mhurhangee/ep-ind-claims huggingface dataset:
An audio and video processing apparatus for processing an audio signal and a video signal received from an external apparatus comprising: a signal transceiver (310_1) configured to receive the video signal and the audio signal; an audio processor (210/310) configured to process the audio signal received through the signal transceiver and output the processed audio signal, after an initialization process of the audio processor is performed; a video processor configured to process the video signal received through the signal transceiver and output the processed video signal, after an initialization process of the video processor is performed; and a controller (200/300) configured to determine, based on information received through the signal transceiver, an initialization mode from a first initialization mode for performing an initialization process of the video processor ahead of an initialization process of the audio processor and a second initialization mode for performing an initialization process of the audio processor ahead of an initialization process of the video processor, and initialize one of the audio processor and the video processor according to the determined initialization process, to process one of the video signal and the audio signal corresponding to the initialized one of the video processor and the audio processor a signal transceiver (310_1) configured to receive the video signal and the audio signal; an audio processor (210/310) configured to process the audio signal received through the signal transceiver and output the processed audio signal, after an initialization process of the audio processor is performed; a video processor configured to process the video signal received through the signal transceiver and output the processed video signal, after an initialization process of the video processor is performed; and a controller (200/300) configured to determine, based on information received through the signal transceiver, an initialization mode from a first initialization mode for performing an initialization process of the video processor ahead of an initialization process of the audio processor and a second initialization mode for performing an initialization process of the audio processor ahead of an initialization process of the video processor, and initialize one of the audio processor and the video processor according to the determined initialization process, to process one of the video signal and the audio signal corresponding to the initialized one of the video processor and the audio processor
A method of increasing levels of oil production in maize, wherein the method comprises: (i) transforming a maize plant with an expression cassette comprising a nucleic acid molecule selected from: (a) a nucleic acid molecule comprising SEQ ID NO: 1; (b) a nucleic acid molecule comprising SEQ ID NO: 11; and (c) a nucleic acid molecule which encodes a polypeptide having at least 95% amino acid identity with the polypeptide sequence consisting of SEQ ID NO: 3, said nucleic acid molecules (a)-(c) having granule bound starch synthase activity, and a promoter region functional in a maize cell that is operably linked to said nucleic acid molecule; and (ii) growing the transformed maize plant, wherein the transformed maize plant has a higher level of oil when compared to plants with the same or similar genetic background but not containing the expression cassette. (i) transforming a maize plant with an expression cassette comprising a nucleic acid molecule selected from: (a) a nucleic acid molecule comprising SEQ ID NO: 1; (b) a nucleic acid molecule comprising SEQ ID NO: 11; and (c) a nucleic acid molecule which encodes a polypeptide having at least 95% amino acid identity with the polypeptide sequence consisting of SEQ ID NO: 3, said nucleic acid molecules (a)-(c) having granule bound starch synthase activity, and a promoter region functional in a maize cell that is operably linked to said nucleic acid molecule; and (a) a nucleic acid molecule comprising SEQ ID NO: 1; (b) a nucleic acid molecule comprising SEQ ID NO: 11; and (c) a nucleic acid molecule which encodes a polypeptide having at least 95% amino acid identity with the polypeptide sequence consisting of SEQ ID NO: 3, (ii) growing the transformed maize plant, wherein the transformed maize plant has a higher level of oil when compared to plants with the same or similar genetic background but not containing the expression cassette.
An information processing apparatus comprising: a battery a power supply control portion configured to perform a control of a power supply portion; the power supply portion configured to deliver power to the information processing apparatus; the power supply portion configured to suppress the delivery of power during a stand-by state of the information processing apparatus when using the battery as power source for powering the power supply control portion; a detection signal emitting portion configured to emit, when a connection of an external power source is detected during a stand-by state, a detection signal in accordance with the detection, characterized in that the power supply portion is configured to supply power to the power supply control portion based on the detection signal, the detection signal being emitted only for a certain time period in accordance with the detection by the detection signal emitting portion and also to stop the power supply to the power supply control portion if the power supply control portion determines that there is no need to perform any process during the operation stand-by state. a battery a power supply control portion configured to perform a control of a power supply portion; the power supply portion configured to deliver power to the information processing apparatus; the power supply portion configured to suppress the delivery of power during a stand-by state of the information processing apparatus when using the battery as power source for powering the power supply control portion; a detection signal emitting portion configured to emit, when a connection of an external power source is detected during a stand-by state, a detection signal in accordance with the detection, characterized in that the power supply portion is configured to supply power to the power supply control portion based on the detection signal, the detection signal being emitted only for a certain time period in accordance with the detection by the detection signal emitting portion and also to stop the power supply to the power supply control portion if the power supply control portion determines that there is no need to perform any process during the operation stand-by state.
