mhurhangee/ep-ind-claims huggingface dataset:
An electronic module (112, 113) for a fill level radar (100, 200, 300), the electronic module comprising: a signal generating device having - a first sub-assembly for generating a first FMCW transmit signal, which is to be emitted towards a filling material surface by an antenna (108, 114, 115) of the fill level radar (100, 200, 300), and for generating an IF reception signal, which originates from the reflected first transmit signal received by the antenna; and - a second sub-assembly for generating a second, pulse-shaped transmit signal, which is to be emitted towards the filling material surface by an antenna (108, 115, 114) of the fill level radar (100, 200, 300), and for generating an IF receive signal, which originates from the reflected first transmit signal received by the antenna; a switching device (101, 102, 112) for selectively activating the first sub-assembly and the second sub-assembly; wherein the switching device (101, 102, 112) is configured to selectively activate the first sub-assembly and the second sub-assembly in a rigidly predetermined temporal sequence; further comprising a digital signal processing device that is configured to process the reflected first and second transmit signals to determine the fill level. a signal generating device having - a first sub-assembly for generating a first FMCW transmit signal, which is to be emitted towards a filling material surface by an antenna (108, 114, 115) of the fill level radar (100, 200, 300), and for generating an IF reception signal, which originates from the reflected first transmit signal received by the antenna; and - a second sub-assembly for generating a second, pulse-shaped transmit signal, which is to be emitted towards the filling material surface by an antenna (108, 115, 114) of the fill level radar (100, 200, 300), and for generating an IF receive signal, which originates from the reflected first transmit signal received by the antenna; - a first sub-assembly for generating a first FMCW transmit signal, which is to be emitted towards a filling material surface by an antenna (108, 114, 115) of the fill level radar (100, 200, 300), and for generating an IF reception signal, which originates from the reflected first transmit signal received by the antenna; and - a second sub-assembly for generating a second, pulse-shaped transmit signal, which is to be emitted towards the filling material surface by an antenna (108, 115, 114) of the fill level radar (100, 200, 300), and for generating an IF receive signal, which originates from the reflected first transmit signal received by the antenna; a switching device (101, 102, 112) for selectively activating the first sub-assembly and the second sub-assembly; wherein the switching device (101, 102, 112) is configured to selectively activate the first sub-assembly and the second sub-assembly in a rigidly predetermined temporal sequence; further comprising a digital signal processing device that is configured to process the reflected first and second transmit signals to determine the fill level.
A method of manufacturing a liposome-containing preparation, the method comprising mixing a supercritical carbon dioxide, one or more liposome membrane constituents including a phospholipid exhibiting a phase transition temperature and a water-soluble chemical, characterised in that the method comprises the steps of: mixing one or more liposome membrane constituents and an aqueous solution of the water-soluble chemical in a pressure vessel, supplying liquefied carbon dioxide into the vessel and increasing a pressure and a temperature within the vessel to bring the carbon dioxide to a supercritical state, mixing the supercritical carbon dioxide with the liposome membrane constituents and the aqueous solution of the water-soluble chemical to form a mixture, and decreasing the pressure within the vessel to discharge the carbon dioxide from the mixture to form an aqueous dispersion of liposomes enclosing the water-soluble chemical, wherein the liposome membrane constituents include a compound containing a polyethylene glycol group. mixing one or more liposome membrane constituents and an aqueous solution of the water-soluble chemical in a pressure vessel, supplying liquefied carbon dioxide into the vessel and increasing a pressure and a temperature within the vessel to bring the carbon dioxide to a supercritical state, mixing the supercritical carbon dioxide with the liposome membrane constituents and the aqueous solution of the water-soluble chemical to form a mixture, and decreasing the pressure within the vessel to discharge the carbon dioxide from the mixture to form an aqueous dispersion of liposomes enclosing the water-soluble chemical, wherein the liposome membrane constituents include a compound containing a polyethylene glycol group.
