mhurhangee/ep-ind-claims huggingface dataset:
A core holder (124, 224, 324, 400) comprising: an outer body; an internal sleeve that fits inside the outer body and extends along the length of the outer body; an end cap coupled to the outer body to create an internal chamber in which a core sample is stored and operable to move from an open position to a closed position; and a plurality of ports (436a and 436b) located on at least one of the outer body or the end cap, characterized by a strain gauge disposed on the internal sleeve and oriented such that the stresses and mechanical deformation of the core sample is recorded in any direction. an outer body; an internal sleeve that fits inside the outer body and extends along the length of the outer body; an end cap coupled to the outer body to create an internal chamber in which a core sample is stored and operable to move from an open position to a closed position; and a plurality of ports (436a and 436b) located on at least one of the outer body or the end cap, characterized by a strain gauge disposed on the internal sleeve and oriented such that the stresses and mechanical deformation of the core sample is recorded in any direction.
Geodetic measuring device designed as a theodolite or total station, comprising • an angle and distance measuring functionality for determining a position of a target object, • a sighting device comprising □ an objective having a multiply magnifying effect, □ a camera sensor, more particularly a CCD or CMOS area sensor, having a multiplicity of image detection points for detecting a camera image of a field of view, □ a focusing optical system disposed upstream of the camera sensor, wherein a first optical path is defined between the objective and the camera sensor, and □ an eyepiece, more particularly wherein the optical axes of the objective and of the eyepiece are coaxial, and • an electronic graphics processor for generating a display image from the camera image, wherein the sighting device has an electronic graphical display component disposed upstream of the eyepiece and serving for the visual representation of the generated display image, and wherein a second optical path separated from the first optical path by the display image is defined between the display component and the eyepiece, in such a way that optical rays incident through the objective are prevented from entering into the eyepiece, characterized in that the graphics processor, when generating the display image, carries out the electronic processing step of electronic compensation of a distortion of the camera image. • an angle and distance measuring functionality for determining a position of a target object, • a sighting device comprising □ an objective having a multiply magnifying effect, □ a camera sensor, more particularly a CCD or CMOS area sensor, having a multiplicity of image detection points for detecting a camera image of a field of view, □ a focusing optical system disposed upstream of the camera sensor, wherein a first optical path is defined between the objective and the camera sensor, and □ an eyepiece, more particularly wherein the optical axes of the objective and of the eyepiece are coaxial, and □ an objective having a multiply magnifying effect, □ a camera sensor, more particularly a CCD or CMOS area sensor, having a multiplicity of image detection points for detecting a camera image of a field of view, □ a focusing optical system disposed upstream of the camera sensor, wherein a first optical path is defined between the objective and the camera sensor, and □ an eyepiece, more particularly wherein the optical axes of the objective and of the eyepiece are coaxial, • an electronic graphics processor for generating a display image from the camera image,
Method for producing a component from at least two structural elements (110, 120) to be adhesively bonded to one another, having the following steps: - providing a first structural element of a fibre-composite hybrid material, which is formed from alternating fibre and metal layers (112, 114) and in which the fibre layers comprise a fibrous material and a matrix material of a fibre composite material, - providing at least one second structural element, which has been or is arranged on the first structural element by means of an unhardened adhesive layer between the structural elements (110, 120), characterized by - controlling the temperature of the unhardened adhesive layer in at least one partial region by controlling the temperature of one or more metal layers of the fibre-composite hybrid material of the first structural element in at least this partial region in such a way that the adhesive layer in this partial region obtains a higher degree of surface adhesion than the unhardened adhesive layer without having to be completely hardened in the process, in order thus to fix the second structural element on the first structural element, and - introducing the fixed structural elements (110, 120) into an oven and controlling the temperature of the fixed structural elements (110, 120) to completely harden the adhesive layer between the first structural element and the second structural element. - providing a first structural element of a fibre-composite hybrid material, which is formed from alternating fibre and metal layers (112, 114) and in which the fibre layers comprise a fibrous material and a matrix material of a fibre composite material, - providing at least one second structural element, which has been or is arranged on the first structural element by means of an unhardened adhesive layer between the structural elements (110, 120), - controlling the temperature of the unhardened adhesive layer in at least one partial region by controlling the temperature of one or more metal layers of the fibre-composite hybrid material of the first structural element in at least this partial region in such a way that the adhesive layer in this partial region obtains a higher degree of surface adhesion than the unhardened adhesive layer without having to be completely hardened in the process, in order thus to fix the second structural element on the first structural element, and - introducing the fixed structural elements (110, 120) into an oven and controlling the temperature of the fixed structural elements (110, 120) to completely harden the adhesive layer between the first structural element and the second structural element.
