mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing palmitate ester of 3-(2-chloroethyl)-6,7,8,9-tetrahydro-2-methyl-9-hydroxy-4H-pyrido[1,2-a]pyrimidine-4-one of Formula V comprising the steps of: (i) Combining 3-(2-chloroethyl)-6,7,8,9-tetrahydro-2-methyl-9-hydroxy-4H-pyrido[1,2-a]pyrimidine-4-one of Formula IV with fatty acid derivative in the presence of a pyridine derivative, at least one base and at least one organic solvent to obtain a reaction mixture and (ii) adding acid halide to reaction mixture obtained in step (i) and maintaining the mixture for sufficient time to give the compound 3-(2-chloroethyl)-6,7,8,9-tetrahydro-2-methyl-9-hydroxy-4H-pyrido[1,2-a]pyrimidine-4-one Palmitate ester of Formula V: (i) Combining 3-(2-chloroethyl)-6,7,8,9-tetrahydro-2-methyl-9-hydroxy-4H-pyrido[1,2-a]pyrimidine-4-one of Formula IV with fatty acid derivative in the presence of a pyridine derivative, at least one base and at least one organic solvent to obtain a reaction mixture and (ii) adding acid halide to reaction mixture obtained in step (i) and maintaining the mixture for sufficient time to give the compound 3-(2-chloroethyl)-6,7,8,9-tetrahydro-2-methyl-9-hydroxy-4H-pyrido[1,2-a]pyrimidine-4-one Palmitate ester of Formula V:
System for remotely supplying electrical energy to an aircraft, said system comprising: - at least one power supply station connected to a source of electrical energy and equipped with a transmitting antenna configured to transmit electromagnetic waves, - a receiving antenna configured to be carried by said aircraft, said receiving antenna being configured to receive said electromagnetic waves and to transform them into an electric current supplying a power plant of said aircraft, said system comprising a locating device, configured to locate said aircraft with respect to said transmitting antenna, and a movement device for moving one antenna among said transmitting antenna and said receiving antenna according to the position of the other antenna among said transmitting antenna and said receiving antenna, characterised in that said system comprises a plurality of power supply stations defining a route followed by said aircraft, each power supply station covering a segment of said route, said receiving antenna always being within the range of said transmitting antenna of at least one power supply station along said route. - at least one power supply station connected to a source of electrical energy and equipped with a transmitting antenna configured to transmit electromagnetic waves, - a receiving antenna configured to be carried by said aircraft, said receiving antenna being configured to receive said electromagnetic waves and to transform them into an electric current supplying a power plant of said aircraft, said system comprising a locating device, configured to locate said aircraft with respect to said transmitting antenna, and a movement device for moving one antenna among said transmitting antenna and said receiving antenna according to the position of the other antenna among said transmitting antenna and said receiving antenna, characterised in that said system comprises a plurality of power supply stations defining a route followed by said aircraft, each power supply station covering a segment of said route, said receiving antenna always being within the range of said transmitting antenna of at least one power supply station along said route.
A device adapted for producing energy by nuclear fission, the device comprising a core container of a core container material, which core container encloses an inner tubing of an inner tubing material, the inner tubing and/or the core container having an inlet and an outlet, the device further comprising a molten fuel salt with a fissionable material, a molten moderator salt and a redox-element, wherein the molten moderator salt is located in the core container and the molten fuel salt is located in the inner tubing, or wherein the molten fuel salt is located in the core container and the molten moderator salt is located in the inner tubing, characterised in that the molten moderator salt comprises at least one metal hydroxide, at least one metal deuteroxide or a combination thereof, and in that the redox-element has a reduction potential, which is larger than that of the inner tubing material or of the inner tubing material and the core container material and/or in that the molten moderator salt comprises at least one metal hydroxide, at least one metal deuteroxide or a combination thereof, and the redox-element is a chemical species which controls the oxoacidity of the molten moderator salt and/or the molten fuel salt.