A spot scanning ion therapy system, comprising: a. an ion therapy source comprising at least one scanning magnet, the ion therapy source configured to sequentially direct a particle pencil beam to a number of spot positions in a target; characterised by further comprising b. a dynamic trimming collimator configured to be mounted downstream of the at least one scanning magnet of the ion therapy source, the dynamic trimming collimator comprising: i. at least one trimmer located downstream of the at least one scanning magnet and configured to intercept a portion of said pencil beam; and ii. at least one driving mechanism configured for moving said at least one trimmer; and c. a controller configured to control the ion therapy source to execute the sequence of spot irradiations by sequentially directing and delivering the particle pencil beam to the number of spot positions in the target and control the position of said at least one trimmer as a function of each of said number of spot positions. a. an ion therapy source comprising at least one scanning magnet, the ion therapy source configured to sequentially direct a particle pencil beam to a number of spot positions in a target; characterised by further comprising b. a dynamic trimming collimator configured to be mounted downstream of the at least one scanning magnet of the ion therapy source, the dynamic trimming collimator comprising: i. at least one trimmer located downstream of the at least one scanning magnet and configured to intercept a portion of said pencil beam; and ii. at least one driving mechanism configured for moving said at least one trimmer; and i. at least one trimmer located downstream of the at least one scanning magnet and configured to intercept a portion of said pencil beam; and ii. at least one driving mechanism configured for moving said at least one trimmer; and c. a controller configured to control the ion therapy source to execute the sequence of spot irradiations by sequentially directing and delivering the particle pencil beam to the number of spot positions in the target and control the position of said at least one trimmer as a function of each of said number of spot positions.
A centralizing assembly for an engine having a plurality of rotatable vanes, the assembly comprising: an engine casing; at least one unison ring disposed concentrically with the engine casing, wherein a spacing gap is formed between the at least one unison ring and the engine casing, the spacing gap variable between a maximum spacing gap and a minimum spacing gap in response to thermal expansion of the engine casing; and at least three centralizer elements positioned symmetrically around the unison ring, each of the centralizer elements comprising: a plunger element movably mounted to the at least one unison ring and spanning the spacing gap, wherein the centralizing assembly comprises: at least one spring mounted to the plunger element, the at least one spring exerting a centralizing force through the plunger element onto the engine casing, the at least one spring maintaining the centralizing force between the maximum spacing gap and the minimum spacing gap; characterised in that the at least one spring on each of the centralizer elements is configured to maintain the unison ring centrally around the engine casing. an engine casing; at least one unison ring disposed concentrically with the engine casing, wherein a spacing gap is formed between the at least one unison ring and the engine casing, the spacing gap variable between a maximum spacing gap and a minimum spacing gap in response to thermal expansion of the engine casing; and at least three centralizer elements positioned symmetrically around the unison ring, each of the centralizer elements comprising: a plunger element movably mounted to the at least one unison ring and spanning the spacing gap, wherein the centralizing assembly comprises: at least one spring mounted to the plunger element, the at least one spring exerting a centralizing force through the plunger element onto the engine casing, the at least one spring maintaining the centralizing force between the maximum spacing gap and the minimum spacing gap; characterised in that the at least one spring on each of the centralizer elements is configured to maintain the unison ring centrally around the engine casing. at least one spring mounted to the plunger element, the at least one spring exerting a centralizing force through the plunger element onto the engine casing, the at least one spring maintaining the centralizing force between the maximum spacing gap and the minimum spacing gap; characterised in that the at least one spring on each of the centralizer elements is configured to maintain the unison ring centrally around the engine casing.
