mhurhangee/ep-ind-claims huggingface dataset:
A method for modifying a heating profile of a microwave oven using microwaves at a plurality of frequencies, the method comprising: defining a power of transmission to a cavity (10, 98) of the microwave oven of microwaves at each of the plurality of frequencies; defining a duration for which said microwaves are transmitted at each of the plurality of frequencies; measuring, for each of the plurality of frequencies, a proportion of power input to the cavity that is not output from the cavity; and using the measured proportions to modify the power of transmission at each frequency, the duration of transmission at each frequency, or both. defining a power of transmission to a cavity (10, 98) of the microwave oven of microwaves at each of the plurality of frequencies; defining a duration for which said microwaves are transmitted at each of the plurality of frequencies; measuring, for each of the plurality of frequencies, a proportion of power input to the cavity that is not output from the cavity; and using the measured proportions to modify the power of transmission at each frequency, the duration of transmission at each frequency, or both.
A polypeptide comprising a scaffold-based molecule comprising loop domains topologically similar to domains of the third fibronectin domain, the polypeptide has an amino acid sequence based on a consensus sequence of third fibronectin domains having: (i) the amino acid sequence of SEQ ID NO: 16, wherein specific residues of SEQ ID NO: 16 are replaced and enhance thermal stability and chemical stability of the scaffold-based molecule, wherein the scaffold-based molecule comprises a E11N substitution; or (ii) the amino acid sequence of SEQ ID NO: 144. (i) the amino acid sequence of SEQ ID NO: 16, wherein specific residues of SEQ ID NO: 16 are replaced and enhance thermal stability and chemical stability of the scaffold-based molecule, wherein the scaffold-based molecule comprises a E11N substitution; or (ii) the amino acid sequence of SEQ ID NO: 144.
A method for controlling a wind power plant, the wind power plant comprising a plurality of wind turbine generators, each wind turbine generator comprising at least one power converter for providing active power and/or reactive power to an electrical grid, the method comprising: requesting one or more of the wind turbine generators to curtailing production of active power to zero or near zero by setting the one or more wind turbine generators in a pause or standby mode, determining a required amount of reactive power provided by the plurality of wind turbine generators, and grouping the plurality of wind turbine generators into a first set of wind turbine generators and a second set of wind turbine generators based on a demand for reactive power; supplying reactive power to the grid from the first set of wind turbine generators and minimizing active power losses in the wind power plant by disconnecting the second set of wind turbine generators from the electrical grid in response to a control demand. requesting one or more of the wind turbine generators to curtailing production of active power to zero or near zero by setting the one or more wind turbine generators in a pause or standby mode, determining a required amount of reactive power provided by the plurality of wind turbine generators, and grouping the plurality of wind turbine generators into a first set of wind turbine generators and a second set of wind turbine generators based on a demand for reactive power; supplying reactive power to the grid from the first set of wind turbine generators and minimizing active power losses in the wind power plant by disconnecting the second set of wind turbine generators from the electrical grid in response to a control demand.
A method for producing a recombinant protein of interest comprising culturing a recombinant gram-negative bacterial cell in a culture medium under conditions effective to express the recombinant protein of interest and recovering the recombinant protein of interest from the periplasm of the recombinant gram-negative bacterial cell and/or the culture medium, characterized in that the recombinant gram-negative bacterial cell comprises (a) a mutant spr gene encoding a mutant spr protein capable of suppressing the phenotype of a cell comprising a mutated Tsp gene wherein the mutant spr gene encodes a spr protein having a mutation at amino acid H145 according to the amino acid sequence of SEQ ID NO: 21, and (b) a non-recombinant wild-type chromosomal Tsp gene, wherein the cell is isogenic to a wild-type E. coli cell except for the mutated spr gene. (a) a mutant spr gene encoding a mutant spr protein capable of suppressing the phenotype of a cell comprising a mutated Tsp gene wherein the mutant spr gene encodes a spr protein having a mutation at amino acid H145 according to the amino acid sequence of SEQ ID NO: 21, and (b) a non-recombinant wild-type chromosomal Tsp gene,
A thermoplastic pipe for transferring liquids comprising first and second parts (2a, 2b) of electrically conducting material in the form of electrodes, said parts (2a, 2b) extending substantially in the longitudinal direction of said thermoplastic pipe, and being arranged on the inside surface of said thermoplastic pipe, which parts are stripes of electrically conducting plastic material, and wherein said parts (2a, 2b) are electrically insulated from each other.
