mhurhangee/ep-ind-claims huggingface dataset:
An antimicrobial composition comprising (i) a storage-stable antimicrobial and immunostimulatory system comprising glucose oxidase, D-glucose, one or more of sucrose, fructose and/or maltose, and hydrogen peroxide in an aqueous solution wherein the system provides a two-stage hydrogen peroxide release in which (a) storage-stable endogenously produced hydrogen peroxide is bioavailable within the system at a level of at least 10 mg per litre for immediate release; and (b) the sustained release of further hydrogen peroxide for at least a twenty-four hour period occurs upon rehydration of the system; and (ii) the antibiotic Clindamycin, Cefradine or Cefuroxime; or the antifungal agent selected from one or more of Clotrimazole, Cyclopiroxalomine, Terbinafine and/or Ketoconazole. (i) a storage-stable antimicrobial and immunostimulatory system comprising glucose oxidase, D-glucose, one or more of sucrose, fructose and/or maltose, and hydrogen peroxide in an aqueous solution wherein the system provides a two-stage hydrogen peroxide release in which (a) storage-stable endogenously produced hydrogen peroxide is bioavailable within the system at a level of at least 10 mg per litre for immediate release; and (b) the sustained release of further hydrogen peroxide for at least a twenty-four hour period occurs upon rehydration of the system; and (ii) the antibiotic Clindamycin, Cefradine or Cefuroxime; or the antifungal agent selected from one or more of Clotrimazole, Cyclopiroxalomine, Terbinafine and/or Ketoconazole.
A failure diagnosis device applicable to a mechanical device provided with motors independent of one another as sources to drive motion axes, respectively, and configured to acquire a moving position of each motion axis and a disturbance torque value applied to the motion axis every predetermined period, and to diagnose a failure of the mechanical device, comprising: a failure diagnosis unit configured to diagnose the motion axis as a failure when the disturbance torque value is larger than a predetermined failure determination threshold; a storing unit configured to store previous replacement records of a decelerator of the motion axes and previous measurement results of an iron powder concentration in the grease changed in the motion axes of the mechanical device; and a re-determination unit configured to conduct re-determination of the failure on the motion axis, which is diagnosed as the failure by the failure diagnosis unit, based on a previous replacement record of a decelerator of the motion axis subject to the re-determination within a predetermined period in the past, stored in the storing unit, and on a previous measurement result of an iron powder concentration regarding the motion axis subject to the re-determination within the predetermined period in the past, stored in the storing unit. a failure diagnosis unit configured to diagnose the motion axis as a failure when the disturbance torque value is larger than a predetermined failure determination threshold; a storing unit configured to store previous replacement records of a decelerator of the motion axes and previous measurement results of an iron powder concentration in the grease changed in the motion axes of the mechanical device; and a re-determination unit configured to conduct re-determination of the failure on the motion axis, which is diagnosed as the failure by the failure diagnosis unit, based on a previous replacement record of a decelerator of the motion axis subject to the re-determination within a predetermined period in the past, stored in the storing unit, and on a previous measurement result of an iron powder concentration regarding the motion axis subject to the re-determination within the predetermined period in the past, stored in the storing unit.
An electronic circuit comprising a circuit module; a capacitor connected to the circuit module; a shutdown line providing a shutdown signal to the circuit module for suspending the circuit module; and a switching module; characterized in that the circuit module comprises a voltage regulator; the capacitor has one of its conductors connected to an output of the voltage regulator, forming a bi-directional, diode-free electrical connection between the capacitor and the voltage regulator, and the capacitor has the other one of its conductors connected to the switching module; and the switching module is configured to disconnect the capacitor from ground depending on the shutdown signal such as to reduce discharging of the capacitor in a suspended state of the circuit module.
