mhurhangee/ep-ind-claims huggingface dataset:
An introducing device system comprising: an insertion portion configured to be inserted into a subject, the insertion portion comprising a bending portion which is provided on a distal end side of the insertion portion and configured to be bendable; an operation portion comprising an operation lever which is operated to be tilted for bending the bending portion; a pulling member (8u, 8d, 81, 8r) connected to the bending portion and pulled in accordance with the tilting operation of the operation portion; a driving unit (41, 42) configured to rotationally drive to bend the bending portion; and a driving force transmitting unit (9u, 9d, 91, 9r) including an inner circumferential surface configured to be able to contact an outer circumferential surface of the driving unit (41, 42), and the inner circumferential surface being configured to press the outer circumferential surface such that the driving force transmitting unit (9u, 9d, 91, 9r) is reduced in diameter in accordance with pulling of the pulling member (8u, 8d, 81, 8r) by a tilting operation through the operation lever of the operation portion, characterized by a detection section (45A, 45B) configured to detect a speed of the tilting operation of the operation portion; and a driving unit control section configured to perform control for increasing a rotational speed of the driving unit (41, 42) when a speed of the tilting operation of the operation portion based on the tilting operation detected by the detection section (45A, 45B) is higher than a speed with which the driving unit (41, 42) rotationally drives. an insertion portion configured to be inserted into a subject, the insertion portion comprising a bending portion which is provided on a distal end side of the insertion portion and configured to be bendable; an operation portion comprising an operation lever which is operated to be tilted for bending the bending portion; a pulling member (8u, 8d, 81, 8r) connected to the bending portion and pulled in accordance with the tilting operation of the operation portion; a driving unit (41, 42) configured to rotationally drive to bend the bending portion; and a driving force transmitting unit (9u, 9d, 91, 9r) including an inner circumferential surface configured to be able to contact an outer circumferential surface of the driving unit (41, 42), and the inner circumferential surface being configured to press the outer circumferential surface such that the driving force transmitting unit (9u, 9d, 91, 9r) is reduced in diameter in accordance with pulling of the pulling member (8u, 8d, 81, 8r) by a tilting operation through the operation lever of the operation portion, characterized by a detection section (45A, 45B) configured to detect a speed of the tilting operation of the operation portion; and a driving unit control section configured to perform control for increasing a rotational speed of the driving unit (41, 42) when a speed of the tilting operation of the operation portion based on the tilting operation detected by the detection section (45A, 45B) is higher than a speed with which the driving unit (41, 42) rotationally drives.
A digital broadcast receiver of a digital radio comprising: an input for connection to an antenna configured to receive a digital broadcast; an anti-virus unit, located at an antenna side of the digital broadcast receiver, configured to carry out an anti-virus check and identify malicious data on at least one data channel received as part of the digital broadcast; an outer receiver configured to decode the at least one data channel received as part of the digital broadcast; and a host interface configured to provide the at least one decoded data channel including malicious data and an indication of a presence of malicious content in the malicious data to a host. an input for connection to an antenna configured to receive a digital broadcast; an anti-virus unit, located at an antenna side of the digital broadcast receiver, configured to carry out an anti-virus check and identify malicious data on at least one data channel received as part of the digital broadcast; an outer receiver configured to decode the at least one data channel received as part of the digital broadcast; and a host interface configured to provide the at least one decoded data channel including malicious data and an indication of a presence of malicious content in the malicious data to a host.