A method comprising: receiving, by a processing circuit, a signal indicating an amount of radiation received at a radiation sensor; determining, by the processing circuit, an amount of radiation received over a time period at the radiation sensor; storing, in a data storage unit (124, 224, 324, 424, 542), a mapping of amounts of radiation to compensation factors; determining, by the processing circuit, a compensation factor for a circuit component based on the amount of radiation received over the time period at the radiation sensor, wherein determining the compensation factor comprises retrieving, by the processing circuit, the compensation factor from the data storage unit based on the stored mapping; and compensating, by the processing circuit, an output signal of the circuit component, based on the compensation factor. receiving, by a processing circuit, a signal indicating an amount of radiation received at a radiation sensor; determining, by the processing circuit, an amount of radiation received over a time period at the radiation sensor; storing, in a data storage unit (124, 224, 324, 424, 542), a mapping of amounts of radiation to compensation factors; determining, by the processing circuit, a compensation factor for a circuit component based on the amount of radiation received over the time period at the radiation sensor, wherein determining the compensation factor comprises retrieving, by the processing circuit, the compensation factor from the data storage unit based on the stored mapping; and compensating, by the processing circuit, an output signal of the circuit component, based on the compensation factor.
An attenuated strain of Salmonella typhi Ty21a comprising at least one copy of a DNA molecule comprising a eukaryotic expression cassette encoding a VEGF receptor protein, for use in the treatment of cancer, wherein the treatment further comprises the administration of at least one checkpoint inhibitor selected from the group consisting of an antibody against PD-1, PD-L1 and CTLA4.
An answer information feedback method in a 3rd Generation Partnership Project, 3GPP, protocol, characterized in that the method comprises: with respect to a current uplink subframe of a primary carrier in a Time Division Duplexing, TDD, mode, determining a downlink subframe of a secondary carrier in a Supplement Downlink, SDL, mode and corresponding to the current uplink subframe in answer information feedback as a to-be-fed-back downlink subframe in accordance with a predetermined downlink retransmission timing mode of the secondary carrier for a timeslot configuration for the primary carrier, wherein the secondary carrier in the SDL mode is merely used for downlink transmission, and in the predetermined downlink retransmission timing mode, uplink subframes of the primary carrier correspond to different downlink subframes of the secondary carrier, downlink subframes of the secondary carrier corresponding to the respective uplink subframes of the primary carrier comprise all downlink subframes of the secondary carrier, and one of the uplink subframes of the primary carrier is separated from a corresponding downlink subframe of the secondary carrier by at least four subframes; and transmitting answer information for the to-be-fed-back downlink subframe to a network side using the current uplink subframe. with respect to a current uplink subframe of a primary carrier in a Time Division Duplexing, TDD, mode, determining a downlink subframe of a secondary carrier in a Supplement Downlink, SDL, mode and corresponding to the current uplink subframe in answer information feedback as a to-be-fed-back downlink subframe in accordance with a predetermined downlink retransmission timing mode of the secondary carrier for a timeslot configuration for the primary carrier, wherein the secondary carrier in the SDL mode is merely used for downlink transmission, and in the predetermined downlink retransmission timing mode, uplink subframes of the primary carrier correspond to different downlink subframes of the secondary carrier, downlink subframes of the secondary carrier corresponding to the respective uplink subframes of the primary carrier comprise all downlink subframes of the secondary carrier, and one of the uplink subframes of the primary carrier is separated from a corresponding downlink subframe of the secondary carrier by at least four subframes; and transmitting answer information for the to-be-fed-back downlink subframe to a network side using the current uplink subframe.
A method of manufacturing a laminate comprising at least two layers (1, 5) of thermoplastic material bonded together with a diffractive optical element incorporated between them, wherein a layer with a different index of refraction from that of a carrying layer and/or from that of a cover layer, each of thermoplastic material, is put on the carrying layer and covered by the cover layer, characterised in that the method comprises the following steps: (i) the layer with a different index of refraction is put on the carrying layer but is placed only in some areas of the carrying layer; (ii) subsequently a stamp with optical diffractive relief is imprinted into the layer with a different index of refraction such that one or more of the following (a), (b) or (c) is/are formed: (a) micro-fissures, (b) perforations in the layer with a different index of refraction, or (c) detachment of part of the layer with a different index of refraction; and then (iii) the cover layer of thermoplastic material is put on the layer with a different index of refraction; and then (iv) the laminate is heated to a temperature at which bonding of the cover layer and the carrying layer occurs. (i) the layer with a different index of refraction is put on the carrying layer but is placed only in some areas of the carrying layer; (ii) subsequently a stamp with optical diffractive relief is imprinted into the layer with a different index of refraction such that one or more of the following (a), (b) or (c) is/are formed: (a) micro-fissures, (b) perforations in the layer with a different index of refraction, or (c) detachment of part of the layer with a different index of refraction; and then (a) micro-fissures, (b) perforations in the layer with a different index of refraction, or (c) detachment of part of the layer with a different index of refraction; and then (iii) the cover layer of thermoplastic material is put on the layer with a different index of refraction; and then (iv) the laminate is heated to a temperature at which bonding of the cover layer and the carrying layer occurs.
