula to give a corresponding tetrahydroquinoline of Formula b) acylating the tetrahydroquinoline of Formula with a carboxylic acid derivative of Formula RC LG to obtain a corresponding acyl derivative compound of Formula c) rearranging the acyl derivative compound of Formula under acidic conditions so as to give an acyl indane compound of Formula d) hydrolysing the acyl group of the acyl indane compound of Formula so as to obtain the 4-aminoindane compound of Formula, wherein in said formulae: - n is an integer selected within the range from 0 to 3; - R is selected from a C 1 -C 6 alkyl group or a C 6 -C 10 aryl group, these groups being optionally substituted with one or more of: C 1 -C 6 alkyl groups, halogen atoms; - LG is a leaving group selected from: (i) a hydroxy group; (ii) a halogen atom; (iii) a C 1 -C 6 alkylsulfonyloxy group; (iv) a C 6 -C 10 arylsulfonyloxy group, (v) a R a COO group wherein R a is a C 1 -C 6 alkyl group, the groups (iii) - (v) being optionally substituted with one or more halogen atoms. a) hydrogenating a 1,2-dihydroquinoline of Formula to give a corresponding tetrahydroquinoline of Formula b) acylating the tetrahydroquinoline of Formula with a carboxylic acid derivative of Formula RC LG to obtain a corresponding acyl derivative compound of Formula c) rearranging the acyl derivative compound of Formula under acidic conditions so as to give an acyl indane compound of Formula d) hydrolysing the acyl group of the acyl indane compound of Formula so as to obtain the 4-aminoindane compound of Formula, - n is an integer selected within the range from 0 to 3; - R is selected from a C 1 -C 6 alkyl group or a C 6 -C 10 aryl group, these groups being optionally substituted with one or more of: C 1 -C 6 alkyl groups, halogen atoms; - LG is a leaving group selected from: (i) a hydroxy group; (ii) a halogen atom; (iii) a C 1 -C 6 alkylsulfonyloxy group; (iv) a C 6 -C 10 arylsulfonyloxy group, (v) a R a COO group wherein R a is a C 1 -C 6 alkyl group, the groups (iii) - (v) being optionally substituted with one or more halogen atoms.
A management sub-system for managing a small cell network servicing a plurality of network operators, the management sub-system comprising: a controller in communication with a plurality of core networks (114a, 114b), wherein each of the plurality of core networks (114a, 114b) is operated by a separate network operator providing telecommunication services to terminal devices; and a plurality of baseband processing units (104a-c) in communication with the controller, wherein each of the plurality of baseband processing units (104a-c) is configured to process user plane data and control plane data from at least one respective core network (114a, 114b) of the plurality of core networks (114a, 114b) for distribution via a plurality of remote antenna units (108a-c) of the small cell network; characterized in that the controller is configured for providing a respective amount of capacity via the small cell network for each core network (114a, 114b) of the plurality of core networks (114a, 114b) based on a respective subset of the plurality of baseband processing units (104a-c) assigned to the corresponding core network (114a, 114b); and wherein the controller is configured to use specific intra-cell handover parameters for the small cell network and interference management parameters for each network operator. a controller in communication with a plurality of core networks (114a, 114b), wherein each of the plurality of core networks (114a, 114b) is operated by a separate network operator providing telecommunication services to terminal devices; and a plurality of baseband processing units (104a-c) in communication with the controller, wherein each of the plurality of baseband processing units (104a-c) is configured to process user plane data and control plane data from at least one respective core network (114a, 114b) of the plurality of core networks (114a, 114b) for distribution via a plurality of remote antenna units (108a-c) of the small cell network; characterized in that the controller is configured for providing a respective amount of capacity via the small cell network for each core network (114a, 114b) of the plurality of core networks (114a, 114b) based on a respective subset of the plurality of baseband processing units (104a-c) assigned to the corresponding core network (114a, 114b); and wherein the controller is configured to use specific intra-cell handover parameters for the small cell network and interference management parameters for each network operator.
Heat exchanger for the transfer of heat between a first and a second fluid, said heat exchanger comprising: - a bundle of flat tubes with enlarged ends, said enlarged ends being in direct contact with one another and fixed to one another in a sealed manner, - a casing surrounding said bundle and fixed in a sealed manner to the enlarged ends of the flat tubes, said casing delimiting a sealed enclosure in which the first fluid circulates between the flat tubes of the bundle from an inlet to an outlet for said first fluid, - an inlet housing and an outlet housing for the second fluid, said housings (5a, 5b) being positioned at the ends of the bundle and being fixed in a sealed manner to the ends of the casing, said second fluid circulating inside the flat tubes of the bundle, characterized in that the ends of the casing comprise at least one flaring at each end, said at least one flaring forming, in cooperation with the ends of the bundle, a fixing groove in which there is inserted the inlet housing or the outlet housing for the second fluid. - a bundle of flat tubes with enlarged ends, said enlarged ends being in direct contact with one another and fixed to one another in a sealed manner, - a casing surrounding said bundle and fixed in a sealed manner to the enlarged ends of the flat tubes, said casing delimiting a sealed enclosure in which the first fluid circulates between the flat tubes of the bundle from an inlet to an outlet for said first fluid, - an inlet housing and an outlet housing for the second fluid, said housings (5a, 5b) being positioned at the ends of the bundle and being fixed in a sealed manner to the ends of the casing, said second fluid circulating inside the flat tubes of the bundle,
A food processor comprising: a base, a bowl removably coupled to the base, the bowl having a processing chamber defined therein, a lid removably coupled to the bowl, the lid having a feed tube that opens into the processing chamber when the lid is secured to the bowl, a cutting assembly positioned in the processing chamber and configured to cut food items advanced through the feed tube, the cutting assembly being positionable between a plurality of cutting positions to produce cut food items of varying thicknesses, a motor positioned in the base, the motor being configured to rotate the cutting assembly at a plurality of rotational speeds, and an adjustment assembly configured to move the cutting assembly between the plurality of cutting positions; characterized by: a biasing element configured to maintain a rotating disk of the cutting assembly in a pre-determined positon relative to a cutting blade of the cutting assembly; and in that the adjustment assembly is configured to move the cutting assembly between the plurality of cutting positions based on the rotational speed of the cutting assembly. a base, a bowl removably coupled to the base, the bowl having a processing chamber defined therein, a lid removably coupled to the bowl, the lid having a feed tube that opens into the processing chamber when the lid is secured to the bowl, a cutting assembly positioned in the processing chamber and configured to cut food items advanced through the feed tube, the cutting assembly being positionable between a plurality of cutting positions to produce cut food items of varying thicknesses, a motor positioned in the base, the motor being configured to rotate the cutting assembly at a plurality of rotational speeds, and an adjustment assembly configured to move the cutting assembly between the plurality of cutting positions; characterized by: a biasing element configured to maintain a rotating disk of the cutting assembly in a pre-determined positon relative to a cutting blade of the cutting assembly; and in that the adjustment assembly is configured to move the cutting assembly between the plurality of cutting positions based on the rotational speed of the cutting assembly.