A method in a wireless communication device for diagnosing a power supply failure in the wireless communication device, wherein the wireless communication device comprises a Power Management Unit, PMU, and a Digital Baseband, DB,, the DB operative to perform wireless communication over a radio link and comprising a Central Processing Unit, CPU, a debug interface, and the PMU comprising one or more voltage regulators operative as a CPU power supply for powering the CPU, the method comprising, while the wireless communication device is in a normal mode of operation: - detecting (301,402,502) an indication of a power supply failure in the wireless communication device; - storing (303,404,504) diagnostic data to a memory in the PMU, the diagnostic data comprising current operational state data for the PMU or the DB; f - deciding whether to turn off the wireless communication device in view of the detected indication; and in response to deciding to turn off the wireless communication device storing a turnoff indicator in status registers of the PMU indicating a turnoff reason corresponding to the decision to turn off the wireless communication device; and shutting down the wireless communication device; and in response to deciding not to turn off the wireless communication device, storing an indication of a potential power failure in the PMU memory; and wherein the CPU starts an error handler in case of a subsequent failed CPU operation or in case said turn-off reason is unexpected, wherein said error handler passes said diagnostic data to a dump file along with other collected dump file data, wherein said dump file is output from said debugging interface. - detecting (301,402,502) an indication of a power supply failure in the wireless communication device; - storing (303,404,504) diagnostic data to a memory in the PMU, the diagnostic data comprising current operational state data for the PMU or the DB; f - deciding whether to turn off the wireless communication device in view of the detected indication; and in response to deciding to turn off the wireless communication device storing a turnoff indicator in status registers of the PMU indicating a turnoff reason corresponding to the decision to turn off the wireless communication device; and shutting down the wireless communication device; and in response to deciding not to turn off the wireless communication device, storing an indication of a potential power failure in the PMU memory;
Method for indicating the arrangement of components in a vehicle, the components being objects which can be fixedly locked at one or more fastening points (A, B) in the vehicle and the objects having at least two different setting positions, the method comprising the following steps: - determining the fastening point (A, B) of the locked component; - determining a setting position of the locked component, the fastening points (A, B) of the component and the setting position of the component being determined (12, 14) by means of mechanical contact switches connected in series; - acoustically and/or visually indicating the fastening point (A, B) and/or the setting position of the component. - determining the fastening point (A, B) of the locked component; - determining a setting position of the locked component, the fastening points (A, B) of the component and the setting position of the component being determined (12, 14) by means of mechanical contact switches connected in series; - acoustically and/or visually indicating the fastening point (A, B) and/or the setting position of the component.
An endpoint management method performed by a computing device, the method comprising: storing data structures in an endpoint data store, each data structure representing an endpoint having one or more components, each component having one or more arbitrary properties, each component being an upgradeable entity that has at least one package installed or installable thereon; defining multiple groups of endpoints, each group identified by its name and defined by its group criteria expressed in terms of the one or more arbitrary properties of the one or more components of the endpoints that are members of the group; for each group, storing in a group data store the group criteria of the group in association with the name of the group; targeting a release of one or more packages to endpoints that belong to two or more of the multiple groups by defining a deployment for the release that identifies the two or more of the multiple groups by name and that assigns priorities to the identified two or more of the multiple groups; and in an endpoint that belongs to the two or more of the multiple groups: installing, based on the assigned priority within the defined deployment, a particular package of the release on a component of the endpoint; and controlling functionality of the endpoint using the component on which the particular package is installed. storing data structures in an endpoint data store, each data structure representing an endpoint having one or more components, each component having one or more arbitrary properties, each component being an upgradeable entity that has at least one package installed or installable thereon; defining multiple groups of endpoints, each group identified by its name and defined by its group criteria expressed in terms of the one or more arbitrary properties of the one or more components of the endpoints that are members of the group; for each group, storing in a group data store the group criteria of the group in association with the name of the group; targeting a release of one or more packages to endpoints that belong to two or more of the multiple groups by defining a deployment for the release that identifies the two or more of the multiple groups by name and that assigns priorities to the identified two or more of the multiple groups; and installing, based on the assigned priority within the defined deployment, a particular package of the release on a component of the endpoint; and controlling functionality of the endpoint using the component on which the particular package is installed.
Machine for processing a succession of elements in the form of sheets, comprising at least one device for printing the succession of elements, comprising a platen press for depositing onto each sheet, by stamping between a static platen and a mobile platen, the coloured or metallised film coming from at least one stamping foil, as well as a heating element for bringing to a given temperature any stamping tool integral to the static platen in order that the stamping operation takes place in a hot environment within the platen press, the printing device further comprising a frame which is configured to support each stamping tool associated with the static platen, and which is mounted for moving by displacement between a use position wherein it extends opposite and in contact with the heating element in an operating position, and an extraction position wherein it is arranged outside the platen press, characterised in that the heating element is mounted for moving by displacement between an operating position wherein it is interposed between the static platen, and each stamping tool associated with said platen and a maintenance position wherein it is positioned outside the platen press, the printing device comprising: - means capable of transporting the heating element between the operating position and the maintenance position, the frame, forming said transporting means, being capable of transporting the heating element between the operating position and the maintenance position when said frame is moved between the use position and the extraction position, - fastening means capable of immobilising the heating element in an operating position, the fastening means being accessible from the face of the static platen, called outer face, which is opposite the inner face. - means capable of transporting the heating element between the operating position and the maintenance position, the frame, forming said transporting means, being capable of transporting the heating element between the operating position and the maintenance position when said frame is moved between the use position and the extraction position, - fastening means capable of immobilising the heating element in an operating position, the fastening means being accessible from the face of the static platen, called outer face, which is opposite the inner face.
