mhurhangee/ep-ind-claims huggingface dataset:
Air spring, for example for a motor vehicle, with a largely tubular air spring bellows, which consists of a fibre-reinforced elastomeric plastic and is formed in a single-convoluted, multi-convoluted or unconvoluted manner, wherein a first axial end of the air spring bellows is fastened on a first end plate and a second axial end of the air spring bellows is fastened on a second end plate, wherein the air spring bellows and the two end plates (48, 52) are formed rotationally symmetrical in relation to a longitudinal centre axis and enclose an interior space in a pressure-tight manner, and with an electronic sensor system integrated on the air spring, wherein an end plate is connected to an interface unit (60, 110, 140, 150) passing through it in a pressure-tight manner, wherein the interface unit (60, 110, 140, 150) has means for connecting a compressed-air line for conducting compressed air into and/or out of the interior space, and wherein the interface unit (60, 110, 140, 150) has means for receiving at least one electrical and/or optical line and also means for connecting at least one sensor in physical operative connection with the interior space of the air spring, characterized in that the interface unit (60, 110, 140, 150) is formed as a screw-in unit (80, 112, 142, 152), which can be screwed into a threaded bush formed in one of the end plates (48, 52), wherein the screw-in unit has at least one channel or channel portion for conducting compressed air that is aligned coaxially or parallel to the longitudinal centre axis of the air spring, wherein the channel or channel portion running coaxially or parallel to the longitudinal centre axis of the air spring within the screw-in unit is connected at its end on the interior space side to a channel portion running at least largely parallel to the end plate, wherein said channel portion merges radially into the interior space. the interface unit (60, 110, 140, 150) is formed as a screw-in unit (80, 112, 142, 152), which can be screwed into a threaded bush formed in one of the end plates (48, 52), wherein the screw-in unit has at least one channel or channel portion for conducting compressed air that is aligned coaxially or parallel to the longitudinal centre axis of the air spring, wherein the channel or channel portion running coaxially or parallel to the longitudinal centre axis of the air spring within the screw-in unit is connected at its end on the interior space side to a channel portion running at least largely parallel to the end plate, wherein said channel portion merges radially into the interior space.
An endovascular device comprising: an optical receiver (202, 312, 502, 604) that determines a location of an orifice of a branch vessel by receiving light from a light emitter positioned in the branch vessel or from a light emitter positioned on the optical receiver while the endovascular device is inside of a graft stent that is implanted in a main vessel and overlaps the orifice of the branch vessel, wherein the optical receiver comprises a plurality of optical detectors; a fenestration former (206, 506, 606) that forms a fenestration in a wall of the graft stent at the determined location of the orifice of the branch vessel; and a guidewire director (508, 608) that directs a guidewire through the fenestration; wherein the optical receiver comprises an array of the optical detectors arranged on a distal face of the endovascular device, and wherein the fenestration former and the guidewire director are positioned radially within the array of the optical detectors at the distal face. an optical receiver (202, 312, 502, 604) that determines a location of an orifice of a branch vessel by receiving light from a light emitter positioned in the branch vessel or from a light emitter positioned on the optical receiver while the endovascular device is inside of a graft stent that is implanted in a main vessel and overlaps the orifice of the branch vessel, wherein the optical receiver comprises a plurality of optical detectors; a fenestration former (206, 506, 606) that forms a fenestration in a wall of the graft stent at the determined location of the orifice of the branch vessel; and a guidewire director (508, 608) that directs a guidewire through the fenestration; wherein the optical receiver comprises an array of the optical detectors arranged on a distal face of the endovascular device, and wherein the fenestration former and the guidewire director are positioned radially within the array of the optical detectors at the distal face.
