mhurhangee/ep-ind-claims huggingface dataset:
Emulation system for simulating a technical system, wherein the technical system comprises two interacting technical components, and the emulation system comprises a first simulation application for simulating a first of the technical components and a second simulation application (120, 130) for simulating a second of the technical components, wherein the first and the second (120, 130) simulation application each have a communication interface (112, 122, 132) for exchanging messages and/or information with the respective other simulation application, and wherein the emulation system furthermore comprises a control application designed and configured for coordinating the first and second (120, 130) simulation applications, characterized in that the emulation system furthermore comprises a monitoring application, wherein the monitoring application has access to simulation data of the first simulation application and is designed and configured for testing an event condition concerning the first simulation application, wherein the monitoring application is furthermore designed and configured such that it transmits a first monitoring result to the control application only if the event condition is satisfied, and in that the control application is furthermore designed and configured for evaluating the first monitoring result.
Head-up display device, for displaying at least one image, characterized in that it comprises: - a projection means for generating a light beam charged with an image to be displayed; - a partially reflecting screen comprising at least one near display area and one far display area that are arranged to display said image in the field of vision of a user, - an active element having properties of being able to alternate between two states, one transparent and the other diffusing, the active element being arranged to receive the light beam from the projection means and transmit it alternately in transparency state to the near display area and in diffusing state to the far display area, - the near display area relates to an area of the partially reflecting screen comprising luminescent particles suitable for emitting a radiation of a wavelength in the visible range after absorption of the light beam, the far display area positioning a virtual image generated by the light diffused by the active element in diffusing state at a distance of at least one metre from the partially reflecting screen. - a projection means for generating a light beam charged with an image to be displayed; - a partially reflecting screen comprising at least one near display area and one far display area that are arranged to display said image in the field of vision of a user, - an active element having properties of being able to alternate between two states, one transparent and the other diffusing, the active element being arranged to receive the light beam from the projection means and transmit it alternately in transparency state to the near display area and in diffusing state to the far display area, - the near display area relates to an area of the partially reflecting screen comprising luminescent particles suitable for emitting a radiation of a wavelength in the visible range after absorption of the light beam, the far display area positioning a virtual image generated by the light diffused by the active element in diffusing state at a distance of at least one metre from the partially reflecting screen.
Electrical machine, - wherein the electrical machine has a stator and a rotor, - wherein the rotor is disposed on a rotor shaft able to be rotated about an axis of rotation, - wherein the stator, in relation to the axis of rotation, surrounds the rotor radially to the outside, - wherein the stator, in relation to the axis of rotation, is surrounded radially to the outside by a one-piece housing, characterised in that - the housing only extends over a part angular area (α), viewed about the axis or rotation so that, viewed about the axis of rotation, a remaining angular (β) area is left in which the stator is not surrounded by the housing and - wherein the housing has housing-side form-fit elements in end areas located at the ends of the part angular area (α), which interact with stator-side form-fit elements to make a form-fit between the housing and the stator. - wherein the electrical machine has a stator and a rotor, - wherein the rotor is disposed on a rotor shaft able to be rotated about an axis of rotation, - wherein the stator, in relation to the axis of rotation, surrounds the rotor radially to the outside, - wherein the stator, in relation to the axis of rotation, is surrounded radially to the outside by a one-piece housing, - the housing only extends over a part angular area (α), viewed about the axis or rotation so that, viewed about the axis of rotation, a remaining angular (β) area is left in which the stator is not surrounded by the housing and - wherein the housing has housing-side form-fit elements in end areas located at the ends of the part angular area (α), which interact with stator-side form-fit elements to make a form-fit between the housing and the stator.
A tool container for receiving tools with a cuboid-shaped container body, which has a cover wall, a bottom wall, a front wall, a rear wall as well as two side walls (9, 10), wherein a cover is provided, which is divided by hinges into surface sections (13 - 18), wherein the surface sections (14 - 18) are foldable around the hinges and the surface sections (13 - 18) form at least areas of the cover wall, the bottom wall as well as the front wall and the rear wall, characterised in that each side wall (9, 10) has an upper side wall part and a lower side wall part, wherein the upper side wall part is disposed on the edge side of the surface section (16, 17) forming the cover wall and the lower side wall part is disposed on the edge side of the surface section forming the bottom wall, and the cover wall together with the upper side wall parts form the cover part and the bottom wall together with the lower side wall parts form a bottom part, and wherein a support receptacle is provided on each lower side wall part, into which an upper side wall part is insertable with a coupling element, such that the cover part is positionable at an angle relative to the bottom part.
