mhurhangee/ep-ind-claims huggingface dataset:
Process for producing methanol, comprising the following process steps: a) providing an input gas comprising carbon oxides (CO, CO 2) and hydrogen (H 2); b) introducing the input gas as a first fresh gas stream into a first compressor stage for precompression of the first fresh gas stream to obtain a second fresh gas stream; c) introducing a recycle gas stream and the second fresh gas stream into a second compressor stage for compression of the recycle gas stream and the second fresh gas stream to synthesis pressure to obtain a synthesis gas stream; d) catalytically converting the synthesis gas of the synthesis gas stream in a plurality of serially arranged reactor stages at synthesis pressure to obtain a product stream comprising methanol and unreacted synthesis gas per reactor stage; e) cooling the product stream obtained per reactor stage for condensation and separation of methanol from unreacted synthesis gas and introducing unreacted synthesis gas into a respective subsequent stage of the serially arranged reactor stages; f) withdrawing unreacted synthesis gas from at least one of the reactor stages as a recycle gas stream for introduction of the recycle gas stream into the second compressor stage according to step c). a) providing an input gas comprising carbon oxides (CO, CO 2) and hydrogen (H 2); b) introducing the input gas as a first fresh gas stream into a first compressor stage for precompression of the first fresh gas stream to obtain a second fresh gas stream; c) introducing a recycle gas stream and the second fresh gas stream into a second compressor stage for compression of the recycle gas stream and the second fresh gas stream to synthesis pressure to obtain a synthesis gas stream; d) catalytically converting the synthesis gas of the synthesis gas stream in a plurality of serially arranged reactor stages at synthesis pressure to obtain a product stream comprising methanol and unreacted synthesis gas per reactor stage; e) cooling the product stream obtained per reactor stage for condensation and separation of methanol from unreacted synthesis gas and introducing unreacted synthesis gas into a respective subsequent stage of the serially arranged reactor stages; f) withdrawing unreacted synthesis gas from at least one of the reactor stages as a recycle gas stream for introduction of the recycle gas stream into the second compressor stage according to step c).
A base plate structure facilitating heat discharge of a heating coil, comprising: a circular base plate, wherein at least one or more hall effect sensors are disposed in a center sensor portion; one or more unit mounting groove portions, each of which is defined by a closed partition wall protruding from a lower side of the base plate, wherein the unit mounting groove portions are repeatedly disposed as an annulus with respect to the center sensor portion and a ferrite core is coupled to the unit mounting groove portions; one or more protrusion portions protruding from an upper side of the base plate such that the heating coil wound in the upper side of the base plate is spaced apart from the upper side of the base plate; and one or more heat discharge openings provided in a bottom side of the unit mounting groove portions. a circular base plate, wherein at least one or more hall effect sensors are disposed in a center sensor portion; one or more unit mounting groove portions, each of which is defined by a closed partition wall protruding from a lower side of the base plate, wherein the unit mounting groove portions are repeatedly disposed as an annulus with respect to the center sensor portion and a ferrite core is coupled to the unit mounting groove portions; one or more protrusion portions protruding from an upper side of the base plate such that the heating coil wound in the upper side of the base plate is spaced apart from the upper side of the base plate; and one or more heat discharge openings provided in a bottom side of the unit mounting groove portions.
A method for the thermocatalytic depolymerisation of plastic material; the method comprising: a step, during which the plastic material and a catalyst for the depolymerisation are placed in a reactor, which comprises at least one heating device; a depolymerisation step, during which the heating device supplies heat to the plastic material and at least part of the plastic material is at least partially depolymerised so as to obtain relatively low-boiling compounds; and an outlet step, during which at least part of the relatively low-boiling compounds leave the reactor; the reactor comprises at least one external wall (18; 19; 20) and a reaction chamber, which is at least partially delimited by the external wall (18; 19; 20) and inside which, during the depolymerisation step, the plastic material and the catalyst are placed; the method being characterised in that the heating device comprises at least one first heating element (34; 34a) positioned inside the reaction chamber; during the depolymerisation step, the first heating element (34; 34a) is kept in movement so as to modify its position inside the reaction chamber; the method further comprising an electricity production step, which is subsequent to the outlet step and during which at least part of the relatively low-boiling compounds that have come out of the reactor are combusted for the production of electricity; the electricity produced is at least partially used by the heating device to heat the plastic material. a step, during which the plastic material and a catalyst for the depolymerisation are placed in a reactor, which comprises at least one heating device; a depolymerisation step, during which the heating device supplies heat to the plastic material and at least part of the plastic material is at least partially depolymerised so as to obtain relatively low-boiling compounds; and an outlet step, during which at least part of the relatively low-boiling compounds leave the reactor; the reactor comprises at least one external wall (18; 19; 20) and a reaction chamber, which is at least partially delimited by the external wall (18; 19; 20) and inside which, during the depolymerisation step, the plastic material and the catalyst are placed; the method being characterised in that the heating device comprises at least one first heating element (34; 34a) positioned inside the reaction chamber; during the depolymerisation step, the first heating element (34; 34a) is kept in movement so as to modify its position inside the reaction chamber; the method further comprising an electricity production step, which is subsequent to the outlet step and during which at least part of the relatively low-boiling compounds that have come out of the reactor are combusted for the production of electricity; the electricity produced is at least partially used by the heating device to heat the plastic material.
