mhurhangee/ep-ind-claims huggingface dataset:
An overvoltage protection element with a housing, with at least one overvoltage limiting component which is located in the housing, especially a varistor or a gas-filled surge arrester, and with two connection elements (4, 5) for electrical connection of the overvoltage protection element to a current or signal path which is to be protected, wherein in the normal state of the overvoltage protection element the connection elements (4, 5) each being in electrically conductive contact with a pole of the overvoltage limiting component at a time, wherein there is an intumescent material within the housing such that when the overvoltage limiting component (3, 3') is thermally overloaded the position of the overvoltage limiting component (3, 3') as a result of expansion of the intumescent material can be changed relative to the position of the connection elements (4, 5) such that at least one pole of the overvoltage limiting component (3, 3') is no longer in electrically conductive contact with the corresponding connection element (4, 5) characterized in that in the normal state of the overvoltage protection element the two poles of the overvoltage limiting component (3, 3') are each connected via a plug connection (9, 10) to one connection element (4, 5).
A method of processing sensor signals to determine motion of a motor shaft, said method comprising the steps of: sampling a first signal and a second signal via a controller, wherein the first signal is offset from the second signal; calculating a rotational direction and a displacement of the motor shaft from the first signal and the second signal when a count of samples taken without a state change is above a predetermined threshold; and calculating a displacement from the first signal and the second signal when the count of samples taken without a state change is below the predetermined threshold and a previous direction is assumed. sampling a first signal and a second signal via a controller, wherein the first signal is offset from the second signal; calculating a rotational direction and a displacement of the motor shaft from the first signal and the second signal when a count of samples taken without a state change is above a predetermined threshold; and calculating a displacement from the first signal and the second signal when the count of samples taken without a state change is below the predetermined threshold and a previous direction is assumed.
Mobile communications station, with a supporting frame, on which an antenna array for communication with mobile devices and communication means for communication with a distant location are arranged, wherein the antenna array and the communication means are intended for establishing a bidirectional communication link between the mobile devices and the distant location and the supporting frame comprises an interface for mechanical coupling to a vehicle for transporting the mobile communications station, characterized in that the interface comprises fastening points (34, 36) for the attachment of a three-point hitch (18, 22) of a farm tractor.
A facade element for thermal insulation comprising at least two panes (101, 102) arranged parallel to one another, a cavity which is formed between these two panes (101, 102) and has fluid flowing through it, and at least one inlet for feeding in a radiation-absorbing fluid and at least one outlet for discharging the fluid, wherein the inlet is arranged on a first side of the panes (101, 102) and the outlet is arranged on an opposite, second side of the panes (101, 102), wherein a first flow distributor is arranged between the at least one inlet and the cavity and extends in a distributed manner along the length of the first side, characterized in that the flow distributor is a strip which has elevations and/or depressions which, for the fluid, form passages from the inlet to the cavity.
Coater assembly for a 3D printer, comprising: a coater including a container which defines an inner cavity for receiving particulate construction material which opens into a container opening for outputting the particulate construction material from the container, and an output region which defines a coater output opening for outputting the particulate construction material from the coater onto a construction field, wherein the container is movable relative to the coater output opening, so that, by moving the container relative to the coater output opening, a discharge of particulate construction material from the inner cavity through the container opening and the coater output opening onto the construction field is variable, wherein the coater assembly further comprises a vibration device, comprising a vibration drive, by which particulate construction material received in the container can be vibrated, and wherein the container is pivotable relative to the coater output opening about a pivot axis, characterized in that the vibration drive excites the pivot axis of the container in an axial direction. a coater including a container which defines an inner cavity for receiving particulate construction material which opens into a container opening for outputting the particulate construction material from the container, and an output region which defines a coater output opening for outputting the particulate construction material from the coater onto a construction field, a container which defines an inner cavity for receiving particulate construction material which opens into a container opening for outputting the particulate construction material from the container, and an output region which defines a coater output opening for outputting the particulate construction material from the coater onto a construction field, wherein the container is movable relative to the coater output opening, so that, by moving the container relative to the coater output opening, a discharge of particulate construction material from the inner cavity through the container opening and the coater output opening onto the construction field is variable, wherein the coater assembly further comprises a vibration device, comprising a vibration drive, by which particulate construction material received in the container can be vibrated, and wherein the container is pivotable relative to the coater output opening about a pivot axis, characterized in that the vibration drive excites the pivot axis of the container in an axial direction.
