mhurhangee/ep-ind-claims huggingface dataset:
An agricultural vehicle comprising: an implement connection hitch including adjustable mounting means operable to controllably move the hitch relative to a rear axle of the vehicle under control of a control system controlling movement of the connection hitch; and position determining means coupled with the control system and operable to determine a location for the vehicle relative to a first, substantially straight, path and a second, curved, path to be traversed by the vehicle; characterised in that the control system is arranged to automatically operate the hitch adjustable mounting means to provide a first operating position of the hitch relatively close to the rear axle whilst the vehicle traverses the first path whilst operating an attached implement and, triggered by the start of the second path, to operate the hitch adjustable mounting means to move the hitch rearwards away from the rear axle of the vehicle and laterally parallel to the axis of the rear axle until it reaches a second operating position offset rearwards and laterally from the first operating position, in a lateral direction to reduce the turning circle of the combined vehicle and implement, during traversal of the second path. an implement connection hitch including adjustable mounting means operable to controllably move the hitch relative to a rear axle of the vehicle under control of a control system controlling movement of the connection hitch; and position determining means coupled with the control system and operable to determine a location for the vehicle relative to a first, substantially straight, path and a second, curved, path to be traversed by the vehicle; characterised in that the control system is arranged to automatically operate the hitch adjustable mounting means to provide a first operating position of the hitch relatively close to the rear axle whilst the vehicle traverses the first path whilst operating an attached implement and, triggered by the start of the second path, to operate the hitch adjustable mounting means to move the hitch rearwards away from the rear axle of the vehicle and laterally parallel to the axis of the rear axle until it reaches a second operating position offset rearwards and laterally from the first operating position, in a lateral direction to reduce the turning circle of the combined vehicle and implement, during traversal of the second path.
A lead-free low-temperature solder for bonding electronic parts characterized in that the solder comprises an alloy composition consisting of: - 50.0-52.0 mass% of In, - at least one of 0.01-0.4 mass% of Zn, 0.01-0.4 mass% of La, and 0.001 - 0.01 mass% of P, and - a balance of Bi, wherein the alloy composition has a solidus temperature of at least 85°C and a liquidus temperature of at most 110°C and wherein the alloy composition has a structure comprising at least one intermetallic compound selected from BiIn and Bi 3 In 5 dispersed in a phase of a BiIn 2 intermetallic compound. - 50.0-52.0 mass% of In, - at least one of 0.01-0.4 mass% of Zn, 0.01-0.4 mass% of La, and 0.001 - 0.01 mass% of P, and - a balance of Bi,
A vehicle seat comprising: a seatback having a front side and a rear side; a headrest connected to the seatback by at least one post, the headrest being adjustable relative to the seatback; an airbag housing recessed into the seatback; and an airbag unit including an airbag and an inflator, the airbag unit stowed within the housing, the airbag being rearwardly deployable from the rear side of the seatback from a stored position proximate an upper end of the seatback, characterized in that the at least one post is oriented relative to the airbag unit such that the at least one post includes a lower end vertically above the airbag with a line collinear with an axis of post elongation of the at least one post intersecting the airbag unit when the airbag is stowed within the airbag housing. a seatback having a front side and a rear side; a headrest connected to the seatback by at least one post, the headrest being adjustable relative to the seatback; an airbag housing recessed into the seatback; and an airbag unit including an airbag and an inflator, the airbag unit stowed within the housing, the airbag being rearwardly deployable from the rear side of the seatback from a stored position proximate an upper end of the seatback, characterized in that the at least one post is oriented relative to the airbag unit such that the at least one post includes a lower end vertically above the airbag with a line collinear with an axis of post elongation of the at least one post intersecting the airbag unit when the airbag is stowed within the airbag housing.
Beam of a motor vehicle underbody structure comprising an impact-absorbing strut support arranged in the beam and collaborating with an impact-absorbing strut that passes through the beam, characterized in that it comprises a reinforcing device arranged inside the beam, connected to the strut support by non-dissociable first fixing means and connected to the beam by non-dissociable second fixing means only along a lower edge of the reinforcing device.
