mhurhangee/ep-ind-claims huggingface dataset:
Pile-driver, comprising: - a support member arranged or arrangeable in transverse direction at or on a pile; - a liquid chamber which is bounded on the underside by the support member and which further comprises one or more side walls and is configured to receive a liquid therein; - one or more pressure build-up chambers, comprising: - an upper part enclosing a combustion space; - a lower part provided with one or more passage openings which are in fluid connection with the liquid chamber; - an ignition mechanism configured to ignite a fuel present in the combustion space; and - wherein the combustion space is configured to expand fuel present therein during combustion such that a pressure build-up takes place above the support member and the liquid present above the support member in the liquid chamber is displaced at least in upward direction away from the support member, and a downward force is exerted on the pile via the support member. - a support member arranged or arrangeable in transverse direction at or on a pile; - a liquid chamber which is bounded on the underside by the support member and which further comprises one or more side walls and is configured to receive a liquid therein; - one or more pressure build-up chambers, comprising: - an upper part enclosing a combustion space; - a lower part provided with one or more passage openings which are in fluid connection with the liquid chamber; - an upper part enclosing a combustion space; - a lower part provided with one or more passage openings which are in fluid connection with the liquid chamber; - an ignition mechanism configured to ignite a fuel present in the combustion space; and - wherein the combustion space is configured to expand fuel present therein during combustion such that a pressure build-up takes place above the support member and the liquid present above the support member in the liquid chamber is displaced at least in upward direction away from the support member, and a downward force is exerted on the pile via the support member.
A beverage cup with a lid with at least one stirrer, wherein the lid comprises a main lid part, a rotary disk and a rotor comprising the stirrer, wherein, in the assembled state, the rotary disk and the stirrer are set in an interconnected configuration, between which is the main lid part, in parallel alignment with the rotary disc, wherein the beverage cup with the lid is destined for a single-use, characterized in that the rotary disk spans an inner lid depression, which is defined by a circumferential flaring, from which a mouthpiece comprising a drinking sprout bulges outwardly.
A method of producing a printed multiple ply paper comprising: providing a paper stock having a first surface and a second surface, applying a pressure activated adhesive to the second surface, printing upon the first surface, and bringing together two portions of the second surface under pressure in registration to form a multiple ply product, characterized in that said printing upon the first surface is performed after the pressure activated adhesive has been applied to the second surface. providing a paper stock having a first surface and a second surface, applying a pressure activated adhesive to the second surface, printing upon the first surface, and bringing together two portions of the second surface under pressure in registration to form a multiple ply product, characterized in that said printing upon the first surface is performed after the pressure activated adhesive has been applied to the second surface.
A lid support structure for a saddle-type vehicle comprising: a vehicle body cover including a first opening and a second opening; and a lid configured to be detachably engaged with the vehicle body cover, wherein the lid includes: a lid surface configured to close the first opening of the vehicle body cover; and an operation surface disposed to be operable through the second opening of the vehicle body cover, and wherein the lid is configured to be disengaged from the vehicle body cover by moving the operation surface, characterized in that the vehicle body cover includes a first appearance surface provided with at least a part of the first opening, and a second appearance surface provided with at least a part of the second opening, wherein the first appearance surface and the second appearance surface are provided such that an angle formed between the first appearance surface and the second appearance surface is a predetermined angle, and wherein a space between the first appearance surface and the second appearance surface forms an inner side of the vehicle body cover, and the lid includes an inner rib protruding from a plate portion that forms the lid surface towards a space formed between the first appearance surface and the second appearance surface, wherein the operation surface is formed at the tip end of the inner rib. a vehicle body cover including a first opening and a second opening; and a lid configured to be detachably engaged with the vehicle body cover, wherein the lid includes: a lid surface configured to close the first opening of the vehicle body cover; and an operation surface disposed to be operable through the second opening of the vehicle body cover, and a lid surface configured to close the first opening of the vehicle body cover; and an operation surface disposed to be operable through the second opening of the vehicle body cover, and wherein the lid is configured to be disengaged from the vehicle body cover by moving the operation surface, characterized in that the vehicle body cover includes a first appearance surface provided with at least a part of the first opening, and a second appearance surface provided with at least a part of the second opening, wherein the first appearance surface and the second appearance surface are provided such that an angle formed between the first appearance surface and the second appearance surface is a predetermined angle, and wherein a space between the first appearance surface and the second appearance surface forms an inner side of the vehicle body cover, and the lid includes an inner rib protruding from a plate portion that forms the lid surface towards a space formed between the first appearance surface and the second appearance surface, wherein the operation surface is formed at the tip end of the inner rib.