A waveguide, comprising a grating in at least a part of the waveguide, which waveguide comprises a coating, the coating comprising a polymer, which polymer comprises a chain having an aromatic group and a group selected from the group of sulfonyl groups, carbonyl groups, carbonate groups, siloxane groups, organofluorine groups, pyridine groups and amide groups.
A bone conduction transducer comprising a first seismic mass m 1 and a second mass m 2 connected to each other by a first spring suspension with compliance C1, where the coil and magnetic circuits are integrated into the two masses and are generating dynamic forces in the air gaps formed between the first and second masses when a current is supplied to the coil, and where the first mass m 1 and the first spring suspension C1 creates a first mechanical resonance f 1 in the low frequency range, characterized in that a second mechanical resonance f 2 is created in the high frequency range by interaction between the second mass m 2 and a second spring compliance C2 that is introduced in series between the second mass m2 and the load Z load, wherein the bone conduction transducer is attachable to skull bone either directly via a housing of the bone conduction transducer or via a bone anchored coupling.
A semiconductor process control system comprising: a first operating system; a legacy application module developed to operate in conjunction with a legacy semiconductor process control system, the legacy semiconductor process control system configured to execute a second operating system different from the first operating system, wherein the legacy application module is configured to interface with at least one semiconductor processing chamber and comprises at least one semiconductor processing application; and a hardware abstraction module configured to provide communication between the first operating system and the legacy application module, the hardware abstraction module configured to interface with the at least one semiconductor processing chamber, wherein the hardware abstraction module is configured to emulate the legacy semiconductor process control system on a register-to-register basis, such that the at least one semiconductor processing application can be performed on the semiconductor process control system without source code changes to the at least one semiconductor processing application. a first operating system; a legacy application module developed to operate in conjunction with a legacy semiconductor process control system, the legacy semiconductor process control system configured to execute a second operating system different from the first operating system, wherein the legacy application module is configured to interface with at least one semiconductor processing chamber and comprises at least one semiconductor processing application; and a hardware abstraction module configured to provide communication between the first operating system and the legacy application module, the hardware abstraction module configured to interface with the at least one semiconductor processing chamber, wherein the hardware abstraction module is configured to emulate the legacy semiconductor process control system on a register-to-register basis, such that the at least one semiconductor processing application can be performed on the semiconductor process control system without source code changes to the at least one semiconductor processing application.
Braking device for slowing a vehicle with a brake disc which is arranged on the wheel axle wherein at least one guided carriage and a brake element attached thereto, which are designed to interact with the brake disc, are located on a support hub of the vehicle, characterized in that the braking element is designed as a roller bearing with an inner ring which encloses the brake disc and is aligned coaxially with the brake disc in the operational, non-braking state and that radially arranged elastic elements are fixed to the brake disc wherein the distal ends of these elastic elements are flush or free of play with the inner surface of the inner ring of the roller bearing and that the carriage is displaceably mounted relative to the brake disc.
A data-bearing medium (100, 200, 302, 400, 902), comprising: a section (204, 214) of a plurality of cells (102, 202) having a set of opposite-shifted clusters (206, 216), wherein the set of opposite-shifted clusters (206, 216) includes clusters (602, 606, 702, 706, 802, 806) of a first shift with respect to the cell boundaries and clusters (604, 608, 704, 708, 804, 808) of a second shift with respect to the cell boundaries, the second shift being opposite to the first shift, wherein the plurality of cells (102, 202) includes a combination of clusters of opposite shifts of the set of opposite-shifted clusters (206, 216) representing a single value (230, 231). a section (204, 214) of a plurality of cells (102, 202) having a set of opposite-shifted clusters (206, 216), wherein the set of opposite-shifted clusters (206, 216) includes clusters (602, 606, 702, 706, 802, 806) of a first shift with respect to the cell boundaries and clusters (604, 608, 704, 708, 804, 808) of a second shift with respect to the cell boundaries, the second shift being opposite to the first shift, wherein the plurality of cells (102, 202) includes a combination of clusters of opposite shifts of the set of opposite-shifted clusters (206, 216) representing a single value (230, 231).
