mhurhangee/ep-ind-claims huggingface dataset:
Laundry treatment cabinet with a usable space and with venting openings for blowing process air into the usable space, wherein at least one part of the venting openings is arranged at a roof of the usable space for generating an air flow flowing from the roof towards the bottom in the usable space, characterized in that auxiliary means for generating an air flow directed obliquely towards the top are provided.
A HRG ground fault detector configured to detect a ground fault in a High Resistance Ground, HRG, system, the HRG ground fault detector comprising: a first input adapted to be coupled to a first phase (PH A) of the HRG system; a second input adapted to be coupled to a second phase (PH B) of the HRG system; a third input adapted to be coupled to a third phase (PH C) of the HRG system, with the HRG ground fault detector configured to generate a simulated neutral voltage V N' from the first phase (PH A), the second phase (PH B), and the third phase (PH C), wherein the simulated neutral voltage V N' comprises a zero voltage potential when the first phase (PH A), the second phase (PH B), and the third phase (PH C) are equal; an integrator coupled to a neutral node (N') and configured to integrate the simulated neutral voltage V N', wherein the integrated voltage V INT is substantially constant in amplitude regardless of a frequency at the first phase (PH A), the second phase (PH B), and the third phase (PH C); and a processing system coupled to the integrator, with the processing system configured to compare the integrated voltage V INT to a predetermined fault voltage threshold and detect a HRG ground fault in the HRG system if the integrated voltage V INT exceeds the predetermined fault voltage threshold, wherein the HRG ground fault detector is further configured to determine a fundamental frequency of a faulted phase from the integrated voltage V INT. a first input adapted to be coupled to a first phase (PH A) of the HRG system; a second input adapted to be coupled to a second phase (PH B) of the HRG system; a third input adapted to be coupled to a third phase (PH C) of the HRG system, with the HRG ground fault detector configured to generate a simulated neutral voltage V N' from the first phase (PH A), the second phase (PH B), and the third phase (PH C), wherein the simulated neutral voltage V N' comprises a zero voltage potential when the first phase (PH A), the second phase (PH B), and the third phase (PH C) are equal; an integrator coupled to a neutral node (N') and configured to integrate the simulated neutral voltage V N', wherein the integrated voltage V INT is substantially constant in amplitude regardless of a frequency at the first phase (PH A), the second phase (PH B), and the third phase (PH C); and a processing system coupled to the integrator, with the processing system configured to compare the integrated voltage V INT to a predetermined fault voltage threshold and detect a HRG ground fault in the HRG system if the integrated voltage V INT exceeds the predetermined fault voltage threshold, wherein the HRG ground fault detector is further configured to determine a fundamental frequency of a faulted phase from the integrated voltage V INT.
Support of an optical fibre organizer system with mounting means including a hinge for hingeably mounting a plurality of trays, each tray of the plurality of trays being adapted for storing an optical fibre and/or an optical splice, whereby the support has fixing means (9, 10, 11) for fixing an optical coupler, whereby a recess is arranged in the support in which the fixing means (9, 10, 11) are disposed, whereby the recess provides space for receiving at least a part of the coupler, whereby a cover is arranged for covering the recess, and whereby the fixing means (9, 10, 11) are arranged at a back side of the support opposite to the mounting means.
A strut assembly including: a reservoir tube extending about and along a center axis and having an interior surface and defining a chamber; a bearing sleeve disposed in said chamber of said reservoir tube and extending about and along said center axis between a proximal end and a distal end and presenting an inner surface and an outer surface; a damper body tube disposed in said bearing sleeve and moveable relative to said bearing sleeve; a piston assembly disposed in said damper body tube; and said outer surface of said bearing sleeve having a tubular portion and a protrusion portion extending radially outwardly relative to said tubular portion and providing an interference fit between said outer surface of said bearing sleeve and said interior surface of said reservoir tube, wherein said inner surface of said bearing sleeve has a central portion having a substantially constant diameter and axially aligned with said protrusion portion, wherein at least one bearing (40, 42) is disposed radially between said bearing sleeve and said damper body tube for allowing axial movement of said damper body tube relative to said bearing sleeve and wherein said protrusion portion is spaced axially from said at least one bearing (40, 42), wherein said at least one bearing (40, 42) includes a first bearing and a second bearing disposed in axially spaced relationship with one another, characterized in that said protrusion portion is disposed axially between said first and second bearings (40, 42). a reservoir tube extending about and along a center axis and having an interior surface and defining a chamber; a bearing sleeve disposed in said chamber of said reservoir tube and extending about and along said center axis between a proximal end and a distal end and presenting an inner surface and an outer surface; a damper body tube disposed in said bearing sleeve and moveable relative to said bearing sleeve; a piston assembly disposed in said damper body tube; and said outer surface of said bearing sleeve having a tubular portion and a protrusion portion extending radially outwardly relative to said tubular portion and providing an interference fit between said outer surface of said bearing sleeve and said interior surface of said reservoir tube, wherein said inner surface of said bearing sleeve has a central portion having a substantially constant diameter and axially aligned with said protrusion portion, wherein at least one bearing (40, 42) is disposed radially between said bearing sleeve and said damper body tube for allowing axial movement of said damper body tube relative to said bearing sleeve and wherein said protrusion portion is spaced axially from said at least one bearing (40, 42), wherein said at least one bearing (40, 42) includes a first bearing and a second bearing disposed in axially spaced relationship with one another, characterized in that said protrusion portion is disposed axially between said first and second bearings (40, 42).
