mhurhangee/ep-ind-claims huggingface dataset:
A shaped floor former for installation within solid or timber flooring to provide a waterproof sloping surface for a showering area, the shaped floor former comprising: a level outer edge comprising a trimmable flat surface around the periphery of the former; an opening arranged to receive a waste water assembly; and one or more sloping surfaces for receiving a floor material, in which the one or more sloping surfaces extend from the level outer edge and slope towards the opening such that, in use, the one or more sloping surfaces define a flow path to direct water towards the opening; in which the former further comprises an integral waterproof membrane secured to all of the one or more sloping surfaces, and wherein the waterproof membrane overlaps the level outer edge and extends beyond the level outer edge, but is not adhered to the level outer edge. a level outer edge comprising a trimmable flat surface around the periphery of the former; an opening arranged to receive a waste water assembly; and one or more sloping surfaces for receiving a floor material, in which the one or more sloping surfaces extend from the level outer edge and slope towards the opening such that, in use, the one or more sloping surfaces define a flow path to direct water towards the opening; in which the former further comprises an integral waterproof membrane secured to all of the one or more sloping surfaces, and wherein the waterproof membrane overlaps the level outer edge and extends beyond the level outer edge, but is not adhered to the level outer edge.
A formulation for a hybrid adhesive composition with a component formed from i) at least one amino resin which is a condensation product of an aldehyde with a compound from the group of urea, melamine, benzoguanamine, glycoluril, acetoguanamine, biuret, or mixtures thereof, and ii) at least one polyether which comprises at least one ethylene oxide unit or propylene oxide unit and at least one isocyanate reactive group selected from the group encompassing hydroxyl, amino, epoxy, and thiol, this component being present with i) and ii) as a mixture.
A system for providing distributed communication with respect to at least one user equipment, the system comprising: multiple communication units (12a, 12b, 12c) for distributing the communication with respect to the at least one user equipment, at least one communication management unit connected to at least a part of the multiple communication units (12a, 12b, 12c) in a connection line for managing the distributed communication, at least one connection unit (14a, 14b, 14c) comprising loss-inserting properties for connecting at least one of the part of the multiple communication units (12a, 12b, 12c) to the connection line, at least one amplifying unit (15a, 15b, 15c) for being arranged with respect to at least one of the at least one connection unit (14a, 14b, 14c), and a scheduling unit, wherein the scheduling unit is configured to determine power loss with respect to the connection line and/or with respect to at least one of the at least one connection unit (14a, 14b, 14c) on the basis of the corresponding loss-inserting properties, characterized in that the at least one connection unit (14a, 14b, 14c) comprises at least two operating modes, and the at least two operating modes comprise a splitting mode, wherein the respective signal is split in order to be provided for the corresponding communication unit (12a, 12b, 12c) and to be forwarded on the connection line, and a bypass mode, wherein the respective signal is forwarded on the connection line. multiple communication units (12a, 12b, 12c) for distributing the communication with respect to the at least one user equipment, at least one communication management unit connected to at least a part of the multiple communication units (12a, 12b, 12c) in a connection line for managing the distributed communication, at least one connection unit (14a, 14b, 14c) comprising loss-inserting properties for connecting at least one of the part of the multiple communication units (12a, 12b, 12c) to the connection line, at least one amplifying unit (15a, 15b, 15c) for being arranged with respect to at least one of the at least one connection unit (14a, 14b, 14c), and a scheduling unit, wherein the scheduling unit is configured to determine power loss with respect to the connection line and/or with respect to at least one of the at least one connection unit (14a, 14b, 14c) on the basis of the corresponding loss-inserting properties, characterized in that the at least one connection unit (14a, 14b, 14c) comprises at least two operating modes, and the at least two operating modes comprise a splitting mode, wherein the respective signal is split in order to be provided for the corresponding communication unit (12a, 12b, 12c) and to be forwarded on the connection line, and a bypass mode, wherein the respective signal is forwarded on the connection line.