An expanding food storage container comprising: a base and a cover, said cover being formed of a dome and a support ring, wherein said support ring comprises a ring wall having an upper end and a lower end, and wherein a series of support threads is provided on said dome; and a tab is provided on said support ring; characterized in that: said tab is spaced and located to engage said series of support threads; and said tab and said series of threads are located so that rotation of said dome relative to said ring wall causes said series of threads to rotate relative to said tab and cause said dome to move longitudinally upward or downward with respect to said ring wall such that said cover may be moved from a collapsed configuration where said dome is mainly received in the support ring to an expanded configuration where the dome extends upward beyond the support ring. a base and a cover, said cover being formed of a dome and a support ring, wherein said support ring comprises a ring wall having an upper end and a lower end, and wherein a series of support threads is provided on said dome; and a tab is provided on said support ring; characterized in that: said tab is spaced and located to engage said series of support threads; and said tab and said series of threads are located so that rotation of said dome relative to said ring wall causes said series of threads to rotate relative to said tab and cause said dome to move longitudinally upward or downward with respect to said ring wall such that said cover may be moved from a collapsed configuration where said dome is mainly received in the support ring to an expanded configuration where the dome extends upward beyond the support ring. said tab is spaced and located to engage said series of support threads; and said tab and said series of threads are located so that rotation of said dome relative to said ring wall causes said series of threads to rotate relative to said tab and cause said dome to move longitudinally upward or downward with respect to said ring wall such that said cover may be moved from a collapsed configuration where said dome is mainly received in the support ring to an expanded configuration where the dome extends upward beyond the support ring.
A system for collecting a biological sample directly from the biological source comprising a container having at least one open end, a closure fitting on or in said at least one open end, a holding element connected to said closure, and a solid matrix on which said biological sample is deposited, wherein the solid matrix is held by the holding element, wherein the material of said solid matrix is at least partially transferable into a liquid or dissolved state in the presence of a chaotropic substance by increasing the temperature, wherein the container further comprises at least one chaotropic substance, and wherein the material of said solid matrix is agarose, wherein the agarose has a melting point below 65 °C. a closure fitting on or in said at least one open end, a holding element connected to said closure, and a solid matrix on which said biological sample is deposited,
An apparatus, comprising: a trolley having a drive assembly configured to movably suspend the trolley from a stationary track; a powered conductor coupled adjacent to and offset from the stationary track such that each of the drive assembly and the stationary track is disposed outside of the powered conductor, a portion of the trolley being in contact with at least one conductive surface of the powered conductor to electrically couple the trolley to the powered conductor, the portion of the trolley configured to move along the at least one conductive surface when the trolley is moved along the stationary track, a portion of the stationary track disposed between the powered conductor and at least one wheel of the drive assembly; an adjustable tether coupled to the trolley, the adjustable tether configured to actively support a patient; and a control system coupled to the trolley and at least operably coupled to the powered conductor. a trolley having a drive assembly configured to movably suspend the trolley from a stationary track; a powered conductor coupled adjacent to and offset from the stationary track such that each of the drive assembly and the stationary track is disposed outside of the powered conductor, a portion of the trolley being in contact with at least one conductive surface of the powered conductor to electrically couple the trolley to the powered conductor, the portion of the trolley configured to move along the at least one conductive surface when the trolley is moved along the stationary track, a portion of the stationary track disposed between the powered conductor and at least one wheel of the drive assembly; an adjustable tether coupled to the trolley, the adjustable tether configured to actively support a patient; and a control system coupled to the trolley and at least operably coupled to the powered conductor.
Energy converter for outputting electrical energy, the energy converter having at least one first converter cell module (70-1, 70-2) and at least one second converter cell module (80-1, 80-2), wherein the at least one first and the at least one second converter cell modules (70-1, 70-2; 80-1, 80-2) comprise at least one converter cell and one coupling unit (30, 50), wherein the at least one converter cell is connected between a first input (31, 51) and a second input (32, 52) of the coupling unit (30, 50) and the coupling unit (30, 50) is configured to connect the at least one converter cell between a first terminal (41, 61) of the converter cell module (70-1, 70-2; 80-1, 80-2) and a second terminal (42, 62) of the converter cell module (70-1, 70-2; 80-1, 80-2) in response to a first control signal, and to connect the first terminal (41, 61) to the second terminal (42, 62) in response to a second control signal, characterized in that the at least one converter cell of the at least one first converter cell module (70-1, 70-2) is connected in a first polarity between the first input (31, 51) and the second input (32, 52) of the coupling unit (30, 50) of the at least one first converter cell module (70-1, 70-2) and the at least one converter cell of the at least one second converter cell module (80-1, 80-2) is connected in a second polarity, which is opposite to the first polarity, between the first input (31, 51) and the second input (32, 52) of the coupling unit (30, 50) of the at least one second converter cell module (80-1, 80-2), wherein the energy converter is connected to an electric drive motor, wherein the energy converter having a control unit, which is configured to output the first control signal to the at least one first converter cell module (70-1, 70-2) and to output the second control signal to the at least one second converter cell module (80-1, 80-2) during a first period and to output, in a second period following the first period, the second control signal to the at least one first converter cell module (70-1, 70-2) and to output the first control signal to the at least one second converter cell module (80-1, 80-2), and thus to set an output voltage for the energy converter to have a first arithmetic sign during the first period and to have a second arithmetic sign, which is opposite to the first arithmetic sign, during the second period.
