mhurhangee/ep-ind-claims huggingface dataset:
Pump for a water-conducting household appliance, with a pump drive, which comprises an electric drive, wherein the electric drive is embodied as an electronically commutated wet-running motor, in which a rotor housing is provided between rotor and stator and is composed of a front housing shell and a pot-shaped shield, which are both connected to one another in a form-fit manner, wherein the rotor of the electric drive is arranged inside the rotor housing, wherein a shaft of the electric drive is rotatably mounted by a front sliding bearing facing the housing shell and by a rear sliding bearing facing the plate, wherein the rotor is retained on the shaft in a torque-proof manner, wherein the electric drive has an axial bearing facing the front sliding bearing for retaining its rotor on the shaft so as to compensate for axial forces during operation of the pump, wherein the front sliding bearing forms a planar surface for a first end face of the axial bearing, wherein the axial bearing has a multi-sided outer contour and the rotor comprises a bearing seat, which has a multi-sided inner contour which corresponds to the multi-sided outer contour of the axial bearing, wherein the first end face of the axial bearing has a section which runs in a planar fashion, wherein the first end face forms a planar surface for the front sliding bearing, wherein this first end face has a recess, which runs centrally through an axle hole of the axial bearing, wherein a second end face of the axial bearing facing the first end face has a section which runs in a curved fashion, wherein the bearing seat has a base surface, which has a section which runs in a curved fashion, and wherein the base surface of the bearing seat has a curvature which corresponds exactly or substantially to the curvature of the second end face of the axial bearing.
A system comprising: an electrode apparatus comprising a plurality of electrodes to monitor electrical activity from tissue of a patient; and a computing apparatus comprising processing circuitry and coupled to the electrode apparatus, the computing apparatus configured to: monitor electrical activity using the plurality of electrodes to generate a plurality of cardiac signals over time, generate a dispersion signal from the plurality of cardiac signals, wherein the dispersion signal is representative of the dispersion of the plurality of cardiac signals over time, and determine a QRS onset time value and a QRS offset time value for each of at least one QRS complex within the monitored electrical activity based on the dispersion signal. an electrode apparatus comprising a plurality of electrodes to monitor electrical activity from tissue of a patient; and a computing apparatus comprising processing circuitry and coupled to the electrode apparatus, the computing apparatus configured to: monitor electrical activity using the plurality of electrodes to generate a plurality of cardiac signals over time, generate a dispersion signal from the plurality of cardiac signals, wherein the dispersion signal is representative of the dispersion of the plurality of cardiac signals over time, and determine a QRS onset time value and a QRS offset time value for each of at least one QRS complex within the monitored electrical activity based on the dispersion signal. monitor electrical activity using the plurality of electrodes to generate a plurality of cardiac signals over time, generate a dispersion signal from the plurality of cardiac signals, wherein the dispersion signal is representative of the dispersion of the plurality of cardiac signals over time, and determine a QRS onset time value and a QRS offset time value for each of at least one QRS complex within the monitored electrical activity based on the dispersion signal.
A computer implemented method to generate training data for a machine learning algorithm for determining security vulnerabilities of a virtual machine VM in a virtualised computing environment, the machine learning algorithm determining the vulnerabilities based on a vector of configuration characteristics for the VM, the method comprising: receiving a plurality of VM configuration vectors for each of one or more training VMs, each configuration vector including attributes of a configuration of a VM and having a temporal indication; receiving a security occurrence identification being referable to a VM configuration vector for a training VM based on a temporal indication of the security occurrence, the security occurrence identification including information for defining a vector of vulnerabilities for the training VM associated with the referenced VM configuration vector, and associating the referenced VM configuration vector with the vulnerability vector as a first training example; identifying one or more further VM configuration vectors for the training VM, each of the further VM configuration vectors having temporal indications preceding that of the referenced VM configuration vector; and associating a modified form of the vulnerability vector with each of the further VM configuration vectors as further training examples, the vulnerability vector being modified for each further VM configuration vector by a reverse decay function such that each temporally earlier VM configuration vector is associated with a vulnerability vector indicating vulnerability to a lesser degree. receiving a plurality of VM configuration vectors for each of one or more training VMs, each configuration vector including attributes of a configuration of a VM and having a temporal indication; receiving a security occurrence identification being referable to a VM configuration vector for a training VM based on a temporal indication of the security occurrence, the security occurrence identification including information for defining a vector of vulnerabilities for the training VM associated with the referenced VM configuration vector, and associating the referenced VM configuration vector with the vulnerability vector as a first training example; identifying one or more further VM configuration vectors for the training VM, each of the further VM configuration vectors having temporal indications preceding that of the referenced VM configuration vector; and associating a modified form of the vulnerability vector with each of the further VM configuration vectors as further training examples, the vulnerability vector being modified for each further VM configuration vector by a reverse decay function such that each temporally earlier VM configuration vector is associated with a vulnerability vector indicating vulnerability to a lesser degree.
