mhurhangee/ep-ind-claims huggingface dataset:
A MEMS gyroscope (1; 20) comprising a mass system (2; 4; 11, 12; 21-24; 25A-25C), a dynamic absorber (3, 6; 45, 46) and a driving structure, wherein: the mass system comprises a support region (4; 11, 12; 25A-25C) and a suspended mass (2; 21-24), the suspended mass being elastically carried by the support region through first elastic elements (5; 30- 37) and subject to disturbance forces along a vibration direction; the dynamic absorber (3, 6; 45, 46) is configured to reduce movements of the suspended mass due to the disturbance forces, the dynamic absorber comprising a damping mass (3; 45) coupled to the suspended mass (2; 21-24) through second elastic elements (6; 46) and having a natural oscillation frequency (ω 22); the first and second elastic elements are configured to enable the suspended mass and the damping mass to move in the vibration direction; the driving structure is connected to the suspended mass (2; 21-24) through third elastic elements (33, 35) and is configured to drive the suspended mass (2; 21-24) in a driving direction orthogonal to the vibration direction at the natural oscillation frequency (ω 22) of the damping mass (3; 45); and the suspended mass is capacitively coupled to fixed sensing electrodes. the mass system comprises a support region (4; 11, 12; 25A-25C) and a suspended mass (2; 21-24), the suspended mass being elastically carried by the support region through first elastic elements (5; 30- 37) and subject to disturbance forces along a vibration direction; the dynamic absorber (3, 6; 45, 46) is configured to reduce movements of the suspended mass due to the disturbance forces, the dynamic absorber comprising a damping mass (3; 45) coupled to the suspended mass (2; 21-24) through second elastic elements (6; 46) and having a natural oscillation frequency (ω 22); the first and second elastic elements are configured to enable the suspended mass and the damping mass to move in the vibration direction; the driving structure is connected to the suspended mass (2; 21-24) through third elastic elements (33, 35) and is configured to drive the suspended mass (2; 21-24) in a driving direction orthogonal to the vibration direction at the natural oscillation frequency (ω 22) of the damping mass (3; 45); and the suspended mass is capacitively coupled to fixed sensing electrodes.
A sandwich fuselage panel (212-A) comprising: an outer skin member; an inner skin member coupled to the outer skin member at a first edge (230-A) and a second edge (230-B), wherein the outer skin member and the inner skin member form a cavity comprising: a center portion including a uniform or substantially uniform cross-sectional height, a first transition portion (224-A) extending from the center portion to the first edge, and a second transition portion (224-B) extending from the center portion to the second edge; and a cured foam adhesive occupying each of the first transition portion and the second transition portion, further comprising a core structure occupying the center portion of the cavity, wherein preferably the core structure fits the dimensions of the center portion, wherein the core structure is a honeycomb structure, wherein the cured adhesive completely fills the transition portions (224-A, 224-B) of the cavity sandwiched between the outer skin member and the inner skin member. an outer skin member; an inner skin member coupled to the outer skin member at a first edge (230-A) and a second edge (230-B), wherein the outer skin member and the inner skin member form a cavity comprising: a center portion including a uniform or substantially uniform cross-sectional height, a first transition portion (224-A) extending from the center portion to the first edge, and a second transition portion (224-B) extending from the center portion to the second edge; and a cured foam adhesive occupying each of the first transition portion and the second transition portion, further comprising a core structure occupying the center portion of the cavity, wherein preferably the core structure fits the dimensions of the center portion, wherein the core structure is a honeycomb structure, wherein the cured adhesive completely fills the transition portions (224-A, 224-B) of the cavity sandwiched between the outer skin member and the inner skin member.
A method for producing a main frame (10, 11) for a wind turbine, wherein a main carrier is produced by casting a casting as a cast part from cast iron with spheroidal graphite, and a rear carrier is produced as a welded part, and wherein at least one weldable cast-in part is provided that, when producing the main carrier, is partially cast in a rear-side connecting piece of the main carrier, and that is or will be connected to the rear carrier outside of the main carrier.
An infant formula powder composition comprising micronized lactose or lactose microcrystals (i) smaller than 30 micrometer, and/or (ii) of which at least 80 % has a size less than 20 micrometer, and/or (iii) at least 80 % has a size less than 10 micrometer, and/or (iv) having a median particle size D50 below 10 micrometer.
