mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating an integrated light emitting diode micro-display, in particular an integrated full-colour LED micro-display, comprising: providing a colour converter capable of changing the wavelength of light, the colour converter including: a transparent substrate; a red/green colour conversion layer; and a mask; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer; wherein the micro-LED array generates pumped blue light at a shorter wavelength than emitted light from the colour converter thereby producing light at a longer wavelength; wherein the integrated LED micro-display comprises a red colour conversion cell comprising the red colour conversion layer, a green colour conversion cell comprising the green colour conversion layer, and a blue sub-pixel without colour conversion substance; characterised in that the blue sub-pixel comprises a transparent layer, wherein the transparent layer does not comprise a colour conversion substance; and wherein the transparent layer has a diffusing or scattering function to provide a similar beam profile as the colour conversion layer in the red and green cells. providing a colour converter capable of changing the wavelength of light, the colour converter including: a transparent substrate; a red/green colour conversion layer; and a mask; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer; a transparent substrate; a red/green colour conversion layer; and a mask; providing an array of micro-LEDs connected to the colour converter and which is capable of forming electrical connections and pumping blue light into the colour converter; and providing a backplane control in the form of an electronic drive layer; wherein the micro-LED array generates pumped blue light at a shorter wavelength than emitted light from the colour converter thereby producing light at a longer wavelength; wherein the integrated LED micro-display comprises a red colour conversion cell comprising the red colour conversion layer, a green colour conversion cell comprising the green colour conversion layer, and a blue sub-pixel without colour conversion substance; characterised in that the blue sub-pixel comprises a transparent layer, wherein the transparent layer does not comprise a colour conversion substance; and wherein the transparent layer has a diffusing or scattering function to provide a similar beam profile as the colour conversion layer in the red and green cells.
An aircraft brake assembly comprising: a cylindrical piston chamber insert; a frame component configured to support the piston chamber insert and formed of a first material, wherein the frame component comprises a torque tube, one or more support tubes positioned at bolt locations surrounding the torque tube, and a ring that defines an opening adapted to receive the piston chamber insert; characterised in that a reinforcement component comprising at least one fiber or fabric wound around the one or more support tubes and around the piston chamber insert, wherein the at least one fiber or fabric is configured to resist radial motion of the piston chamber insert. a cylindrical piston chamber insert; a frame component configured to support the piston chamber insert and formed of a first material, wherein the frame component comprises a torque tube, one or more support tubes positioned at bolt locations surrounding the torque tube, and a ring that defines an opening adapted to receive the piston chamber insert; characterised in that a reinforcement component comprising at least one fiber or fabric wound around the one or more support tubes and around the piston chamber insert, wherein the at least one fiber or fabric is configured to resist radial motion of the piston chamber insert.
A computer-implemented method for determining a trajectory for inserting a patient into a given MR scanner including the following steps: a) providing an avatar representing specific body dimensions of the patient, wherein the avatar includes location information relating to at least one implant of the patient, b) providing a spatial magnetic field gradient data set relating to the MR scanner, c) defining an avatar pose at a starting point of the trajectory and a course for the trajectory for inserting the patient into the MR scanner, d) determining for several points on the trajectory the corresponding magnetic field value and/or its gradient value by combining the spatial magnetic field gradient data set with the avatar pose, e) determining and/or adapting the trajectory and/or the avatar pose so that the at least one implant only passes regions within the MR scanner that are below a predetermined threshold value concerning the magnetic field gradient, f) generating an information signal that indicates whether the determined trajectory leads to the at least one implant entering regions exceeding the predetermined threshold value, wherein a 3D avatar is provided by a 3D camera, an MRI scan, an MRT scan and/or a CT scan, characterised in that a three-dimensional trajectory is determined, wherein at least one point corresponding to the implant changes vertically along the three-dimensional trajectory, i.e. in an upward direction perpendicular to an insertion direction of the patient into a gantry of the MR scanner. a) providing an avatar representing