In a gas turbine engine of the type having a high-pressure spool, a low-pressure spool, a first electric machine drivingly connected to the HP spool and a second electric machine drivingly connected to the LP spool, a method of increasing compression efficiency at a given thrust during cruise conditions of the engine, comprising: determining that an electrical power demand, P D, is less than a maximum power rating, P Hmax, of the first electric machine; operating the first electric machine as a generator at the maximum power rating P Hmax; and transferring mechanical power from the HP spool to the LP spool by operating the second electric machine as a motor and transferring excess electrical power, P Hmax - P D, from the first electric machine to the second electric machine,to reduce a corrected speed of a HP compressor of the HP spool and raise a working line of a LP compressor of the LP spool. determining that an electrical power demand, P D, is less than a maximum power rating, P Hmax, of the first electric machine; operating the first electric machine as a generator at the maximum power rating P Hmax; and transferring mechanical power from the HP spool to the LP spool by operating the second electric machine as a motor and transferring excess electrical power, P Hmax - P D, from the first electric machine to the second electric machine,to reduce a corrected speed of a HP compressor of the HP spool and raise a working line of a LP compressor of the LP spool.
Device for driving a fastening element into a substrate, comprising a mechanical energy storage mechanism for storing mechanical energy and an energy-transfer mechanism for transferring energy from an energy source to the mechanical energy storage mechanism, wherein the energy-transfer mechanism includes a tensioning element movable between a tension-releasing position and a tensioning position and a motor for driving the tensioning element and wherein the tensioning element is movable from the tension-releasing position to the tensioning position for transferring energy to the mechanical energy storage mechanism, characterised in that the motor is provided to drive the tensioning element to and fro between the tensioning position and the tension-releasing position and to move it at a higher speed along the path from the tensioning position to the tension-releasing position than along the path from the tension-releasing position to the tensioning position and that the energy-transfer mechanism includes a coupling gear with a coupling gear drive that can be driven by the motor and a coupling gear output, the coupling gear output driving or forming the tensioning element.
A method of making a tire innerliner comprising: providing a tire innerliner, wherein the tire innerliner comprises a dynamically vulcanized alloy of an elastomer and thermoplastic resin; characterized in that the tire innerliner is contoured such that the thickness of the innerliner at the thickest and thinnest parts differ by more than 25%, and in that the step of providing the tire innerliner comprises: (i) providing a seamless tire innerliner, having a substantially uniform gauge, the seamless tire innerliner being in the form of a sleeve, wherein the seamless tire innerliner comprises a dynamically vulcanized alloy of an elastomer and a thermoplastic resin; (ii) subjecting the seamless tire innerliner to non-uniform stretching in at least one of the radial and axial directions; and (iii) producing the contoured tire innerliner. providing a tire innerliner, wherein the tire innerliner comprises a dynamically vulcanized alloy of an elastomer and thermoplastic resin; (i) providing a seamless tire innerliner, having a substantially uniform gauge, the seamless tire innerliner being in the form of a sleeve, wherein the seamless tire innerliner comprises a dynamically vulcanized alloy of an elastomer and a thermoplastic resin; (ii) subjecting the seamless tire innerliner to non-uniform stretching in at least one of the radial and axial directions; and (iii) producing the contoured tire innerliner.
An apparatus configured to optimise a sequence of Magnetic Resonance scans of a MR exam, the apparatus comprising: - an input unit; - a processing unit; and - an output unit; wherein, the input unit is configured to receive information on a MR exam to be performed on a patient, the information comprising details of individual MR scans of the MR exam, and wherein the input unit is configured to provide the information on the MR exam to the processing unit; wherein, the input unit is configured to receive information on the patient on whom the MR exam is to be performed, wherein the information relates to the tolerance to noise of the patient and/or the ability of the patient to remain quiescent, and wherein the input unit is configured to provide the information on the MR patient to the processing unit; wherein, the processing unit is configured to utilize the information on the patient to determine an overall score value for each MR scan of the individual MR scans; wherein, the processing unit is configured to determine a sequence of MR scans for the MR exam comprising utilization of the individual MR scans and the overall score value for each MR scan; and wherein, the output unit is configured to output the determined sequence of MR scans for the MR exam. - an input unit; - a processing unit; and - an output unit; wherein, the input unit is configured to receive information on a MR exam to be performed on a patient, the information comprising details of individual MR scans of the MR exam, and wherein the input unit is configured to provide the information on the MR exam to the processing unit; wherein, the input unit is configured to receive information on the patient on whom the MR exam is to be performed, wherein the information relates to the tolerance to noise of the patient and/or the ability of the patient to remain quiescent, and wherein the input unit is configured to provide the information on the MR patient to the processing unit; wherein, the processing unit is configured to utilize the information on the patient to determine an overall score value for each MR scan of the individual MR scans; wherein, the processing unit is configured to determine a sequence of MR scans for the MR exam comprising utilization of the individual MR scans and the overall score value for each MR scan; and wherein, the output unit is configured to output the determined sequence of MR scans for the MR exam.