A measuring apparatus for a suction conveyor belt of a shredding machine of the tobacco-processing industry for conveying material, in particular tobacco, wherein the suction conveyor belt comprises at least one outwardly, preferably downwardly, open strand guide channel, the cavity of which is bounded by two lateral channel shears (16a, 16b) and a suction belt along a conveying path, wherein the measuring apparatus is provided for determining properties of the material conveyed along the conveying path and comprises a body, at least one microwave measuring device, and at least one resonator cavity, wherein the body comprises a first end face and an opposing second end face as well as an aperture opening into both end faces (100a, 100b) and equipped with an outwardly open, preferably downwardly open in the installed position of the measuring apparatus, region and is configured such that, in the installed position of the measuring apparatus where the aperture is aligned with the cavity of the strand guide channel, the body can be arranged with one of its end faces (100a, 100b) on the strand guide channel or can be fit into the strand guide channel with its two end faces (100a, 100b), and wherein the resonator cavity is formed within the body adjacent to the aperture and is open towards the aperture via at least one measuring window, characterized in that the microwave measuring device is divided into at least one high-frequency unit (130, 132) and a processing unit, and the at least one high-frequency unit (130, 132) is arranged adjacent to the aperture, and the processing unit is arranged so as to be remote from the aperture on and/or in the body. wherein the measuring apparatus is provided for determining properties of the material conveyed along the conveying path and comprises a body, at least one microwave measuring device, and at least one resonator cavity, wherein the body comprises a first end face and an opposing second end face as well as an aperture opening into both end faces (100a, 100b) and equipped with an outwardly open, preferably downwardly open in the installed position of the measuring apparatus, region and is configured such that, in the installed position of the measuring apparatus where the aperture is aligned with the cavity of the strand guide channel, the body can be arranged with one of its end faces (100a, 100b) on the strand guide channel or can be fit into the strand guide channel with its two end faces (100a, 100b), and wherein the resonator cavity is formed within the body adjacent to the aperture and is open towards the aperture via at least one measuring window, characterized in that the microwave measuring device is divided into at least one high-frequency unit (130, 132) and a processing unit, and the at least one high-frequency unit (130, 132) is arranged adjacent to the aperture, and the processing unit is arranged so as to be remote from the aperture on and/or in the body.
Assembly from a multiplicity of support elements for a reagent which by way of the respective support element is to be incorporated in a microfluidic installation, in particular a flow cell, and from a holder which receives the multiplicity of support elements, wherein the respective support element, while keeping vacant at least a region of the support element which receives the reagent, is secured in all spatial directions by the holder by way of a form-fit, wherein the support elements in the manner of a plug are configured having a reagent receptacle region at one end side and a widening which comprises a handling region at the other end side, and the holder has a support plate having passage openings which are formed in a modular grid and in which the support elements are able to be inserted with the reagent receptacle region leading, and wherein the widening of the support elements is formed by a flange and the support elements by way of a slightly conical portion are able to be introduced into the passage openings until the flange stops on the support plate so as to have minor play parallel to the plate plane, wherein the support elements in the stop position by way of the reagent receptacle region project from the support plate, characterized in that a holding plate which is common to all support elements and is connected to the support plate, or a dedicated locking mechanism which is assigned to each of the passage openings, engages on the flange on the side thereof that faces away from the support plate.
