mhurhangee/ep-ind-claims huggingface dataset:
An electric machine comprising a cylindrical stator core with a longitudinal centre axis (Z1-Z1) and a frame surrounding the stator core, the stator core being attached to the frame only through four fastening points (P1, P2, P3, P4), two fastening points (P1, P2) being positioned at a first axial end of the stator core on opposite sides of the longitudinal centre axis (Z1-Z1) and two fastening points (P3, P4) being positioned at a second opposite axial end of the stator core on opposite sides of the longitudinal centre axis (Z1-Z1), the stator core being in contact with the frame only through the four fastening points (P1, P2, P3, P4), the four fastening points (P1, P2, P3, P4) being positioned in a horizontal plane (X1-X1), the stator core being provided with back beams extending in an axial direction between the axial ends of the stator core and being attached to an outer surface of the stator core, the attachment between the stator core and the frame being arranged, in each fastening point (P1, P2, P3, P4), with a bolt extending in the horizontal direction transversely in relation to the longitudinal centre axis (Z1-Z1) from the frame to the back beam. the stator core being attached to the frame only through four fastening points (P1, P2, P3, P4), two fastening points (P1, P2) being positioned at a first axial end of the stator core on opposite sides of the longitudinal centre axis (Z1-Z1) and two fastening points (P3, P4) being positioned at a second opposite axial end of the stator core on opposite sides of the longitudinal centre axis (Z1-Z1), the stator core being in contact with the frame only through the four fastening points (P1, P2, P3, P4), the four fastening points (P1, P2, P3, P4) being positioned in a horizontal plane (X1-X1), the stator core being provided with back beams extending in an axial direction between the axial ends of the stator core and being attached to an outer surface of the stator core, the attachment between the stator core and the frame being arranged, in each fastening point (P1, P2, P3, P4), with a bolt extending in the horizontal direction transversely in relation to the longitudinal centre axis (Z1-Z1) from the frame to the back beam.
Valve having a valve housing and a shut-off element, the valve housing comprising a cavity for receiving the shut-off element an inlet opening for inflow of a fluid into the cavity and an outlet opening for outflow of the fluid from the cavity, the shut-off element comprising a guide body and being arranged in a linearly movable manner at least partially in the cavity of the valve housing between the inlet opening and the outlet opening, the shut-off element having at least one recess for flow of the fluid from the inlet opening via the recess to the outlet opening, characterised in that the shut-off element has a further recess for flow of the fluid from the inlet opening via the further recess to the outlet opening, and the further recess is a prism-shaped aperture in the guide body of the shut-off element, the valve housing having a further outlet opening and the further outlet opening, in one position of the shut-off element, being fluidically connectable to the inlet opening via the further recess.
A semiconductor device comprising: an anode; a cathode; a first functional layer between the anode and the cathode; and a second functional layer between the first functional layer and the cathode, wherein the first functional layer contains a first quantum dot having a first ligand having a thiol group, and the second functional layer contains a second quantum dot having a second ligand different from the first ligand, and wherein the second ligand is an aromatic compound having a thiol group and a carboxy group. an anode; a cathode; a first functional layer between the anode and the cathode; and a second functional layer between the first functional layer and the cathode, wherein the first functional layer contains a first quantum dot having a first ligand having a thiol group, and the second functional layer contains a second quantum dot having a second ligand different from the first ligand, and wherein the second ligand is an aromatic compound having a thiol group and a carboxy group.
Assembly of at least one galvanic cell and at least two frame elements, wherein a galvanic cell is arranged between each two frame elements, wherein the assembly forms a stack and has a tensioning means which braces the assembly in the stacking direction, wherein the galvanic cell has a flat main body and at least two current conductors, wherein the main body has two flat sides and peripheral narrow sides; wherein each frame element has a plurality of, preferably four, beams connected to each other in a closed configuration which define a free space between them; wherein the main body of the galvanic cell is received in the free space of two adjacent frame elements; and wherein at least in the region of the narrow sides of the main body, beyond an edge at which the narrow sides transition into a flat side of the galvanic cell, the cross-sections of portions of the frame elements that face towards the free space are designed to follow the contour of the main body of the galvanic cell.