A system for the correction of vertebral trauma, the system comprising: a first and a second guide member (12, 12') configured to fixedly attach to a first and a second bone anchor assembly (2, 4), respectively, each of the first and second guide members (12, 12') having a proximal end and a distal end; a pivot rack connected to the first and second guide members (12, 12') to allow the first and second guide members (12, 12') to rotate relative to one another each about a pivot point at the distal ends of the first and second guide members (12, 12'); the pivot rack comprising a first and a second arm unit, each said arm unit comprising: a distal attachment element configured to attach to the respective distal ends of the first and second guide member (12, 12'), and configured to permit the first and second guide members (12, 12') to pivot and angle relative to a respective elongate arm element of the first and second arm units; a locking rack connected to the first and second guide members (12, 12'), configured to reversibly prevent the guide members (12, 12') from rotating relative to one another in at least one direction; and a first and second bone anchor assembly (2, 4) connected to the distal ends of the respective first and second guide members (12, 12') to restrict the translation and angulation about at least one axis of the bone anchor assemblies (2, 4) relative to the guide members (12, 12'). a first and a second guide member (12, 12') configured to fixedly attach to a first and a second bone anchor assembly (2, 4), respectively, each of the first and second guide members (12, 12') having a proximal end and a distal end; a pivot rack connected to the first and second guide members (12, 12') to allow the first and second guide members (12, 12') to rotate relative to one another each about a pivot point at the distal ends of the first and second guide members (12, 12'); the pivot rack comprising a first and a second arm unit, each said arm unit comprising: a distal attachment element configured to attach to the respective distal ends of the first and second guide member (12, 12'), and configured to permit the first and second guide members (12, 12') to pivot and angle relative to a respective elongate arm element of the first and second arm units; a locking rack connected to the first and second guide members (12, 12'), configured to reversibly prevent the guide members (12, 12') from rotating relative to one another in at least one direction; and a first and second bone anchor assembly (2, 4) connected to the distal ends of the respective first and second guide members (12, 12') to restrict the translation and angulation about at least one axis of the bone anchor assemblies (2, 4) relative to the guide members (12, 12').
A computing device comprising: a housing; a liquid cooling system; a first compartment of the housing that contains processing components; a second compartment of the housing that contains cooling components (615, 617) of the liquid cooling system; an airgap in the housing that physically separates and thermally isolates the first compartment and the second compartment, the airgap defined by external surfaces of the housing; and characterized by comprising: two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap, the two conduits (620-1, 620-2) routing, internal to the housing, tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment, the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components (615, 617) for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing, the airgap defined by opposing airgap-facing sides (641, 642) of the first compartment and the second compartment, and opposing airgap-facing sides of the two conduits (620-1, 620-2). a housing; a liquid cooling system; a first compartment of the housing that contains processing components; a second compartment of the housing that contains cooling components (615, 617) of the liquid cooling system; an airgap in the housing that physically separates and thermally isolates the first compartment and the second compartment, the airgap defined by external surfaces of the housing; and characterized by comprising: two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap, the two conduits (620-1, 620-2) routing, internal to the housing, tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment, the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components (615, 617) for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing, the airgap defined by opposing airgap-facing sides (641, 642) of the first compartment and the second compartment, and opposing airgap-facing sides of the two conduits (620-1, 620-2). two conduits (620-1, 620-2) of the housing that join the first compartment and the second compartment at opposite sides of the airgap, the two conduits (620-1, 620-2) routing, internal to the housing, tubing (625-1, 625-2) of the liquid cooling system from the first compartment to the second compartment, the tubing (625-1, 625-2) conveying liquid that carries heat from the processing components to the cooling components (615, 617) for dissipation; wherein the airgap is through the housing from a first external surface of the housing to a second external surface of the housing, the airgap defined by opposing airgap-facing sides (641, 642) of the first compartment and the second compartment, and opposing airgap-facing sides of the two conduits (620-1, 620-2).
