mhurhangee/ep-ind-claims huggingface dataset:
A welding-type power supply, comprising: - an input circuit, disposed to receive input power, and to provide an intermediate signal; - a dc bus disposed to receive the intermediate signal; - an output circuit, disposed to receive the dc bus, wherein the output circuit is configured to provide an ac welding-type output across an electrode output and a work output, and includes a first half-bridge inverter having at least a first switch and a second switch, wherein the first half-bridge inverter is connected to receive power from the dc bus and to provide power to the work output, and further wherein the output circuit includes a commutation circuit, which comprises a second half-bridge inverter having at least a first commutation switch and a second commutation switch, wherein the second half-bridge inverter is connected to receive power from the DC bus and to provide power to the electrode output, and which is configured to provide a first freewheeling path that includes the first commutation switch, the electrode output, the work output and a diode antiparallel to the first switch; and - a control module including an inverter control module that is arranged to provide control signals to the first half-bridge inverter, and further including a commutation control module that is arranged to provide modulating control signals to the first commutation switch; characterized in that the modulating control signals cause the first commutation switch to be turned on and off multiple times during commutation of the current to the diode antiparallel to the first switch, whereby a first rate of change of a current in the work output and the electrode output is controlled. - an input circuit, disposed to receive input power, and to provide an intermediate signal; - a dc bus disposed to receive the intermediate signal; - an output circuit, disposed to receive the dc bus, wherein the output circuit is configured to provide an ac welding-type output across an electrode output and a work output, and includes a first half-bridge inverter having at least a first switch and a second switch, wherein the first half-bridge inverter is connected to receive power from the dc bus and to provide power to the work output, and further wherein the output circuit includes a commutation circuit, which comprises a second half-bridge inverter having at least a first commutation switch and a second commutation switch, wherein the second half-bridge inverter is connected to receive power from the DC bus and to provide power to the electrode output, and which is configured to provide a first freewheeling path that includes the first commutation switch, the electrode output, the work output and a diode antiparallel to the first switch; and - a control module including an inverter control module that is arranged to provide control signals to the first half-bridge inverter, and further including a commutation control module that is arranged to provide modulating control signals to the first commutation switch;
A Hollow glass container comprising a ring intended to cooperate with a capsule with notches to close said container, characterized in that said ring has a rim whose cross section has a profile substantially in the shape of an ogive, said profile defining for the ogive a base having a center, two sides (26a, 26b), and a top, characterized in that said top is aligned on a point located at the center of the base or offset in the direction of an interior of the container relative to said point located at the center of the base.
A method for metadata-based collaborative voice processing for voice communication between at least two smart devices (110, 120), the method comprising exchanging metadata information between said smart devices (110, 120) such that the quality of the voice communication is enhanced, characterized in that the method further comprises: detecting background noise and/or echo on a first smart device coming from a second smart device; sending metadata commands from the first smart device to the second smart device to effect adjustment of the background noise and/or echo cancellation function of the second smart device; and - receiving a confirmation metadata message on the first smart device from the second smart device that indicates the adjustment has been performed. detecting background noise and/or echo on a first smart device coming from a second smart device; sending metadata commands from the first smart device to the second smart device to effect adjustment of the background noise and/or echo cancellation function of the second smart device; and - receiving a confirmation metadata message on the first smart device from the second smart device that indicates the adjustment has been performed.