A patch module connected between a data bus and a ROM memory controller, the patch module comprising: at least one patch address register configured to store a ROM address; a patch data register corresponding to each patch address register, each patch data register configured for storing an instruction; an address comparator configured to compare an address received on the data bus with an address stored in each patch address register and output a first signal identifying a matching patch address register and a second signal indicating whether there is a matching address; and a first multiplexer configured to select the patch data register corresponding to the first signal from the address comparator and output the contents of the patch data register to the data bus, a second multiplexer configured to select either the content of the patch data register or the content of the ROM from the ROM memory controller based on the second signal from the address comparator, a status register configured to indicate whether each address register is active, characterized in that the status register is configured to indicate whether each address register is active based on the first signal output of the address comparator, the status register being coupled to a logic gate, along with the second signal from the address comparator, the logic gate generating an output signal for indicating whether there is a matching address only when the matching patch address register is active, the output signal of the logic gate being connected to the second multiplexer. at least one patch address register configured to store a ROM address; a patch data register corresponding to each patch address register, each patch data register configured for storing an instruction; an address comparator configured to compare an address received on the data bus with an address stored in each patch address register and output a first signal identifying a matching patch address register and a second signal indicating whether there is a matching address; and a first multiplexer configured to select the patch data register corresponding to the first signal from the address comparator and output the contents of the patch data register to the data bus, a second multiplexer configured to select either the content of the patch data register or the content of the ROM from the ROM memory controller based on the second signal from the address comparator, a status register configured to indicate whether each address register is active,
Method for performing interior cleaning on a vehicle by means of a service station, the method comprising the method steps of: introducing, by means of the service station, a liquid cleaning medium into an interior of the vehicle via at least one inlet interface of the vehicle; immersing at least one surface of at least one vehicle component of the vehicle interior, such as a vehicle seat or an interior floor, in the cleaning medium; and draining the liquid cleaning medium and the soiling dissolved therein via at least one drainage interface of the vehicle. introducing, by means of the service station, a liquid cleaning medium into an interior of the vehicle via at least one inlet interface of the vehicle; immersing at least one surface of at least one vehicle component of the vehicle interior, such as a vehicle seat or an interior floor, in the cleaning medium; and draining the liquid cleaning medium and the soiling dissolved therein via at least one drainage interface of the vehicle.
A laser ablation system comprising: a laser energy source configured to emit two or more laser outputs with different wavelengths, wherein the two or more laser outputs comprise a first laser output with a first wavelength and a second laser output with a second wavelength larger than the first wavelength; a laser applicator coupled to the laser energy source via a laser fiber and configured to output laser radiation at an ablation site; and a processor configured to: monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature. a laser energy source configured to emit two or more laser outputs with different wavelengths, wherein the two or more laser outputs comprise a first laser output with a first wavelength and a second laser output with a second wavelength larger than the first wavelength; a laser applicator coupled to the laser energy source via a laser fiber and configured to output laser radiation at an ablation site; and a processor configured to: monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature. monitor temperature at the ablation site; and control the laser energy source to emit at least one of the two or more laser outputs to apply thermal energy across the ablation site using the different wavelengths, wherein emitted laser outputs are chosen based on a wavelength and a current temperature, characterized in that the processor is configured to cause the laser energy source to emit a greater amount of the second laser output than the first laser output when a center part of the ablation site approaches a maximum target temperature before an outer part of the ablation site reaches a minimum target temperature.