A bearing housing for a turbocharger, the turbocharger including a turbine wheel, a compressor wheel, and a shaft rotatably connecting the turbine wheel and the compressor wheel, the bearing housing comprising: a first end proximate to the turbine wheel; a second end proximate to the compressor wheel; a central chamber disposed between the first end and the second end and configured to house, at least, the shaft; an oil drain disposed radially outward of the shaft configured for directing oil out of the bearing housing; an oil core (38, 68, 78, 88) disposed radially outward of the shaft and radially inward of the oil drain, the oil core configured for communicating oil towards the oil drain and having an inner wall; and one or more strakes (50, 70, 80) protruding radially inward from the inner wall of the oil core, the one or more strakes configured to direct oil within the oil core towards the oil drain; wherein at least one of the one or more strakes extends in a direction and alignment of a strake plane or any parallel plane of the strake plane, such that the strakes prevent swirling in the oil core, the strake plane formed by, at least, two points on a center axis of the turbocharger and a point proximate to the oil drain. a first end proximate to the turbine wheel; a second end proximate to the compressor wheel; a central chamber disposed between the first end and the second end and configured to house, at least, the shaft; an oil drain disposed radially outward of the shaft configured for directing oil out of the bearing housing; an oil core (38, 68, 78, 88) disposed radially outward of the shaft and radially inward of the oil drain, the oil core configured for communicating oil towards the oil drain and having an inner wall; and one or more strakes (50, 70, 80) protruding radially inward from the inner wall of the oil core, the one or more strakes configured to direct oil within the oil core towards the oil drain; wherein at least one of the one or more strakes extends in a direction and alignment of a strake plane or any parallel plane of the strake plane, such that the strakes prevent swirling in the oil core, the strake plane formed by, at least, two points on a center axis of the turbocharger and a point proximate to the oil drain.
A method of manufacturing an organic electroluminescent display, comprising: providing a display substrate having a substrate, at least two linear banks arranged on the substrate in parallel, and at least two pixel regions arranged in linear regions defined by the at least two linear banks, wherein adjacent pixel regions arranged in a linear region are separated by a gap region; arranging a plurality of ink jet heads (20-1 to 20-6) adjacent to one another at an edge of the substrate, the edge being parallel to a line direction of the at least two linear banks, each ink jet head (20-1 to 20-6) being inclined with respect to the line direction, the plurality of ink jet heads (20-1 to 20-6) each including at least two or more nozzles (21-1 to 21-n) aligned in a row at a predetermined pitch, wherein ink containing an organic light-emitting material is supplied to the at least two nozzles (21-1 to 21-n); and moving the plurality of ink jet heads (20-1 to 20-6) relative to the display substrate in a direction perpendicular to the line direction of the at least two linear banks and discharging the ink from the at least two nozzles (21-1 to 21-n) to apply the ink to each of the linear regions to form an organic light-emitting layer on the at least two pixel regions; characterized in that as to a pair of the at least two linear banks defining one of the linear regions, a linear region side of one linear bank of the pair has lower wettability for the ink than a linear region side of the other linear bank of the pair, the one linear bank being rear in the moving direction of the plurality of ink jet heads (20-1 to 20-6) relative to the display substrate, the other linear bank being forward in the moving direction of the plurality of ink jet heads (20-1 to 20-6) relative to the display substrate. providing a display substrate having a substrate, at least two linear banks arranged on the substrate in parallel, and at least two pixel regions arranged in linear regions defined by the at least two linear banks, wherein adjacent pixel regions arranged in a linear region are separated by a gap region; arranging a plurality of ink jet heads (20-1 to 20-6) adjacent to one another at an edge of the substrate, the edge being parallel to a line direction of the at least two linear banks, each ink jet head (20-1 to 20-6) being inclined with respect to the line direction, the plurality of ink jet heads (20-1 to 20-6) each including at least two or more nozzles (21-1 to 21-n) aligned in a row at a predetermined pitch, wherein ink containing an organic light-emitting material is supplied to the at least two nozzles (21-1 to 21-n); and moving the plurality of ink jet heads (20-1 to 20-6) relative to the display substrate in a direction perpendicular to the line direction of the at least two linear banks and discharging the ink from the at least two nozzles (21-1 to 21-n) to apply the ink to each of the linear regions to form an organic light-emitting layer on the at least two pixel regions;