An opening-closing apparatus for selectively opening and closing an openable-closable component of a sliding nozzle device, comprising: a hand tip part comprising an engagement portion, wherein the engagement portion is configured to be engaged with the openable-closable component of the sliding nozzle device in a state in which the engagement portion is freely fitted around a portion of the openable-closable component with a gap therebetween in a horizontal direction; a force sensor configured to detect a force received by the hand tip part; a robot arm to which the hand tip part and the force sensor are mounted; and a control unit configured to control operation of the robot arm, wherein the control unit is configured to operate the robot arm so as to: move the hand tip part toward the openable-closable component of the sliding nozzle device and engage the hand tip part with the openable-closable component of the sliding nozzle device; then move the hand tip part to move the openable-closable component, if an absolute value of the force detected by the force sensor is less than a given threshold; and stop the movement of the hand tip part, when the absolute value of the force detected by the force sensor reaches the given threshold, wherein the engagement portion is a ring at the hand tip part configured to engage with an engagement rod at the openable-closable component of the sliding nozzle device, or wherein the engagement portion is a rod at the hand tip part configured to engage with an engagement ring at the openable-closable component of the sliding nozzle device. a hand tip part comprising an engagement portion, wherein the engagement portion is configured to be engaged with the openable-closable component of the sliding nozzle device in a state in which the engagement portion is freely fitted around a portion of the openable-closable component with a gap therebetween in a horizontal direction; a force sensor configured to detect a force received by the hand tip part; a robot arm to which the hand tip part and the force sensor are mounted; and a control unit configured to control operation of the robot arm,
A method of fabricating a component, comprising: depositing a first molten material application onto a surface of a crack sensitive fusion boundary which is within a cavity of a base metal of the component to form an at least partially solidified layer; manipulating by smearing or buttering at least a portion of the at least partially solidified layer to form a boundary region which covers the entire crack sensitive fusion boundary, wherein the boundary region provides resistance to strain age cracking within a crack sensitive fusion boundary of the component; depositing a second molten material application onto the boundary region to form a filler region, wherein the method further comprises melting the portion of the at least partially solidified layer prior to manipulating the portion to form the boundary region. depositing a first molten material application onto a surface of a crack sensitive fusion boundary which is within a cavity of a base metal of the component to form an at least partially solidified layer; manipulating by smearing or buttering at least a portion of the at least partially solidified layer to form a boundary region which covers the entire crack sensitive fusion boundary, wherein the boundary region provides resistance to strain age cracking within a crack sensitive fusion boundary of the component; depositing a second molten material application onto the boundary region to form a filler region, wherein the method further comprises melting the portion of the at least partially solidified layer prior to manipulating the portion to form the boundary region.
A heat ray sensor comprising: a first optical unit for outputting a first signal based on a variation in heat rays radiated from a first detection area; a second optical unit that is arranged side by side with the first optical unit, for outputting a second signal based on a variation in heat rays radiated from a second detection area; and a casing that houses the first optical unit and the second optical unit, the heat ray sensor, wherein the casing integrally supports the first optical unit and the second optical unit swingably about an axis that is orthogonal to a direction of arrangement of the first optical unit and the second optical unit, the first optical unit comprises: a first pyroelectric element for outputting the first signal; a first optical system for transferring, to the first pyroelectric element, heat rays radiated from the first detection area; and a first housing that supports the first pyroelectric element and the first optical system, the second optical unit comprises: a second pyroelectric element for outputting the second signal; a second optical system for transferring, to the second pyroelectric element, heat rays radiated from the second detection area; and a second housing that supports the second pyroelectric element and the second optical system and is linked to the first housing and the casing supports the first housing swingably about the axis. a first optical unit for outputting a first signal based on a variation in heat rays radiated from a first detection area; a second optical unit that is arranged side by side with the first optical unit, for outputting a second signal based on a variation in heat rays radiated from a second detection area; and a casing that houses the first optical unit and the second optical unit, the heat ray sensor, wherein the casing integrally supports the first optical unit and the second optical unit swingably about an axis that is orthogonal to a direction of arrangement of the first optical unit and the second optical unit, the first optical unit comprises: a first pyroelectric element for outputting the first signal; a first optical system for transferring, to the first pyroelectric element, heat rays radiated from the first detection area; and a first housing that supports the first pyroelectric element and the first optical system, the second optical unit comprises: a second pyroelectric element for outputting the second signal; a second optical system for transferring, to the second pyroelectric element, heat rays radiated from the second detection area; and a second housing that supports the second pyroelectric element and the second optical system and is linked to the first housing and the casing supports the first housing swingably about the axis.
Active ingredient combinations comprising (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula (fluopyram) and also its N-oxides and the active insecticidal or nematicidal ingredient azadirachtin (II-7) in a mixing ratio between fluopyram (I-1) and azadirachtin (II-7) of 10:1. (I-1) N-{2-[3-chloro-5-(trifluoromethyl)-2-pyridinyl]ethyl}-2-trifluoromethylbenzamide of formula (fluopyram) and also its N-oxides and the active insecticidal or nematicidal ingredient azadirachtin (II-7) in a mixing ratio between fluopyram (I-1) and azadirachtin (II-7) of 10:1.