A solid fuel burner comprising: a fuel nozzle for jetting a fluid mixture of a solid fuel and its carrier gas having an oxygen concentration lower than that of air; and at least one nozzle (13, 14), arranged outside the fuel nozzle, for jetting oxygen-containing combustion gas; wherein at least one additional nozzle is provided in such a way as to project from an outside partition of said fuel nozzle into said fuel nozzle in a direction towards the central axis of said fuel nozzle, wherein the at least one additional nozzle has outlets for jetting oxygen-containing combustion gas into the fuel nozzle; and characterized in that at least one outlet of said outlets is formed so that oxygen-containing combustion gas is jetted therefrom in the circumferential direction of said fuel nozzle. a fuel nozzle for jetting a fluid mixture of a solid fuel and its carrier gas having an oxygen concentration lower than that of air; and at least one nozzle (13, 14), arranged outside the fuel nozzle, for jetting oxygen-containing combustion gas; wherein at least one additional nozzle is provided in such a way as to project from an outside partition of said fuel nozzle into said fuel nozzle in a direction towards the central axis of said fuel nozzle, wherein the at least one additional nozzle has outlets for jetting oxygen-containing combustion gas into the fuel nozzle; and characterized in that at least one outlet of said outlets is formed so that oxygen-containing combustion gas is jetted therefrom in the circumferential direction of said fuel nozzle.
Transport device for transporting a bag section between individual stations of a bag filling system, comprising a first gripping device for transport from a bottom seam station to a bottom seam cooling station, a second gripping device for transport from the bottom seam cooling station to a filling station, and a third gripping device for transport from the filling station to a top seam station, characterized in that an additional gripping device is arranged to transport the bag section from the top seam station to a top seam cooling station, wherein the gripping position in the top seam station and the release position in the top seam cooling station are arranged at the same level, wherein the individual gripping devices (20, 30, 40) are designed as pendulum devices, which are guided along a curved path between the respective gripping position (G20, G30, G40, G50) and the respective release position (L20, L30, L40, L50).
Power converter cabinet, comprising: a cabinet housing comprising a first aperture for receiving a stream of cooling air, and comprising a second aperture for releasing the stream of cooling air thereafter in an operating state of the cabinet; at least two power converter modules, each module comprising a guiding structure for guiding the cooling air with an inlet and an outlet for guiding the cooling air through each module; wherein the at least two power converter modules are arranged in the cabinet housing such that a major portion of the stream of cooling air flowing through the first aperture of said cabinet housing is divided into partial streams of cooling air, at least some of the partial streams being enabled to flow into their dedicated module via the inlet through the dedicated module to the outlet of the dedicated module respectively such that at least two of the partial streams of cooling air are connected in parallel to one another and thereafter leave the cabinet together through the second aperture of the cabinet housing in an operating state of the cabinet; wherein at least two of said at least two power converter modules comprise each a thermosiphon cooler housed within the guiding structure, which thermosiphon cooler comprises an evaporator for receiving a first heat load generated by at least one electric and/or electronic component (202, 610) of each module in an operating state of each module, and which thermosiphon cooler comprises a condenser for transferring a majority of said first heat load to said stream of cooling air in an operating state of the cabinet. a cabinet housing comprising a first aperture for receiving a stream of cooling air, and comprising a second aperture for releasing the stream of cooling air thereafter in an operating state of the cabinet; at least two power converter modules, each module comprising a guiding structure for guiding the cooling air with an inlet and an outlet for guiding the cooling air through each module; wherein the at least two power converter modules are arranged in the cabinet housing such that a major portion of the stream of cooling air flowing through the first aperture of said cabinet housing is divided into partial streams of cooling air, at least some of the partial streams being enabled to flow into their dedicated module via the inlet through the dedicated module to the outlet of the dedicated module respectively such that at least two of the partial streams of cooling air are connected in parallel to one another and thereafter leave the cabinet together through the second aperture of the cabinet housing in an operating state of the cabinet; wherein at least two of said at least two power converter modules comprise each a thermosiphon cooler housed within the guiding structure, which thermosiphon cooler comprises an evaporator for receiving a first heat load generated by at least one electric and/or electronic component (202, 610) of each module in an operating state of each module, and which thermosiphon cooler comprises a condenser for transferring a majority of said first heat load to said stream of cooling air in an operating state of the cabinet.