A method for detecting filter clogging in a filter system comprising at least one air filter arranged in an air duct and a fan electrically controlled by means of a PWM control for generating an air flow in the air duct, wherein a motor control and an evaluation device are provided, comprising the following steps: a. Determining an actual rotational speed (ni) of the fan and b. Determining an actual degree of modulation (T i) of the motor current in order to achieve the actual rotational speed (n i), and c. Comparing the actual value pairs (n i, T i) with stored setpoint value pairs (n Soll, T Soll) and d. Determining whether a deviation of the actual value pairs (n i, T i) from the setpoint value pairs (n Soll, T Soll) exceeds a maximum predetermined deviation and e. Detection of a DC link voltage and a DC link current f. Evaluation of the deviation of the actual value pairs (n i, T i) from the setpoint value pairs (n Soll, T Soll) and of the DC link voltage and the DC link current to determine a degree of filter clogging. a. Determining an actual rotational speed (ni) of the fan and b. Determining an actual degree of modulation (T i) of the motor current in order to achieve the actual rotational speed (n i), and c. Comparing the actual value pairs (n i, T i) with stored setpoint value pairs (n Soll, T Soll) and d. Determining whether a deviation of the actual value pairs (n i, T i) from the setpoint value pairs (n Soll, T Soll) exceeds a maximum predetermined deviation and e. Detection of a DC link voltage and a DC link current f. Evaluation of the deviation of the actual value pairs (n i, T i) from the setpoint value pairs (n Soll, T Soll) and of the DC link voltage and the DC link current to determine a degree of filter clogging.
A food mixing machine for mixing ingredients, the food mixing machine comprising: a base unit configured to rest on a horizontal surface; a motor positioned in the base unit; a bowl attached to the base unit, the bowl having a longitudinal axis extending at an angle that is non-parallel relative to a gravitational direction while the base unit is resting on the horizontal surface; a mixing tool positioned in the bowl, the mixing tool being operably connected to the motor to receive a torque from the motor and to move within the bowl to mix contents of the bowl; wherein the base unit comprises a driveshaft rotatable by the motor, the driveshaft having a first longitudinal axis parallel to the longitudinal axis of the bowl; characterised in that the mixing tool is a planetary food mixing tool comprising a body engaging the driveshaft, a sun gear concentric with the first longitudinal axis, the sun gear having a first helical gear surface, a planet gear having a second longitudinal axis (K 1,K 2)(J 1,J 2), the second longitudinal axis (K 1,K 2)(J 1,J 2) being non-parallel to the first longitudinal axis, the planet gear having a second helical gear surface extending around the second longitudinal axis (K 1, K 2) (J 1,J 2) and engaging the first helical gear surface of the sun gear, and a mixing member extending into the bowl, wherein the mixing member is connected to the planet gear and configured to move around the first longitudinal axis while rotating around the second longitudinal axis (K 1,K 2) (J 1,J 2) as the planet gear traverses the sun gear. a base unit configured to rest on a horizontal surface; a motor positioned in the base unit; a bowl attached to the base unit, the bowl having a longitudinal axis extending at an angle that is non-parallel relative to a gravitational direction while the base unit is resting on the horizontal surface; a mixing tool positioned in the bowl, the mixing tool being operably connected to the motor to receive a torque from the motor and to move within the bowl to mix contents of the bowl; wherein the base unit comprises a driveshaft rotatable by the motor, the driveshaft having a first longitudinal axis parallel to the longitudinal axis of the bowl; characterised in that the mixing tool is a planetary food mixing tool comprising a body engaging the driveshaft, a sun gear concentric with the first longitudinal axis, the sun gear having a first helical gear surface, a planet gear having a second longitudinal axis (K 1,K 2)(J 1,J 2), the second longitudinal axis (K 1,K 2)(J 1,J 2) being non-parallel to the first longitudinal axis, the planet gear having a second helical gear surface extending around the second longitudinal axis (K 1, K 2) (J 1,J 2) and engaging the first helical gear surface of the sun gear, and a mixing member extending into the bowl, wherein the mixing member is connected to the planet gear and configured to move around the first longitudinal axis while rotating around the second longitudinal axis (K 1,K 2) (J 1,J 2) as the planet gear traverses the sun gear.