Computer-implemented method for processing parameters of a machine learning method for providing a correction data record for a movement correction of a CT image data record of an object moving during its capture, - wherein a training data record with a number of reference image data records is provided for introduction into the machine learning method, - wherein an iteration is carried out, wherein a correction data record is determined by means of the machine learning method in each of their iteration steps for each of the reference image data records and a result of a cost function dependent on the correction data records determined in this iteration step is determined, and - wherein the iteration is terminated or a parameter of the machine learning method is modified as a function of the result of the cost function, wherein in order to determine the result of the cost function, differences from the determined correction data records and previously known training correction data records are used, wherein the training correction data records are stored in the training data record and assigned to the corresponding reference image data records or wherein in order to determine the result of the cost function, each of the reference image data records is deformed according to the assigned correction data record and a reconstruction image data record is created from the deformed reference image data record. - wherein a training data record with a number of reference image data records is provided for introduction into the machine learning method, - wherein an iteration is carried out, wherein a correction data record is determined by means of the machine learning method in each of their iteration steps for each of the reference image data records and a result of a cost function dependent on the correction data records determined in this iteration step is determined, and - wherein the iteration is terminated or a parameter of the machine learning method is modified as a function of the result of the cost function, wherein in order to determine the result of the cost function, differences from the determined correction data records and previously known training correction data records are used, wherein the training correction data records are stored in the training data record and assigned to the corresponding reference image data records or wherein in order to determine the result of the cost function, each of the reference image data records is deformed according to the assigned correction data record and a reconstruction image data record is created from the deformed reference image data record.
Massage device comprising: - a belt system provided as a supporting structure, wherein the belt system - comprises a first and a second vertical belt (210, 212), wherein the first and second vertical belts are spaced apart from each other and each have a first and a second end (E1, E2), and wherein the belt system - comprises at least one horizontal belt, wherein the horizontal belt is connected to the first vertical belt at a first connection point and is connected to the second vertical belt at a second connection point, so that the horizontal belt connects the first and second vertical belts, and wherein the belt system - comprises first and second fastening means (230, 232) for mounting the belts to a mounting object, the first fastening means being located at the respective first ends of the first and second vertical belts (210, 212) and the second fastening means being located at the respective second ends of the first and second vertical belts (210, 212); and - at least one massage means for trigger massage, wherein the massage means has a belt receptacle for flat and detachable reception of a belt of the belt system, wherein the at least one massage means is detachably fastened to the at least one horizontal belt by means of the belt receptacle. - a belt system provided as a supporting structure, wherein the belt system - comprises a first and a second vertical belt (210, 212), wherein the first and second vertical belts are spaced apart from each other and each have a first and a second end (E1, E2), and wherein the belt system - comprises at least one horizontal belt, wherein the horizontal belt is connected to the first vertical belt at a first connection point and is connected to the second vertical belt at a second connection point, so that the horizontal belt connects the first and second vertical belts, and wherein the belt system - comprises first and second fastening means (230, 232) for mounting the belts to a mounting object, the first fastening means being located at the respective first ends of the first and second vertical belts (210, 212) and the second fastening means being located at the respective second ends of the first and second vertical belts (210, 212); and - at least one massage means for trigger massage, wherein the massage means has a belt receptacle for flat and detachable reception of a belt of the belt system, wherein the at least one massage means is detachably fastened to the at least one horizontal belt by means of the belt receptacle.
A manifold to housing connection comprising: a manifold; a tube member positioned between said manifold and a housing; a first joint connecting said tube member to an exterior surface of said housing; and a second joint connecting said manifold to an exterior surface of said tube member; an insert member positioned at least partially within said housing; and a third joint connecting said tube member to an exterior surface of said insert member. a manifold; a tube member positioned between said manifold and a housing; a first joint connecting said tube member to an exterior surface of said housing; and a second joint connecting said manifold to an exterior surface of said tube member; an insert member positioned at least partially within said housing; and a third joint connecting said tube member to an exterior surface of said insert member.
