mhurhangee/ep-ind-claims huggingface dataset:
Holding part, in particular cylinder head, having an injection nozzle which is inserted into a receiveing bore of the holding part and which serves for injecting media into a combustion chamber, in particular fuel into the combustion chamber of an internal combustion engine, wherein the injection nozzle comprises a nozzle body whose nozzle tip, which has the spray holes, projects into the combustion chamber, and a heat protection sleeve which is arranged in the combustion chamber-side end region of the nozzle body and which surrounds the nozzle body, wherein the combustion chamber-side end region of the nozzle body interacts with the receiving bore via the heat protection sleeve, characterized in that the heat protection sleeve has a first region and a second region which are axially spaced apart from one another, wherein the second region is arranged closer than the first region to the nozzle tip, wherein, in the first region, a first external circumferential sealing surface is formed on the outer face and a first internal circumferential sealing surface is formed on the inner face, and in the second region, a second external circumferential sealing surface is formed on the outer face and a second internal circumferential sealing surface is formed on the inner face, wherein the second sealing surfaces (10, 11) are situated at a smaller diameter than the first sealing surfaces (5, 6), wherein the first external sealing surface and the second external sealing surface interact in each case in sealing fashion with an annular seat surface running in a radial plane or with a conical seat surface of the receiving bore, and the first internal sealing surface and the second internal sealing surface interact in each case in sealing fashion with an annular seat surface running in a radial plane or with a conical seat surface of the nozzle body, wherein a first sealing surface (5, 6) and a second sealing surface (12, 13) in each case forms a double fit with the corresponding seat surfaces (8, 9, 12, 13) of the nozzle body and of the receiving bore.
An absorbent body for a body liquid-absorbing article having an apparent density of 0.06 to 0.14 g/cm 3 measured as described in the description, comprising 100 parts by weight of cellulose-based water-absorbent fibers and 7.5 to 100 parts by weight of thermoplastic resin fibers, wherein the thermoplastic resin fibers having longer fiber lengths than the cellulose-based water-absorbent fibers are mutually entangled, the absorbent body has compressed sections arranged in a repeating pattern, the compressed sections being non-fused and the absorbent body having a Gurley bending resistance of no greater than 1 mN measured as described in the description, the area of each individual compressed section is 0.1 to 20.0 mm 2, and the proportion of the area of the compressed sections with respect to the area of the absorbent body is 1 to 20%.
Method for identifying a type of fuel or a mixture of fuel which is composed of a plurality of types of fuel, on the basis of a change in the lambda value for the operation of an internal combustion engine having a combustion chamber, wherein the internal combustion engine can be operated with different types of fuel or mixtures of fuel, wherein the combustion chamber comprises a first inlet opening which is connected to a first intake manifold in which a first injection valve is arranged, wherein the combustion chamber comprises a second inlet opening which is connected to a second intake manifold in which a second injection valve is arranged, wherein during normal operation a predetermined quantity of fuel is injected, and wherein the predetermined quantity of fuel is composed of a first quantity of fuel which is to be injected by the first injection valve and a second quantity of fuel which is to be injected by the second injection valve, characterized in that in a first method step the first injection valve remains closed, and in a second method step the first injection valve is opened again, wherein in the second method step a first test quantity of fuel is injected via the first injection valve, and a second test quantity of fuel is injected via the second injection valve, wherein the first test quantity of fuel and the second test quantity of fuel are combined to form the predetermined quantity of fuel.
A vehicular light guide member which forms a rod shape to guide light by utilizing total reflection inside thereof, comprising: an incidence surface to make light incident thereto; an emission surface to emit the incident light; a main reflection portion having a main reflection surface arranged to reflect a part of the incident light guided in the vehicular light guide member to the emission surface for emission as scattered light from the emission surface; a secondary reflection portion having a secondary reflection surface arranged to reflect another part of the incident light guided in the vehicular light guide member to the emission surface for emission as scattered light from the emission surface; characterized by a linking portion which is disposed between the main reflection portion and the secondary reflection portion and which has a linking reflection surface arranged to reflect yet another part of the incident light guided in the vehicular light guide member to the emission surface for emission as parallel light from the emission surface, wherein the linking reflection surface forms an arc surface in a sectional view of the rode. an incidence surface to make light incident thereto; an emission surface to emit the incident light; a main reflection portion having a main reflection surface arranged to reflect a part of the incident light guided in the vehicular light guide member to the emission surface for emission as scattered light from the emission surface; a secondary reflection portion having a secondary reflection surface arranged to reflect another part of the incident light guided in the vehicular light guide member to the emission surface for emission as scattered light from the emission surface; characterized by a linking portion which is disposed between the main reflection portion and the secondary reflection portion and which has a linking reflection surface arranged to reflect yet another part of the incident light guided in the vehicular light guide member to the emission surface for emission as parallel light from the emission surface, wherein the linking reflection surface forms an arc surface in a sectional view of the rode.
