mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a composite body for a document type selected from a plurality of different identification, value or security documents, the method comprising: • collating a document type-specific selection of material sheets in a document type-specific sequence; • creating a material sheet booklet, wherein in each case the immediately following material sheet according to the document type-specific sequence is successively fixed at each of the collated material sheets so that the relative orientation of the collated material sheets with respect to one another is established; • creating a composite body by laminating the material sheet booklet, wherein the material sheet booklet is subjected to pressure and heat in a predefined manner; • severing material by carrying out a first material severing operation, characterized in that the material severing takes place using ultrasound, so that a laminated composite body having a geometric format for a first document type is created, the material severing encompassing sealing the resulting cut surfaces by fusing the material sheet booklet in the region of the cut surfaces by way of ultrasonic so that different layers of the composite body, resulting from the different material sheets of the material sheet booklet, are no longer identifiable. • collating a document type-specific selection of material sheets in a document type-specific sequence; • creating a material sheet booklet, wherein in each case the immediately following material sheet according to the document type-specific sequence is successively fixed at each of the collated material sheets so that the relative orientation of the collated material sheets with respect to one another is established; • creating a composite body by laminating the material sheet booklet, wherein the material sheet booklet is subjected to pressure and heat in a predefined manner; • severing material by carrying out a first material severing operation,
A compound of Formula Ia: or a pharmaceutically acceptable salt thereof in combination with vemurafenib or a pharmaceutically acceptable salt thereof, for use in the therapeutic treatment of metastatic or unresectable melanoma.
Device for measuring the free chlorine content of a water, said device comprising at least one amperometric sensor of active chlorine comprising a reference electrode, a counter electrode, a first working electrode and a second working electrode, said reference electrode and said first working electrode being intended to be connected to means for generating an electric potential difference, said counter electrode and said first working electrode being intended to be connected to means for measuring electric current, said counter electrode and said second working electrode being intended to be connected to means for generating electric current, said device comprising a membrane coating said first and second working electrodes, said membrane being in contact with said working electrodes (131, 132) and comprising a gel permeable to hypochlorous acid (HOCl) and to hypochlorite ions (OCl -).
Charge pump apparatus for generating an output voltage supply within a circuit, comprising: a) a transfer capacitor; b) one or more source switching devices (602, 604) disposed in series between the transfer capacitor and a voltage source and having a corresponding control node; c) a plurality of output switching devices (608, 610) disposed in series between the transfer capacitor and the output voltage supply and having a corresponding control node; d) a capacitive coupling circuit (618, 626; 620, 628; 622, 630; 624, 632, 636, 638) coupling a charge pump clock output to a control node corresponding to a source switching device (602, 604) or to an output switching device (608, 610); wherein a first output switching device, during a discharge period where the one or more source switching devices are off, couples one terminal of the transfer capacitor to a common reference connection; and wherein a second output switching device, during the discharge period, couples the opposite terminal of the transfer capacitor to the output voltage supply; the charge pump apparatus being characterized in that the second output switching device has at least twice the control node AC impedance of the first output switching device. a) a transfer capacitor; b) one or more source switching devices (602, 604) disposed in series between the transfer capacitor and a voltage source and having a corresponding control node; c) a plurality of output switching devices (608, 610) disposed in series between the transfer capacitor and the output voltage supply and having a corresponding control node; d) a capacitive coupling circuit (618, 626; 620, 628; 622, 630; 624, 632, 636, 638) coupling a charge pump clock output to a control node corresponding to a source switching device (602, 604) or to an output switching device (608, 610);
Hatch arrangement with at least one slidable hatch for closing an opening in a floor of a wind turbine, wherein the hatch arrangement comprises a first guiding device which is fixedly mountable to the floor and a second guiding device which is pivotably mountable to the floor, wherein the hatch arrangement comprises a first coupling means to guide the slidable hatch along a first guidance path in the first guiding device and a second coupling means to couple the slidable hatch at least pivotably to the second guiding device, wherein the slidable hatch is coupled to the first guiding device at a first position and to the second guiding device at a second position, wherein the first position and the second position are located along a longitudinal direction of the slidable hatch and spaced apart from each other, characterized in that a movement of the slidable hatch from a closed, in particular horizontal, position along the first guidance path results in a pivoting movement of the second guiding device and in a movement of the slidable hatch to an open, in particular vertical, position and vice versa.