Cold-rolled flat steel product for deep drawing applications, - consisting of a steel, which besides iron and unavoidable impurities contains (in % by weight) C: 0.008 - 0.1%, Al: 6.5 - 12%, Nb: 0.1 - 0.2%, Ti: 0.15 - 0.5%, P: up to 0.1%, S: up to 0.03%, N: up to 0.1% as well as, optionally, one or more elements from the group "Mn, Si, rare earth metals, Mo, Cr, Zr, V, W, Co, Ni, B, Cu, Ca, N" in the proportion, Mn: up to 1%, rare earth metals: up to 0.2%, Si: up to 2%, Zr: up to 1%, V: up to 1%, W: up to 1%, Mo: up to 1%, Cr: up to 3%, Co: up to 1%, Ni: up to 2%, B: up to 0.1%, Cu: up to 3%, Ca: up to 0.015%, - wherein 2.5 ≥ % Ti / % Nb ≥ 1.5 applies for the ratio %Ti/%Nb of the Ti content %Ti and of the Nb content %Nb - and wherein the r value of the flat steel product amounts to at least 1.3 for a texture of the flat steel product which is characterised by a low allocation of the α-fibres of less than 4 and a high allocation of the γ-fibres of more than 4. - consisting of a steel, which besides iron and unavoidable impurities contains (in % by weight) C: 0.008 - 0.1%, Al: 6.5 - 12%, Nb: 0.1 - 0.2%, Ti: 0.15 - 0.5%, P: up to 0.1%, S: up to 0.03%, N: up to 0.1% as well as, optionally, one or more elements from the group "Mn, Si, rare earth metals, Mo, Cr, Zr, V, W, Co, Ni, B, Cu, Ca, N" in the proportion, Mn: up to 1%, rare earth metals: up to 0.2%, Si: up to 2%, Zr: up to 1%, V: up to 1%, W: up to 1%, Mo: up to 1%, Cr: up to 3%, Co: up to 1%, Ni: up to 2%, B: up to 0.1%, Cu: up to 3%, Ca: up to 0.015%, C: 0.008 - 0.1%, Al: 6.5 - 12%, Nb: 0.1 - 0.2%, Ti: 0.15 - 0.5%, P: up to 0.1%, S: up to 0.03%, N: up to 0.1% Mn: up to 1%, rare earth metals: up to 0.2%, Si: up to 2%, Zr: up to 1%, V: up to 1%, W: up to 1%, Mo: up to 1%, Cr: up to 3%, Co: up to 1%, Ni: up to 2%, B: up to 0.1%, Cu: up to 3%, Ca: up to 0.015%, - wherein 2.5 ≥ % Ti / % Nb ≥ 1.5 applies for the ratio %Ti/%Nb of the Ti content %Ti and of the Nb content %Nb - and wherein the r value of the flat steel product amounts to at least 1.3 for a texture of the flat steel product which is characterised by a low allocation of the α-fibres of less than 4 and a high allocation of the γ-fibres of more than 4.
A thrust bearing disposed so as to face a thrust collar provided on a rotary shaft, the thrust bearing comprising: a top foil disposed so as to face the thrust collar; a back foil disposed so as to face a surface of the top foil opposite to another surface of the top foil facing the thrust collar, and supporting the top foil; and an annular plate-shaped base plate (30, 40, 50) disposed on a side of the back foil opposite to the top foil, and supporting the back foil, wherein the back foil is formed of back foil pieces arranged in a circumferential direction of the base plate (30, 40, 50), the top foil is formed of top foil pieces disposed on the back foil pieces, the base plate (30, 40, 50) includes support areas which support the back foil pieces and which are arranged in the circumferential direction, a support area includes an inclined surface (32, 41, 51) defined by a first boundary line and by a second boundary line (31a, 43, 53) disposed on a trailing side of the first boundary line in a rotational direction of the thrust collar, the inclined surface (32, 41, 51) has a height which gradually increases from the first boundary line to the second boundary line (31a, 43, 53), and is formed continuously from the first boundary line to the second boundary line (31a, 43, 53), and a back foil piece is disposed within the inclined surface (32, 41, 51), characterised in that an edge portion on a trailing side of the back foil piece in the rotational direction of the thrust collar is fixed to the inclined surface of the base plate (30, 40, 50). a top foil disposed so as to face the thrust collar; a back foil disposed so as to face a surface of the top foil opposite to another surface of the top foil facing the thrust collar, and supporting the top foil; and an annular plate-shaped base plate (30, 40, 50) disposed on a side of the back foil opposite to the top foil, and supporting the back foil, wherein the back foil is formed of back foil pieces arranged in a circumferential direction of the base plate (30, 40, 50), the top foil is formed of top foil pieces disposed on the back foil pieces, the base plate (30, 40, 50) includes support areas which support the back foil pieces and which are arranged in the circumferential direction, a support area includes an inclined surface (32, 41, 51) defined by a first boundary line and by a second boundary line (31a, 43, 53) disposed on a trailing side of the first boundary line in a rotational direction of the thrust collar, the inclined surface (32, 41, 51) has a height which gradually increases from the first boundary line to the second boundary line (31a, 43, 53), and is formed continuously from the first boundary line to the second boundary line (31a, 43, 53), and a back foil piece is disposed within the inclined surface (32, 41, 51), characterised in that an edge portion on a trailing side of the back foil piece in the rotational direction of the thrust collar is fixed to the inclined surface of the base plate (30, 40, 50).