A system for supplying a process gas to a processing location of a particle beam system, wherein the system comprises: a first gas reservoir; a first gas conduit having a first end connected to the first gas reservoir; a pipe having a first end located close to the processing location; a first valve provided between a second end of the first gas conduit and a second end of the pipe, wherein the first valve is configured to selectively allow and prevent a gas flow from the first gas reservoir to the processing location via the first gas conduit and the pipe; and a controller configured to open the first valve and to close the first valve, to switch the system from a first mode of operation in which process gas is not supplied to the processing location to a second mode of operation in which process gas is supplied to the processing location, and to alternately open and close the first valve in plural cycles at a beginning of the second mode of operation, wherein each cycle includes a first duration in which the first valve is open and a second duration immediately subsequent to the first duration in which the first valve is closed, wherein the following relation is fulfilled for more than one pair of subsequent cycles: a ratio between the first duration and the second duration is smaller in a first cycle than the ratio between the first duration and the second duration in a second cycle of the pair subsequent to the first cycle. a first gas reservoir; a first gas conduit having a first end connected to the first gas reservoir; a pipe having a first end located close to the processing location; a first valve provided between a second end of the first gas conduit and a second end of the pipe, wherein the first valve is configured to selectively allow and prevent a gas flow from the first gas reservoir to the processing location via the first gas conduit and the pipe; and a controller configured to open the first valve and to close the first valve, to switch the system from a first mode of operation in which process gas is not supplied to the processing location to a second mode of operation in which process gas is supplied to the processing location, and to alternately open and close the first valve in plural cycles at a beginning of the second mode of operation, wherein each cycle includes a first duration in which the first valve is open and a second duration immediately subsequent to the first duration in which the first valve is closed, wherein the following relation is fulfilled for more than one pair of subsequent cycles: a ratio between the first duration and the second duration is smaller in a first cycle than the ratio between the first duration and the second duration in a second cycle of the pair subsequent to the first cycle.
A refastenable disposable absorbent pant comprised by a chassis, left and right front side panels and left and right rear side panels, such that the front side panels are joined to the rear side panels, respectively, by means of a refastenable seal, such that the pant has an arrangement suitable to be pulled up and down through the legs, with a waist opening, a pair of leg openings and two side flanks, wherein: the chassis has a front part, a rear part and a crotch part between the front and rear parts (6,7), two transversal edges and two longitudinal edges, and the front and rear side panels (3,4) have an inner face facing the user during use, an outer face, a proximal edge (11,15) permanently attached to the chassis, a distal edge (13,17), a top edge and a bottom edge, wherein the left and right front panels are wider than the left and right rear panels, such that the refastenable seal is formed by joining, in a refastenable manner, the distal edges of each of the front and rear panels (3,4), so that the seal is placed at the rear part of the pant, between the side flanks and the longitudinal edges of the chassis and wherein the front panels have a width A and the rear panels have a width a such that the formula A/a > 1 is satisfied. the chassis has a front part, a rear part and a crotch part between the front and rear parts (6,7), two transversal edges and two longitudinal edges, and the front and rear side panels (3,4) have an inner face facing the user during use, an outer face, a proximal edge (11,15) permanently attached to the chassis, a distal edge (13,17), a top edge and a bottom edge, wherein the left and right front panels are wider than the left and right rear panels, such that the refastenable seal is formed by joining, in a refastenable manner, the distal edges of each of the front and rear panels (3,4), so that the seal is placed at the rear part of the pant, between the side flanks and the longitudinal edges of the chassis and wherein the front panels have a width A and the rear panels have a width a such that the formula A/a > 1 is satisfied.
An anti-ILT5 antibody or an ILT5-binding fragment of said antibody, for use in a method of treatment of cancer or infection, wherein the anti-ILT5 antibody or fragment thereof is monovalent and induces or enhances an immune response in a subject, wherein the antibody binds human ILT5.
An x-ray collimator comprising a substrate containing a plurality of collimator holes, wherein at least some of said collimator holes comprise along their axial lengths, an entrance hole through which x-rays may pass into the collimator hole, a tapered portion being frustoconical, and a following tubular portion having an output hole, and characterized in that the x-ray collimator further comprises x-ray target material comprising a first thin sheet of high atomic number material and being arranged to convert, in use, electrons from an array of electron emitters into localised sources of x-ray photons, such that each of said at least some collimator holes emits a beam of x-ray photons emerging from the output hole in a narrow angle cone being approximately parallel or having an angle of deviation from parallel in the range 1 to 20 degrees.