A method comprising: installing an acoustic sensing module in an environment having existing dispensing devices; training the acoustic sensing module to individually identify the dispensing devices based on acoustic signals generated by actuations of the dispensing devices; determining numbers of actuations of the dispensing devices based on the training; monitoring the dispensing devices to determine low consumable product states for the dispensing devices based on the numbers of actuations for the dispensing devices; and generating alert messages in response to determined low consumable product states. installing an acoustic sensing module in an environment having existing dispensing devices; training the acoustic sensing module to individually identify the dispensing devices based on acoustic signals generated by actuations of the dispensing devices; determining numbers of actuations of the dispensing devices based on the training; monitoring the dispensing devices to determine low consumable product states for the dispensing devices based on the numbers of actuations for the dispensing devices; and generating alert messages in response to determined low consumable product states.
An aircraft comprising: an electrical system installed on the aircraft; an electronic controller in signal communication with the electrical system, the electronic controller including a main processor and a multi-core processor, the multi-core processor including at least one control core in signal communication with the electrical system to control power delivered thereto, and at least one prognostics core configured to process and analyze prognostics and diagnostics data of the electrical system independently from operation of the control core; and a prognostics and health monitoring, PHM, system located remotely from the electronic controller, characterised in that the aircraft comprises a wireless device in signal communication with the at least one prognostics core to receive the prognostics and diagnostics data therefrom, and wherein the PHM system is configured to wirelessly receive the prognostics and diagnostics data, wherein the at least one prognostics core includes a wired interface configured to establish a wired connection between the wireless device and the at least one prognostics core; and wherein the wireless device is located externally from the electronic controller, and includes a wired connector configured to facilitate and connection and disconnection with the at least one prognostics core. an electrical system installed on the aircraft; an electronic controller in signal communication with the electrical system, the electronic controller including a main processor and a multi-core processor, the multi-core processor including at least one control core in signal communication with the electrical system to control power delivered thereto, and at least one prognostics core configured to process and analyze prognostics and diagnostics data of the electrical system independently from operation of the control core; and a prognostics and health monitoring, PHM, system located remotely from the electronic controller, characterised in that the aircraft comprises a wireless device in signal communication with the at least one prognostics core to receive the prognostics and diagnostics data therefrom, and wherein the PHM system is configured to wirelessly receive the prognostics and diagnostics data, wherein the at least one prognostics core includes a wired interface configured to establish a wired connection between the wireless device and the at least one prognostics core; and wherein the wireless device is located externally from the electronic controller, and includes a wired connector configured to facilitate and connection and disconnection with the at least one prognostics core.
A method of optimizing an additive fabrication process for an object, the method comprising: obtaining a representation of an intermediate form of the object, the intermediate form being an expected shape of the object when partially fabricated by the additive fabrication process; simulating one or more forces expected to be applied to the intermediate form of the object when separating the intermediate form from a container during the additive fabrication process; evaluating the one or more simulated forces of the simulating step against one or more criteria; and modifying the geometry of the object based at least in part on a result of the evaluating. obtaining a representation of an intermediate form of the object, the intermediate form being an expected shape of the object when partially fabricated by the additive fabrication process; simulating one or more forces expected to be applied to the intermediate form of the object when separating the intermediate form from a container during the additive fabrication process; evaluating the one or more simulated forces of the simulating step against one or more criteria; and modifying the geometry of the object based at least in part on a result of the evaluating.