A rotational position detector comprising: a housing having a cylindrical shape with a center axis, the housing including an inner peripheral surface extending along the center axis; a rotor housed inside the housing, the rotor including a rotary shaft extending along the center axis; a stator core including an inner surface housed inside the housing and facing the rotor, an outer surface facing the inner peripheral surface, a first plane located orthogonal to the center axis, and a second plane located orthogonal to the center axis and on an opposite side of the first plane; wherein the first and second planes (1d, 1e) are located above and below each other, respectively; first and second insulators, the first insulator being disposed on the first plane and the second insulator being disposed on the second plane, a winding being wound on the insulators; and a transformer core in which a secondary voltage is induced with a primary voltage being excited in the winding, wherein the inner peripheral surface and the outer surface are located with a gap therebetween in a range of not smaller than 50 μm and not larger than 150 μm, and an anaerobic adhesive is disposed in the gap. a housing having a cylindrical shape with a center axis, the housing including an inner peripheral surface extending along the center axis; an inner peripheral surface extending along the center axis; a rotor housed inside the housing, the rotor including a rotary shaft extending along the center axis; a rotary shaft extending along the center axis; a stator core including an inner surface housed inside the housing and facing the rotor, an outer surface facing the inner peripheral surface, a first plane located orthogonal to the center axis, and a second plane located orthogonal to the center axis and on an opposite side of the first plane; wherein the first and second planes (1d, 1e) are located above and below each other, respectively; first and second insulators, the first insulator being disposed on the first plane and the second insulator being disposed on the second plane, a winding being wound on the insulators; and an inner surface housed inside the housing and facing the rotor, an outer surface facing the inner peripheral surface, a first plane located orthogonal to the center axis, and a second plane located orthogonal to the center axis and on an opposite side of the first plane; wherein the first and second planes (1d, 1e) are located above and below each other, respectively; first and second insulators, the first insulator being disposed on the first plane and the second insulator being disposed on the second plane, a winding being wound on the insulators; and a transformer core in which a secondary voltage is induced with a primary voltage being excited in the winding, wherein the inner peripheral surface and the outer surface are located with a gap therebetween in a range of not smaller than 50 μm and not larger than 150 μm, and an anaerobic adhesive is disposed in the gap.
A drug delivery molecule for use in the delivery of a payload to the brain of a subject, wherein the drug delivery molecule is for systemic administration to the subject, the drug delivery molecule comprising: a polypeptide comprising a ligand that targets HER3; a penton base protein or fragment thereof; a payload binding domain; and a payload bound to the payload binding domain. a polypeptide comprising a ligand that targets HER3; a penton base protein or fragment thereof; a payload binding domain; and a payload bound to the payload binding domain.
A method for producing a structural material made of magnesium-containing aluminum-based alloy, comprising solidifying a melt to obtain an ingot, subjecting the ingot to heat treatment, and rolling the ingot, wherein the ingot is heated for 2 to 4 hours at a temperature of 340 °C to 380 °C in advance of heat treatment and rolling, whereupon the ingot is hot-rolled at the above temperature to a thickness of 4 to 8 mm at a deformation degree of up to 30% in each cycle, and at a final rolling temperature of the semifinished rolled material within the range of 310 °C to 330 °C, followed by cold rolling of the semifinished rolled material at a deformation degree of up to 50 % in each cycle, alternating with intermediate annealing for 0.5 to 2.0 hours at a temperature of 310 °C to 390 °C to a required thickness of 0.5 to 2.0 mm, and the rolled material is annealed finally for 5 to 40 minutes at a temperature of 400 °C to 450 °C, and, wherein, with the purpose of producing a structural material from an alloy containing ingredients at the following proportions in percent by weight: Magnesium - 9-11 Zirconium - 0.15-0.2 Cobalt - 0.001-0.01 Beryllium - 0.001-0.02 Boron - 0.005-0.007 Aluminum - the balance, the melt is solidified in a revolving mold at a gravitation factor of 220 to 250 and a melt lifetime of 12 to 15 sec/kg.
An imaging system configured to convert raw data for an image to formatted data concurrently with compressing the formatted data for the image, comprising: an image processor for converting raw data for an image to formatted data; wherein the image processor is operable to read a block of raw data from a memory, convert the block of raw data to a corresponding block of formatted data, and write the block of formatted data back to the memory; wherein each block of formatted data includes a plurality of units and each unit contains data for a plurality of pixels; and an image compressor for compressing the formatted data; wherein the image compressor is operable to compress different units of each block of formatted data in series, a sequence in which the units are compressed being a function of a desired degree of rotation of the image, a change in sequence providing a different desired degree of rotation as a multiple of 90°; wherein each unit is compressed into a unit bitstream, and the unit bitstreams from different units are combined in a bitstream segment terminated by a re-start marker; and further wherein the image compressor is operable to start compressing a current block of formatted data concurrently with the image processor formatting the raw data corresponding to a subsequent block of formatted data. an image processor for converting raw data for an image to formatted data; wherein the image processor is operable to read a block of raw data from a memory, convert the block of raw data to a corresponding block of formatted data, and write the block of formatted data back to the memory; wherein each block of formatted data includes a plurality of units and each unit contains data for a plurality of pixels; and an image compressor for compressing the formatted data; wherein the image compressor is operable to compress different units of each block of formatted data in series, a sequence in which the units are compressed being a function of a desired degree of rotation of the image, a change in sequence providing a different desired degree of rotation as a multiple of 90°; wherein each unit is compressed into a unit bitstream, and the unit bitstreams from different units are combined in a bitstream segment terminated by a re-start marker; and further wherein the image compressor is operable to start compressing a current block of formatted data concurrently with the image processor formatting the raw data corresponding to a subsequent block of formatted data.