A MEMS chip structure, comprising a substrate, a side wall, a dielectric plate, a MEMS micromirror array, and a grid array, wherein the side wall is of an annular structure, the substrate covers an opening on one side of the side wall, the dielectric plate covers an opening on the other side of the side wall, and the side wall, the substrate, and the dielectric plate form a hollow structure; the MEMS micromirror array and the grid array are located inside the hollow structure; the MEMS micromirror array is located above the substrate, and the MEMS micromirror array comprises a plurality of grooves and a plurality of MEMS micromirrors, wherein the plurality of MEMS micromirrors are in a one-to-one correspondence with the plurality of grooves, and the plurality of MEMS micromirrors are located in the corresponding grooves or above the corresponding grooves; and the grid array is located above the MEMS micromirror array, and a lower surface of the grid array is connected to upper surfaces of side walls of at least some of the plurality of grooves. the side wall is of an annular structure, the substrate covers an opening on one side of the side wall, the dielectric plate covers an opening on the other side of the side wall, and the side wall, the substrate, and the dielectric plate form a hollow structure; the MEMS micromirror array and the grid array are located inside the hollow structure; the MEMS micromirror array is located above the substrate, and the MEMS micromirror array comprises a plurality of grooves and a plurality of MEMS micromirrors, wherein the plurality of MEMS micromirrors are in a one-to-one correspondence with the plurality of grooves, and the plurality of MEMS micromirrors are located in the corresponding grooves or above the corresponding grooves; and the grid array is located above the MEMS micromirror array, and a lower surface of the grid array is connected to upper surfaces of side walls of at least some of the plurality of grooves.
A system comprising: one or more processors; and memory storing processor-executable instructions that, when executed by the one or more processors, configure the system to: receive, from a vehicle computing device associated with a vehicle, a request for guidance input for navigating around an obstacle; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint, the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; characterised by the following further instructions: determine, at a first time, that a condition for providing remote guidance is satisfied; enable inputs into the user interface based at least in part on the condition being satisfied; determine, at a second time, that the condition for providing remote guidance is not satisfied; and disable the inputs into the user interface based at least in part on the condition not being satisfied. one or more processors; and memory storing processor-executable instructions that, when executed by the one or more processors, configure the system to: receive, from a vehicle computing device associated with a vehicle, a request for guidance input for navigating around an obstacle; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint, the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; receive, from a vehicle computing device associated with a vehicle, a request for guidance input for navigating around an obstacle; receive, as received data and from the vehicle computing device, sensor data or data based at least in part on the sensor data; receive, via a user interface associated with a guidance system, a first input corresponding to a first waypoint, the first input being based at least in part on the received data; send first data associated with the first waypoint to the vehicle computing device; cause the vehicle to be controlled based at least in part on the first waypoint; determine, at a first time, that a condition for providing remote guidance is satisfied; enable inputs into the user interface based at least in part on the condition being satisfied; determine, at a second time, that the condition for providing remote guidance is not satisfied; and disable the inputs into the user interface based at least in part on the condition not being satisfied.
A kit for providing a kitchen appliance having a rotational drive system in a base unit thereof with a spiralizing function which enables slicing of a foodstuff into at least one strip, the kit comprising: a foodstuff engagement member adapted to engage with both the drive system and the foodstuff so as to enable the foodstuff to be rotated by the drive system; and a utensil for pressing onto the foodstuff as the foodstuff is being rotated, the utensil comprising: a housing having an inner surface defining a cavity for receiving the rotating foodstuff, and a graspable outer surface; and a cutter, the cutter being arranged to contact the foodstuff when the utensil is being pressed onto the rotating foodstuff so as to enable slicing of the foodstuff into said at least one strip, characterized in that the utensil is handheld, and in that the cutter is mounted in the cavity. a foodstuff engagement member adapted to engage with both the drive system and the foodstuff so as to enable the foodstuff to be rotated by the drive system; and a utensil for pressing onto the foodstuff as the foodstuff is being rotated, the utensil comprising: a housing having an inner surface defining a cavity for receiving the rotating foodstuff, and a graspable outer surface; and a cutter, the cutter being arranged to contact the foodstuff when the utensil is being pressed onto the rotating foodstuff so as to enable slicing of the foodstuff into said at least one strip, a housing having an inner surface defining a cavity for receiving the rotating foodstuff, and a graspable outer surface; and a cutter, the cutter being arranged to contact the foodstuff when the utensil is being pressed onto the rotating foodstuff so as to enable slicing of the foodstuff into said at least one strip, characterized in that the utensil is handheld, and in that the cutter is mounted in the cavity.