A method for monitoring a piston dosing device including - a base element, - in which a piston cylinder is configured in which a dosing piston is movable in a linear manner, - an inlet conduit and an outlet conduit which lead into the dosing cylinder, - an inlet valve in the inlet conduit and an outlet valve in the outlet conduit, - respectively including a closure element, - wherein the valves (15, 16) are configured as compressed air controlled membrane valves in which the closure element loads a closing membrane, characterized in that - a position of the closure element is detected at least for the inlet valve, in particular also for the outlet valve, - an alarm is put out when nominal values of the closed position are not reached, - a variation of an actual position of the closure element in the closed position is determined over numerous dosing processes and compared with a predetermined maximum permissible thickness wear value of the closure membrane and when the maximum permissible thickness wear value is exceeded, a change instruction for the closure membrane is put out to the operator. - a base element, - in which a piston cylinder is configured in which a dosing piston is movable in a linear manner, - an inlet conduit and an outlet conduit which lead into the dosing cylinder, - an inlet valve in the inlet conduit and an outlet valve in the outlet conduit, - respectively including a closure element, - wherein the valves (15, 16) are configured as compressed air controlled membrane valves in which the closure element loads a closing membrane, - a position of the closure element is detected at least for the inlet valve, in particular also for the outlet valve, - an alarm is put out when nominal values of the closed position are not reached, - a variation of an actual position of the closure element in the closed position is determined over numerous dosing processes and compared with a predetermined maximum permissible thickness wear value of the closure membrane and when the maximum permissible thickness wear value is exceeded, a change instruction for the closure membrane is put out to the operator.
Method for exhaust gas aftertreatment, comprising at least the steps of: a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator, c) simultaneously introducing a urea solution and a fuel into the catalytic evaporator, as a result of which a reducing agent is obtained, and d) supplying the reducing agent to an exhaust gas aftertreatment system, characterized in that an individual reducing agent is provided by changing the reactant streams raw exhaust gas, fuel and urea solution depending on the operating point in the engine map. a) providing a nitrogen oxide-containing raw exhaust gas, b) introducing the nitrogen oxide-containing raw exhaust gas into a catalytic evaporator, c) simultaneously introducing a urea solution and a fuel into the catalytic evaporator, as a result of which a reducing agent is obtained, and d) supplying the reducing agent to an exhaust gas aftertreatment system,
Neuroprosthetic system for monitoring and suppression of pathological tremor in a user via stimulation of the afferent pathways, characterized by comprising at least one wearable element configured to be located on an upper limb of the user, wherein the wearable element comprises: - At least one bioelectrical sensor that generates a bioelectrical characterization signal of the tremor; - At least one biomechanical sensor that generates a biomechanical characterization signal of the tremor; - A programmable electronic device comprising at least one control, acquisition and processing module for receiving and analyzing the bioelectrical and the biomechanical characterization signals, an electric signal generator for generating a signal of the afferent nerve stimulation based on the bioelectric and biomechanical characterization signals defined previously; - At least one EEG sensor configured to measure brain activity and generate an electroencephalography signal which characterizes intended voluntary movement of the user with the body part suffering from tremor and, - At least one transcutaneous stimulation electrode integrated in the wearable element that generates the neuromodulation of the afferent pathways. - At least one bioelectrical sensor that generates a bioelectrical characterization signal of the tremor; - At least one biomechanical sensor that generates a biomechanical characterization signal of the tremor; - A programmable electronic device comprising at least one control, acquisition and processing module for receiving and analyzing the bioelectrical and the biomechanical characterization signals, an electric signal generator for generating a signal of the afferent nerve stimulation based on the bioelectric and biomechanical characterization signals defined previously; - At least one EEG sensor configured to measure brain activity and generate an electroencephalography signal which characterizes intended voluntary movement of the user with the body part suffering from tremor and, - At least one transcutaneous stimulation electrode integrated in the wearable element that generates the neuromodulation of the afferent pathways.
Assembly tool for a bearing ring having rolling members, wherein the assembly tool has a ring which is configured to be disposed on a lateral face of the bearing ring, and sliding elements, wherein the ring has receptacles for the sliding elements, and wherein the sliding elements are distributed uniformly about the circumference of the ring and are configured to be displaced relative to the ring from an initial position to a terminal position, wherein the sliding elements in the terminal position are in each case furthermore configured to be disposed between two rolling members so as to delimit a radial mobility of the rolling members in relation to the bearing ring, wherein the sliding elements are displaceable at an angle in relation to the ring face such that the sliding elements in the terminal position thereof form the shape of a truncated cone, characterized in that the sliding elements are in each case composed of two pins that are connected to each other at least at one end.
Method of determining the effective output torque (MVab1, MVab2) at at least two output drives (32, 34) of a power divider transmission which is enclosed by a casing, characterised by the following steps: determining the deformation of the casing of the power divider transmission; determining the effective output torque (MVab1) of the first output drive with the help of a known functional correlationship on the basis of the determined deformation of the casing; and determining the effective output torque (MVab2) of the second output drive as a difference between the input torque (MVein) supplied to the power divider transmission and the effective output torque (MVab1) of the first output drive. determining the deformation of the casing of the power divider transmission; determining the effective output torque (MVab1) of the first output drive with the help of a known functional correlationship on the basis of the determined deformation of the casing; and determining the effective output torque (MVab2) of the second output drive as a difference between the input torque (MVein) supplied to the power divider transmission and the effective output torque (MVab1) of the first output drive.