A multipoint injection system comprising: a manifold extending in a circumferential direction wherein a plurality of flow passages (104,106,108,110) each having a main portion defined through the manifold in the circumferential direction; a plurality of feed arms extending radially inward from the manifold, wherein feed arm portions (118,120,122,124) of the flow passages extend through each of the feed arms; and a plurality of injection nozzles, wherein each of the feed arm portions of the flow passages includes a respective outlet opening (128,132,134,136) in an axial direction toward a combustor side of the manifold with a respective one of the injection nozzles in fluid communication with each of the outlets, wherein each injection nozzle includes an air passage therethrough with an air inlet, and wherein the feed arms each follow a path that is circumferentially offset from the air inlets so each of the feed arms is clear from a flow path directly upstream in the axial direction of each of the air inlets; wherein each of the feed arms follows a path that is oblique relative to a purely radial direction defined by the manifold and to the circumferential direction of the manifold. a manifold extending in a circumferential direction wherein a plurality of flow passages (104,106,108,110) each having a main portion defined through the manifold in the circumferential direction; a plurality of feed arms extending radially inward from the manifold, wherein feed arm portions (118,120,122,124) of the flow passages extend through each of the feed arms; and a plurality of injection nozzles, wherein each of the feed arm portions of the flow passages includes a respective outlet opening (128,132,134,136) in an axial direction toward a combustor side of the manifold with a respective one of the injection nozzles in fluid communication with each of the outlets, wherein each injection nozzle includes an air passage therethrough with an air inlet, and wherein the feed arms each follow a path that is circumferentially offset from the air inlets so each of the feed arms is clear from a flow path directly upstream in the axial direction of each of the air inlets; wherein each of the feed arms follows a path that is oblique relative to a purely radial direction defined by the manifold and to the circumferential direction of the manifold.
Machining installation for aircraft structural components, having a machining station which comprises a clamping frame for receiving the aircraft structural component to be machined in each case, wherein the clamping frame extends along a station longitudinal axis, extending in a longitudinal direction, and which comprises a machining unit for machining the aircraft structural component, which machining unit has a top tool unit with a top tool oriented along a first tool axis and has a bottom tool unit with a bottom tool oriented along a second tool axis, wherein the first tool axis and the second tool axis are or are able to be oriented parallel to a vertical direction, which is at an angle, in particular orthogonal, to the longitudinal axis, wherein, in at least one machining position of the top tool and in at least one machining position of the bottom tool, the first tool axis and the second tool axis are oriented coaxially with respect to one another, and wherein the bottom tool is mounted on a bottom-tool carrier, wherein the lower framework part and upper framework part are connected to one another via at least one lateral framework part (22b, 22c), wherein the lower framework part, the at least one lateral framework part (22b, 22c) and the upper framework part together form a C-shape or portal-like shape, wherein the bottom-tool carrier is linearly moveable on the lower framework part in the transverse direction, wherein, in at least one machining position of the top tool and/or in at least one machining position of the bottom tool, the respective tool axis (12a, 12b) is not coaxial with the bottom-tool-carrier axis.