A dynamic mixer for a plurality of fluid components, containing a housing and a rotor element which is rotatably arranged in the housing, wherein the housing has an inlet opening (112, 113) for at least one respective component and has at least one outlet opening; wherein a ring-shaped intermediate space is provided between the rotor element and the housing in which intermediate space a mixing element connected to the rotor element is arranged; wherein the mixing element has a vane element (43, 53, 123) which is formed as a directing element for conveying the components from the inlet opening (112, 113) to the outlet opening; wherein the vane element (43, 53, 123) has a directing surface (45, 55) which has a concave curvature with respect to the outlet opening and is further remote from the outlet opening at the onflow side than at the outflow side; wherein the housing has a first antechamber and a main chamber between which a second antechamber is provided; and wherein the fluid components are combined for the first time in the first antechamber.
A hearing device comprising a power source, electric circuitry, an output transducer, an input transducer configured to receive sound from an acoustic environment (16, 22) and to generate a corresponding environment sound signal, and a wireless receiver configured to wirelessly receive a sound signal via an external microphone close to a sound source remote from the hearing device and to provide a corresponding wireless source sound signal, wherein the electric circuitry is configured to receive both the environment sound signal and the wireless source sound signal during use of the hearing device to estimate at least one parameter of an impulse response of the sound path from the location of the origin of the wireless source sound signal to the location of a user of the hearing device in dependence of the wireless source sound signal and the environment sound signal, characterised in that the electric circuitry is configured to process the environment sound signal in dependence of the estimated at least one impulse-response parameter, thereby generating an output sound signal where the electric circuitry is configured to use the estimated at least one impulse-response parameter to identify signal portions of the environment sound signal that mainly comprise late reverberations and to indicate such signal portions, and the electric circuitry is configured to use the estimated at least one impulse-response parameter to modify the contents of the output sound signal, such that late reverberations are attenuated relative to direct sound and/or relative to early reverberations. the electric circuitry is configured to process the environment sound signal in dependence of the estimated at least one impulse-response parameter, thereby generating an output sound signal where the electric circuitry is configured to use the estimated at least one impulse-response parameter to identify signal portions of the environment sound signal that mainly comprise late reverberations and to indicate such signal portions, and the electric circuitry is configured to use the estimated at least one impulse-response parameter to modify the contents of the output sound signal, such that late reverberations are attenuated relative to direct sound and/or relative to early reverberations.
Facility for supplying a working gas provided with an insulating chamber and a door that is pivotable about a vertical axis in order to allow the opening and the closing of said chamber, comprising at least one source (5, 7) of a pressurised working gas arranged in the insulating chamber, and comprising a device for distributing a working gas, comprising a set of pipes (15, 21, 23) connected to at least one source (5, 7) of working gas and to at least one outlet pipe (10, 10A) in order to convey the working gas to a station where it will be consumed, functional members (25, 25A), in particular valves (27, 29, 27A, 29A), arranged in the pipes (15, 21, 23) and used to regulate the flow of the working gas therein, as well as detectors (34, 34A) of gas leaks, and a monitoring and command unit (35, 35A) comprising means for communicating with said functional members (35, 35A), means for monitoring tasks relating to said functional members (25, 25A), and means for controlling the monitoring means which can be actuated by an operator of the distribution device (9, 9A), said controlling means comprising a touchscreen having command regions (60, 61, 62, 63, 64, 65, 66, 67, 68) associated with monitoring corresponding tasks, characterised in that said touchscreen is attached to a housing built into the door, said housing being able to and designed to pivot about a vertical axis.