A clamp comprising: a first arcuate portion; a second arcuate portion connected to the first arcuate portion via a hinge; and a ratchet mechanism for locking the first and second arcuate portions in a closed position; wherein the first and second arcuate portions each comprise a circumferential groove (16a, 16b) which tapers in a radial direction from an opening of the groove to a base of the groove; and wherein the groove of one of the first and second arcuate portions has an angular extent which exceeds 180 degrees; characterised in that said groove with angular extent exceeding 180 degrees has an opening with a width which is narrower at opposing ends of the groove than at a position partway between the ends. a first arcuate portion; a second arcuate portion connected to the first arcuate portion via a hinge; and a ratchet mechanism for locking the first and second arcuate portions in a closed position; wherein the first and second arcuate portions each comprise a circumferential groove (16a, 16b) which tapers in a radial direction from an opening of the groove to a base of the groove; and wherein the groove of one of the first and second arcuate portions has an angular extent which exceeds 180 degrees; characterised in that said groove with angular extent exceeding 180 degrees has an opening with a width which is narrower at opposing ends of the groove than at a position partway between the ends.
A mobile terminal, characterized in comprising: a flexible screen, at least two accelerometers, and a processing module; wherein the at least two accelerometers are located at different locations on the flexible screen, and each of the at least two accelerometers is connected to the processing module; the at least two accelerometers are configured to detect accelerations of the flexible screen; and the processing module is configured to calculate a bending angle of the flexible screen based on the accelerations detected by the at least two accelerometers, wherein the bending angle indicates how much the flexible screen is bent, wherein the at least two accelerometers comprises a first accelerometer and a second accelerometer, and configured to detect acceleration components in a specified direction of the flexible screen comprising an X-axis direction, a Y-axis direction and a Z-axis direction, the processing module is configured to calculate, based on acceleration components detected by the first accelerometer and the second accelerometer, the bending angle of the flexible screen by using the following formula: γ = | arccos z 2 x 2 2 + y 2 2 + z 2 2 − arccos z 1 x 1 2 + y 1 2 + z 1 2 |; wherein γ represents the bending angle of the flexible screen; x1, y1 and z1 each represent a corresponding acceleration component in X-axis direction, in Y-axis direction, and in Z-axis direction detected by the first accelerometer, and x2, y2 and z2 each represent a corresponding acceleration component in X-axis direction, in Y-axis direction and in Z-axis direction detected by the second accelerometer. a flexible screen, at least two accelerometers, and a processing module; wherein the at least two accelerometers are located at different locations on the flexible screen, and each of the at least two accelerometers is connected to the processing module; the at least two accelerometers are configured to detect accelerations of the flexible screen; and the processing module is configured to calculate a bending angle of the flexible screen based on the accelerations detected by the at least two accelerometers, wherein the bending angle indicates how much the flexible screen is bent, wherein the at least two accelerometers comprises a first accelerometer and a second accelerometer, and configured to detect acceleration components in a specified direction of the flexible screen comprising an X-axis direction, a Y-axis direction and a Z-axis direction, the processing module is configured to calculate, based on acceleration components detected by the first accelerometer and the second accelerometer, the bending angle of the flexible screen by using the following formula: γ = | arccos z 2 x 2 2 + y 2 2 + z 2 2 − arccos z 1 x 1 2 + y 1 2 + z 1 2 |; wherein γ represents the bending angle of the flexible screen; x1, y1 and z1 each represent a corresponding acceleration component in X-axis direction, in Y-axis direction, and in Z-axis direction detected by the first accelerometer, and x2, y2 and z2 each represent a corresponding acceleration component in X-axis direction, in Y-axis direction and in Z-axis direction detected by the second accelerometer.