Method for controlling the automatic opening of a transmission input clutch linking a drive engine to a vehicle gear-shifting mechanism for which the driver has a gear lever that can be moved between a number of functional positions including a position of automatic operation in which the gear-shifting decisions are assumed by a control unit of the transmission, characterized in that, in the automatic mode of operation of the transmission, - the input clutch is opened automatically during the movement of the vehicle when particular running conditions are met, so as to temporarily allow the coasting movement of the vehicle, and the opening of the clutch is followed by the disengagement of the engaged gear and by the selection of neutral in the gear-shifting mechanism, - and it is reclosed automatically without leaving the automatic mode of operation of the transmission, when the coasting movement conditions are no longer met. - the input clutch is opened automatically during the movement of the vehicle when particular running conditions are met, so as to temporarily allow the coasting movement of the vehicle, and the opening of the clutch is followed by the disengagement of the engaged gear and by the selection of neutral in the gear-shifting mechanism, - and it is reclosed automatically without leaving the automatic mode of operation of the transmission, when the coasting movement conditions are no longer met.
An apparatus for subretinal administration of a therapeutic agent, the apparatus comprising: (a) a body; (b) a cannula extending distally from the body, wherein the cannula is flexible, wherein the cannula includes a distal end that is configured to provide separation between sclera and choroid layers of a patient's eye to enable the cannula to be advanced between the sclera and the choroid layers without inflicting trauma to the sclera or choroid layers; and (c) a needle slidably disposed in the cannula, wherein the needle includes: (i) a sharp distal tip, wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion, wherein the needle is resiliently biased to extend along a curve through the curved portion; (iii) a straight proximal portion; and (iv) a straight distal portion, wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion. (a) a body; (b) a cannula extending distally from the body, wherein the cannula is flexible, wherein the cannula includes a distal end that is configured to provide separation between sclera and choroid layers of a patient's eye to enable the cannula to be advanced between the sclera and the choroid layers without inflicting trauma to the sclera or choroid layers; and (c) a needle slidably disposed in the cannula, wherein the needle includes: (i) a sharp distal tip, wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion, wherein the needle is resiliently biased to extend along a curve through the curved portion; (iii) a straight proximal portion; and (iv) a straight distal portion, wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion. (i) a sharp distal tip, wherein the needle is configured to translate relative to the cannula between a proximal position and a distal position, wherein the distal tip is configured to be positioned inside the cannula when the needle is in the proximal position, wherein the distal tip is configured to be positioned outside the cannula when the needle is in the distal position; (ii) a curved portion, wherein the needle is resiliently biased to extend along a curve through the curved portion; (iii) a straight proximal portion; and (iv) a straight distal portion, wherein the curved portion is longitudinally positioned between the straight proximal portion and the straight distal portion.
A method of producing carbon nanotubes in a reaction chamber, the method comprising providing a plurality of floating catalyst particles, wherein at least 70% by number of the catalyst particles have a diameter less than or equal to 4.5nm; and contacting the floating catalyst particles with a gas phase carbon source at a carbon nanotube formation temperature of at least 900°C to produce carbon nanotubes, wherein the floating catalyst particles are provided by: initiating growth of the catalyst particles by thermal degradation of a catalyst source substance, the thermal degradation of the catalyst source substance beginning at a first onset temperature being 700°C or less, and subsequently arresting the growth of the catalyst particles using an arresting agent being sulphur, the arresting agent being provided to the catalyst particles by thermal degradation of an arresting agent source substance which comprises at least one sulphur atom, the thermal degradation of the arresting agent source substance beginning at a second onset temperature being 800°C or less, wherein the second onset temperature is in the range of temperatures from 10°C more than the first onset temperature to 350°C more than the first onset temperature and wherein the arresting agent source substance, catalyst source substance and carbon source pass through the reaction chamber in the gas phase in a flow direction and the temperature in the reaction chamber varies along the flow direction from the first onset temperature to the second onset temperature to the carbon nanotube formation temperature, characterised in that the arresting agent source substance is carbon disulphide. initiating growth of the catalyst particles by thermal degradation of a catalyst source substance, the thermal degradation of the catalyst source substance beginning at a first onset temperature being 700°C or less, and subsequently arresting the growth of the catalyst particles using an arresting agent being sulphur, the arresting agent being provided to the catalyst particles by thermal degradation of an arresting agent source substance which comprises at least one sulphur atom, the thermal degradation of the arresting agent source substance beginning at a second onset temperature being 800°C or less,