mhurhangee/ep-ind-claims huggingface dataset:
A wavelength conversion member formed of an inorganic phosphor dispersed in a glass matrix, wherein the glass matrix contains, in % by mole, 30 to 85% SiO 2, 0 to 20% B 2 O 3, 0 to 25% Al 2 O 3, 0 to 3% Li 2 O, 0 to 3% Na 2 O, 0 to 3% K 2 O, 0 to 3% Li 2 O+Na 2 O+K 2 O, 0 to 35% MgO, 0 to 35% CaO, 0 to 35% SrO, 0 to 35% BaO, 0.1 to 45% MgO+CaO+SrO+BaO, and 0.1 to 1.5% ZnO, and the inorganic phosphor is at least one selected from the group consisting of an oxide phosphor, a nitride phosphor, an oxynitride phosphor, a chloride phosphor, an oxychloride phosphor, a halide phosphor, an aluminate phosphor, and a halophosphoric acid chloride phosphor. the glass matrix contains, in % by mole, 30 to 85% SiO 2, 0 to 20% B 2 O 3, 0 to 25% Al 2 O 3, 0 to 3% Li 2 O, 0 to 3% Na 2 O, 0 to 3% K 2 O, 0 to 3% Li 2 O+Na 2 O+K 2 O, 0 to 35% MgO, 0 to 35% CaO, 0 to 35% SrO, 0 to 35% BaO, 0.1 to 45% MgO+CaO+SrO+BaO, and 0.1 to 1.5% ZnO, and the inorganic phosphor is at least one selected from the group consisting of an oxide phosphor, a nitride phosphor, an oxynitride phosphor, a chloride phosphor, an oxychloride phosphor, a halide phosphor, an aluminate phosphor, and a halophosphoric acid chloride phosphor.
A method for mode change of a switching regulator, comprising: a) creating in internal registers of the switching regulator, two output voltages thresholds, comprising an individually trimmable high voltage threshold (Vhigh) and an individually trimmable low voltage threshold (Vlow), which are both trimmable after fabrication, which are applied in an output voltage range of the switching regulator between a minimum voltage (Vmin) to a maximum voltage (Vmax), wherein an output voltage target (V-target), which can be dynamically updated, the high voltage threshold (Vhigh) and the low voltage threshold (Vlow) are all held in the internal registers; b) adjusting the values of the two output voltage thresholds (Vhigh, Vlow) and of the output voltage target (V-target); and c) operating said switching regulator in a mode defined by comparisons of said two output voltage thresholds (Vhigh, Vlow) with the output voltage target (V-target), wherein a sync mode, or an automatic mode or a sleep mode can be selected. a) creating in internal registers of the switching regulator, two output voltages thresholds, comprising an individually trimmable high voltage threshold (Vhigh) and an individually trimmable low voltage threshold (Vlow), which are both trimmable after fabrication, which are applied in an output voltage range of the switching regulator between a minimum voltage (Vmin) to a maximum voltage (Vmax), wherein an output voltage target (V-target), which can be dynamically updated, the high voltage threshold (Vhigh) and the low voltage threshold (Vlow) are all held in the internal registers; b) adjusting the values of the two output voltage thresholds (Vhigh, Vlow) and of the output voltage target (V-target); and c) operating said switching regulator in a mode defined by comparisons of said two output voltage thresholds (Vhigh, Vlow) with the output voltage target (V-target), wherein a sync mode, or an automatic mode or a sleep mode can be selected.
A turbine section comprising: first and second turbine rotors each carrying turbine blades for rotation about a central axis, said rotors each having at least one rotating seal (44,301) at a radially inner location; a vane section formed of a plurality of circumferentially spaced vane components, each of said vane components having an airfoil extending radially outwardly of a platform; a first seal fixed to said platform, said first seal having a seal material positioned to be adjacent said at least one rotating seal from the first rotor which is positioned in one axial direction relative to said first seal; and a second seal extending circumferentially beyond at least a plurality of said vane components, said second seal having seal material positioned to be adjacent said at least one rotating seal of the second rotor on an opposed axial side from said first rotor, characterised in that: said second seal is connected to said platforms of said plurality of vane components, but is radially movable relative to said platforms. first and second turbine rotors each carrying turbine blades for rotation about a central axis, said rotors each having at least one rotating seal (44,301) at a radially inner location; a vane section formed of a plurality of circumferentially spaced vane components, each of said vane components having an airfoil extending radially outwardly of a platform; a first seal fixed to said platform, said first seal having a seal material positioned to be adjacent said at least one rotating seal from the first rotor which is positioned in one axial direction relative to said first seal; and a second seal extending circumferentially beyond at least a plurality of said vane components, said second seal having seal material positioned to be adjacent said at least one rotating seal of the second rotor on an opposed axial side from said first rotor,
A system comprising: one or more processors configured to detect perimeter edges of one or more rotor blades of a turbine assembly as depicted in a series of image frames using boundary analysis performed on the image frames, wherein the one or more processors are configured to identify a set of the image frames as key frames based on positional offsets between the perimeter edges that are detected in the image frames and a reference blade pose such that the key frames are able to be inspected for objects-of-interest without inspecting the image frames that are not the key frames. one or more processors configured to detect perimeter edges of one or more rotor blades of a turbine assembly as depicted in a series of image frames using boundary analysis performed on the image frames, wherein the one or more processors are configured to identify a set of the image frames as key frames based on positional offsets between the perimeter edges that are detected in the image frames and a reference blade pose such that the key frames are able to be inspected for objects-of-interest without inspecting the image frames that are not the key frames.