A method for manufacturing a dual-interface integrated circuit card component, the method comprising: obtaining a prefabricated single-sided contact base structure (450, 650, 850), wherein the single-sided contact base structure (450, 650, 850) comprises a substrate with an electrical contact layer; applying an adhesive material (106, 610) to the substrate on a side opposite to the contact layer of the single-sided contact base structure (450, 650, 850), obtaining antenna contact leads from a sheet of conductive material, and attaching at least one antenna contact lead to the adhesive material of the single-sided contact base structure (450, 650, 850) to form a dual-interface contact structure (250, 450, 650, 850), which is a component of a dual-interface IC card. obtaining a prefabricated single-sided contact base structure (450, 650, 850), wherein the single-sided contact base structure (450, 650, 850) comprises a substrate with an electrical contact layer; applying an adhesive material (106, 610) to the substrate on a side opposite to the contact layer of the single-sided contact base structure (450, 650, 850), obtaining antenna contact leads from a sheet of conductive material, and attaching at least one antenna contact lead to the adhesive material of the single-sided contact base structure (450, 650, 850) to form a dual-interface contact structure (250, 450, 650, 850), which is a component of a dual-interface IC card.
Cleanroom (2, 2') comprising an infrared surface heating, characterized in that the infrared surface heating is installed in an inspection door, which is integrated flush with the adjacent areas in a ceiling of the cleanroom (2, 2'), wherein the door leaf of the inspection door is formed as a thermally conductive radiant panel, on whose inner plate surface averted from the interior of the cleanroom (2, 2') when installed, a radiant heating system is provided, wherein an outer door surface of the radiant panel is flush with a ceiling surface of the ceiling of the cleanroom (2, 2'); on the side of the radiant panel, when installed, averted from the interior of the cleanroom (2, 2'), above the radiant heating system, an insulation being heat-resistant up to at least 150 °C is provided; the inspection door, when the inspection door is installed, comprises an disinfectant-resistant outer door surface directed to the interior of the cleanroom (2, 2'); and the infrared surface heating comprises at least one safety thermostat.
A tower for a wind turbine generator comprising a door opening, wherein, as seen from a radial direction of the tower, an upper rim part of the door opening has a curvature radius larger than a half of a width of the opening in at least a part of a first section (12U 1) between an intersection P and an intersection Q and in at least a part of a second section (12U 2) between an intersection R and an intersection S, where the upper rim part is a part of a rim of the door opening which is above a center of the door opening in a height direction of the tower, the intersection P is an intersection of the upper rim part and a straight line (L 15) passing through a central position in both width and height directions of the opening and forming an angle of 15 degrees with a vertical line (Lo) passing through the central position, the intersection Q is an intersection of the upper rim part and a straight line (L 60) passing through the central position and forming an angle of 60 degrees with the vertical line (L 0) passing through the central position, the intersection R is an intersection of the upper rim part and a straight line (L- 15) passing through the central position and forming an angle of minus 15 degrees with the vertical line (L 0) passing through the central position, and the intersection S is an intersection of the upper rim part and a straight line (L -60) passing through the central position and forming an angle of minus 60 degrees with the vertical line (L 0) passing through the central position, characterized in that a thickness of the upper rim part in the at least one part of the first section (12U 1) is larger than a thickness of the upper rim part at the intersection V of the upper rim part and the vertical line (L 0) passing through the central position, and a thickness of the upper rim part in the at least one part of the second section (12U 2) is larger than the thickness of the upper rim part at the intersection V of the upper rim part and the vertical line (L 0) passing through the central position.
A method performed by a gateway, for establishing a network connection, wherein the method comprises: establishing a user plane connection to a terminal, wherein the terminal accesses a first wireless local area network, WLAN; receiving, by using the established user plane connection, a connection selection request sent by the terminal, wherein the connection selection request comprises connection selection information; wherein the receiving includes: sending, to the terminal by using the established user plane connection, connection information that includes selectable connection selection information, and receiving, by using the established user plane connection, the connection selection request sent by the terminal according to the connection information; establishing, according to the connection selection request, a connection selection context corresponding to the terminal, wherein the connection selection context comprises at least an identifier of the terminal, a service network selected by the terminal, and the connection information; storing the connection selection context within preset validity duration; determining, according to the connection selection information in the connection selection request, the service network selected by the terminal; and establishing a connection between the terminal and the service network selected by the terminal. establishing a user plane connection to a terminal, wherein the terminal accesses a first wireless local area network, WLAN; receiving, by using the established user plane connection, a connection selection request sent by the terminal, wherein the connection selection request comprises connection selection information; wherein the receiving includes: sending, to the terminal by using the established user plane connection, connection information that includes selectable connection selection information, and receiving, by using the established user plane connection, the connection selection request sent by the terminal according to the connection information; establishing, according to the connection selection request, a connection selection context corresponding to the terminal, wherein the connection selection context comprises at least an identifier of the terminal, a service network selected by the terminal, and the connection information; storing the connection selection context within preset validity duration; determining, according to the connection selection information in the connection selection request, the service network selected by the terminal; and establishing a connection between the terminal and the service network selected by the terminal.