A method for producing L,L-, D,D-, D,L- and meso-dilactides, comprising the polycondensation and/or polytransesterification of L-, D-, or D,L-lactic acid or of esters thereof to polyesters of higher molecular weights of L-, D- or D,L-lactic acid (polylactic acids) and cyclizing depolymerization of the polylactic acids to said dilactides, characterized in that said polyesters of higher molecular weights of L-, D- and D,L-lactic acids are produced in the presence of hydrolysis-stable metal compounds as catalysts, wherein, as hydrolysis-stable catalysts for the polycondensation of said lactic acids or for the polytransesterification of said lactic acid esters, complexes of titanium or zirconium of the following structure are used: wherein Me = Ti, Zr; R = -H, alkyl, aryl, PO(OR') 2, -HPOOR', -SO 2 R'; X = >O, >S; and Y = >CH-, >C<, and wherein the chelating components are - acetylacetonates - alkali and ammonium lactates - esters of phosphoric acid and pyrophosphoric acid - esters of phosphorous acid - ethanolamines and ethanoldiamines, and in that said polylactic acids are polymerized by polycondensation to molecular masses between 6,000 g/mol and 10,000 g/mol, preferably between 7,000 g/mol and 10,000 g/mol, especially between 8,000 g/mol and 10,000 g/mol. Me = Ti, Zr; R = -H, alkyl, aryl, PO(OR') 2, -HPOOR', -SO 2 R'; X = >O, >S; and Y = >CH-, >C<, - acetylacetonates - alkali and ammonium lactates - esters of phosphoric acid and pyrophosphoric acid - esters of phosphorous acid - ethanolamines and ethanoldiamines,
A system for providing focal cooling at a treatment site, the system comprising: a catheter designed to access the treatment site; wherein the treatment site includes a cerebrospinal fluid-containing space; a treatment unit coupled to the catheter, the treatment unit including a port configured to be in fluid communication with the treatment site; wherein the treatment unit is configured to treat fluid received through the port from the cerebrospinal fluid-containing space; wherein the treatment unit is configured to compare a rate of temperature control with a target rate of temperature control and update a treatment parameter if the rate of temperature control differs from the target rate of temperature control; and wherein the treatment unit includes a temperature control unit designed to cool the volume of cerebrospinal fluid received from the cerebrospinal fluid-containing space. a catheter designed to access the treatment site; wherein the treatment site includes a cerebrospinal fluid-containing space; a treatment unit coupled to the catheter, the treatment unit including a port configured to be in fluid communication with the treatment site; wherein the treatment unit is configured to treat fluid received through the port from the cerebrospinal fluid-containing space; wherein the treatment unit is configured to compare a rate of temperature control with a target rate of temperature control and update a treatment parameter if the rate of temperature control differs from the target rate of temperature control; and wherein the treatment unit includes a temperature control unit designed to cool the volume of cerebrospinal fluid received from the cerebrospinal fluid-containing space.
A computer-implemented method for generating a machine code implementation of a finite state machine from a source code according to a hardware limitation of a target device, the source code comprising a plurality of regular expressions wherein at least one regular expression comprises a quantified expression describing a repeated sub-expression, the method comprising: creating a non-language specific representation of the plurality of regular expressions by parsing the source code, wherein the non-language specific representation comprises a plurality of operators that are relationally connected; converting the non-language specific representation into an automaton wherein the operators and the relationships between the operators in the non-language specific representation are converted into states with transitions between the states, and wherein converting the non-language specific representation comprises: unrolling the non-language specific representation of the at least one regular expression comprising the quantified expression, wherein unrolling comprises: determining a threshold number of state transitions based on a hardware limitation of the target device; and rewriting the quantified expression, based on the threshold number, as a plurality of non-quantified sub-expressions that are linked serially; and converting the automaton into machine code, wherein the machine code implements the function of the automaton on the target device. creating a non-language specific representation of the plurality of regular expressions by parsing the source code, wherein the non-language specific representation comprises a plurality of operators that are relationally connected; converting the non-language specific representation into an automaton wherein the operators and the relationships between the operators in the non-language specific representation are converted into states with transitions between the states, and wherein converting the non-language specific representation comprises: unrolling the non-language specific representation of the at least one regular expression comprising the quantified expression, wherein unrolling comprises: determining a threshold number of state transitions based on a hardware limitation of the target device; and rewriting the quantified expression, based on the threshold number, as a plurality of non-quantified sub-expressions that are linked serially; and determining a threshold number of state transitions based on a hardware limitation of the target device; and rewriting the quantified expression, based on the threshold number, as a plurality of non-quantified sub-expressions that are linked serially; and converting the automaton into machine code, wherein the machine code implements the function of the automaton on the target device.