A method comprising: forming an image of a scene on a sensor through a coded aperture, wherein the coded aperture and the sensor are optically coupled within an imaging platform to form a superpositioned, physically encoded image of the scene on the sensor; generating raw image data from the sensor representative of the superpositioned, physically encoded image of the scene; and transmitting the raw image data to a remote platform located remote from the imaging platform; wherein the imaging platform includes an airborne platform, wherein transmitting the raw image data includes wirelessly transmitting the raw image data from the airborne platform to the remote platform; the method further characterized by using the imaging platform to deconvolve the superpositioned, physically encoded image into a decoded image and to direct a mobile physical resource to move to follow a targeting vector guiding the mobile physical resource to a target in the decoded image without transmitting the decoded image out from the imaging platform. forming an image of a scene on a sensor through a coded aperture, wherein the coded aperture and the sensor are optically coupled within an imaging platform to form a superpositioned, physically encoded image of the scene on the sensor; generating raw image data from the sensor representative of the superpositioned, physically encoded image of the scene; and transmitting the raw image data to a remote platform located remote from the imaging platform; wherein the imaging platform includes an airborne platform, wherein transmitting the raw image data includes wirelessly transmitting the raw image data from the airborne platform to the remote platform; the method further characterized by using the imaging platform to deconvolve the superpositioned, physically encoded image into a decoded image and to direct a mobile physical resource to move to follow a targeting vector guiding the mobile physical resource to a target in the decoded image without transmitting the decoded image out from the imaging platform.
A nozzle assembly for a desuperheating device configured for spraying cooling water, the nozzle assembly comprising: a nozzle housing having a tubular outer wall and a tubular inner wall collectively defining a generally annular flow passage, the tubular inner wall having a lower section circumvented by the tubular outer wall; a valve element movably attached to the nozzle housing and selectively movable between closed and open positions relative thereto; and a nozzle shield movably attached to the nozzle housing and cooperatively engaged to the valve element such that the movement of the nozzle shield facilitates the concurrent movement of the valve element; and a biasing spring disposed within the nozzle shield and cooperatively engaged thereto, the biasing spring being operative to normally bias the valve element to the closed position; wherein the nozzle shield is sized and configured such that the biasing spring disposed therein is effectively shielded from direct impingement of cooling water flowing into the flow passage. a nozzle housing having a tubular outer wall and a tubular inner wall collectively defining a generally annular flow passage, the tubular inner wall having a lower section circumvented by the tubular outer wall; a valve element movably attached to the nozzle housing and selectively movable between closed and open positions relative thereto; and a nozzle shield movably attached to the nozzle housing and cooperatively engaged to the valve element such that the movement of the nozzle shield facilitates the concurrent movement of the valve element; and a biasing spring disposed within the nozzle shield and cooperatively engaged thereto, the biasing spring being operative to normally bias the valve element to the closed position; wherein the nozzle shield is sized and configured such that the biasing spring disposed therein is effectively shielded from direct impingement of cooling water flowing into the flow passage.
A composition comprising an at least partially denatured protein, a photoactivatable metal-ligand complex and an electron acceptor, wherein said at least partially denatured protein is gelatin and the electron acceptor is ammonium persulfate or sodium persulfate.
A toner cartridge (20, 30, 40) comprising a toner discharging structure and a cartridge body (21, 31, 41) and configured for use in an electronic imaging device, the toner discharging structure cooperatively coupled with the cartridge body to form the toner cartridge, the toner discharging structure comprising: an accelerating structure, wherein one end of the accelerating structure is connected to the cartridge body; blowing blades, connected to another end of the accelerating structure to allow a rotation speed of the blowing blades greater than a rotation speed of the cartridge body; a toner mixing unit, connected to the cartridge body, for receiving wind generated by the blowing blades; and a toner discharging unit, including a toner outlet connected to the toner mixing unit, characterized in that the toner mixing unit is configured to receive the wind generated by the blowing blades through an air duct (252, 352); the toner discharging structure further includes a push rod; when the push rod is at a first position, the air duct is configured not to transmit the wind to the toner mixing unit; and when the push rod is at a second position, the air duct is configured to transmit the wind to the toner mixing unit. an accelerating structure, wherein one end of the accelerating structure is connected to the cartridge body; blowing blades, connected to another end of the accelerating structure to allow a rotation speed of the blowing blades greater than a rotation speed of the cartridge body; a toner mixing unit, connected to the cartridge body, for receiving wind generated by the blowing blades; and a toner discharging unit, including a toner outlet connected to the toner mixing unit, characterized in that the toner mixing unit is configured to receive the wind generated by the blowing blades through an air duct (252, 352); the toner discharging structure further includes a push rod; when the push rod is at a first position, the air duct is configured not to transmit the wind to the toner mixing unit; and when the push rod is at a second position, the air duct is configured to transmit the wind to the toner mixing unit.