An electromechanical rear derailleur for a bicycle, comprising: a base member attachable to the bicycle; a movable member having a cage assembly attached thereto; a linkage coupling the movable member to the base member and operative to enable movement of the movable member relative to the base member; a power source; a motor electrically connected to the power source; a transmission coupled to and actuated by operation of the motor to move the movable member; a PC board positioned within the base member; a magnet holder disposed in the rear derailleur; and a position detector, comprising: - a magnet held by the magnet holder; - a sensor to sense relative rotation between the magnet and the sensor; - a magnet guide sized and shaped to guidingly receive a portion of the magnet and position the sensor and magnet within an effective range of each other; wherein the magnet extends from the magnet holder, wherein further the sensor is disposed on the PC board in a position to sense motion of the magnet; characterized in that the magnet guide is disposed on the PC board. a base member attachable to the bicycle; a movable member having a cage assembly attached thereto; a linkage coupling the movable member to the base member and operative to enable movement of the movable member relative to the base member; a power source; a motor electrically connected to the power source; a transmission coupled to and actuated by operation of the motor to move the movable member; a PC board positioned within the base member; a magnet holder disposed in the rear derailleur; and a position detector, comprising: - a magnet held by the magnet holder; - a sensor to sense relative rotation between the magnet and the sensor; - a magnet guide sized and shaped to guidingly receive a portion of the magnet and position the sensor and magnet within an effective range of each other; - a magnet held by the magnet holder; - a sensor to sense relative rotation between the magnet and the sensor; - a magnet guide sized and shaped to guidingly receive a portion of the magnet and position the sensor and magnet within an effective range of each other; wherein the magnet extends from the magnet holder, wherein further the sensor is disposed on the PC board in a position to sense motion of the magnet;
A data recovery method for restoring serially transferred data by carrying out oversampling, comprising: a sampling step of oversampling the serially transferred data with a plurality of clock signals (CK0-CK11) generated as a result of shifting a clock signal of predetermined frequency by respective predetermined phase shifts, to obtain oversampling data; a clock pattern generating step of generating a clock pattern signal (CKP[0,11]) by oversampling one of the plurality of clock signals (CK-CK11); a phase state control step comprising: detecting rising and decaying edge positions of the oversampling data (OVSD) to generate a first edge position signal (RxEdge), detecting decaying edge positions of the clock pattern signal (CKP[0,11]) to generate a clock decaying edge signal (CKEdge), comparing the first edge position signal (RxEdge) and the clock decaying edge signal (CKEdge) to determine their relative phase and outputting a clock pattern phase change signal (UP, DN), and indicating the number of bits to extract from the oversampling data according to the clock pattern phase change signal (UP, DN); a phase error detecting step of detecting phase errors (Err) in the oversampling data from the first edge position signal (RxEdge) and the clock decaying edge signal (CKEdge) and generating a phase error signal (PhErr) by averaging the detected phase errors (Err) over a predetermined period; and a data selecting step of selecting bits to extract from the oversampling data to restore the data based on the clock pattern phase change signal (UP, DN) and the phase error signal (PhErr) detected in said phase error detecting step. a sampling step of oversampling the serially transferred data with a plurality of clock signals (CK0-CK11) generated as a result of shifting a clock signal of predetermined frequency by respective predetermined phase shifts, to obtain oversampling data; a clock pattern generating step of generating a clock pattern signal (CKP[0,11]) by oversampling one of the plurality of clock signals (CK-CK11); a phase state control step comprising: detecting rising and decaying edge positions of the oversampling data (OVSD) to generate a first edge position signal (RxEdge), detecting decaying edge positions of the clock pattern signal (CKP[0,11]) to generate a clock decaying edge signal (CKEdge), comparing the first edge position signal (RxEdge) and the clock decaying edge signal (CKEdge) to determine their relative phase and outputting a clock pattern phase change signal (UP, DN), and indicating the number of bits to extract from the oversampling data according to the clock pattern phase change signal (UP, DN); a phase error detecting step of detecting phase errors (Err) in the oversampling data from the first edge position signal (RxEdge) and the clock decaying edge signal (CKEdge) and generating a phase error signal (PhErr) by averaging the detected phase errors (Err) over a predetermined period; and a data selecting step of selecting bits to extract from the oversampling data to restore the data based on the clock pattern phase change signal (UP, DN) and the phase error signal (PhErr) detected in said phase error detecting step.
A method for preparing an inosine-5'-monophosphate fermented broth or a glutamic acid fermented broth, comprising: (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; and (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium lactofermentum microorganism to prepare the IMP fermented broth or glutamic acid fermented broth. (a) fermenting a vegetable protein source with Aspergillus sp. microorganism to obtain a grain fermented broth; and (b) fermenting a part of the grain fermented broth with Corynebacterium sp. or Brevibacterium lactofermentum microorganism to prepare the IMP fermented broth or glutamic acid fermented broth.