A linear compressor comprising: a shell defining an internal space; a compressor body disposed in the internal space, wherein the compressor body comprises: a frame in which a cylinder is accommodated; and a discharge cover (191, 191a) coupled to the frame, and wherein the discharge cover (191, 191a) comprises: a cover flange part (1910, 1910a) coupled to a discharge frame surface of the frame; and a chamber part (1915, 1915a) extending forward from the cover flange part (1910, 1910a) in the axial direction; and a passage guide (200, 200a) disposed between the shell and the compressor body, wherein the passage guide (200, 200a) comprises: a first guide part (210, 210a) contacting the shell and extending along an inner surface of the shell in an axial direction; and a second guide part (220, 220a) extending from the first guide part (210, 210a) in a radial direction, characterized in that the first guide part (210, 210a) is disposed outside the chamber part (1915, 1915a) or the cover flange part (1910, 1910a) in the radial direction, and the second guide part (220, 220a) is extended toward the compressor body and disposed in front of the discharge frame surface in the axial direction, wherein a passage through which a shell refrigerant flows is formed between the discharge cover (191, 191a) and the second guide part (220, 220a). a shell defining an internal space; a compressor body disposed in the internal space, wherein the compressor body comprises: a frame in which a cylinder is accommodated; and a discharge cover (191, 191a) coupled to the frame, and wherein the discharge cover (191, 191a) comprises: a cover flange part (1910, 1910a) coupled to a discharge frame surface of the frame; and a chamber part (1915, 1915a) extending forward from the cover flange part (1910, 1910a) in the axial direction; and a passage guide (200, 200a) disposed between the shell and the compressor body, wherein the passage guide (200, 200a) comprises: a first guide part (210, 210a) contacting the shell and extending along an inner surface of the shell in an axial direction; and a second guide part (220, 220a) extending from the first guide part (210, 210a) in a radial direction, a first guide part (210, 210a) contacting the shell and extending along an inner surface of the shell in an axial direction; and a second guide part (220, 220a) extending from the first guide part (210, 210a) in a radial direction, characterized in that the first guide part (210, 210a) is disposed outside the chamber part (1915, 1915a) or the cover flange part (1910, 1910a) in the radial direction, and the second guide part (220, 220a) is extended toward the compressor body and disposed in front of the discharge frame surface in the axial direction, wherein a passage through which a shell refrigerant flows is formed between the discharge cover (191, 191a) and the second guide part (220, 220a).
A valve with refill-preventing device for disposable containers of pressurized gas, said valve comprising: i) a body having a substantially cylindrical shape wherein a cylindrical upper chamber and lower chamber are formed, said chambers being arranged in fluid communication through an intermediate channel having a cylindrical shape, said body comprising a first aperture formed on its top and adapted to put said upper chamber in fluid communication with the outside, and a second aperture formed on its bottom and adapted to put said lower chamber in fluid communication with a container of pressurized gas; ii) a piston arranged in said lower chamber and having a stem that is coaxially restrained at one of its ends, said stem stretching out through said intermediate channel and said upper chamber; iii) a first sealing element arranged at the end of the piston restrained to the stem; iv) a second sealing element, wherein the piston is axially movable in the lower chamber between a first end position, wherein the first sealing element seals an inlet of the intermediate channel, and a second end position, characterized in that the stem comprises an intermediate portion having a reduced cross- section configured to allow removal of an end portion thereof, in that the stem protrudes beyond the upper chamber through said first aperture, in that said second end position of the piston is defined by an abutment member fitted in said second aperture and comprising a trough channel adapted to allow passage of a gas flow from a container towards the second aperture, in that the second sealing element is restrained to the end of the piston opposite to the end restrained to the stem and facing the second aperture, and in that in said second end position the second sealing element seals the second aperture. i) a body having a substantially cylindrical shape wherein a cylindrical upper chamber and lower chamber are formed, said chambers being arranged in fluid communication through an intermediate channel having a cylindrical shape, said body comprising a first aperture formed on its top and adapted to put said upper chamber in fluid communication with the outside, and a second aperture formed on its bottom and adapted to put said lower chamber in fluid communication with a container of pressurized gas; ii) a piston arranged in said lower chamber and having a stem that is coaxially restrained at one of its ends, said stem stretching out through said intermediate channel and said upper chamber; iii) a first sealing element arranged at the end of the piston restrained to the stem; iv) a second sealing element,
A cold plasma treatment mask (500, 1010) for application to a face having contours, comprising: a first mask layer (530, 730) and a second mask layer (520, 720, 810), the first (530, 730) and second (520, 720, 810) mask layers being configured to conform to the contours of the face; a gas containment region formed between the first (530, 730) and second (520, 720, 810) mask layers, the gas containment region communicatively coupled to a gas inlet (920a, 1030) and a gas outlet (920b, 1020); and an electrical input port (560, 930) coupled by a plurality of metal tracks (540, 830) to one or more electrical nodes (550, 610, 820), the one or more electrical nodes (550, 610, 820) having contact with the interior of the gas containment region, wherein the electrical input port (560, 930) is further configured to be coupled to a unipolar high voltage power supply to thereby generate cold plasma in the gas containment region. a first mask layer (530, 730) and a second mask layer (520, 720, 810), the first (530, 730) and second (520, 720, 810) mask layers being configured to conform to the contours of the face; a gas containment region formed between the first (530, 730) and second (520, 720, 810) mask layers, the gas containment region communicatively coupled to a gas inlet (920a, 1030) and a gas outlet (920b, 1020); and an electrical input port (560, 930) coupled by a plurality of metal tracks (540, 830) to one or more electrical nodes (550, 610, 820), the one or more electrical nodes (550, 610, 820) having contact with the interior of the gas containment region, wherein the electrical input port (560, 930) is further configured to be coupled to a unipolar high voltage power supply to thereby generate cold plasma in the gas containment region.