A hand-held electronic device, comprising: a case; a visual display disposed on the case, wherein the visual display is a touch screen; a touch interface disposed on the case; a processor operably coupled to the visual display and the touch interface; and instructions executable by the processor configured such that, when executed, the instructions cause the device to: a) present an image on the visual display containing a plurality of interactive elements; b) correlate a plurality of active portions of the touch interface to respectively correspond to the plurality of interactive elements in the image on the visual display; c) determine activation of an interactive element of said plurality of interactive elements in response to a touch on the corresponding active portion of the touch interface and determine modification of the activated interactive element in response to a user interaction therewith; and d) activate the most recently modified interactive element in response to an ambiguous touch, on the touch screen, of several of the interactive elements or of several regions corresponding to the interactive elements. a case; a visual display disposed on the case, wherein the visual display is a touch screen; a touch interface disposed on the case; a processor operably coupled to the visual display and the touch interface; and instructions executable by the processor configured such that, when executed, the instructions cause the device to: a) present an image on the visual display containing a plurality of interactive elements; b) correlate a plurality of active portions of the touch interface to respectively correspond to the plurality of interactive elements in the image on the visual display; c) determine activation of an interactive element of said plurality of interactive elements in response to a touch on the corresponding active portion of the touch interface and determine modification of the activated interactive element in response to a user interaction therewith; and d) activate the most recently modified interactive element in response to an ambiguous touch, on the touch screen, of several of the interactive elements or of several regions corresponding to the interactive elements. a) present an image on the visual display containing a plurality of interactive elements; b) correlate a plurality of active portions of the touch interface to respectively correspond to the plurality of interactive elements in the image on the visual display; c) determine activation of an interactive element of said plurality of interactive elements in response to a touch on the corresponding active portion of the touch interface and determine modification of the activated interactive element in response to a user interaction therewith; and d) activate the most recently modified interactive element in response to an ambiguous touch, on the touch screen, of several of the interactive elements or of several regions corresponding to the interactive elements.
A cone accommodating a surprise toy along with a foodstuff comprising an edible cone and a casing volume for holding the toy characterized in that said casing volume is located on top of the edible cone and having a sidewall which expands in vertical direction (y), and said edible cone comprises a hollow body having a wall which expands from its lowermost end to its uppermost end, wherein; the sidewall of the casing volume and the wall of the edible cone are arranged in substantially a linear alignment such that they have substantially the same inclination angle (α) with respect to horizontal axis (x) in order to form an integral cone, and the cone further comprises a receptacle placed into the casing volume for holding a toy therein, said receptacle having a truncated cone shape with a sidewall having substantially the same inclination angle (α) with the sidewall of the casing volume, with respect to the horizontal axis (x), such that the receptacle substantially occupies the casing volume.
Capacitive reading apparatus for a pointing instrument, with a carrier (2, 8) provided for arrangement in relation to a rotating pointer of the pointer instrument, on which carrier a large number of n radial electrodes are arranged in a circular arc in alternation with radial counter electrodes, wherein the counter electrodes are electrically connected with one another and are connected to a first measurement terminal of a capacitance-to-digital converter, wherein the n electrodes are connected via an n x k connection matrix and a downstream 1-out-of-k multiplexer to a second measurement terminal of the capacitance digital converter, and wherein the n x k connection matrix connects each of the n electrodes with one of the k channels of the 1-out-of-k multiplexer in each case, wherein the connecting pattern varies along the circular arc to form an ascertainment of a position of the pointer. wherein the counter electrodes are electrically connected with one another and are connected to a first measurement terminal of a capacitance-to-digital converter, wherein the n electrodes are connected via an n x k connection matrix and a downstream 1-out-of-k multiplexer to a second measurement terminal of the capacitance digital converter, and wherein the n x k connection matrix connects each of the n electrodes with one of the k channels of the 1-out-of-k multiplexer in each case, wherein the connecting pattern varies along the circular arc to form an ascertainment of a position of the pointer.