A process for dechlorination of a hydrocarbon stream precursor and/or a hydrocarbon stream obtained from such precursor, the process comprising introducing the hydrocarbon stream and/or hydrocarbon stream precursor, a first zeolitic catalyst, and a stripping gas to a devolatilization extruder to produce an extruder effluent, wherein the hydrocarbon stream and/or hydrocarbon stream precursor comprises one or more chloride compounds in an amount of equal to or greater than about 10 ppm chloride, based on the total weight of the hydrocarbon stream and/or hydrocarbon stream precursor, and wherein the extruder effluent comprises one or more chloride compounds in an amount of less than the chloride amount in the hydrocarbon stream and/or hydrocarbon stream precursor, and (i) recovering a spent stripping gas from the DE, wherein the spent stripping gas comprises at least a portion of the stripping gas, and one or more chloride compounds, wherein one or more chloride compounds comprise at least a portion of the chloride of the hydrocarbon stream and/or hydrocarbon stream precursor; (ii) contacting at least a portion of the spent stripping gas with a caustic solution to remove a first portion of the chloride from the spent stripping gas and to produce a treated spent stripping gas; (iii) contacting at least a portion of the treated spent stripping gas with a chloride adsorber to remove a second portion of the chloride from the treated spent stripping gas to produce a treated gaseous stream; and (iv) recycling at least a portion of the treated gaseous stream as stripping gas to the DE, wherein the hydrocarbon stream precursor comprises a mixed plastic waste, wherein the stripping gas comprises nitrogen, hydrogen, argon, helium, C 1 -C 4 gas hydrocarbons, alkanes, methane, ethane, propane, butane, isobutane, or combinations thereof, and wherein the first zeolitic catalyst is present in an amount of less than about 5 wt.%, based on the total weight of the hydrocarbon stream and/or hydrocarbon stream precursor.
3D-printing method for manufacturing a fiber reinforced composite component using the 3D printer of claim 7, the method comprising: preforming with the secondary print head a print bed on the print table using an additive manufacturing or 3D printing technique; supplying the spread tow tape containing a plurality of reinforcing fibers from a tape supply (3, 3') to the merging station; supplying a plurality of matrix material filaments from the multi-filament supply to the merging station; pressing together the plurality of matrix material filaments with the spread tow tape at the merging station; heating the spread tow tape together with the plurality of matrix material filaments at the merging station to a melting temperature of the matrix material filaments to form an impregnated fiber ply; and depositing with the primary print head the impregnated fiber ply in composite layers onto the print bed to form the fiber reinforced composite component. preforming with the secondary print head a print bed on the print table using an additive manufacturing or 3D printing technique; supplying the spread tow tape containing a plurality of reinforcing fibers from a tape supply (3, 3') to the merging station; supplying a plurality of matrix material filaments from the multi-filament supply to the merging station; pressing together the plurality of matrix material filaments with the spread tow tape at the merging station; heating the spread tow tape together with the plurality of matrix material filaments at the merging station to a melting temperature of the matrix material filaments to form an impregnated fiber ply; and depositing with the primary print head the impregnated fiber ply in composite layers onto the print bed to form the fiber reinforced composite component.