specific body dimensions of the patient, wherein the avatar includes location information relating to at least one implant of the patient, b) providing a spatial magnetic field gradient data set relating to the MR scanner, c) defining an avatar pose at a starting point of the trajectory and a course for the trajectory for inserting the patient into the MR scanner, d) determining for several points on the trajectory the corresponding magnetic field value and/or its gradient value by combining the spatial magnetic field gradient data set with the avatar pose, e) determining and/or adapting the trajectory and/or the avatar pose so that the at least one implant only passes regions within the MR scanner that are below a predetermined threshold value concerning the magnetic field gradient, f) generating an information signal that indicates whether the determined trajectory leads to the at least one implant entering regions exceeding the predetermined threshold value,
An apparatus for extracting at least hydrostatic energy from sea waves, wherein the apparatus comprises: at least one first compartment being in fluid communication with at least one second compartment via a manifold having an internal volume filled with a liquid, each of the compartments (3, 5) having an internal volume being variable between a first internal volume, and a second internal volume being smaller than the first internal volume; wherein the at least one first compartment is spaced-apart from the at least one second compartment; and wherein the apparatus in a position of use is at least partly submerged and holds a total volume of liquid that is larger than a volume of liquid within the manifold, but less than a sum of the volume of the liquid within the manifold and a total first volume of the at least one first compartment and the at least one second compartment, characterised in that the volume of liquid within the manifold is larger than the total volume of liquid within the at least one first compartment and the at least one second compartment. at least one first compartment being in fluid communication with at least one second compartment via a manifold having an internal volume filled with a liquid, each of the compartments (3, 5) having an internal volume being variable between a first internal volume, and a second internal volume being smaller than the first internal volume; wherein the at least one first compartment is spaced-apart from the at least one second compartment; and wherein the apparatus in a position of use is at least partly submerged and holds a total volume of liquid that is larger than a volume of liquid within the manifold, but less than a sum of the volume of the liquid within the manifold and a total first volume of the at least one first compartment and the at least one second compartment, characterised in that the volume of liquid within the manifold is larger than the total volume of liquid within the at least one first compartment and the at least one second compartment.
A controller for controlling a boost converter and inverting buck converter in cascade configuration for converting a rectified AC voltage to a DC output current, the controller comprising: a boost controller configured to provide at least one first control signal referenced to a common voltage for controlling switching of the boost converter; and a buck controller configured to provide at least one second control signal referenced to the common voltage for controlling switching of the inverting buck converter, wherein the boost converter comprises a first switch controlled by the boost controller, and the inverting buck converter comprises a second switch controlled by the buck controller, said boost controller is configured to generate a plurality of boost pulses on said first control signal; and said buck controller is configured to generate a corresponding plurality of buck pulses on said second control signal; characterized in that each of said plurality of boost pulses has a rising edge that coincides with a rising edge of a corresponding one of said plurality of buck pulses; and each of said plurality of boost pulses has a falling edge that is later than a falling edge of a corresponding one of said plurality of buck pulses. a boost controller configured to provide at least one first control signal referenced to a common voltage for controlling switching of the boost converter; and a buck controller configured to provide at least one second control signal referenced to the common voltage for controlling switching of the inverting buck converter, wherein the boost converter comprises a first switch controlled by the boost controller, and the inverting buck converter comprises a second switch controlled by the buck controller, said boost controller is configured to generate a plurality of boost pulses on said first control signal; and said buck controller is configured to generate a corresponding plurality of buck pulses on said second control signal; characterized in that each of said plurality of boost pulses has a rising edge that coincides with a rising edge of a corresponding one of said plurality of buck pulses; and each of said plurality of boost pulses has a falling edge that is later than a falling edge of a corresponding one of said plurality of buck pulses.