A hydrolysis apparatus for organic waste using a hydraulic crushing effect, comprising: a housing having an open top surface and an inner lodging space; a reaction tank being lodged in the inner lodging space of the housing and having an open top surface and an inner space for accommodating a defined liquid chemical "L"; a heating section connected to a bottom surface of the reaction tank and provided into the reaction tank; and a driving means for moving the housing to put the housing in a linear reciprocating motion, wherein the heating section comprises: a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case; and a fastening means having a flange, a sealing socket, and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case, wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank. a housing having an open top surface and an inner lodging space; a reaction tank being lodged in the inner lodging space of the housing and having an open top surface and an inner space for accommodating a defined liquid chemical "L"; a heating section connected to a bottom surface of the reaction tank and provided into the reaction tank; and a driving means for moving the housing to put the housing in a linear reciprocating motion, wherein the heating section comprises: a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case; and a fastening means having a flange, a sealing socket, and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case, wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank. a case having an inner lodging space; at least one heating rod being lodged in the inner lodging space of the case to go all the way through the case horizontally and positioned to have both ends thereof projecting from both ends of the case; and a fastening means having a flange, a sealing socket, and a fastening bolt to enable both ends of the heating rod projecting from both ends of the case to be fixed to the case, wherein the case has a plurality of projections on the top surface thereof, wherein each projections has a through hole going all the way through the bottom surface of the reaction tank.
Method for assisting an automatic parking process of a parking assistance system of a vehicle into a parking space, in particular a bay parking space, having the following steps of: • recording sensor signals by means of at least one sensor of the vehicle in order to determine clearances and/or obstacles beside the vehicle transversely or substantially transversely to the direction of travel of the vehicle, • checking the determined clearances for their suitability as a parking space for the vehicle, • indicating a bay parking possibility for the vehicle if a clearance is identified as being suitable as a parking space, setting a rear parking limit and a front parking limit, • recording sensor signals by means of at least one sensor of the vehicle in order to determine obstacles in the direction of travel of the vehicle, characterized by the following step of: • changing the rear parking limit on the basis of the obstacles determined in the direction of travel of the vehicle, the parking limit being shifted by the amount needed by the vehicle in the direction of travel to reach the front parking limit, in which case the change of the rear parking limit results in the setting of a new rear parking limit whose distance to the set rear parking limit is minimized, the corresponding distances or the value for the shift being based on the direction of travel of the vehicle. • recording sensor signals by means of at least one sensor of the vehicle in order to determine clearances and/or obstacles beside the vehicle transversely or substantially transversely to the direction of travel of the vehicle, • checking the determined clearances for their suitability as a parking space for the vehicle, • indicating a bay parking possibility for the vehicle if a clearance is identified as being suitable as a parking space, setting a rear parking limit and a front parking limit, • recording sensor signals by means of at least one sensor of the vehicle in order to determine obstacles in the direction of travel of the vehicle, • changing the rear parking limit on the basis of the obstacles determined in the direction of travel of the vehicle, the parking limit being shifted by the amount needed by the vehicle in the direction of travel to reach the front parking limit,
Method for determining an operating state of at least one plain bearing (107a, 107b), wherein: a first gear is rotatably mounted by means of the plain bearing (107a, 107b) and meshes with a second gear; and wherein structure-borne sound from a tooth engagement of the first gear and the second gear is measured by means of a sensor; wherein the operating state of the plain bearing (107a, 107b) is assessed on the basis of the structure-borne sound from the tooth engagement of the first gear and the second gear measured by means of the sensor, characterized in that the signal is filtered; wherein the filtered signal corresponds to a signal of the structure-borne sound from the tooth engagement. a first gear is rotatably mounted by means of the plain bearing (107a, 107b) and meshes with a second gear; and wherein structure-borne sound from a tooth engagement of the first gear and the second gear is measured by means of a sensor; wherein the operating state of the plain bearing (107a, 107b) is assessed on the basis of the structure-borne sound from the tooth engagement of the first gear and the second gear measured by means of the sensor, characterized in that the signal is filtered; wherein the filtered signal corresponds to a signal of the structure-borne sound from the tooth engagement.