Method for generating an acoustic voice output in a domestic appliance, comprising the following steps: a) Identification of at least one pre-stored voice segment in dependence on a digital voice template, wherein at least one template segment of the voice template is retrieved, (b) retrieval of the identified voice segment, (c) acoustic output of the retrieved voice segment, wherein a plurality of voice segments are pre-stored in at least one persistent information object, and are identified and/or retrieved in each case on the basis of at least one item of position information in the information object, wherein for identification according to step a), a local identification is carried out by assigning the template segment to the position information of a local information object in order to determine a local position information, and, if the local identification is unsuccessful, a data storage-side identification of voice segments provided in a mobile data storage unit is performed, and if the data storage-side identification according to step a) is unsuccessful, a remote identification of the voice segment is performed on the basis of the template segment, the remote identification not being carried out locally by the domestic appliance but spatially separated by a remote computing unit. a) Identification of at least one pre-stored voice segment in dependence on a digital voice template, wherein at least one template segment of the voice template is retrieved, (b) retrieval of the identified voice segment, (c) acoustic output of the retrieved voice segment,
Device for protecting a catalyst and/or a vehicular particulate trap from theft, in particular for industrial vehicles, the catalyst and/or the trap comprising connection means to the vehicle, the device comprising at least a box-shaped body and fixing means (14, 15) of the box-shaped body to fixed parts of the vehicle for protecting said connection means wherein the box-shaped body comprises an outer part, intended to face towards the outside, and at least an inner part (16 - 19) intended to face towards the catalyst or trap to be protected and wherein a cross section height (w1, w2, w3,..) between said outer part and said at least an inner part is larger than a useful cutting length of a disc of a portable grinder.
Plastics pipe joint, in particular polyolefin plastic pipe joint, comprising a first tubular element provided with a first male end having an external wall provided with an external thread and a second tubular element provided with a second female end having an inner wall provided with an internal thread and an internal shoulder, said first male end being screwable into said second female end along a longitudinal axis in an assembled configuration for joining said first tubular element and said second tubular element so as to form said joint, said inner wall of said second female end being provided with at least one flexible and/or deformable sealing portion which is interposed between said internal shoulder and said internal thread, said external wall of said first male end comprising an abutment portion that is interposed between a front edge of said first male end and said external thread, characterized in that said sealing portion is integrally formed with said second tubular element and in said assembled configuration is bent by, and abuts, said abutment portion so as to carry out with the latter a sealing portion for the wet seal of said joint.
A Coriolis Vibratory Accelerometer, CVA, system comprising: a sensor system comprising a pendulous element configured to rotate about a first axis via first flexures in response to an input acceleration provided along a second axis that is orthogonal with respect to the first axis, the sensor system further comprising: a torque-summing gimbal coupled to the pendulous element via the first flexures and coupled to a housing via second flexures; and a plurality of oscillating-masses that are driven by an oscillating-mass forcer signal generated as a triangular wave via at least one third electrode to provide a substantially constant velocity anti-parallel periodic in-plane oscillatory motion of the plurality of oscillating-masses; and an accelerometer controller configured to monitor a pickoff signal associated with the rotation of the pendulous element from at least one first electrode coupled to the pendulous element and to provide a forcer signal to at least one second electrode coupled to the torque-summing gimbal to force the torque-summing gimbal to rotate in an oscillatory manner about the second axis via the second flexures at a same frequency as the in-plane oscillatory motion of the plurality of oscillating-masses based on the pickoff signal such that the in-plane oscillatory motion of the plurality of oscillating-masses and the rotation of the torque-summing gimbal in the oscillatory manner generates a Coriolis force to provide Coriolis force-rebalance of the pendulous element, the accelerometer controller being further configured to determine the input acceleration based on the rotation of the torque-summing gimbal. a torque-summing gimbal coupled to the pendulous element via the first flexures and coupled to a housing via second flexures; and a plurality of oscillating-masses that are driven by an oscillating-mass forcer signal generated as a triangular wave via at least one third electrode to provide a substantially constant velocity anti-parallel periodic in-plane oscillatory motion of the plurality of oscillating-masses; and an accelerometer controller configured to monitor a pickoff signal associated with the rotation of the pendulous element from at least one first electrode coupled to the pendulous element and to provide a forcer signal to at least one second electrode coupled to the torque-summing gimbal to force the torque-summing gimbal to rotate in an oscillatory manner about the second axis via the second flexures at a same frequency as the in-plane oscillatory motion of the plurality of oscillating-masses based on the pickoff signal such that the in-plane oscillatory motion of the plurality of oscillating-masses and the rotation of the torque-summing gimbal in the oscillatory manner generates a Coriolis force to provide Coriolis force-rebalance of the pendulous element, the accelerometer controller being further configured to determine the input acceleration based on the rotation of the torque-summing gimbal.