An optical unit (10, 60, 80), comprising: a plurality of light sources (22, 74) that is arranged such that light emitting surfaces are separate from each other; a plurality of first lenses that is provided respectively corresponding to each of the plurality of light sources (22, 74), each of the plurality of first lenses condensing light radiated from the corresponding light source (22, 74) so as to form a plurality of light source images lined up in a row with edge portions of the light source images contacting each other on a predetermined virtual plane, and a second lens that projects a projection image of the plurality of light source images forward of a lamp; wherein each of the plurality of first lenses, at a contact edge portion that contacts an adjacent light source image among the edge portions of the light source images formed, condenses light radiated from an edge portion that is opposite the contact edge portion with an optical axis (X1, X2) of the first lens interposed therebetween among edge portions of the light emitting surface (22a, 74a) of the corresponding light source (22, 74), characterized in that the second lens is formed such that a rear focal plane is a curved plane, the plurality of light sources is arranged such that the light emitting surface is positioned on a first virtual curved plane that is parallel to the rear focal plane, and the plurality of first lenses is arranged between the rear focal plane and the first virtual curved plane on a second virtual curved plane that is parallel to the rear focal plane. a plurality of light sources (22, 74) that is arranged such that light emitting surfaces are separate from each other; a plurality of first lenses that is provided respectively corresponding to each of the plurality of light sources (22, 74), each of the plurality of first lenses condensing light radiated from the corresponding light source (22, 74) so as to form a plurality of light source images lined up in a row with edge portions of the light source images contacting each other on a predetermined virtual plane, and a second lens that projects a projection image of the plurality of light source images forward of a lamp; wherein each of the plurality of first lenses, at a contact edge portion that contacts an adjacent light source image among the edge portions of the light source images formed, condenses light radiated from an edge portion that is opposite the contact edge portion with an optical axis (X1, X2) of the first lens interposed therebetween among edge portions of the light emitting surface (22a, 74a) of the corresponding light source (22, 74), characterized in that the second lens is formed such that a rear focal plane is a curved plane, the plurality of light sources is arranged such that the light emitting surface is positioned on a first virtual curved plane that is parallel to the rear focal plane, and the plurality of first lenses is arranged between the rear focal plane and the first virtual curved plane on a second virtual curved plane that is parallel to the rear focal plane.
A system for treating a blood vessel including a blood vessel wall defining a blood vessel lumen, the blood vessel lumen being at least partially obstructed by an occlusion, the occlusion dividing the lumen into a proximal lumen segment and a distal lumen segment, the system comprising: an occlusion catheter comprising a balloon; the occlusion catheter defining an inflation lumen disposed in fluid communication with an interior of the balloon so that the balloon can be selectively inflated by injecting an inflation fluid through the inflation lumen; the balloon, when in an inflated state, being sized so as to occlude the blood vessel lumen to isolate a target volume defined by blood vessel tissues; the occlusion catheter defining an aspiration lumen disposed in fluid communication with a distal port positioned so that fluid can be withdrawn from the target volume and into the aspiration lumen, characterized in that: the system further comprises an orienting catheter including an orienting catheter shaft carrying an orienting element and a tracking element advanceable along the orienting catheter shaft; and in that: the occlusion catheter further comprises a coupling element (408; 406) configured to engage a complementary coupling element (406; 408) of the tracking element to form a connection there between. an occlusion catheter comprising a balloon; the occlusion catheter defining an inflation lumen disposed in fluid communication with an interior of the balloon so that the balloon can be selectively inflated by injecting an inflation fluid through the inflation lumen; the balloon, when in an inflated state, being sized so as to occlude the blood vessel lumen to isolate a target volume defined by blood vessel tissues; the occlusion catheter defining an aspiration lumen disposed in fluid communication with a distal port positioned so that fluid can be withdrawn from the target volume and into the aspiration lumen, characterized in that: the system further comprises an orienting catheter including an orienting catheter shaft carrying an orienting element and a tracking element advanceable along the orienting catheter shaft; and in that: the occlusion catheter further comprises a coupling element (408; 406) configured to engage a complementary coupling element (406; 408) of the tracking element to form a connection there between. the occlusion catheter further comprises a coupling element (408; 406) configured to engage a complementary coupling element (406; 408) of the tracking element to form a connection there between.