A display comprising: a display panel, wherein the display panel is exposed at the front face of the display; a back-face member having rigidity and provided on the back face of the display panel, the back-face member covering the back face of the display panel, a backlight unit including a light source, an optical sheet and a light-guiding plate, the backlight unit being provided between the display panel and the back-face member, and a reinforcing frame provided on the display panel side of the back-face member, wherein the reinforcing frame and the back-face member are fixed to each other, wherein the back-face member is made of glass, and wherein the display panel and the back-face member are connected with a middle chassis. a display panel, wherein the display panel is exposed at the front face of the display; a back-face member having rigidity and provided on the back face of the display panel, the back-face member covering the back face of the display panel, a backlight unit including a light source, an optical sheet and a light-guiding plate, the backlight unit being provided between the display panel and the back-face member, and a reinforcing frame provided on the display panel side of the back-face member, wherein the reinforcing frame and the back-face member are fixed to each other, wherein the back-face member is made of glass, and wherein the display panel and the back-face member are connected with a middle chassis.
A seal assembly located around rotating components of a gas turbine engine comprising: a full hoop outer ring (210; 320; 420; 520); a plurality of inner segments (220; 500) located radially inward of the full hoop outer ring (210; 320; 420; 520), wherein at least one of the inner segments (220; 500) comprises: a shoe (310; 410; 510) coupled to the outer ring (210; 320; 420;520), wherein the shoe (310; 410; 510) is configured to move radially with respect to the outer ring (210; 320; 420; 520); characterised by a radially outer beam (340; 440; 540) and a radially inner beam (330; 430; 530) coupling the shoe (310; 410; 510) to the outer ring (210; 320; 420; 520); and a first wave spring (360; 460; 561) located between the outer beam (340; 440; 540) and the inner beam (330; 430; 530) contacting the inner beam (330; 430; 530) and the outer beam (340; 440; 540), wherein the first wave spring (360; 460; 561) is configured to damp vibrations in the outer beam (340; 440; 540) and the inner beam (330; 430; 530); and a second wave spring located between the inner beam (330; 430; 530) and the shoe (310; 410; 510) contacting the shoe (310; 410; 510) and the inner beam (330; 430; 530). a full hoop outer ring (210; 320; 420; 520); a plurality of inner segments (220; 500) located radially inward of the full hoop outer ring (210; 320; 420; 520), wherein at least one of the inner segments (220; 500) comprises: a shoe (310; 410; 510) coupled to the outer ring (210; 320; 420;520), wherein the shoe (310; 410; 510) is configured to move radially with respect to the outer ring (210; 320; 420; 520); characterised by a radially outer beam (340; 440; 540) and a radially inner beam (330; 430; 530) coupling the shoe (310; 410; 510) to the outer ring (210; 320; 420; 520); and a first wave spring (360; 460; 561) located between the outer beam (340; 440; 540) and the inner beam (330; 430; 530) contacting the inner beam (330; 430; 530) and the outer beam (340; 440; 540), wherein the first wave spring (360; 460; 561) is configured to damp vibrations in the outer beam (340; 440; 540) and the inner beam (330; 430; 530); and a second wave spring located between the inner beam (330; 430; 530) and the shoe (310; 410; 510) contacting the shoe (310; 410; 510) and the inner beam (330; 430; 530). a shoe (310; 410; 510) coupled to the outer ring (210; 320; 420;520), wherein the shoe (310; 410; 510) is configured to move radially with respect to the outer ring (210; 320; 420; 520); characterised by a radially outer beam (340; 440; 540) and a radially inner beam (330; 430; 530) coupling the shoe (310; 410; 510) to the outer ring (210; 320; 420; 520); and a first wave spring (360; 460; 561) located between the outer beam (340; 440; 540) and the inner beam (330; 430; 530) contacting the inner beam (330; 430; 530) and the outer beam (340; 440; 540), wherein the first wave spring (360; 460; 561) is configured to damp vibrations in the outer beam (340; 440; 540) and the inner beam (330; 430; 530); and a second wave spring located between the inner beam (330; 430; 530) and the shoe (310; 410; 510) contacting the shoe (310; 410; 510) and the inner beam (330; 430; 530).