A near-eye light display device, comprising: a display element, comprising a plurality of micro-image units, wherein each of the plurality of micro-image units is configured to provide an elemental image beam; a microlens array, disposed in front of the display element and comprising a plurality of microlenses, wherein the plurality of microlenses corresponds to the plurality of micro-image units respectively; and an optical element, disposed in front of the microlens array and located on a transmission path of the elemental image beams after passing through the plurality of microlenses, wherein the microlens array is located between the optical element and the display element, and each of the elemental image beams is projected toward the optical element after passing through a corresponding one of the plurality of microlenses, wherein the optical element has a first surface and a second surface, at least one of the first surface and the second surface being an aspherical surface, and wherein focal lengths of the plurality of microlenses increase gradually in value along directions from a center of the microlenses array to a left or right of the microlenses array, or focal lengths of the plurality of microlenses first increase and then reduce in value along directions from a center of the microlenses array to a left or right of the microlenses array. a display element, comprising a plurality of micro-image units, wherein each of the plurality of micro-image units is configured to provide an elemental image beam; a microlens array, disposed in front of the display element and comprising a plurality of microlenses, wherein the plurality of microlenses corresponds to the plurality of micro-image units respectively; and an optical element, disposed in front of the microlens array and located on a transmission path of the elemental image beams after passing through the plurality of microlenses, wherein the microlens array is located between the optical element and the display element, and each of the elemental image beams is projected toward the optical element after passing through a corresponding one of the plurality of microlenses, wherein the optical element has a first surface and a second surface, at least one of the first surface and the second surface being an aspherical surface, and wherein focal lengths of the plurality of microlenses increase gradually in value along directions from a center of the microlenses array to a left or right of the microlenses array, or focal lengths of the plurality of microlenses first increase and then reduce in value along directions from a center of the microlenses array to a left or right of the microlenses array.
An amniotic membrane powder composition comprising an amount of (i) total protein in the range of 30 mg/g to 500 mg/g, preferably the total protein is in the range of 50 mg/g to 250 mg/g; (ii) elastin in the range of 4 mg/g to 100 mg/g, preferably the elastin is in the range of 5 mg/g to 60 mg/g; (iii) collagen in the range of 10 mg/g to 800 mg/g, preferably the collagen is in the range of 10 mg/g to 600 mg/g; (iv) glycosaminoglycans in the range of 0.1 mg/g to 5 mg/g, preferably the glycosaminoglycans is in the range of 0.5 mg/g to 2 mg/g; (v) thrombospondin-1 (TSP-1) in the range of 30 μg/g to 1000 μg/g, preferably the thrombospondin-1 (TSP-1) is in the range of 50 μg/g to 400 μg/g. (vi) pentraxin 3 (PTX-3) in the range of 0.1 μg/g to 50 μg/g, preferably the pentraxin 3 (PTX-3) is in the range of 1 μg/g to 20 μg/g; or (vii) tumor necrosis factor-stimulated gene 6 (TSG-6) less than 1.5 ng/g, preferably the TSG-6 is less than 1.0 ng/g, the composition further comprising a scaffold, wherein the scaffold is a hydrogel, wherein the hydrogel comprises PEGDMal. (i) total protein in the range of 30 mg/g to 500 mg/g, preferably the total protein is in the range of 50 mg/g to 250 mg/g; (ii) elastin in the range of 4 mg/g to 100 mg/g, preferably the elastin is in the range of 5 mg/g to 60 mg/g; (iii) collagen in the range of 10 mg/g to 800 mg/g, preferably the collagen is in the range of 10 mg/g to 600 mg/g; (iv) glycosaminoglycans in the range of 0.1 mg/g to 5 mg/g, preferably the glycosaminoglycans is in the range of 0.5 mg/g to 2 mg/g; (v) thrombospondin-1 (TSP-1) in the range of 30 μg/g to 1000 μg/g, preferably the thrombospondin-1 (TSP-1) is in the range of 50 μg/g to 400 μg/g. (vi) pentraxin 3 (PTX-3) in the range of 0.1 μg/g to 50 μg/g, preferably the pentraxin 3 (PTX-3) is in the range of 1 μg/g to 20 μg/g; or (vii) tumor necrosis factor-stimulated gene 6 (TSG-6) less than 1.5 ng/g, preferably the TSG-6 is less than 1.0 ng/g,
Method for providing an active load pull measurement system for a device under test, comprising - supplying an input source signal at the source side of the device under test and injection signals at the source and load side of the device under test for creating predetermined reflection coefficients at respective reference planes of the device under test, the predetermined reflection coefficients comprising desired reflection coefficient versus frequency functions at or around a fundamental frequency, and/or at or around one or more harmonic frequencies or baseband frequencies, and for each of the fundamental and one or more harmonic frequencies or baseband frequencies: - obtaining measurement data at the source and load side of the device under test and determining from the measurement data actual measured reflection