An electrolyte comprising a block copolymer comprising a block copolymer represented by Formula 1 or a block copolymer represented by Formula 2: wherein, in Formula 1, m and n each denotes a degree of polymerization, wherein m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and a, b, and c each denotes a mole fraction, wherein the sum of a, b, and c is 1, and wherein, in Formula 2, m and n each denotes a degree of polymerization, wherein m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and a, b, and c each denotes a mole fraction, where the sum of a, b, and c is 1, and in Formula 1 aqnd Formula 2, a is in a range of 0.15 to 0.5, b is in a range of 0.05 to 0.3 and c is in a range of 0.2 to 0.7.. m and n each denotes a degree of polymerization, wherein m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and a, b, and c each denotes a mole fraction, wherein the sum of a, b, and c is 1, and m and n each denotes a degree of polymerization, wherein m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and m is a number selected from 2 to 5,000, and n is a number selected from 2 to 5,000; and a, b, and c each denotes a mole fraction, where the sum of a, b, and c is 1, and in Formula 1 aqnd Formula 2, a is in a range of 0.15 to 0.5, b is in a range of 0.05 to 0.3 and c is in a range of 0.2 to 0.7..
A method for producing a variant α-amylase polypeptide, comprising: introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove; wherein the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering; wherein the parent has at least 65% amino acid sequence identity to SEQ ID NO: 2; and wherein the mutation alters the binding of starch to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide and increases the thermal stability, increases the pH stability, and/or increases the detergent stability of the variant α-amylase polypeptide compared to the parental α-amylase polypeptide. introducing into the amino sequence of a parent Family 13 α-amylase polypeptide a mutation at an amino acid residue in the starch-binding groove; wherein the starch-binding groove corresponds to amino acid residues 1-6, 36, 38, 91-97, 224-226, 249-257, 278-282, 309-320, 354-359, 391, and 395-402, referring to SEQ ID NO: 2 for numbering; wherein the parent has at least 65% amino acid sequence identity to SEQ ID NO: 2; and wherein the mutation alters the binding of starch to the variant α-amylase polypeptide compared to the parental α-amylase polypeptide and increases the thermal stability, increases the pH stability, and/or increases the detergent stability of the variant α-amylase polypeptide compared to the parental α-amylase polypeptide.
A display substrate, comprising: a base substrate; a thin film transistor for driving image display comprising an active layer; and a first light shielding layer on the base substrate and in an inter-subpixel region between two adjacent subpixel regions; wherein a projection of the first light shielding layer on the base substrate at least partially covers a projection of the inter-subpixel region between two adjacent subpixel regions on the base substrate; the projection of the first light shielding layer on the base substrate is outside a projection of the active layer on the base substrate; wherein the display substrate further comprises a third light shielding layer in the inter-subpixel region between two adjacent subpixel regions, the third light shielding layer and the first light shielding layer in different layers; wherein a projection of the third light shielding layer on the substrate at least partially covers the projection of the inter-subpixel region between two adjacent subpixel regions on the base substrate; and the projection of the third light shielding layer on the base substrate is outside the projection of the active layer on the base substrate; and wherein projections of the first light shielding layer and the third light shielding layer on the base substrate partially overlap with each other. a base substrate; a thin film transistor for driving image display comprising an active layer; and a first light shielding layer on the base substrate and in an inter-subpixel region between two adjacent subpixel regions; wherein a projection of the first light shielding layer on the base substrate at least partially covers a projection of the inter-subpixel region between two adjacent subpixel regions on the base substrate; the projection of the first light shielding layer on the base substrate is outside a projection of the active layer on the base substrate; wherein the display substrate further comprises a third light shielding layer in the inter-subpixel region between two adjacent subpixel regions, the third light shielding layer and the first light shielding layer in different layers; wherein a projection of the third light shielding layer on the substrate at least partially covers the projection of the inter-subpixel region between two adjacent subpixel regions on the base substrate; and the projection of the third light shielding layer on the base substrate is outside the projection of the active layer on the base substrate; and wherein projections of the first light shielding layer and the third light shielding layer on the base substrate partially overlap with each other.