Packaging for films, particularly films for keeping foodstuffs fresh, comprising a container in which a film roll is arranged, wherein an end of the film web wound up on the film roll protrudes from an opening out of the container at a wall, wherein at least one adhesive means is provided by way of which the end of the film web is detachably fixable to an outer side of the container and wherein at least one tongue, which protrudes from a wall of the container and at the surface of which the adhesive means for detachable fixing of the end of the film web is provided, is formed at the outer side of the container, characterised in that a lacquer is provided as adhesive means.
A position-based service information prompting method for a shared vehicle, comprising: acquiring a user's travel event information when assuming that a user needs nearby service information, the user's travel event information comprising information of successful unlocking and/or successful locking of the shared vehicle or information that a travel speed is lower than a preset speed threshold, or information that the travel speed is lower than the preset speed threshold and the state sustains for a preset first time threshold, or information that a radius of a travel area is smaller than a preset radius threshold and the state sustains for a preset second time threshold, or information that the travel speed is lower than a preset ratio of a maximum travel speed and the state sustains for a preset third time threshold; acquiring a user's geographic position information corresponding to occurrence of the user's travel event information; if there is available position-based service information around a user's position, sending the information to an APP device for the shared vehicle; and prompting the service information around the user's position on a map interface of the APP device for the shared vehicle. acquiring a user's travel event information when assuming that a user needs nearby service information, the user's travel event information comprising information of successful unlocking and/or successful locking of the shared vehicle or information that a travel speed is lower than a preset speed threshold, or information that the travel speed is lower than the preset speed threshold and the state sustains for a preset first time threshold, or information that a radius of a travel area is smaller than a preset radius threshold and the state sustains for a preset second time threshold, or information that the travel speed is lower than a preset ratio of a maximum travel speed and the state sustains for a preset third time threshold; acquiring a user's geographic position information corresponding to occurrence of the user's travel event information; if there is available position-based service information around a user's position, sending the information to an APP device for the shared vehicle; and prompting the service information around the user's position on a map interface of the APP device for the shared vehicle.
A cold work tool made of steel having a composition consisting of, by mass: C: 1.30 to 2.40% Cr: 8.0 to 15.0% Mo and W alone or in combination in an amount of (Mo + 1/2 W): 0.50 to 3.00% V: 0.10 to 1.50% Si: not more than 2.00% Mn: not more than 1.50% P: not more than 0.050% S: not more than 0.0500% optionally Ni: 0 to 1.00% optionally Nb: 0 to 1.50%, and the balance of Fe and impurities, and having a martensitic structure, wherein the tool has a hardness of not lower than 58 HRC, characterized in that an area ratio of carbides having a circle equivalent diameter of not less than 5 μm in a cross-sectional structure of the tool is not lower than 4.0 area%, and wherein a carbon solid solution ratio is not less than 75.0%, where the carbon solid solution ratio is defined as a ratio, by mass, of an amount of carbon solid-soluted in the structure of the tool to a total amount of carbon included in the tool. C: 1.30 to 2.40% Cr: 8.0 to 15.0% Mo and W alone or in combination in an amount of (Mo + 1/2 W): 0.50 to 3.00% V: 0.10 to 1.50% Si: not more than 2.00% Mn: not more than 1.50% P: not more than 0.050% S: not more than 0.0500% optionally Ni: 0 to 1.00% optionally Nb: 0 to 1.50%, and the balance of Fe and impurities, and having a martensitic structure, wherein the tool has a hardness of not lower than 58 HRC, characterized in that an area ratio of carbides having a circle equivalent diameter of not less than 5 μm in a cross-sectional structure of the tool is not lower than 4.0 area%, and wherein a carbon solid solution ratio is not less than 75.0%, where the carbon solid solution ratio is defined as a ratio, by mass, of an amount of carbon solid-soluted in the structure of the tool to a total amount of carbon included in the tool.