A computer implemented method for multi-layer printing on non-white backgrounds, comprising: in a first printer pass, modifying a base white layer with said image to be printed by adjusting application by a printer of said white layer to include substantially simultaneous application of said image's ink at a predetermined density that corresponds to a selected portion of said total amount of ink to be applied for said image; and in at least one subsequent printer pass, applying with said printer said image's ink at a predetermined density that corresponds to a remaining portion of the total amount of ink to be applied for said image, wherein the predetermined density of the first printer pass is determined using a control that is configured to vary the amount of the colored ink, that is applied during the first pass versus the second or subsequent pass, to avoid gloss-banding effects; wherein the control includes one of: a slider, a numerical value, a table, or other control of the amount of the colored ink used to print the image. in a first printer pass, modifying a base white layer with said image to be printed by adjusting application by a printer of said white layer to include substantially simultaneous application of said image's ink at a predetermined density that corresponds to a selected portion of said total amount of ink to be applied for said image; and in at least one subsequent printer pass, applying with said printer said image's ink at a predetermined density that corresponds to a remaining portion of the total amount of ink to be applied for said image, wherein the predetermined density of the first printer pass is determined using a control that is configured to vary the amount of the colored ink, that is applied during the first pass versus the second or subsequent pass, to avoid gloss-banding effects; wherein the control includes one of: a slider, a numerical value, a table, or other control of the amount of the colored ink used to print the image.
A method for network configuration, implemented by a first device, wherein the method comprises: broadcasting a probe request frame, wherein the probe request frame carries device information of the first device and a first network identifier pre-stored in the first device; responsive to that a predetermined field of a received probe response frame carries predetermined connection information, establishing, based on the predetermined connection information, a first connection with a target router that sent the probe response frame, wherein the probe response frame carrying the predetermined connection information in the predetermined field is sent after the device information is verified, and the predetermined connection information comprises a Media Access Control, MAC, address of the target router; acquiring a second network identifier from the target router based on the first connection; and establishing a second connection with the target router based on the second network identifier, to perform interaction with a second device through the second connection. broadcasting a probe request frame, wherein the probe request frame carries device information of the first device and a first network identifier pre-stored in the first device; responsive to that a predetermined field of a received probe response frame carries predetermined connection information, establishing, based on the predetermined connection information, a first connection with a target router that sent the probe response frame, wherein the probe response frame carrying the predetermined connection information in the predetermined field is sent after the device information is verified, and the predetermined connection information comprises a Media Access Control, MAC, address of the target router; acquiring a second network identifier from the target router based on the first connection; and establishing a second connection with the target router based on the second network identifier, to perform interaction with a second device through the second connection.
A set of connector supports comprising: at least two connector supports (3, 3'), each having a front face, a back face and four lateral faces in opposite pairs, each support comprising means for accommodating a low-current connector; a junction element positioned and attached between the two connector supports positioned adjacently, characterized in that the front face forms an opening through which the connector is accessible for plugging in another connector. at least two connector supports (3, 3'), each having a front face, a back face and four lateral faces in opposite pairs, each support comprising means for accommodating a low-current connector; a junction element positioned and attached between the two connector supports positioned adjacently, characterized in that the front face forms an opening through which the connector is accessible for plugging in another connector.
A laundry composition comprising a plurality of particles, wherein the particle comprises: (a) 30 to 95% of polyethylene glycol by weight of the particle; (b) disintegrant; and (c) occlusion of gas; wherein the disintegrant is effervescent disintegrant of a combination of carbonate source and acid source; and wherein the particle has an average density of 1 to 1.1 g/cm 3. (a) 30 to 95% of polyethylene glycol by weight of the particle; (b) disintegrant; and (c) occlusion of gas; wherein the disintegrant is effervescent disintegrant of a combination of carbonate source and acid source; and wherein the particle has an average density of 1 to 1.1 g/cm 3.