Method of manufacturing a buoyant pre-stressed concrete structure, comprising the steps: - placing at least one first reinforcement bar comprising basalt in a mould, substantially along a longitudinal extension of the mould; - pouring concrete into the mould such that the concrete covers the at least one reinforcement bar; - allowing the concrete to cure; and - placing at least one floating element to the concrete before or after curing to form a buoyant concrete structure, and - pre-stressing the at least one first reinforcement bar by pre-tensioning said bar before the concrete is poured and the tension applied to the at least one first reinforcement bar is released after the concrete has cured, wherein the concrete structure has a substantially U-shaped cross-section such that it substantially encloses at least three sides of the floating element. - placing at least one first reinforcement bar comprising basalt in a mould, substantially along a longitudinal extension of the mould; - pouring concrete into the mould such that the concrete covers the at least one reinforcement bar; - allowing the concrete to cure; and - placing at least one floating element to the concrete before or after curing to form a buoyant concrete structure, and - pre-stressing the at least one first reinforcement bar by pre-tensioning said bar before the concrete is poured and the tension applied to the at least one first reinforcement bar is released after the concrete has cured, wherein the concrete structure has a substantially U-shaped cross-section such that it substantially encloses at least three sides of the floating element.
Method for adjusting brake pressures on pneumatically operated wheel brakes of a motor vehicle, wherein in a normal braking mode the brake pressure is adjusted depending on a driver brake request, and in a pressure control mode during reception of an external brake request independent of the driver brake request which is imposed on the control unit as an external target deceleration value (z-ext), a control unit adjusts the brake pressure at the respective wheel brakes according to a resulting target deceleration value (z-RES) of the vehicle deceleration, wherein the control unit determines the resulting target deceleration value (z-RES) by linking the external target deceleration value (z-ext) according to the external brake request and a value (P-Soll) corresponding to the driver brake request, characterized in that in normal braking mode, taking into account the value (P-Soll) of the driver brake request of at least one braking and a measured or determined actual deceleration value (z-Ist) of the vehicle deceleration, a braking power index is determined which quantitatively represents the braking effect of the wheel brakes, and is provided to be taken into account in the pressure control mode, wherein in the pressure control mode the provided braking power index is combined with the value (P-Soll) of the driver brake request.
A device (100, 1100, 1200) for attaching an object to a support element and/or for stabilizing the support element, wherein the device (100, 1100, 1200) comprises a condition monitoring for determining a deformation, the device (100, 1100) comprising: an attachment body having an attachment portion for insertion into the support element, a conductor trace which is electrically conductive and applied along a trace-shaped path for measuring a mechanical tension at the attachment portion, wherein the attachment body comprises a coupling portion for coupling with an evaluation unit, wherein the conductor trace is designed such that it is suppliable with electrical energy from the coupling portion, wherein the electrical resistance of the conductor trace is indicative for the deformation of the attachment body in the attachment portion, wherein the trace-shaped path of the conductor trace protrudes in the coupling portion such that an electrical conductivity is present between the conductor trace in the coupling portion and the attachment portion. an attachment body having an attachment portion for insertion into the support element, a conductor trace which is electrically conductive and applied along a trace-shaped path for measuring a mechanical tension at the attachment portion, wherein the attachment body comprises a coupling portion for coupling with an evaluation unit, wherein the conductor trace is designed such that it is suppliable with electrical energy from the coupling portion, wherein the electrical resistance of the conductor trace is indicative for the deformation of the attachment body in the attachment portion, wherein the trace-shaped path of the conductor trace protrudes in the coupling portion such that an electrical conductivity is present between the conductor trace in the coupling portion and the attachment portion.