A method for forming an electrically conductive path of a fuel cell array, comprising: at least one of obtaining and providing a planar substrate (102, 202, 302, 502, 602, 702) having first and second major faces (120, 122, 220, 222, 302, 322, 520, 522, 620, 622, 720, 722) and a first volume, the substrate comprising at least one ionically conductive region (102, 202, 302, 502, 602, 702); forming at least one aperture in the at least one ionically conductive region of the planar substrate, the aperture extending between the first and second faces and defining a punctured planar substrate having a second volume the same as the first volume; and disposing an electrically conductive material (106, 206, 506, 606, 738) in the aperture of the punctured planar substrate, to give the electrically conductive path extending between the first and second face; wherein the electrically conductive path is sealed to the substrate such that the substrate is gas-tight between the first and second face. at least one of obtaining and providing a planar substrate (102, 202, 302, 502, 602, 702) having first and second major faces (120, 122, 220, 222, 302, 322, 520, 522, 620, 622, 720, 722) and a first volume, the substrate comprising at least one ionically conductive region (102, 202, 302, 502, 602, 702); forming at least one aperture in the at least one ionically conductive region of the planar substrate, the aperture extending between the first and second faces and defining a punctured planar substrate having a second volume the same as the first volume; and disposing an electrically conductive material (106, 206, 506, 606, 738) in the aperture of the punctured planar substrate, to give the electrically conductive path extending between the first and second face; wherein the electrically conductive path is sealed to the substrate such that the substrate is gas-tight between the first and second face.
A fermentation broth composition comprising: a) fermentation medium; b) hop acids; and d) a growing population of Zymomonas cells. a) fermentation medium; b) hop acids; and d) a growing population of Zymomonas cells.
A flow-pack packaging machine comprising: - a support frame, - a horizontal conveyor configured to advance a flow of products along a longitudinal direction, - an unwinding unit located above a portion of the horizontal conveyor and configured to feed a continuous packaging film (F', F"), - a stationary forming device configured to fold said packaging film (F', F") into the shape of a tubular element that surrounds the products to be packaged, - a longitudinal welding assembly located downstream of said forming device and configured to weld together opposite longitudinal edges of said tubular element, and - a transverse welding assembly configured for transversely welding said tubular element, characterized in that said unwinding unit comprises a vertical plate movable in a vertical direction along vertical guides carried by the support frame with respect to the supporting frame between a lowered position and a raised position, and vice versa, the vertical plate carrying a pair of unwinding shafts (28', 28") projecting cantileverly in a horizontal direction from the vertical plate the unwinding shafts (28', 28") being configured to carry respective reels (30', 30") of packaging films (F', F"). - a support frame, - a horizontal conveyor configured to advance a flow of products along a longitudinal direction, - an unwinding unit located above a portion of the horizontal conveyor and configured to feed a continuous packaging film (F', F"), - a stationary forming device configured to fold said packaging film (F', F") into the shape of a tubular element that surrounds the products to be packaged, - a longitudinal welding assembly located downstream of said forming device and configured to weld together opposite longitudinal edges of said tubular element, and - a transverse welding assembly configured for transversely welding said tubular element, characterized in that said unwinding unit comprises a vertical plate movable in a vertical direction along vertical guides carried by the support frame with respect to the supporting frame between a lowered position and a raised position, and vice versa, the vertical plate carrying a pair of unwinding shafts (28', 28") projecting cantileverly in a horizontal direction from the vertical plate the unwinding shafts (28', 28") being configured to carry respective reels (30', 30") of packaging films (F', F").
A method of selectively presenting received messages in a vehicle via an in-vehicle computing system, the method comprising: extracting information of a received message; determining an operating condition of the vehicle; assigning a priority to the received message based on the extracted information and the operating condition of the vehicle; inserting the received message into an ordered list of received messages based on the priority of the received message, the ordered list being re-ordered responsive to receiving a new message and responsive to detecting a change in the operating condition of the vehicle; and selectively presenting the information of the received message from the ordered list in order of priority based on the assigned priority of the received message and a selected operating condition of the vehicle being satisfied, the received messages from the ordered list being continuously presented in order of priority until the selected operating condition of the vehicle is no longer satisfied. extracting information of a received message; determining an operating condition of the vehicle; assigning a priority to the received message based on the extracted information and the operating condition of the vehicle; inserting the received message into an ordered list of received messages based on the priority of the received message, the ordered list being re-ordered responsive to receiving a new message and responsive to detecting a change in the operating condition of the vehicle; and selectively presenting the information of the received message from the ordered list in order of priority based on the assigned priority of the received message and a selected operating condition of the vehicle being satisfied, the received messages from the ordered list being continuously presented in order of priority until the selected operating condition of the vehicle is no longer satisfied.