A compound having the formula: wherein M is a metal having an atomic weight higher than 40; wherein L is a second ligand; wherein m is the maximum coordination number of the metal M; wherein d is the denticity of L; wherein n is at least 1; wherein R 1 is independently selected for each ligand and represents di, tri, tetra, or penta substitutions; wherein each of R 1 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein at least two of R 1 is independently selected from two to six carbon containing alkyl, silyl, germyl, cycloalkyl, and combinations thereof; wherein R 2 may represent mono, di, tri, tetra substitutions, or no substitution; and wherein each of R 2 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof. wherein M is a metal having an atomic weight higher than 40; wherein L is a second ligand; wherein m is the maximum coordination number of the metal M; wherein d is the denticity of L; wherein n is at least 1; wherein R 1 is independently selected for each ligand and represents di, tri, tetra, or penta substitutions; wherein each of R 1 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, germyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein at least two of R 1 is independently selected from two to six carbon containing alkyl, silyl, germyl, cycloalkyl, and combinations thereof; wherein R 2 may represent mono, di, tri, tetra substitutions, or no substitution; and wherein each of R 2 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof.
Process for the production of ethylene by oxidative dehydrogenation of ethane, comprising: a) subjecting a stream comprising ethane to oxidative dehydrogenation conditions, resulting in a stream comprising ethylene, unconverted ethane and light components; b) subjecting ethylene, unconverted ethane and light components from the stream resulting from step a) to distillation, resulting in a stream comprising ethylene and light components and a stream comprising unconverted ethane; c) optionally recycling unconverted ethane from the stream comprising unconverted ethane resulting from step b) to step a); and d) subjecting ethylene and light components from the stream comprising ethylene and light components resulting from step b) to distillation at a top column pressure which is higher than the top column pressure in step b), resulting in a stream comprising light components and a stream comprising ethylene. a) subjecting a stream comprising ethane to oxidative dehydrogenation conditions, resulting in a stream comprising ethylene, unconverted ethane and light components; b) subjecting ethylene, unconverted ethane and light components from the stream resulting from step a) to distillation, resulting in a stream comprising ethylene and light components and a stream comprising unconverted ethane; c) optionally recycling unconverted ethane from the stream comprising unconverted ethane resulting from step b) to step a); and d) subjecting ethylene and light components from the stream comprising ethylene and light components resulting from step b) to distillation at a top column pressure which is higher than the top column pressure in step b), resulting in a stream comprising light components and a stream comprising ethylene.
A protocol converter comprising: a first communicator connected to a first device that performs communication in a first protocol; a second communicator connected to at least one second device that performs communication in a second protocol; a controller configured to convert the first protocol and the second protocol with each other to control communication between the first device and the at least one second device, a database that stores data elements for each device transmitted from one or more devices, wherein when a predetermined program is executed, the controller is configured to search for state-changed data elements among data elements, stored in the database, of the at least one second device and performs a data access function based on a database query on the searched state-changed data elements to check changed values of the state-changed data elements, and a display unit that is arranged to display an object list including data elements of the at least one second device, wherein one or more interface modules (21, 22, 23, 24) of the second communicator have an attachable/detachable configuration. a first communicator connected to a first device that performs communication in a first protocol; a second communicator connected to at least one second device that performs communication in a second protocol; a controller configured to convert the first protocol and the second protocol with each other to control communication between the first device and the at least one second device, a database that stores data elements for each device transmitted from one or more devices, wherein when a predetermined program is executed, the controller is configured to search for state-changed data elements among data elements, stored in the database, of the at least one second device and performs a data access function based on a database query on the searched state-changed data elements to check changed values of the state-changed data elements, and a display unit that is arranged to display an object list including data elements of the at least one second device, wherein one or more interface modules (21, 22, 23, 24) of the second communicator have an attachable/detachable configuration.