A transmission circuit (1, 2, 2a, 90, 210) for generating and outputting a transmission signal from input data, the transmission circuit (1, 2, 2a, 90, 210) comprising: an amplitude and phase extraction section (11, 91) for extracting amplitude data and phase data from the input data; a phase modulation section (12, 92) for phase-modulating the phase data to output a resultant signal as a phase-modulated signal; an amplifier section (13, 93) for amplifying the phase-modulated signal to output a resultant signal as the transmission signal; and an amplitude control section (15, 95) including: an AC component control section for outputting, as an amplitude signal, an AC component being a fluctuation component of the amplitude data; a DC component control section for outputting a signal based on a DC component being an average value level of the amplitude data and electric power information being the magnitude of an output power by multiplying the DC component by the electric power information; and a voltage supply section for adding the signal outputted from the AC component control section and the signal outputted from the DC component control section, and supplying, to the amplifier section (13, 93), a voltage controlled in accordance with the added signal. an amplitude and phase extraction section (11, 91) for extracting amplitude data and phase data from the input data; a phase modulation section (12, 92) for phase-modulating the phase data to output a resultant signal as a phase-modulated signal; an amplifier section (13, 93) for amplifying the phase-modulated signal to output a resultant signal as the transmission signal; and an amplitude control section (15, 95) including: an AC component control section for outputting, as an amplitude signal, an AC component being a fluctuation component of the amplitude data; a DC component control section for outputting a signal based on a DC component being an average value level of the amplitude data and electric power information being the magnitude of an output power by multiplying the DC component by the electric power information; and a voltage supply section for adding the signal outputted from the AC component control section and the signal outputted from the DC component control section, and supplying, to the amplifier section (13, 93), a voltage controlled in accordance with the added signal. an AC component control section for outputting, as an amplitude signal, an AC component being a fluctuation component of the amplitude data; a DC component control section for outputting a signal based on a DC component being an average value level of the amplitude data and electric power information being the magnitude of an output power by multiplying the DC component by the electric power information; and a voltage supply section for adding the signal outputted from the AC component control section and the signal outputted from the DC component control section, and supplying, to the amplifier section (13, 93), a voltage controlled in accordance with the added signal.
A method performed by a wireless communications device operating according to a Discontinuous Reception, DRX, configuration and configured to receive, from a wireless communications network, two-step grants for scheduling uplink transmissions using a first physical downlink control channel, PDCCH, transmission that indicates a first trigger, which has an associated second trigger that is transmitted in a second PDCCH transmission such that the combination of the first and second PDCCH transmissions grants that the device can perform an uplink transmission, the method comprising: determining whether the device has received the first trigger of a two-step grant for scheduling uplink transmissions; in response to determining that the device has received the first trigger, entering a state in which the device listens on a physical downlink control channel for messages from the network, wherein entering the state comprises waiting a predetermined period of time after receiving the first trigger before entering the state; receiving the second trigger of the two-step grant; and exiting the state in response to transmitting an uplink transmission triggered by the second trigger. determining whether the device has received the first trigger of a two-step grant for scheduling uplink transmissions; in response to determining that the device has received the first trigger, entering a state in which the device listens on a physical downlink control channel for messages from the network, wherein entering the state comprises waiting a predetermined period of time after receiving the first trigger before entering the state; receiving the second trigger of the two-step grant; and exiting the state in response to transmitting an uplink transmission triggered by the second trigger.
A device for starting an internal combustion engine arranged in a vehicle, with an electric machine (32, 32', 32") which is designed to drive the internal combustion engine at least at times, a storage unit (34, 34', 54) which is designed to supply the electric machine (32, 32', 32") with electric power at least at times, a number of consumer units (18, 20, 22) which can be driven at least at times by the internal combustion engine via a respective operative connection (24, 26, 28, 30), wherein one of the consumer units is a generator (22, 22', 22") which is designed to charge the storage unit (34, 34', 54) at least at times, and a control unit which is designed, if a consumer-unit activation condition is present, to activate at least one consumer unit (18, 20, 22), in order to generate and/or increase a load which acts on the internal combustion engine, in order to shorten a run-down time of the internal combustion engine, and, if an internal combustion engine start condition is present, to activate the electric machine (32, 32', 32") to drive the internal combustion engine, characterised in that the control unit is designed, if the consumer-unit activation condition is present, to activate the generator (22, 22', 22") such that it emits a maximum possible charging current and the control unit is designed to make the number of consumer units (18, 20, 22) which are to be activated dependent on the internal combustion engine speed value which is present at the time at which the consumer-unit activation condition is met.