An expansion device of panels constituting an inner wall of a connecting passage formed inside a hood provided between bodies of rolling stock comprising: a first constituent member constructed by a plurality of panels; and a second constituent member constructed by a plurality of panels being different from the plurality of panels constructing the first constituent member, wherein a number of panels constituting the first constituent member and a number of panels constituting the second constituent member are the same and the number of constituent panels is equal to 2 or greater, wherein adjacent panels of the first constituent member are partly overlapped each other, adjacent panels of the second constituent member are partly overlapped each other, the first constituent member and the second constituent member are connected to a link member being able to be expanded and contracted, the first constituent member is expanded and contracted by expansion and contraction of the link member, and the second constituent member is expanded and contracted by expansion and contraction of the link member, and characterized in that the first constituent member can rotate relatively with respect to the second constituent member around rotation axes (11, 12) provided in the direction of expansion and contraction of the link member. a first constituent member constructed by a plurality of panels; and a second constituent member constructed by a plurality of panels being different from the plurality of panels constructing the first constituent member, wherein a number of panels constituting the first constituent member and a number of panels constituting the second constituent member are the same and the number of constituent panels is equal to 2 or greater, wherein adjacent panels of the first constituent member are partly overlapped each other, adjacent panels of the second constituent member are partly overlapped each other, the first constituent member and the second constituent member are connected to a link member being able to be expanded and contracted, the first constituent member is expanded and contracted by expansion and contraction of the link member, and the second constituent member is expanded and contracted by expansion and contraction of the link member, and characterized in that the first constituent member can rotate relatively with respect to the second constituent member around rotation axes (11, 12) provided in the direction of expansion and contraction of the link member.
Printing plate precursor for use in relief printing, in particular flexo printing, said printing plate precursor being configured as a multi-layer tube having a first layer as a printing layer which has a vulcanized product based on at least one elastomer, wherein the first layer is extruded; and a further layer which is configured as a reinforcement layer, wherein the reinforcement layer is disposed so as to be radially within the first layer and is in direct contact with the first layer, characterized in that the reinforcement layer has one or a plurality of textile structures.
A method for synchronizing sequence numbers between an inactive card and an active card in a network node, the method comprising: establishing at least one Time Division Multiplexing, TDM, pseudowire link between the network node and at least one destination node; generating at least one sequence number in the active card, wherein the active card generates a sequence number for each packet to be sent by the network node over the at least one TDM pseudowire link; wherein said method also comprises: establishing a communication channel on a data path between the inactive card and the active card through a fabric of the network node; sending a packet for each TDM pseudowire link including the at least one sequence number from the active card to the inactive card over the communication channel; extracting the at least one sequence number from the packet at the inactive card; and synchronizing operation upon reception of a sequence number update message, of the inactive card to the active card using the at least one sequence number extracted from the packet, wherein the packet includes at least a most recent sequence number sent by the active card, wherein the packet sent from the active card to the inactive card includes a value of the at least one sequence number and a value identifying the at least one TDM pseudowire link corresponding to the at least one sequence number.
A method of manufacturing at least a part of a sports article, comprising the steps: a. determining a set of physical parameters of the sports article, the set comprising a first group and a second group; b. determining a set of constraints for the first group of the physical parameters, wherein the set of constraints is intended to achieve at least one objective function; c. determining an optimum for the at least one objective function, wherein the optimum is determined by optimizing the second group of physical parameters, wherein the step of determining an optimum of the at least one objective function comprises the step of using an iterative process that estimates the optimal physical parameters of the second group by a set of successive function evaluations of the at least one objective function, wherein a first subset of the set of successive function evaluations is based on at least one heuristic that provides estimates for the function evaluations, wherein a second subset of the set of successive function evaluations is based on exact function evaluations, wherein the function evaluations in the second subset are performed after the function evaluations in the first subset, wherein exact function evaluations are obtained by a finite element analysis, FEA; and d. manufacturing the part of the sports article according to the set of constraints and the second group of optimal physical parameters. a. determining a set of physical parameters of the sports article, the set comprising a first group and a second group; b. determining a set of constraints for the first group of the physical parameters, wherein the set of constraints is intended to achieve at least one objective function; c. determining an optimum for the at least one objective function, wherein the optimum is determined by optimizing the second group of physical parameters, wherein the step of determining an optimum of the at least one objective function comprises the step of using an iterative process that estimates the optimal physical parameters of the second group by a set of successive function evaluations of the at least one objective function, wherein a first subset of the set of successive function evaluations is based on at least one heuristic that provides estimates for the function evaluations, wherein a second subset of the set of successive function evaluations is based on exact function evaluations, wherein the function evaluations in the second subset are performed after the function evaluations in the first subset, wherein exact function evaluations are obtained by a finite element analysis, FEA; and d. manufacturing the part of the sports article according to the set of constraints and the second group of optimal physical parameters.