A warning system comprising - at least one robot arm which provides press feeding, - at least one programmable logic controller which ensures that movements are stopped by giving a fault signal to control units, - at least one voltage input line which processes the signal data, - at least one voltage output line which processes the returned signal data and characterized by at least one inelastic brittle wire which makes the whole surface of the robot arm conductive by a winding on the robot arm in the form of a coil, wherein the PLC is connected to the ends of the wire via at least one voltage input line and at least one voltage output line respectively. - at least one robot arm which provides press feeding, - at least one programmable logic controller which ensures that movements are stopped by giving a fault signal to control units, - at least one voltage input line which processes the signal data, - at least one voltage output line which processes the returned signal data
An apparatus comprising means for performing: receiving a control message from at least one access node, the control message comprising a first clock value indicating a transmission time of the control message; determining a geographical location of the apparatus and a geographical location of the at least one access node; computing, on the basis of the geographical locations of the apparatus and the at least one access node and further on the basis of the first clock value, a second clock value indicating a reception time of the control message at the apparatus; and updating a clock of the apparatus by using the second clock value. receiving a control message from at least one access node, the control message comprising a first clock value indicating a transmission time of the control message; determining a geographical location of the apparatus and a geographical location of the at least one access node; computing, on the basis of the geographical locations of the apparatus and the at least one access node and further on the basis of the first clock value, a second clock value indicating a reception time of the control message at the apparatus; and updating a clock of the apparatus by using the second clock value.
A method for mass-energy conversion recycling of dephosphorization converter gas for diversified blowing so as to realize efficient dephosphorization, wherein, comprising: in a dephosphorization converter for duplex steelmaking, conducting cooling and dedusting on the gas emitted by the dephosphorization converter, then burning the gas by using a combustion improver to convert the CO component in the gas into CO 2, and meanwhile, recovering the heat generated by combustion, so that mass-energy conversion of the dephosphorization converter gas is realized to obtain mass-energy converted gas; after cooling and pressurization, part of the mass-energy converted gas entering a bottom blowing system of the dephosphorization converter as bottom blowing gas to realize bottom blowing stirring of the mass-energy converted gas in the converter, and the other part entering a top blowing system of the dephosphorization converter as top blowing gas after being mixed with oxygen, so as to realize diversified gas O 2 -N 2 -CO 2 blowing dephosphorization in the converter, as a replacement for the existing way of top blowing part of O 2 and bottom blowing N 2 into the dephosphorization converter, thereby realizing recycling of the converted gas for efficient dephosphorization; wherein the process of diversified blowing for efficient dephosphorization is controlled in stages, wherein, the combustion improver is O 2, and the consumption of the combustion improver changes with the content of CO in the gas emitted from the dephosphorization converter, and in order to ensure sufficient mass-energy conversion of the gas, the flow ratio of O 2:CO should be kept at 0.5-1.5:1. in a dephosphorization converter for duplex steelmaking, conducting cooling and dedusting on the gas emitted by the dephosphorization converter, then burning the gas by using a combustion improver to convert the CO component in the gas into CO 2, and meanwhile, recovering the heat generated by combustion, so that mass-energy conversion of the dephosphorization converter gas is realized to obtain mass-energy converted gas; after cooling and pressurization, part of the mass-energy converted gas entering a bottom blowing system of the dephosphorization converter as bottom blowing gas to realize bottom blowing stirring of the mass-energy converted gas in the converter, and the other part entering a top blowing system of the dephosphorization converter as top blowing gas after being mixed with oxygen, so as to realize diversified gas O 2 -N 2 -CO 2 blowing dephosphorization in the converter, as a replacement for the existing way of top blowing part of O 2 and bottom blowing N 2 into the dephosphorization converter, thereby realizing recycling of the converted gas for efficient dephosphorization; wherein the process of diversified blowing for efficient dephosphorization is controlled in stages, wherein, the combustion improver is O 2, and the consumption of the combustion improver changes with the content of CO in the gas emitted from the dephosphorization converter, and in order to ensure sufficient mass-energy conversion of the gas, the flow ratio of O 2:CO should be kept at 0.5-1.5:1.