Polymer composition comprising (a) 60.0-80.0 wt% of a (meth)acrylic polymer; and (b) 20.0-40.0 wt% of a copolymer prepared using styrene and maleic anhydride with regard to the total weight of (a) and (b), the total of (a) and (b) being 100 wt%; wherein the polymer composition is prepared by melt mixing of a mixture comprising (a) and (b) in a melt extruder, wherein the melt extruder comprises: (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition wherein during the melt mixing the temperature of the polymer composition in the volume of space (iv) is ≥ 235°C and ≤ 255°C wherein the (meth)acrylic polymer (a) is selected from polymethylmethacrylate (PMMA), polybutylmethacrylate (PBMA), poly(methylmethacrylate-ethylacrylate (PMMA-co-EA), or polyethyl acrylate. (a) 60.0-80.0 wt% of a (meth)acrylic polymer; and (b) 20.0-40.0 wt% of a copolymer prepared using styrene and maleic anhydride with regard to the total weight of (a) and (b), the total of (a) and (b) being 100 wt%; wherein the polymer composition is prepared by melt mixing of a mixture comprising (a) and (b) in a melt extruder, wherein the melt extruder comprises: (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition (i) an inlet for feeding the mixture; (ii) a barrel comprising one or more extruder screw(s) each comprising a tip; (iii) one or more opening(s) for removing the obtained polymer composition from the extruder; and (iv) a volume of space in the area between the tip(s) of the extruder screw(s) and the opening(s) for removing the obtained polymer composition wherein during the melt mixing the temperature of the polymer composition in the volume of space (iv) is ≥ 235°C and ≤ 255°C wherein the (meth)acrylic polymer (a) is selected from polymethylmethacrylate (PMMA), polybutylmethacrylate (PBMA), poly(methylmethacrylate-ethylacrylate (PMMA-co-EA), or polyethyl acrylate.
A system comprising: a memory device; and a processing device, operatively coupled with the memory device, configured to: identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation. a memory device; and a processing device, operatively coupled with the memory device, configured to: identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation. identify a first bit stored at a first page of the plurality of pages of a multi-level memory cell and a second bit stored at a second page of the plurality of pages of the multi-level memory cell; determine a first error rate associated with the first bit stored at the first page of the plurality of pages of the multi-level memory cell; adjust, by adjustment to at least one program verify voltage associated with the multi-level memory cell, the first error rate to exceed a second error rate associated with the second bit stored at the second page of the plurality of pages of the multi-level memory cell; determine whether the first error rate exceeds a threshold; and in response to determining that the first error rate exceeds the threshold, designate the second bit stored at the second page of the plurality of pages of the multi-level memory cell to perform an error correction operation.
Mounting kit for a choke with a toroidal core, wherein an insulating element which is insertable into an opening of the toroidal core is provided, the mounting kit comprising a first half shell and a second half shell for accommodating the toroidal core, a baseplate being provided, and latching means and/or guide means being provided to connect the first half shell, the second half shell, the insulating element and the baseplate to one another, the latching means including first latching means and/or guide means which are provided for connecting the two half shells (40, 60), the latching means including second latching means and/or guide means which are provided for connecting the first half shell to the baseplate, and the latching means including third latching means and/or guide means which are provided for connecting the insulating element to the baseplate, characterized in that the second latching means and/or guide means have at least three projections which emerge from the baseplate and at the free ends of which latching lugs are arranged.
An apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and computer program code configured to, with the processor, cause the apparatus to at least: receive probe data points defining at least one trajectory of a vehicle or a mobile device corresponding to an original equipment manufacturer, OEM; identify attributes of the at least one trajectory, wherein the identified attributes comprise values for respective trajectories; calculate a privacy risk associated with the at least one trajectory based, at least in part, on a distribution of values of the identified attributes, wherein the privacy risk comprises a measure of difficulty in identifying a source of the at least one trajectory, wherein the source is the OEM; and provide information associated with the at least one trajectory for location-based services in response to the privacy risk satisfying a predetermined value. receive probe data points defining at least one trajectory of a vehicle or a mobile device corresponding to an original equipment manufacturer, OEM; identify attributes of the at least one trajectory, wherein the identified attributes comprise values for respective trajectories; calculate a privacy risk associated with the at least one trajectory based, at least in part, on a distribution of values of the identified attributes, wherein the privacy risk comprises a measure of difficulty in identifying a source of the at least one trajectory, wherein the source is the OEM; and provide information associated with the at least one trajectory for location-based services in response to the privacy risk satisfying a predetermined value.