A method for three-dimensional -printing a customized product, the method comprising: - loading a 3D-font from a database, wherein the 3D font comprises a matrix of character relations having a first index of every character of the 3D font and a second index of every character in the 3D font, wherein each character relation represents a physical connection transitioning a character represented by the first index to a character represented by the second index; - generating a 3D-representation of a customized product based on the 3D-font, the customized product being based on a plurality of characters received from a user; and - 3D-printing the customized product according to the generated 3D-representation. - loading a 3D-font from a database, wherein the 3D font comprises a matrix of character relations having a first index of every character of the 3D font and a second index of every character in the 3D font, wherein each character relation represents a physical connection transitioning a character represented by the first index to a character represented by the second index; - generating a 3D-representation of a customized product based on the 3D-font, the customized product being based on a plurality of characters received from a user; and - 3D-printing the customized product according to the generated 3D-representation.
A washing machine comprising a substantially bottomed cylindrical washing tank, a rotary wing (105, 205, 5) rotatably and freely arranged at a bottom of the washing tank, and a driving unit for rotatably driving the rotary wing (105, 205, 5) by being powered by electricity; the rotary wing (105, 205, 5) is formed in a disc shape and centered on a rotary axis, and a plurality of stirring blades (52, 52a-52e) radially extending from a center (Cw) towards an outer circumference of the rotary wing (105, 205, 5) are arranged on a surface of the rotary wing (105, 205, 5), wherein the center of the plurality of stirring blades (52, 52a-52e) is set at a position more misplaced towards an outer diameter direction than the rotary axis, and a protrusion part, which is a component arranged at the center (Cw) and is a base end portion of the above plurality of stirring blades (52a-52e), is protruded from a disc part forming in the disc shape towards the surface side along the axial direction of the rotary axis (Ra), wherein the protrusion amount (Hp) of the protrusion part is a maximum size between a face of the surface side of the disc part and the top end of the protrusion part in a direction parallel to the rotary axis (Ra) and wherein the protrusion amount (Hp) of the protrusion part is set to be larger than that of the stirring blade; and characterized in that: the washing machine further comprises baffle plate parts; wherein the baffle plate parts, which are protruded axially in the vicinity of the outer circumference, are respectively formed at recesses between the stirring blades (52, 52a, 52b). the washing machine further comprises baffle plate parts; wherein the baffle plate parts, which are protruded axially in the vicinity of the outer circumference, are respectively formed at recesses between the stirring blades (52, 52a, 52b).
A marine diesel cylinder lubricating oil composition which comprises (a) at least 60 wt.% of a Group I base stock oil of lubricating viscosity, and (b) a non-borated polyalkenyl bis-succinimide dispersant present in an amount of from 1.5 to 8.0 wt. %, on an actives basis, based on the total weight of the marine diesel cylinder lubricating oil composition, wherein the polyalkenyl substituent is derived from a polyalkene group having a number average molecular weight of from 1500 to 3000; and further wherein the marine diesel cylinder lubricating oil composition has a total base number of 20 to 30, wherein the TBN of the marine diesel cylinder lubricating oil composition is determined in accordance with ASTM Standard No. D2896.
An electronic device, comprising a display module, a middle frame, a sounder, a first circuit board, and a rear cover, wherein the middle frame is provided with an accommodation groove, and the display module is disposed in the accommodation groove; characterized in that the electronic device further comprises a first structural member, a side of the middle frame away from the display module is provided with a mounting groove, and the sounder is at least partially disposed in the mounting groove; the first structural member and the rear cover are disposed at the side of the middle frame away from the display module, the first structural member is located between the rear cover and the middle frame, and a first gap is present between the first structural member and the rear cover, wherein the first structural member and the middle frame enclose a first sound chamber of the sounder, and the first circuit board is located in the first sound chamber; or the first circuit board is located between the first structural member and the middle frame, a fixing groove is provided on the first circuit board, the sounder is partially disposed in the fixing groove, and the first structural member and the first circuit board enclose a first sound chamber of the sounder. characterized in that the electronic device further comprises a first structural member, a side of the middle frame away from the display module is provided with a mounting groove, and the sounder is at least partially disposed in the mounting groove; the first structural member and the rear cover are disposed at the side of the middle frame away from the display module, the first structural member is located between the rear cover and the middle frame, and a first gap is present between the first structural member and the rear cover, wherein the first structural member and the middle frame enclose a first sound chamber of the sounder, and the first circuit board is located in the first sound chamber; or the first circuit board is located between the first structural member and the middle frame, a fixing groove is provided on the first circuit board, the sounder is partially disposed in the fixing groove, and the first structural member and the first circuit board enclose a first sound chamber of the sounder.