A microelectronic structure, comprising: a first compute in-memory, CIM,) analog tile configured to store a matrix of weight operands that produce a vector of outputs from a vector of inputs, wherein the first CIM analog tile comprises a first microcontroller configured to execute instructions and perform in-memory operations, wherein the first CIM analog tile is configured to perform vector matrix multiplication, VMM, operations; a first compute core communicatively coupled to the first CIM analog tile, wherein the first compute core comprises a scratchpad memory and a second microcontroller configured to execute instructions, wherein the first compute core is configured to perform an operation selected from the group consisting of: Batch-Normalization, rectified linear activation function, gaussian error linear unit, element-wise add, element-wise multiply, average-pooling, maxpooling, layer-normalization, activation function via look-up-table, long short-term memory-aux, tanh, sigmoid, softmax, and self-attention; and a second compute core communicatively coupled to the first CIM analog tile and the first compute core, wherein the second compute core comprises a third microcontroller configured to execute a set of instructions, wherein the first compute core and the second compute core differ based on specialization selected from the group consisting of: precision, data format, dataflow, storage capacity, and programmability. a first compute in-memory, CIM,) analog tile configured to store a matrix of weight operands that produce a vector of outputs from a vector of inputs, wherein the first CIM analog tile comprises a first microcontroller configured to execute instructions and perform in-memory operations, wherein the first CIM analog tile is configured to perform vector matrix multiplication, VMM, operations; a first compute core communicatively coupled to the first CIM analog tile, wherein the first compute core comprises a scratchpad memory and a second microcontroller configured to execute instructions, wherein the first compute core is configured to perform an operation selected from the group consisting of: Batch-Normalization, rectified linear activation function, gaussian error linear unit, element-wise add, element-wise multiply, average-pooling, maxpooling, layer-normalization, activation function via look-up-table, long short-term memory-aux, tanh, sigmoid, softmax, and self-attention; and a second compute core communicatively coupled to the first CIM analog tile and the first compute core, wherein the second compute core comprises a third microcontroller configured to execute a set of instructions, wherein the first compute core and the second compute core differ based on specialization selected from the group consisting of: precision, data format, dataflow, storage capacity, and programmability.
System (1, 3; 23) having an oven and having an oven accessory (3; 23), wherein - the oven has a cooking compartment with a rear wall, - the oven has at least one negative-pressure pump and at least one suction connection connected to the negative-pressure pump and projecting into the cooking compartment, - the oven accessory (3; 23) has at least two accessory parts (4, 5; 24, 25) that can be sealed to one another in a vacuum-tight manner, - one of the accessory parts (4, 5; 24, 25) has a suction socket, characterised in that - the suction connection projects through the rear wall and is designed to be plugged onto the suction socket in a vacuum-tight manner by means of an insertion movement of the oven accessory (3; 23) and - the suction socket is arranged on a rear side of the accessory part (4, 5; 24, 25) such that - when the cooking compartment of the oven is loaded using the oven accessory (3, 23), by means of a sliding-in movement, the suction socket of the accessory part (4, 5; 24, 25) can be plugged in an essentially vacuum-tight manner onto the at least one suction connection of the oven. - the oven has a cooking compartment with a rear wall, - the oven has at least one negative-pressure pump and at least one suction connection connected to the negative-pressure pump and projecting into the cooking compartment, - the oven accessory (3; 23) has at least two accessory parts (4, 5; 24, 25) that can be sealed to one another in a vacuum-tight manner, - one of the accessory parts (4, 5; 24, 25) has a suction socket, - the suction connection projects through the rear wall and is designed to be plugged onto the suction socket in a vacuum-tight manner by means of an insertion movement of the oven accessory (3; 23) and - the suction socket is arranged on a rear side of the accessory part (4, 5; 24, 25) such that - when the cooking compartment of the oven is loaded using the oven accessory (3, 23), by means of a sliding-in movement, the suction socket of the accessory part (4, 5; 24, 25) can be plugged in an essentially vacuum-tight manner onto the at least one suction connection of the oven.