Agricultural baler comprising a baling chamber and a plunger, wherein the plunger is connected to a plunger driving mechanism that is adapted to reciprocally move the plunger in the baling chamber, the baler further comprising pickup means for picking up crop material from a field and for transferring the crop material to the baling chamber so that the crop material can be compressed into a bale in the baling chamber via the reciprocally moving plunger, characterized in that the baler further comprises a hydraulic brake mechanism comprising a master cylinder, a brake cylinder and a lever, wherein the lever is provided to operate the master cylinder, which master cylinder is fluidly connected to the brake cylinder that is arranged to act on the plunger driving mechanism for braking the latter, wherein the hydraulic brake mechanism further comprises an accumulator operationally integrated in the hydraulic brake mechanism for accumulating and storing mechanical energy in the hydraulic brake mechanism, the accumulator being formed by a spring arranged between the lever and the master cylinder to transmit a compression from the lever to the master cylinder, wherein the lever comprises a compression pin via which the lever is provided to act on the master cylinder, and wherein the compression pin is biased via said spring towards the master cylinder.
A multilayer composite interior component comprising: a first member; and a second member that is arranged on the first member, wherein the second member is formed using a plurality of separate molds (30, 32), the second member includes a plurality of general projections, each projecting toward the first member, wherein the general projections are bent by contact with the first member, and a plurality of boundary projections located between a mold separation line of the separate molds (30, 32) and the general projections and projecting toward the first member, wherein the boundary projections are bent by contact with the first member, the boundary projections are arranged at equal intervals in rows along the mold separation line at opposite sides of the mold separation line, and each interval of the boundary projections is shorter than a distance between the general projections located adjacent to each other along the mold separation line. a first member; and a second member that is arranged on the first member, wherein the second member is formed using a plurality of separate molds (30, 32), the second member includes a plurality of general projections, each projecting toward the first member, wherein the general projections are bent by contact with the first member, and a plurality of boundary projections located between a mold separation line of the separate molds (30, 32) and the general projections and projecting toward the first member, wherein the boundary projections are bent by contact with the first member, a plurality of general projections, each projecting toward the first member, wherein the general projections are bent by contact with the first member, and a plurality of boundary projections located between a mold separation line of the separate molds (30, 32) and the general projections and projecting toward the first member, wherein the boundary projections are bent by contact with the first member, the boundary projections are arranged at equal intervals in rows along the mold separation line at opposite sides of the mold separation line, and each interval of the boundary projections is shorter than a distance between the general projections located adjacent to each other along the mold separation line.
A light guide plate, comprising a light emitting surface configured to guide light out, wherein the light emitting surface is provided with first micro structures, and the first micro structures protrude from the light emitting surface; the light guide plate further comprising a light incident surface, and a diffusion surface configured for light diffusion, wherein the light incident surface is an end surface of the light guide plate that is adjacent to an LED light bar, the diffusion surface is arranged to be opposite to the light emitting surface, and the light incident surface is adjacent to the light emitting surface and the diffusion surface respectively; the first micro structures are arranged on the light emitting surface in a way that the farther the first micro structures are from the light incident surface, the tighter the first micro structures are arranged; and the first micro structures are arranged on the light emitting surface in a way that the farther the first micro structures are from the light incident surface, the more the widths of the first micro structures are gradually reduced. the light guide plate further comprising a light incident surface, and a diffusion surface configured for light diffusion, wherein the light incident surface is an end surface of the light guide plate that is adjacent to an LED light bar, the diffusion surface is arranged to be opposite to the light emitting surface, and the light incident surface is adjacent to the light emitting surface and the diffusion surface respectively; the first micro structures are arranged on the light emitting surface in a way that the farther the first micro structures are from the light incident surface, the tighter the first micro structures are arranged; and the first micro structures are arranged on the light emitting surface in a way that the farther the first micro structures are from the light incident surface, the more the widths of the first micro structures are gradually reduced.