A high-power, heat dissipating optical fiber device comprising: a section of optical fiber configured to propagate light, the section of optical fiber including an uncoated fiber segment and a coated fiber segment; a cooling chamber, substantially encapsulating the section of the optical fiber; and a heat-dissipating fluid within the cooling chamber having a refractive index selected to control the interaction and propagation of the light in the fluid; a fluid ingress and a fluid egress extending from a surface of the cooling chamber; and a pump for allowing fluid to flow through the cooling chamber (200, the pump forcing fluid into the fluid ingress and exiting the cooling chamber via the fluid egress, wherein the high-power, heat dissipating optical fiber device yields an output greater than one kilowatt of pump laser power; and wherein the fluid comprises a heat transfer coefficient of at least 100W/ m 2 /deg and the refractive index of the fluid is controlled by temperature control of the fluid using a temperature control system, wherein the fluid is contained in the fiber region by a glass capillary tube, wherein the optical fiber comprises a stripped section of a coated fiber segment, and wherein the refractive index of the fluid is less than that of the outer surface of the uncoated fiber segment. a section of optical fiber configured to propagate light, the section of optical fiber including an uncoated fiber segment and a coated fiber segment; a cooling chamber, substantially encapsulating the section of the optical fiber; and a heat-dissipating fluid within the cooling chamber having a refractive index selected to control the interaction and propagation of the light in the fluid; a fluid ingress and a fluid egress extending from a surface of the cooling chamber; and a pump for allowing fluid to flow through the cooling chamber (200, the pump forcing fluid into the fluid ingress and exiting the cooling chamber via the fluid egress, wherein the high-power, heat dissipating optical fiber device yields an output greater than one kilowatt of pump laser power; and wherein the fluid comprises a heat transfer coefficient of at least 100W/ m 2 /deg and the refractive index of the fluid is controlled by temperature control of the fluid using a temperature control system, wherein the fluid is contained in the fiber region by a glass capillary tube, wherein the optical fiber comprises a stripped section of a coated fiber segment, and wherein the refractive index of the fluid is less than that of the outer surface of the uncoated fiber segment.
A reinforced bar comprising a tubular lock body; a lock cylinder received in the lock body; and two bolt elements displaceably supported in opposite end sections of the lock body, wherein each bolt element is coupled to a drive rod supported in the lock body and the drive rods are drivable in opposite senses by the lock cylinder such that the bolt elements are displaced from a retracted position into an extended position on a rotation of the lock cylinder in a closing direction and are displaced from the extended position into the retracted position on a rotation of the lock cylinder against the closing direction; and wherein a blocking element is formed at each drive rod and, on a pressing in of an extended bolt element, is transposed into a blocking position in which it moves into engagement with a wall of the lock body to prevent the bolt element from being able to reach its retracted position, characterized in that each drive rod has a respective coupling point at both ends for coupling a bolt element.
A method of monitoring and controlling a sequential valve gate molding apparatus (10, 200) comprising: creating, by one or more processors, a target strain profile for a sequential valve gate molding process of a sequential valve gate molding apparatus (10, 200), wherein the target strain profile has at least a first portion relating to opening of a first valve gate; receiving, via an interface, an upper deviation limit and a lower deviation limit for the sequential valve gate molding process; receiving, as an output from a first strain gauge aligned with a parting line of a mold along an edge of a mold side, a change in strain in the sequential valve gate molding apparatus (10, 200) relating to the first valve gate; identifying, by the one or more processors, whether a deviation from the first portion of the target strain profile exists based on the sensed change in strain provided as the output from the first strain gauge; when a deviation from the first portion is identified, comparing, by the one or more processors, the deviation from the first portion to the upper deviation limit or the lower deviation limit; and when the deviation from the first portion exceeds the upper deviation limit or the lower deviation limit, adjusting a position of a first valve gate piston, thereby adjusting the position of a first valve gate pin in the first valve gate. creating, by one or more processors, a target strain profile for a sequential valve gate molding process of a sequential valve gate molding apparatus (10, 200), wherein the target strain profile has at least a first portion relating to opening of a first valve gate; receiving, via an interface, an upper deviation limit and a lower deviation limit for the sequential valve gate molding process; receiving, as an output from a first strain gauge aligned with a parting line of a mold along an edge of a mold side, a change in strain in the sequential valve gate molding apparatus (10, 200) relating to the first valve gate; identifying, by the one or more processors, whether a deviation from the first portion of the target strain profile exists based on the sensed change in strain provided as the output from the first strain gauge; when a deviation from the first portion is identified, comparing, by the one or more processors, the deviation from the first portion to the upper deviation limit or the lower deviation limit; and when the deviation from the first portion exceeds the upper deviation limit or the lower deviation limit, adjusting a position of a first valve gate piston, thereby adjusting the position of a first valve gate pin in the first valve gate.