A compound for an organic optoelectronic device represented by the following Chemical Formula ad-1: wherein in the above Chemical Formula ad-1, X 1 is -O- or -S-, X 2 is -C- or -Si-, L 1 and L 2 are independently a substituted or unsubstituted C2 to C10 alkenylene group, a substituted or unsubstituted C2 to C10 alkynylene group, a substituted or unsubstituted C6 to C30 arylene group, or a substituted or unsubstituted C2 to C30 heteroarylene group, m1 and m2 are independently integers of 0 or 1, n1 and n2 are independently integers ranging from 0 to 3, R 1 to R 6 are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, or a substituted or unsubstituted C2 to C30 heteroaryl group, and R a and R b are each independently, hydrogen, deuterium, a substituted or unsubstituted silyl group, a substituted or unsubstituted C4 to C60 amine group, a substituted or unsubstituted C6 to C30 aryl group, or a substituted or unsubstituted C2 to C30 heteroaryl group. X 1 is -O- or -S-, X 2 is -C- or -Si-, L 1 and L 2 are independently a substituted or unsubstituted C2 to C10 alkenylene group, a substituted or unsubstituted C2 to C10 alkynylene group, a substituted or unsubstituted C6 to C30 arylene group, or a substituted or unsubstituted C2 to C30 heteroarylene group, m1 and m2 are independently integers of 0 or 1, n1 and n2 are independently integers ranging from 0 to 3, R 1 to R 6 are independently hydrogen, deuterium, a substituted or unsubstituted C1 to C10 alkyl group, a substituted or unsubstituted C6 to C30 aryl group, or a substituted or unsubstituted C2 to C30 heteroaryl group, and R a and R b are each independently, hydrogen, deuterium, a substituted or unsubstituted silyl group, a substituted or unsubstituted C4 to C60 amine group, a substituted or unsubstituted C6 to C30 aryl group, or a substituted or unsubstituted C2 to C30 heteroaryl group.
An electric power tool for operating with alternating current, having an electric motor, an electronic control device and an electric power switch for actuating the electric motor, wherein the control device is designed such that the potential across the detection input after respective triggering of the power switch is monitored, and, on the basis of this, a check is made as to whether the power switch is on, and that it is triggered again if the power switch was not on or had returned to the off state during monitoring, and that this check and possibly renewed triggering of the power switch is repeated with a half-wave of the AC voltage, characterized in that the electric power tool is a handheld electric power tool and the electronic control device comprises a bias voltage output and a detection input which are connected to one another and to that side of the circuit breaker which faces the electric motor via a voltage divider which has a summation point, and in that the check and possibly renewed triggering of the power switch is carried out at most x times within a half-wave of the AC voltage, where x = T half-wave /T triggering sequence.
A cooking appliance, such as a braising pan or fryer, having at least one cooking wall having a drain hole, and a drainage device, wherein it comprises a collector having an inlet orifice and an outlet orifice that are connected together by a collection chamber, and wherein the device also comprises means (16, 62, 74) for moving and guiding the collector, said means being designed to engage with said appliance in order to allow the collector to be moved, at least about an axis of movement which is approximately parallel to the axis of said inlet orifice, between at least a first position in which its inlet orifice communicates with the drain hole and a second position in which these orifices do not communicate with one another.