Pneumatic vehicle tire for use in winter driving conditions, having a tread, which has profile blocks having fine sipes, and wherein the tread has two axially outwardly arranged shoulder regions (6, 7) and a central tread region arranged between said shoulder regions (6, 7), wherein the surface of the profile blocks has grooves arranged parallel to one another, which extend from profile-block edge to profile-block edge, characterized in that the grooves each have a radial extent of 0.2 mm to 0.4 mm and a width of 0.2 mm to 0.4 mm, in that in the central tread region said grooves are arranged exclusively approximately in an axial direction (aR) and in that said grooves are arranged exclusively approximately in a circumferential direction (uR) in the shoulder regions (6, 7).
A battery pack comprising: a lower case comprising a first lower side wall extending from a bottom surface, and a second lower side wall and a third lower side wall respectively connected with the first lower side wall and arranged so as to face each other, wherein the side facing the first lower side wall is entirely open; a battery unit accommodated in the lower case and comprising a plurality of battery cells; and an upper case arranged to face the lower case so as to seal the battery unit, wherein the upper case comprises a first upper side wall extending from a top surface, a second upper side wall and a third upper side wall respectively connected with the first upper side wall and arranged to face each other, a fourth upper side wall arranged to face the first upper side wall, and the first upper side wall and the lower side wall, the second upper side wall and the second lower side wall, and the third upper side wall and the third lower side wall are arranged to be engaged with one another, and at least part of the fourth upper side wall is arranged to face the first lower side wall, wherein a sum of a height of the first lower side wall of the lower case and a height of the first upper side wall of the upper case is the same as a height of the fourth upper side wall of the upper case, wherein the upper and lower cases are rectangular. a lower case comprising a first lower side wall extending from a bottom surface, and a second lower side wall and a third lower side wall respectively connected with the first lower side wall and arranged so as to face each other, wherein the side facing the first lower side wall is entirely open; a battery unit accommodated in the lower case and comprising a plurality of battery cells; and an upper case arranged to face the lower case so as to seal the battery unit, wherein the upper case comprises a first upper side wall extending from a top surface, a second upper side wall and a third upper side wall respectively connected with the first upper side wall and arranged to face each other, a fourth upper side wall arranged to face the first upper side wall, and the first upper side wall and the lower side wall, the second upper side wall and the second lower side wall, and the third upper side wall and the third lower side wall are arranged to be engaged with one another, and at least part of the fourth upper side wall is arranged to face the first lower side wall, wherein a sum of a height of the first lower side wall of the lower case and a height of the first upper side wall of the upper case is the same as a height of the fourth upper side wall of the upper case, wherein the upper and lower cases are rectangular.
An electronic circuit breaker with a case and separable electrical contacts (33, 35), having: a) an optical data transceiver; b) electronics for encoding and reporting a self-status signal including operating data and a position identifier of the circuit breaker to the optical data transceiver, c) left and right side optical ports (51, 53) in the case, each optical port leading to a respective light pipe (57, 59), each light pipe connected to the optical data transceiver for transmitting the self-status signal through one of the light pipes to an optical port, the optical data transceiver further capable of receiving and repeating neighboring breaker status signals through the light pipes to one of the optical ports; and d) a logic unit for identifying the position of the circuit breaker in the load center based on a received position identifier of a neighboring braker position. a) an optical data transceiver; b) electronics for encoding and reporting a self-status signal including operating data and a position identifier of the circuit breaker to the optical data transceiver, c) left and right side optical ports (51, 53) in the case, each optical port leading to a respective light pipe (57, 59), each light pipe connected to the optical data transceiver for transmitting the self-status signal through one of the light pipes to an optical port, the optical data transceiver further capable of receiving and repeating neighboring breaker status signals through the light pipes to one of the optical ports; and d) a logic unit for identifying the position of the circuit breaker in the load center based on a received position identifier of a neighboring braker position.