A system for producing concrete products in a casting process by means of casting molds composed of appropriate outer and inner molds, comprising an automated circulation system, particularly a program-controlled circulation system, which has: - a curing area for storing concrete products curing in a respective casting mold; - an automated manufacturing area (100, 300) with a plurality of automated manufacturing devices; and - a conveying device with automated circulatory conveying sections for respectively conveying the casting molds or the outer and inner molds of the casting molds from the curing area into the automated manufacturing area (100, 300), between the respective manufacturing devices of the automated manufacturing area (100, 300) and from the automated manufacturing area (100, 300) into the curing area; wherein the automated manufacturing area (100, 300) of the circulation system has: - an automated mold set-up device for assembling a casting mold from cleaned outer and inner molds, and - an automated filling device (F1, F2, F3; F1-F5) for filling one or more assembled casting molds with concrete; characterized in that the system furthermore comprises a manually operable mold set-up device with at least one mold set-up station (M1, M2, M3, M4) for the manually supported assembly of a casting mold from appropriate outer and inner molds; wherein the conveying device comprises a feed conveying section that is designed for supplying a casting mold assembled in the manually operable mold set-up device to the automated circulation system. - a curing area for storing concrete products curing in a respective casting mold; - an automated manufacturing area (100, 300) with a plurality of automated manufacturing devices; and - a conveying device with automated circulatory conveying sections for respectively conveying the casting molds or the outer and inner molds of the casting molds from the curing area into the automated manufacturing area (100, 300), between the respective manufacturing devices of the automated manufacturing area (100, 300) and from the automated manufacturing area (100, 300) into the curing area; - an automated mold set-up device for assembling a casting mold from cleaned outer and inner molds, and - an automated filling device (F1, F2, F3; F1-F5) for filling one or more assembled casting molds with concrete; the system furthermore comprises a manually operable mold set-up device with at least one mold set-up station (M1, M2, M3, M4) for the manually supported assembly of a casting mold from appropriate outer and inner molds; wherein the conveying device comprises a feed conveying section that is designed for supplying a casting mold assembled in the manually operable mold set-up device to the automated circulation system.
A processor-implemented electronic device input method, comprising: identifying a plurality of input items configured to receive information on a displayed screen, by performing either one or both of a layout analysis and an image analysis with respect to the screen; wherein the displayed screen is a user interface display; wherein the layout analysis is performed based on a user interface layout file defining the input items on the displayed screen; wherein the UI layout file defines, for each of the plurality of input items, a value type of the input item and an object type of the input item, said value type being applied as constraints for information to be input into the corresponding input item, and said object type being a type of screen element displayed; wherein each of the plurality of input items is identified in view of the value type and the object type; tagging one of the plurality input items with a text token extracted from a speech recognition result of a speech signal (230, 240), preferably tagging each of the plurality of input items with a corresponding text token from among a plurality of text tokens of the speech recognition result; and inputting the tagged text token into the one of the plurality of input items, preferably inputting each of the tagged text tokens into the respectively corresponding input items; wherein the inputting comprises, in response to a format of the text token not corresponding to a format of the one of the input items, converting the text token to the format of the one of the input items and inputting the text token into the one of the input items. identifying a plurality of input items configured to receive information on a displayed screen, by performing either one or both of a layout analysis and an image analysis with respect to the screen; wherein the displayed screen is a user interface display; wherein the layout analysis is performed based on a user interface layout file defining the input items on the displayed screen; wherein the UI layout file defines, for each of the plurality of input items, a value type of the input item and an object type of the input item, said value type being applied as constraints for information to be input into the corresponding input item, and said object type being a type of screen element displayed; wherein each of the plurality of input items is identified in view of the value type and the object type; tagging one of the plurality input items with a text token extracted from a speech recognition result of a speech signal (230, 240), preferably tagging each of the plurality of input items with a corresponding text token from among a plurality of text tokens of the speech recognition result; and inputting the tagged text token into the one of the plurality of input items, preferably inputting each of the tagged text tokens into the respectively corresponding input items; wherein the inputting comprises, in response to a format of the text token not corresponding to a format of the one of the input items, converting the text token to the format of the one of the input items and inputting the text token into the one of the input items.
A compound of Formula I, or a pharmaceutically acceptable salt thereof: for use in the treatment of a cancer characterized by expression of at least a KRAS mutation, wherein the compound of Formula I alters the activity of KRAS or cMet resulting from said KRAS mutation.
A method of manufacturing a conveyor component, comprising the steps of: inserting a thermoformable substrate into a mold cavity, the mold cavity having a mold surface; applying pressure and heat to the thermoformable substrate to shape the thermoformable substrate on the mold surface; removing the pressure and heat when a first surface of the thermoformable substrate is in a ready for bonding state and an opposing second surface of the thermoformable substrate is in a nonbondable state; closing the mold cavity; and injecting a molten injection moldable material into the mold cavity, such that the molten injection moldable material contacts and bonds to the first surface of the thermoformable substrate while the first surface remains in a bondable state. inserting a thermoformable substrate into a mold cavity, the mold cavity having a mold surface; applying pressure and heat to the thermoformable substrate to shape the thermoformable substrate on the mold surface; removing the pressure and heat when a first surface of the thermoformable substrate is in a ready for bonding state and an opposing second surface of the thermoformable substrate is in a nonbondable state; closing the mold cavity; and injecting a molten injection moldable material into the mold cavity, such that the molten injection moldable material contacts and bonds to the first surface of the thermoformable substrate while the first surface remains in a bondable state.