A ballistic protection structure comprising at least a first ballistic layer made of a textile of synthetic fibers and at least a second ballistic layer comprising a first holding element on which a plurality of slender metallic structures in the form of flat sheets and/or straight filiform elements are restrained, wherein said metallic structures are restrained at different points of the first holding element and wherein the free ends of the slender metallic structures are restrained to said first textile layer, wherein the slender metallic structures protrude from the first holding element generally perpendicularly, wherein the slender metallic structures are arranged so as to absorb by buckling the energy of impacts acting in a direction substantially perpendicular to planes that are in turn substantially perpendicular to the slender structures, wherein the slender metallic structures are made of a smart metal, characterized in that at least the 90% of the slender metallic structures form an angle comprised between 70° and 90° relative to the first holding element.
Coupling element for coupling two longitudinal girder elements for a shaft of an elevator system, wherein the longitudinal girder elements are subdivided into a plurality of partitions, wherein each partition is allocated a function, wherein the coupling element comprises force transmitting means which comprise a gearwheel for the transmission of force, wherein the gearwheel of the coupling element couples together gearwheels of the two longitudinal girder elements that are to be coupled together.
Water fitting assembly, comprising (a) a fitting housing with an inlet connector for raw water; (b) modules (38, 48) for treating water for a heating circuit; and (c) an outlet connector for treated water for fixed installation between a raw water supply and the inlet connector of a heating circuit; characterized by (d) an additional connector arranged upstream of the modules for treating water for releasably connecting a temporary after-treatment unit having a shut-off valve and a pump for bypassing heating water from the heating circuit through the temporary after-treatment in the water fitting whereby the treatment of the heating water is effected at least partly by the modules for the treatment of water in the fixedly installed water fitting assembly; wherein (e) the outlet connector forms a common exit where treated raw water as well as treated heating water exits when the after-treatment unit is connected. (a) a fitting housing with an inlet connector for raw water; (b) modules (38, 48) for treating water for a heating circuit; and (c) an outlet connector for treated water for fixed installation between a raw water supply and the inlet connector of a heating circuit; characterized by (d) an additional connector arranged upstream of the modules for treating water for releasably connecting a temporary after-treatment unit having a shut-off valve and a pump for bypassing heating water from the heating circuit through the temporary after-treatment in the water fitting whereby the treatment of the heating water is effected at least partly by the modules for the treatment of water in the fixedly installed water fitting assembly; wherein (e) the outlet connector forms a common exit where treated raw water as well as treated heating water exits when the after-treatment unit is connected.
An in-line production method for providing a silica-based retention agent into a liquid flow of a stock suspension and into the short circulation of a paper or paperboard making machine, wherein the method comprises the steps of: (i) providing a liquid flow of a stock suspension; and (ii) feeding a silicate and an acidic media into said liquid flow of the stock suspension, wherein said retention agent is formed directly in said stock suspension;wherein said liquid flow constitutes a first portion of the total paper making stock suspension, which first portion comprises microfibrillated cellulose. (i) providing a liquid flow of a stock suspension; and (ii) feeding a silicate and an acidic media into said liquid flow of the stock suspension, wherein said retention agent is formed directly in said stock suspension;wherein said liquid flow constitutes a first portion of the total paper making stock suspension, which first portion comprises microfibrillated cellulose.
A profile connector screw for fixing a first profile rod, which has at least one undercut longitudinal groove, on a component, in particular on a second profile rod, comprising a shaft having an external thread and serving to fix the profile connector screw on the component, and comprising a screw head (4, 8) which has a driving means comprising a toothing and which serves to be disposed in the undercut longitudinal groove, characterized in that the toothing is realized as an end-side crown wheel toothing, and that a root plane of the toothing and/or a tip plane of the toothing, which extends preferably parallel to the root plane of the toothing, coincides with a radial plane of the profile connector screw.