Device for treating objects, in particular dental prosthetics and/or teeth, having: - a receiving volume for receiving a cleaning fluid; - a plasma source configured to generate a nonthermal plasma, wherein - the device is configured to mix a plasma product with cleaning fluid, whereby an activated cleaning fluid can be generated, and wherein - the device is configured to use the activated cleaning fluid on an object, in particular on at least one dental prosthetic and/or at least one tooth, wherein the plasma source is arranged to act on an air space arranged above a fill level of the cleaning fluid in the receiving volume, wherein the device has a mixing apparatus for mixing the plasma product with the cleaning fluid, wherein the mixing apparatus is arranged in the receiving volume, characterized in that the device is configured to take gas or air from an air volume above a fill level of the cleaning fluid and to supply the gas or the air to the mixing apparatus in the receiving volume below the fill level. - a receiving volume for receiving a cleaning fluid; - a plasma source configured to generate a nonthermal plasma, wherein - the device is configured to mix a plasma product with cleaning fluid, whereby an activated cleaning fluid can be generated, and wherein - the device is configured to use the activated cleaning fluid on an object, in particular on at least one dental prosthetic and/or at least one tooth, wherein the plasma source is arranged to act on an air space arranged above a fill level of the cleaning fluid in the receiving volume, wherein the device has a mixing apparatus for mixing the plasma product with the cleaning fluid, wherein the mixing apparatus is arranged in the receiving volume, characterized in that the device is configured to take gas or air from an air volume above a fill level of the cleaning fluid and to supply the gas or the air to the mixing apparatus in the receiving volume below the fill level.
A bag awning of a caravan or of a motorhome, comprising a roof element that is supported on the ground, at least a its free front end, by at least one support rod, characterized in that the roof element is designed as an inflatable hollow body and forms the rollable part of the bag awning and can be received in the bag of the bag awning.
Working implement, comprising at least one handle and a drive motor, wherein the handle is joined to the drive motor via at least one anti-vibration element (16, 17, 18, 19, 20), wherein the anti-vibration element (18, 19) is held on a first housing part of the working implement and in operation acts together with a second housing part of the working implement, wherein the anti-vibration element (18, 19) acts as a stop buffer, characterised in that the anti-vibration element comprises a damping section with an annular wall expanding towards the second housing part, wherein the wall thickness (f) and the degree of opening of the damping section are matched to one another in such a way that the damping section turns away to the outside when a constructively predetermined force acting in operation is exceeded, so that the second housing part bears against an inside of the wall of the damping section, wherein the damping section has an edge facing the second housing part and having at least one raised area, and wherein the raised area is designed for contacting the second housing part.
An article comprising: a fibrous structure including one or more nonwoven material layers comprising a fiber matrix formed by a lapping process; wherein the fiber matrix comprises polymeric binder fibers having a softening and/or melting temperature of about 190 °C or greater; wherein the polymeric binder fibers comprise polybutylene terephthalate, including co-PET; wherein the article is adapted to withstand temperatures of about 190 °C or greater while in use; and wherein the article is a thermoacoustic insulation material. a fibrous structure including one or more nonwoven material layers comprising a fiber matrix formed by a lapping process; wherein the fiber matrix comprises polymeric binder fibers having a softening and/or melting temperature of about 190 °C or greater; wherein the polymeric binder fibers comprise polybutylene terephthalate, including co-PET; wherein the article is adapted to withstand temperatures of about 190 °C or greater while in use; and wherein the fiber matrix comprises polymeric binder fibers having a softening and/or melting temperature of about 190 °C or greater; wherein the polymeric binder fibers comprise polybutylene terephthalate, including co-PET; wherein the article is adapted to withstand temperatures of about 190 °C or greater while in use; and wherein the article is a thermoacoustic insulation material.
A book-like document, in particular an identification document, with a binding which has a fold region, with a plurality of data pages (17, 18) which have at least one flexible layer and which comprise at least one data area and a fold region in which a folded edge is formed which comprises, at least in sections, a connecting component permitting an undetachable connection with a further data page and/or an end paper and/or a binding, said data pages (17, 18) being, at least in sections, undetachably incorporated into the fold region of the binding through welding or laminating, characterised in that the connecting component which is provided at least in sections in the fold region is applied onto the flexible layer on only one side or on both sides thereof.