A method for repairing a dynamic link library file in a Windows operating system, comprising: reading an import section in an executable file; determining, according to DLL file information recorded in the import section and a pre-established correspondence between the DLL file and a saved path, that the DLL file is lost; and notifying a user that the DLL file is lost, and calling an installation package of the DLL file to re-install the DLL file, in response to receiving an instruction for running the executable file; wherein the determining, according to DLL file information recorded in the import section and a pre-established correspondence between the DLL file and a saved path, that the DLL file is lost comprises: searching, according to the DLL file information recorded in the import section, a pre-established correspondence between DLL files and saved paths to obtain a saved path of each DLL file recorded in the import section; determining, for the saved path of each DLL file obtained through searching, whether there is a corresponding DLL file saved under the saved path; and determining, if there is no corresponding DLL file saved under the saved path, that the unsaved DLL file is lost. reading an import section in an executable file; determining, according to DLL file information recorded in the import section and a pre-established correspondence between the DLL file and a saved path, that the DLL file is lost; and notifying a user that the DLL file is lost, and calling an installation package of the DLL file to re-install the DLL file, in response to receiving an instruction for running the executable file; wherein the determining, according to DLL file information recorded in the import section and a pre-established correspondence between the DLL file and a saved path, that the DLL file is lost comprises: searching, according to the DLL file information recorded in the import section, a pre-established correspondence between DLL files and saved paths to obtain a saved path of each DLL file recorded in the import section; determining, for the saved path of each DLL file obtained through searching, whether there is a corresponding DLL file saved under the saved path; and determining, if there is no corresponding DLL file saved under the saved path, that the unsaved DLL file is lost. searching, according to the DLL file information recorded in the import section, a pre-established correspondence between DLL files and saved paths to obtain a saved path of each DLL file recorded in the import section; determining, for the saved path of each DLL file obtained through searching, whether there is a corresponding DLL file saved under the saved path; and determining, if there is no corresponding DLL file saved under the saved path, that the unsaved DLL file is lost.
A solar cell, characterized in comprising: a semiconductor layer; and a plurality of passivation layers provided on a back surface of the semiconductor layer, wherein the plurality of passivation layers include: a first silicon oxynitride film layer having a first refractive index; a second silicon oxynitride film layer having a second refractive index and provided on a surface of the first silicon oxynitride film layer; and at least one silicon nitride film layer having a third refractive index and provided on a surface of the second silicon oxynitride film layer, wherein a sum of thicknesses of the first silicon oxynitride film layer and the second silicon oxynitride film layer is greater than 60 nm, a thickness of the at least one silicon nitride film layer is greater than 60 nm, a sum of thicknesses of the plurality of passivation layers is greater than 120nm and smaller than 300nm, and the first refractive index is greater than the second refractive index and smaller than the third refractive index. a semiconductor layer; and a plurality of passivation layers provided on a back surface of the semiconductor layer, wherein the plurality of passivation layers include: a first silicon oxynitride film layer having a first refractive index; a second silicon oxynitride film layer having a second refractive index and provided on a surface of the first silicon oxynitride film layer; and at least one silicon nitride film layer having a third refractive index and provided on a surface of the second silicon oxynitride film layer, a first silicon oxynitride film layer having a first refractive index; a second silicon oxynitride film layer having a second refractive index and provided on a surface of the first silicon oxynitride film layer; and at least one silicon nitride film layer having a third refractive index and provided on a surface of the second silicon oxynitride film layer, wherein a sum of thicknesses of the first silicon oxynitride film layer and the second silicon oxynitride film layer is greater than 60 nm, a thickness of the at least one silicon nitride film layer is greater than 60 nm, a sum of thicknesses of the plurality of passivation layers is greater than 120nm and smaller than 300nm, and the first refractive index is greater than the second refractive index and smaller than the third refractive index.
A haemostatic composition comprising gelatine and hyaluronic acid or a derivative thereof, wherein said hyaluronic acid or derivative thereof, is incorporated into said composition to a final content of at least 10% (w/w) hyaluronic acid, wherein said composition does not comprise a chemical cross-linking agent or residues thereof, and wherein said composition is obtained by treating a mixture of gelatine, hyaluronic acid or a derivative thereof and a solvent with dry heat at a temperature of from 110 to 200°C.