A system comprising: at least a first node or subnet device configured to be commanded by a controller; a first controller configured to control operation of the first node and interface with a host outside of the system; and a second controller identical to the first controller configured to be a child to the first controller and be a parent to a second node or subnet device; characterised in that: the first controller and the second controller each include two switches (120, 122) configured to toggle each controller from a parent role and a child role; wherein a first switch of the two switches is configured to move between a first position and a second position, wherein the first switch in the first position is adapted to enable the first controller to be parent to the second controller and a third controller, the second switch being in-line with the first switch, wherein the first controller and the second controller each include: a first transceiver connected to a serial communication line configured to communicate with an external host; and a second transceiver in line with the second switch. at least a first node or subnet device configured to be commanded by a controller; a first controller configured to control operation of the first node and interface with a host outside of the system; and a second controller identical to the first controller configured to be a child to the first controller and be a parent to a second node or subnet device; characterised in that: the first controller and the second controller each include two switches (120, 122) configured to toggle each controller from a parent role and a child role; wherein a first switch of the two switches is configured to move between a first position and a second position, wherein the first switch in the first position is adapted to enable the first controller to be parent to the second controller and a third controller, the second switch being in-line with the first switch, wherein the first controller and the second controller each include: a first transceiver connected to a serial communication line configured to communicate with an external host; and a second transceiver in line with the second switch. the first controller and the second controller each include two switches (120, 122) configured to toggle each controller from a parent role and a child role; wherein a first switch of the two switches is configured to move between a first position and a second position, wherein the first switch in the first position is adapted to enable the first controller to be parent to the second controller and a third controller, the second switch being in-line with the first switch, wherein the first controller and the second controller each include: a first transceiver connected to a serial communication line configured to communicate with an external host; and a second transceiver in line with the second switch. a first transceiver connected to a serial communication line configured to communicate with an external host; and a second transceiver in line with the second switch.
Motor device for an electric bicycle, - wherein the motor device comprises an electric motor having an axis of rotation, - wherein the motor device comprises a first connector unit having a first motor connector and a first connecting part which surrounds the first motor connector regionally and outwardly, - wherein the first motor connector and the first connecting part are rigidly fixed to each other, - wherein the first connector unit is electrically conductively connected to the electric motor via the first motor connector, - wherein the motor device comprises a second connector unit having a second motor connector and having a second connecting part, - wherein an electrical conductive connection can be established and released directly between the first motor connector and the second motor connector, - wherein between the first connecting part and the second connecting part a form-fitted connection transversely to the axis of rotation can be established and released, and - wherein, when the form-fitted connection between the connecting parts (10a, 10b) is established and released, the electrical conductive connection between the motor connectors (11a, 11b) can be established and released, characterized in that the first connector unit is rigidly fixed to the electric motor. - wherein the motor device comprises an electric motor having an axis of rotation, - wherein the motor device comprises a first connector unit having a first motor connector and a first connecting part which surrounds the first motor connector regionally and outwardly, - wherein the first motor connector and the first connecting part are rigidly fixed to each other, - wherein the first connector unit is electrically conductively connected to the electric motor via the first motor connector, - wherein the motor device comprises a second connector unit having a second motor connector and having a second connecting part, - wherein an electrical conductive connection can be established and released directly between the first motor connector and the second motor connector, - wherein between the first connecting part and the second connecting part a form-fitted connection transversely to the axis of rotation can be established and released, and - wherein, when the form-fitted connection between the connecting parts (10a, 10b) is established and released, the electrical conductive connection between the motor connectors (11a, 11b) can be established and released, characterized in that the first connector unit is rigidly fixed to the electric motor.
A metal surface treatment method wherein the surface is simultaneously bombarded with a mixture of abrasive particles (4, 24) and dopant particles (6, 26); wherein the dopant is a polymer and the abrasive has an average particle size in the range of 5-1500 microns, characterised in that the abrasive particles (4, 24) and dopant particles (6, 26) are delivered at a velocity in the range of 50-250 m/sec, thereby depositing the dopant materia on the surface. wherein the dopant is a polymer and the abrasive has an average particle size in the range of 5-1500 microns, characterised in that the abrasive particles (4, 24) and dopant particles (6, 26) are delivered at a velocity in the range of 50-250 m/sec, thereby depositing the dopant materia on the surface.