coefficient versus frequency functions, - determining injections signal parameters by iteratively comparing the actual measured reflection coefficient versus frequency functions with the desired reflection coefficient versus frequency functions, - converting the injection signal parameters into the injection signals at the source and load side by digital-to-analog conversion, wherein obtaining the measurement data comprises analog-to-digital conversion with a first frequency resolution, the first frequency resolution being equal or better than a second frequency resolution applied in the digital-to-analog conversion. - supplying an input source signal at the source side of the device under test and injection signals at the source and load side of the device under test for creating predetermined reflection coefficients at respective reference planes of the device under test, the predetermined reflection coefficients comprising desired reflection coefficient versus frequency functions at or around a fundamental frequency, and/or at or around one or more harmonic frequencies or baseband frequencies, - obtaining measurement data at the source and load side of the device under test and determining from the measurement data actual measured reflection coefficient versus frequency functions, - determining injections signal parameters by iteratively comparing the actual measured reflection coefficient versus frequency functions with the desired reflection coefficient versus frequency functions, - converting the injection signal parameters into the injection signals at the source and load side by digital-to-analog conversion,
An instrument for driving a bone anchor assembly into bone, comprising: a shaft assembly comprising a first handle and an elongate shaft with a distal tip configured to couple to a bone anchor assembly; a stylet adjuster assembly comprising a second handle and a carrier assembly having a plurality of predefined fixed positioning features for allowing a stylet to be releasably coupled to the carrier assembly in one of the plurality of predefined fixed positions to position a distal tip of the stylet at a desired position relative to the distal tip of the elongate shaft, the carrier assembly being configured to axially translate relative to the shaft assembly in response to rotation of the second handle relative to the elongate shaft, and the carrier assembly being configured to rotate with the shaft assembly in response to rotation of the first handle relative to the second handle. a shaft assembly comprising a first handle and an elongate shaft with a distal tip configured to couple to a bone anchor assembly; a stylet adjuster assembly comprising a second handle and a carrier assembly having a plurality of predefined fixed positioning features for allowing a stylet to be releasably coupled to the carrier assembly in one of the plurality of predefined fixed positions to position a distal tip of the stylet at a desired position relative to the distal tip of the elongate shaft, the carrier assembly being configured to axially translate relative to the shaft assembly in response to rotation of the second handle relative to the elongate shaft, and the carrier assembly being configured to rotate with the shaft assembly in response to rotation of the first handle relative to the second handle.
Product shelf for a product dispensing machine, comprising a product shelf base which has a front end which is provided for outputting products from the product shelf, comprising a ramp which is provided on the product shelf base and which is arranged and formed in such a way that the product to be outputted from the product shelf can be slid onto the ramp, tips off the ramp before reaching the front end of the product shelf base, and thus tips over the front end of the product shelf base.
A method of detection and monitoring of a fluid flow, in particular of a fluid flow in filtration processes, especially of leakage in constructions and/or in ground. characterized in that a prefabricated multi-sensor integrated cable comprising secured in a cable tube a power line, a data line, a structure consisting of repeated sections; wherein each section is individually addressed and controlled, and each section comprises: a heat generator in the form of a point heater, a temperature sensor connected to an A/D converter, an amplifier and a memory, and where the sections are connected to the power line and the data line, and where the prefabricated multi-sensor integrated cable is terminated with parallel, serial, USB, or other suitable connectors, and where said cable is introduced into monitored environment and connected to a power source and to a control and recording unit comprising a means for acquisition, recording, processing and visualization of measurement data, then the spatial position of each temperature sensor is determined in monitored environment, and the heat generator is supplied with a current controlled by the control and recording unit according to selected algorithm, then the temperature of monitored environment in function of space and time is measured with use of the temperature sensors, and produced data are transferred to the control and recording unit where these data are recorded and processed to obtain spatial and temporal distribution of temperature in monitored environment, and this distribution is visualized and/or stored in a memory unit of the control and recording unit.