A method for directionally amplifying a sound signal of a hearing device, the method comprising: receiving the sound signal from a microphone of the hearing device; extracting directional sound signals (40, 46) from the sound signal; determining a word sequence from each directional sound signal (40, 46); determining a semantic representation from each word sequence; identifying conversations from the semantic representations, wherein each conversation is associated with one or more directional sound signals (40, 46) and wherein each conversation is identified by clustering semantic representations; processing the sound signal, such that directional sound signals (40, 46) associated with one of the conversations are amplified. receiving the sound signal from a microphone of the hearing device; extracting directional sound signals (40, 46) from the sound signal; determining a word sequence from each directional sound signal (40, 46); determining a semantic representation from each word sequence; identifying conversations from the semantic representations, wherein each conversation is associated with one or more directional sound signals (40, 46) and wherein each conversation is identified by clustering semantic representations; processing the sound signal, such that directional sound signals (40, 46) associated with one of the conversations are amplified.
A method, comprising: - cutting and cropping a reference signal waveform ( b) at sections of the reference signal waveform ( b) mapped to cyclic extensions of OFDM symbols (s, 1751-1755) of a sequence of OFDM symbols, to obtain reference signal waveform segments ( b 1 - b 5), the reference signal waveform and the reference waveform segments being defined in accordance with a non-coherent modulation scheme, wherein the method further comprises for each one of the reference signal waveform segments: - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃) associated with one or more subcarriers of a plurality of subcarriers, - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃) of a part ( s w) of the OFDM symbol (s, 1751-1755) associated with the one or more subcarriers to the reference signal waveform segment ( b 1 -b 5). - cutting and cropping a reference signal waveform ( b) at sections of the reference signal waveform ( b) mapped to cyclic extensions of OFDM symbols (s, 1751-1755) of a sequence of OFDM symbols, to obtain reference signal waveform segments ( b 1 - b 5), the reference signal waveform and the reference waveform segments being defined in accordance with a non-coherent modulation scheme, wherein the method further comprises for each one of the reference signal waveform segments: - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃) associated with one or more subcarriers of a plurality of subcarriers, - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), - shaping the respective reference signal waveform segment to obtain a respective at least one signal waveform ( x̃) associated with one or more subcarriers of a plurality of subcarriers, - inputting the respective at least one signal waveform to at least one corresponding channel of a multi-channel orthogonal frequency division multiplex, OFDM, modulator ( F, 1502, 1503, 1504), and - transmitting a respective OFDM symbol ( s) of the sequence of OFDM symbols output by the OFDM modulator ( F, 1502, 1503, 1504), wherein said shaping approximates a baseband representation ( b̃) of a part ( s w) of the OFDM symbol (s, 1751-1755) associated with the one or more subcarriers to the reference signal waveform segment ( b 1 -b 5).
A mobile processing machine for the production of guide devices in the form of parallel longitudinal grooves in traffic areas for visually impaired persons, characterised in that provided in a chassis are at least one front steerable wheel, a driven groove milling device and two rear wheels, which are respectively arranged at the end adjoining the groove milling device and jointly adjustably in height relative to the groove milling device.
An inverter device for an electric vehicle, comprising: an inverter circuit that controls an electric motor connected to a wheel via a connecting member; and a control unit that controls torque of the electric motor, wherein the control unit includes: a current control unit that executes control so that torque of the electric motor matches a torque command for the electric motor, or so that a current flowing through the electric motor matches a current command for the electric motor; and a limiter unit that puts limitations so that a magnitude of the torque command or a magnitude of the current command does not become equal to or smaller than a preset predetermined valued. an inverter circuit that controls an electric motor connected to a wheel via a connecting member; and a control unit that controls torque of the electric motor, wherein the control unit includes: a current control unit that executes control so that torque of the electric motor matches a torque command for the electric motor, or so that a current flowing through the electric motor matches a current command for the electric motor; and a limiter unit that puts limitations so that a magnitude of the torque command or a magnitude of the current command does not become equal to or smaller than a preset predetermined valued. a current control unit that executes control so that torque of the electric motor matches a torque command for the electric motor, or so that a current flowing through the electric motor matches a current command for the electric motor; and a limiter unit that puts limitations so that a magnitude of the torque command or a magnitude of the current command does not become equal to or smaller than a preset predetermined valued.