A Schottky diode comprising: a gallium-nitride conduction layer; a barrier layer formed adjacent to the gallium-nitride conduction layer; a first cathode and a second cathode spaced apart and in electrical contact with the conduction layer; an anode formed adjacent to the barrier layer between the first cathode and the second cathode; and at least one anode-connected field plate electrically connected to the anode and extending on opposite edges beyond the anode toward the first cathode and the second cathode; the Schottky diode being characterised in that it comprises a gallium-oxide layer formed between the anode and the barrier layer. a gallium-nitride conduction layer; a barrier layer formed adjacent to the gallium-nitride conduction layer; a first cathode and a second cathode spaced apart and in electrical contact with the conduction layer; an anode formed adjacent to the barrier layer between the first cathode and the second cathode; and at least one anode-connected field plate electrically connected to the anode and extending on opposite edges beyond the anode toward the first cathode and the second cathode; the Schottky diode being characterised in that it comprises a gallium-oxide layer formed between the anode and the barrier layer.
Method for compensating slippage of steering of a motor vehicle, wherein the motor vehicle has a plurality of drive machines and for each drive machine at least one compensation variable (K1, K2) for compensating slippage caused by this drive machine is stored; and wherein the method includes: - determining those drive machines which are currently generating a drive force (FA1, FA2); - determining a control variable for a steering actuator on the basis of the drive force (FA1, FA2) of each drive machine that is determined and a compensation variable (K1, K2) that is stored for each drive machine. wherein the motor vehicle has a plurality of drive machines and for each drive machine at least one compensation variable (K1, K2) for compensating slippage caused by this drive machine is stored; and wherein the method includes: - determining those drive machines which are currently generating a drive force (FA1, FA2); - determining a control variable for a steering actuator on the basis of the drive force (FA1, FA2) of each drive machine that is determined and a compensation variable (K1, K2) that is stored for each drive machine. - determining those drive machines which are currently generating a drive force (FA1, FA2); - determining a control variable for a steering actuator on the basis of the drive force (FA1, FA2) of each drive machine that is determined and a compensation variable (K1, K2) that is stored for each drive machine.
Apparatus for manufacturing a component from a moldable material, particularly an expandable or expanded polymer bead material, the apparatus comprising a molding tool comprising a cavity (2.1), the molding tool comprising at least one molding tool part, the at least one molding tool part comprising at least two molding tool part segments (3.1 - 3.3) each comprising a cavity section of the cavity (2.1), wherein the at least two molding tool part segments (3.1 - 3.3) are connected with at least one connection member, wherein the at least one connection member is configured to arrange the at least two molding tool part segments (3.1 - 3.3) in a defined spatial orientation and/or position relative to each other resulting in a cavity configuration which compensates for deformation effects, particularly due to shrinkage effects, particularly due to thermal shrinkage effects, of the moldable material when being molded in the cavity (2.1), characterized in that the at least one molding tool part comprises a support structure (3.5) defining a base plane, wherein the support structure (3.5) is configured to support the at least two molding tool part segments (3.1 - 3.3), wherein at least one of the at least two molding tool part segments (3.1 - 3.3) is fastened to the support structure (3.5) via a fastening device configured to fasten the at least one molding tool part segment (3.1 - 3.3) in at least two different orientations and/or positions with respect to the base plane defined by the support structure (3.5). the molding tool comprising at least one molding tool part, the at least one molding tool part comprising at least two molding tool part segments (3.1 - 3.3) each comprising a cavity section of the cavity (2.1), wherein the at least two molding tool part segments (3.1 - 3.3) are connected with at least one connection member, wherein the at least one connection member is configured to arrange the at least two molding tool part segments (3.1 - 3.3) in a defined spatial orientation and/or position relative to each other resulting in a cavity configuration which compensates for deformation effects, particularly due to shrinkage effects, particularly due to thermal shrinkage effects, of the moldable material when being molded in the cavity (2.1), characterized in that the at least one molding tool part comprises a support structure (3.5) defining a base plane, wherein the support structure (3.5) is configured to support the at least two molding tool part segments (3.1 - 3.3), wherein at least one of the at least two molding tool part segments (3.1 - 3.3) is fastened to the support structure (3.5) via a fastening device configured to fasten the at least one molding tool part segment (3.1 - 3.3) in at least two different orientations and/or positions with respect to the base plane defined by the support structure (3.5).