A dentifrice composition comprising sodium bicarbonate and a stannous ion source, wherein sodium bicarbonate is present in an amount of greater than 50% by weight of the composition.
An access control device, used to provide a secure access control mechanism for a system when said system is remotely accessed, characterized in that said access control device comprises: a front-end firewall configured to provide a first network port, said first network port configured to connect a computer to remotely access said system, a bastion host connected with said front-end firewall, and a back-end firewall connected with said bastion host and configured to provide a second network port, said second network port configured to connect said system, said back-end firewall configured to determine through said second network port the remotely accessible resources in said system and to determine the resources which said computer can remotely access among the remotely accessible resources in said system according to the preconfigured remote access control policies, and said bastion host is configured to provide said computer with information provided by said back-end firewall about the resources said computer can remotely access through said first network port of said front-end firewall so that said computer can remotely access the resources, said access control device is configured to receive industrial protocol messages transferred in said system and to obtain the information about the remotely accessible resources in said system from the received industrial protocol messages according to different industrial protocols. a front-end firewall configured to provide a first network port, said first network port configured to connect a computer to remotely access said system, a bastion host connected with said front-end firewall, and a back-end firewall connected with said bastion host and configured to provide a second network port, said second network port configured to connect said system, said back-end firewall configured to determine through said second network port the remotely accessible resources in said system and to determine the resources which said computer can remotely access among the remotely accessible resources in said system according to the preconfigured remote access control policies, and said bastion host is configured to provide said computer with information provided by said back-end firewall about the resources said computer can remotely access through said first network port of said front-end firewall so that said computer can remotely access the resources, said access control device is configured to receive industrial protocol messages transferred in said system and to obtain the information about the remotely accessible resources in said system from the received industrial protocol messages according to different industrial protocols.
Building system (10; 70; 80; 90; 110; 210; 310; 370; 410; 510) comprising a prefabricated pillar (12; 76; 88; 112; 118; 212; 312; 376; 412; 512) and at least one prefabricated beam (14, 16; 72, 74; 78, 82, 84, 86; 92, 94; 114, 116; 214, 216, 218; 314, 316; 372, 374, 378, 380; 414, 416; 514, 516) to be coupled to the pillar (12; 76; 88; 112; 118; 212; 312; 376; 412; 512) wherein the pillar (12; 76; 88; 112; 118; 212; 312; 376; 412; 512) comprises at least one support (32; 132; 232; 332; 432) in which a seat (38; 138; 338) is formed, the at least one support (32; 132; 232; 332; 432) being totally received in the volume identified by the pillar, wherein the at least one beam (14, 16; 72, 74; 78, 82, 84, 86; 92, 94; 114, 116; 214, 216, 218; 314, 316; 372, 374, 378, 380; 414, 416; 514, 516) comprises at least one retractable shelf (50; 150; 350; 450) in which an internal sliding element (60; 160; 354; 454) is received so as to slide in the at least one retractable shelf (50; 150; 350; 450), the at least one retractable shelf (50; 150; 350; 450) being totally received in the volume identified by the at least one beam so that the internal sliding element (60; 160; 354; 454) may go out of the at least one retractable shelf (50; 150; 350; 450) and enter the seat (38; 138; 338) of the at least one support (32; 132; 232; 332; 432) in order to couple the at least one beam to the pillar; wherein once the at least one beam (14, 16; 72, 74; 78, 82, 84, 86; 92, 94; 114, 116; 214, 216, 218; 314, 316; 372, 374, 378, 380; 414, 416; 514, 516) has been fixed to the pillar (12; 76; 88; 112; 118; 212; 312; 376; 412; 512) by means of the internal sliding element (60; 160; 354; 454), a cementitious material (68; 168) is cast on the coupling of the at least one beam to the pillar; characterized by the fact that the at least one beam comprises a first longitudinal portion (40; 91; 340; 440) and a second longitudinal portion (42; 93; 342; 442), wherein the first longitudinal portion (40; 91; 340; 440) is disposed under the second longitudinal portion (42; 93; 342; 442); the at least one retractable shelf being comprised at the end of the second longitudinal portion; at least one bar with threaded free end being comprised along the second longitudinal portion so as to fix a connecting bar by screwing it in said at least one bar for the connection with at least one further beam.