Frequency converter, - wherein the frequency converter has a rectifier on the input side and at least one backup capacitor arranged downstream of the rectifier, - wherein the rectifier has a plurality of half-bridges, by means of which respectively one of the input-side phases (U, V, W) of the rectifier feeds the backup capacitor, - wherein the input-side phases (U, V, W) of the rectifier are connected via a pre-circuit to grid-side phases (L1, L2, L3) of a multiphase supply network, - wherein the grid-side phases (L1, L2, L3) are each connected within the pre-circuit via a respective phase capacitor respectively to one of the input-side phases (U, V, W), characterised in that - the grid-side phases (L1, L2, L3) are each further directly connected within the pre-circuit via a respective switch to a respective different input-side phase (U, V, W), so that with the switches closed, the grid-side phases (L1, L2, L3) are short-circuited to the input-side phases (U, V, W) and the phase capacitors each connect two grid-side phases (L1, L2, L3) and/or two input-side phases (U, V, W) to one another, and - in that the frequency converter has a control apparatus which keeps the switches open during pre-charging of the backup capacitor and when a pre-determined first charging state of the backup capacitor is reached, closes them. - wherein the frequency converter has a rectifier on the input side and at least one backup capacitor arranged downstream of the rectifier, - wherein the rectifier has a plurality of half-bridges, by means of which respectively one of the input-side phases (U, V, W) of the rectifier feeds the backup capacitor, - wherein the input-side phases (U, V, W) of the rectifier are connected via a pre-circuit to grid-side phases (L1, L2, L3) of a multiphase supply network, - wherein the grid-side phases (L1, L2, L3) are each connected within the pre-circuit via a respective phase capacitor respectively to one of the input-side phases (U, V, W), characterised in that - the grid-side phases (L1, L2, L3) are each further directly connected within the pre-circuit via a respective switch to a respective different input-side phase (U, V, W), so that with the switches closed, the grid-side phases (L1, L2, L3) are short-circuited to the input-side phases (U, V, W) and the phase capacitors each connect two grid-side phases (L1, L2, L3) and/or two input-side phases (U, V, W) to one another, and - in that the frequency converter has a control apparatus which keeps the switches open during pre-charging of the backup capacitor and when a pre-determined first charging state of the backup capacitor is reached, closes them.
A dental crown, comprising: a metal shell shaped to cover a portion of a tooth of a patient, the metal shell comprising: a continuous non-porous, metal or metal-composite layer; a coating retention layer adjacent the metal layer, wherein the coating retention layer is three-dimensionally printed and comprises a plurality of coating retention elements, wherein the retention layer comprises a plurality of interstitial regions between the retention elements and the adjacent metal layer, wherein a plurality of apertures is formed between the plurality of retention elements, characterized in that the retention elements of the coating retention layer comprise a grid, or a mesh, comprising a plurality of elongated metal strands, and the interstitial regions underlie at least a portion of the strands. a continuous non-porous, metal or metal-composite layer; a coating retention layer adjacent the metal layer, wherein the coating retention layer is three-dimensionally printed and comprises a plurality of coating retention elements, wherein the retention layer comprises a plurality of interstitial regions between the retention elements and the adjacent metal layer, wherein a plurality of apertures is formed between the plurality of retention elements, characterized in that the retention elements of the coating retention layer comprise a grid, or a mesh, comprising a plurality of elongated metal strands, and the interstitial regions underlie at least a portion of the strands.
A method of wireless communication, comprising: transmitting first data on a downlink data channel during a first transmission time interval, TTI, characterized by: transmitting control information on a downlink control channel during a second TTI shorter in duration than the first TTI, the control information comprising a grant modification configured to modify a grant of time-frequency resources for the first data received on the downlink data channel during the first TTI, wherein the second TTI overlaps with a portion of the first TTI. transmitting control information on a downlink control channel during a second TTI shorter in duration than the first TTI, the control information comprising a grant modification configured to modify a grant of time-frequency resources for the first data received on the downlink data channel during the first TTI, wherein the second TTI overlaps with a portion of the first TTI.