A printing apparatus comprising: a printing unit configured to perform printing on a medium; a transport belt configured to rotationally move to transport the medium in a transport direction; a scale portion which is provided along the transport direction; a measuring unit configured to measure a relative moving amount with respect to the scale portion; a holding unit which is configured to move integrally with the scale portion or the measuring unit and in which a state thereof is changeable between a holding state of holding the transport belt and moving along with the transport belt and an unholding state of not holding the transport belt; and a switching unit configured to switch the state of the holding unit between the holding state and the unholding state, characterized in that at least a part of the holding unit is configured with an elastic member, wherein the switching unit is configured to switch the state of the holding unit between the holding state and the unholding state using elasticity of the elastic member, wherein the switching unit includes an electromagnet, and wherein the holding unit includes a ferromagnetic material and the state thereof is changed from or to the unholding state to or from the holding state by magnetic force generated in a case where current flows in the electromagnet. a printing unit configured to perform printing on a medium; a transport belt configured to rotationally move to transport the medium in a transport direction; a scale portion which is provided along the transport direction; a measuring unit configured to measure a relative moving amount with respect to the scale portion; a holding unit which is configured to move integrally with the scale portion or the measuring unit and in which a state thereof is changeable between a holding state of holding the transport belt and moving along with the transport belt and an unholding state of not holding the transport belt; and a switching unit configured to switch the state of the holding unit between the holding state and the unholding state, characterized in that at least a part of the holding unit is configured with an elastic member, wherein the switching unit is configured to switch the state of the holding unit between the holding state and the unholding state using elasticity of the elastic member, wherein the switching unit includes an electromagnet, and wherein the holding unit includes a ferromagnetic material and the state thereof is changed from or to the unholding state to or from the holding state by magnetic force generated in a case where current flows in the electromagnet.
A method for producing N-terminally truncated HPV 11 L1 protein with exactly 3, 4, 5 or 6 amino acids truncated at the N-terminal as compared to wild type HPV 11 L1 protein capable of assembling into virus-like particles (VLPs), comprising: a) expressing a HPV 11 L1 gene encoding the N-terminally truncated HPV 11 L1 protein in an E. coli expression system; b) disrupting the E. coli, which has expressed the N-terminally truncated HPV 11 L1 protein, in a solution at a salt concentration of from 100 mM to 600 mM, and isolating the supernatant; c) decreasing the salt concentration of the supernatant of b) to from 100 mM to 0, inclusive, by using water or a low salt solution, and collecting a precipitate; d) redissolving the precipitation of c) in a solution at a salt concentration of from 150 mM to 2500 mM, adding a reductant to it, and then isolating the resultant solution, wherein the solution contains the N-terminally truncated HPV 11 L1 protein with a purity of at least 50%. a) expressing a HPV 11 L1 gene encoding the N-terminally truncated HPV 11 L1 protein in an E. coli expression system; b) disrupting the E. coli, which has expressed the N-terminally truncated HPV 11 L1 protein, in a solution at a salt concentration of from 100 mM to 600 mM, and isolating the supernatant; c) decreasing the salt concentration of the supernatant of b) to from 100 mM to 0, inclusive, by using water or a low salt solution, and collecting a precipitate; d) redissolving the precipitation of c) in a solution at a salt concentration of from 150 mM to 2500 mM, adding a reductant to it, and then isolating the resultant solution, wherein the solution contains the N-terminally truncated HPV 11 L1 protein with a purity of at least 50%.
A stator module of a linear transport system, comprising a plurality of drive coils, wherein the drive coils may be energized and form part of a stator of a linear motor, wherein the stator module further comprises actuation electronics, wherein the drive coils may be actuated via the actuation electronics, wherein the actuation electronics comprises at least one actuation element, wherein the actuation element is set up to energize a number of drive coils, wherein the actuation element comprises a number of half bridges, wherein the half bridges each comprise a first half-bridge connection, a second half-bridge connection, and a half-bridge center, wherein the first half-bridge connections of the half bridges are connected to one another, wherein the second half-bridge connections of the half bridges are connected to one another, wherein the half bridges and the drive coils form a chain, wherein half-bridge centers and drive coils are alternately arranged within the chain, wherein at least one half-bridge center is connected to two drive coils, characterized in that the stator module further comprises a communication input, wherein the stator module is set up to receive data regarding the actuation of the drive coils via the communication input and to switch the half bridges of the actuation element according to the data, wherein the stator module further comprises a limiting controller, wherein the data comprise current setpoints or voltage setpoints for the drive coils, wherein the limiting controller is set up to change the current setpoints or voltage setpoints, respectively, in such a way that a sum of voltages of the drive coils of an actuation element does not exceed a maximum voltage, wherein the limiting controller is set up to calculate a cumulative sum of a time curve of the voltage to be applied to the drive coils of an actuation element, to determine a maximum value and a minimum value of the cumulative sum, to check whether a difference of the maximum value and the minimum value exceeds a design voltage, and in case the difference exceeds the design voltage, to reduce the voltage setpoints in such a manner that the difference no longer exceeds the design voltage when the calculation steps are repeated.