An antenna, comprising: a first coarse phase shifter (301, 501) configured to receive a radio frequency signal of a first frequency band; a second coarse phase shifter (303, 503) configured to receive a RF signal of a second frequency band; first and second diplexers (305, 307) each configured to combine a varied phase signal output by the first coarse phase shifter (301, 501) with a varied phase signal output by the second coarse phase shifter (303, 503); a first fine phase shifter (309, 509) comprising an input coupled to an output of the first diplexer; a second fine phase shifter (311, 509) comprising an input coupled to an output of the second diplexer; a plurality of radiating elements (313, 315, 502, 506) comprising at least one first radiating element coupled to a respective output of the first fine phase shifter (309, 509) and at least one second radiating element coupled to a respective output of the second fine phase shifter (311, 509); and a tilt adapter, which is coupled to the both the first and second coarse phase shifters (301, 501, 303, 503) as well as the first and second fine phase shifters (309, 509, 311, 509), and which is configured to adjust the first fine phase shifter (309,509) based on adjustments made to the first and second coarse phase shifters (301, 501, 303, 503) and further configured to adjust the second fine phase shifter (311, 509) based on adjustments made to the first and second coarse phase shifters (301, 501, 303, 503), wherein the first and second coarse phase shifters (301, 501, 303, 503) are independently adjustable. a first coarse phase shifter (301, 501) configured to receive a radio frequency signal of a first frequency band; a second coarse phase shifter (303, 503) configured to receive a RF signal of a second frequency band; first and second diplexers (305, 307) each configured to combine a varied phase signal output by the first coarse phase shifter (301, 501) with a varied phase signal output by the second coarse phase shifter (303, 503); a first fine phase shifter (309, 509) comprising an input coupled to an output of the first diplexer; a second fine phase shifter (311, 509) comprising an input coupled to an output of the second diplexer; a plurality of radiating elements (313, 315, 502, 506) comprising at least one first radiating element coupled to a respective output of the first fine phase shifter (309, 509) and at least one second radiating element coupled to a respective output of the second fine phase shifter (311, 509); and a tilt adapter, which is coupled to the both the first and second coarse phase shifters (301, 501, 303, 503) as well as the first and second fine phase shifters (309, 509, 311, 509), and which is configured to adjust the first fine phase shifter (309,509) based on adjustments made to the first and second coarse phase shifters (301, 501, 303, 503) and further configured to adjust the second fine phase shifter (311, 509) based on adjustments made to the first and second coarse phase shifters (301, 501, 303, 503), wherein the first and second coarse phase shifters (301, 501, 303, 503) are independently adjustable.
An liquid pharmaceutical composition, comprising: - 50 mg/mL adalimumab; - 5 to 14 mM buffer system; - 100 to about 300 mM a sugar stabiliser; - 0.05 mg/mL to about 1.5 mg/mL surfactant; and - water (for injection); - wherein the composition: o has a pH of pH 5.2; o is (substantially or entirely) free of arginine (suitably L-arginine), or comprises arginine in a concentration of at most 0.1 mM; o is (substantially or entirely) free of any amino acids selected from the group including arginine, lysine, aspartic acid, and histidine, or comprises one or more of said amino acids in a (collective) concentration of at most 0.1 mM; o is (substantially or entirely) free of surfactants with the optional exception of polysorbate 80 or comprises one or more of said surfactants (optionally excluding polysorbate 80) in a (collective) concentration of at most 1 mM; and o is (substantially or entirely) free of phosphate buffering agents (e.g. sodium dihydrogen phosphate, disodium hydrogen phosphate) or comprises a phosphate buffer system in a concentration of at most 0.1 mM. - 50 mg/mL adalimumab; - 5 to 14 mM buffer system; - 100 to about 300 mM a sugar stabiliser; - 0.05 mg/mL to about 1.5 mg/mL surfactant; and - water (for injection); - wherein the composition: o has a pH of pH 5.2; o is (substantially or entirely) free of arginine (suitably L-arginine), or comprises arginine in a concentration of at most 0.1 mM; o is (substantially or entirely) free of any amino acids selected from the group including arginine, lysine, aspartic acid, and histidine, or comprises one or more of said amino acids in a (collective) concentration of at most 0.1 mM; o is (substantially or entirely) free of surfactants with the optional exception of polysorbate 80 or comprises one or more of said surfactants (optionally excluding polysorbate 80) in a (collective) concentration of at most 1 mM; and o is (substantially or entirely) free of phosphate buffering agents (e.g. sodium dihydrogen phosphate, disodium hydrogen phosphate) or comprises a phosphate buffer system in a concentration of at most 0.1 mM. o has a pH of pH 5.2; o is (substantially or entirely) free of arginine (suitably L-arginine), or comprises arginine in a concentration of at most 0.1 mM; o is (substantially or entirely) free of any amino acids selected from the group including arginine, lysine, aspartic acid, and histidine, or comprises one or more of said amino acids in a (collective) concentration of at most 0.1 mM; o is (substantially or entirely) free of surfactants with the optional exception of polysorbate 80 or comprises one or more of said surfactants (optionally excluding polysorbate 80) in a (collective) concentration of at most 1 mM; and o is (substantially or entirely) free of phosphate buffering agents (e.g. sodium dihydrogen phosphate, disodium hydrogen phosphate) or comprises a phosphate buffer system in a concentration of at most 0.1 mM.