An image capturing apparatus comprising: an image sensor including a plurality of two-dimensionally arranged pixels (210R, 210G, 210B) including pixels each having a pair of photoelectric conversion units (201a, 201b) arranged to output a pair of image signals, which are used for both focus detection and image capturing, obtained by independently receiving a pair of light beams that have passed through different exit pupil regions of an imaging optical system (101, 103, 105); a first filter formed from a summation filter in which all of the components that form the first filter have positive values; a second filter formed from the summation filter and a differential filter in which the components that form the second filter include positive and negative values; acquisition means arranged to acquire an f-number of the imaging optical system (101, 103, 105); filtering means arranged to perform filtering of the pair of image signals by selecting the first filter when the f-number is less than a predetermined threshold and selecting the second filter when the f-number is not less than the threshold; and focus detection means arranged to perform focus detection by a phase difference method based on the pair of image signals that have undergone the filtering by the filtering means (121, 121a). an image sensor including a plurality of two-dimensionally arranged pixels (210R, 210G, 210B) including pixels each having a pair of photoelectric conversion units (201a, 201b) arranged to output a pair of image signals, which are used for both focus detection and image capturing, obtained by independently receiving a pair of light beams that have passed through different exit pupil regions of an imaging optical system (101, 103, 105); a first filter formed from a summation filter in which all of the components that form the first filter have positive values; a second filter formed from the summation filter and a differential filter in which the components that form the second filter include positive and negative values; acquisition means arranged to acquire an f-number of the imaging optical system (101, 103, 105); filtering means arranged to perform filtering of the pair of image signals by selecting the first filter when the f-number is less than a predetermined threshold and selecting the second filter when the f-number is not less than the threshold; and focus detection means arranged to perform focus detection by a phase difference method based on the pair of image signals that have undergone the filtering by the filtering means (121, 121a).
A hinge assembly (34, 134) for pivotally connecting a first frame section (20, 120) to a second frame section (24, 124), comprising: means forming a working pivot axis (28, 128) about which the second frame section (24, 124) is allowed to pivot when in a working position relative to the first frame section (20, 120); and means forming a folding pivot axis (26, 126) about which the second frame section (24, 124) pivots when the second frame section (24, 124) is being folded and unfolded between the working position and a transport position, further comprising a pivot plate (36, 136) couplable to the first frame section (20, 120) by a first pin (38, 138) forming the folding pivot axis (26, 126) and wherein the second frame section (24, 124) is couplable to the pivot plate (36, 136) by a second pin (40, 140) forming the working pivot axis (28, 128), characterized in that the hinge assembly comprises a first and second links (169, 171 couplable to one another by a third pin, the first link also couplable to the first frame section by a fourth pin and the second link coupled to the pivot plate by a fifth pin; and an actuator having an extendable and retractable member, the actuator couplable between the first frame section and the first and second links (169, 171) by the third pin for rotating the pivot plate about the first pin to move the second frame section between the working position and the transport position. means forming a working pivot axis (28, 128) about which the second frame section (24, 124) is allowed to pivot when in a working position relative to the first frame section (20, 120); and means forming a folding pivot axis (26, 126) about which the second frame section (24, 124) pivots when the second frame section (24, 124) is being folded and unfolded between the working position and a transport position, further comprising a pivot plate (36, 136) couplable to the first frame section (20, 120) by a first pin (38, 138) forming the folding pivot axis (26, 126) and wherein the second frame section (24, 124) is couplable to the pivot plate (36, 136) by a second pin (40, 140) forming the working pivot axis (28, 128), characterized in that the hinge assembly comprises a first and second links (169, 171 couplable to one another by a third pin, the first link also couplable to the first frame section by a fourth pin and the second link coupled to the pivot plate by a fifth pin; and an actuator having an extendable and retractable member, the actuator couplable between the first frame section and the first and second links (169, 171) by the third pin for rotating the pivot plate about the first pin to move the second frame section between the working position and the transport position.
A sorption agent for removing protein-bound substances from a biological fluid, characterized in that the sorption agent comprises (a) a porous, neutral, hydrophobic polymer and (b) a polypeptide layer adsorbed on the polymer, wherein the neutral, hydrophobic polymer has a mean pore size of 30 to 40 nm, and wherein the sorption agent is made up of microparticles, the microparticles having a particle size of 20 μm or less.