A capability configuration method, comprising: sending, by a network device, capability configuration information to a terminal device, wherein the capability configuration information is used to indicate a capability corresponding to an air-interface slice supported by the terminal device, and the capability corresponding to the air-interface slice supported by the terminal device is determined from a capability candidate set reported by the terminal device; and communicating, by the network device, with the terminal device by using the air-interface slice supported by the terminal device; wherein the capability candidate set comprises a first unique capability, the first unique capability is physical uplink shared channel PUSCH preparation duration T1 and uplink bandwidth part BWP switching duration T2 that correspond to the terminal device on a first radio frequency channel, and PUSCH timing duration required by the air-interface slice supported by the terminal device is T3; and when T3 is greater than or equal to a maximum value between T1 and T2, the capability indicated by using the capability configuration information comprises the first unique capability. sending, by a network device, capability configuration information to a terminal device, wherein the capability configuration information is used to indicate a capability corresponding to an air-interface slice supported by the terminal device, and the capability corresponding to the air-interface slice supported by the terminal device is determined from a capability candidate set reported by the terminal device; and communicating, by the network device, with the terminal device by using the air-interface slice supported by the terminal device; wherein the capability candidate set comprises a first unique capability, the first unique capability is physical uplink shared channel PUSCH preparation duration T1 and uplink bandwidth part BWP switching duration T2 that correspond to the terminal device on a first radio frequency channel, and PUSCH timing duration required by the air-interface slice supported by the terminal device is T3; and when T3 is greater than or equal to a maximum value between T1 and T2, the capability indicated by using the capability configuration information comprises the first unique capability.
A method for preparing a super absorbent polymer, comprising: A) a step of performing crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, in the presence of a polymerization initiator and an internal crosslinking agent to form a hydrogel polymer; B) a step of drying, pulverizing and size-sorting the hydrogel polymer to form a base polymer powder; C) a step of surface-crosslinking the base polymer powder through heat treatment in the presence of a surface crosslinking agent to form super absorbent polymer particles; and D) a wetting step of exposing the super absorbent polymer particles under conditions of a relative humidity of 50RH% or more and 75RH% or less; a temperature of 40°C or more and 75°C or less; and the step D) is performed for 1 to 15 minutes. A) a step of performing crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, in the presence of a polymerization initiator and an internal crosslinking agent to form a hydrogel polymer; B) a step of drying, pulverizing and size-sorting the hydrogel polymer to form a base polymer powder; C) a step of surface-crosslinking the base polymer powder through heat treatment in the presence of a surface crosslinking agent to form super absorbent polymer particles; and D) a wetting step of exposing the super absorbent polymer particles under conditions of a relative humidity of 50RH% or more and 75RH% or less; a temperature of 40°C or more and 75°C or less; and the step D) is performed for 1 to 15 minutes.
An attachment mechanism of an optical scanner in which positioning bosses are formed, the attachment mechanism characterized by comprising: a supporting structure in which an opening holding one of the positioning bosses is formed on a front side such that the openings are capable of insertion of the positioning bosses and are formed in shapes and position respectively corresponding to the positioning bosses; and a fixing member configured to position and fix the optical scanner to the supporting structure, wherein the fixing member includes an annular part having an outer circumference face capable of fitting in the opening and an internal circumference face capable of fitting on the positioning boss, one of the internal circumference face of the annular part and an outer circumference face of the positioning boss includes a projection and another includes a depression capable of insertion of the projection, at least one of a top face of the projection and a bottom face of the depression slopes upward in a clockwise direction in a front view on the circumference of the annular part and positioning boss, and in a situation of inserting the positioning boss in the opening, by fitting the annular part in the opening and by turning the fixing member in a direction of narrowing a gap between the top face of the projection and bottom face of the depression, the optical scanner is fixed to the supporting structure. a supporting structure in which an opening holding one of the positioning bosses is formed on a front side such that the openings are capable of insertion of the positioning bosses and are formed in shapes and position respectively corresponding to the positioning bosses; and a fixing member configured to position and fix the optical scanner to the supporting structure, wherein the fixing member includes an annular part having an outer circumference face capable of fitting in the opening and an internal circumference face capable of fitting on the positioning boss, one of the internal circumference face of the annular part and an outer circumference face of the positioning boss includes a projection and another includes a depression capable of insertion of the projection, at least one of a top face of the projection and a bottom face of the depression slopes upward in a clockwise direction in a front view on the circumference of the annular part and positioning boss, and in a situation of inserting the positioning boss in the opening, by fitting the annular part in the opening and by turning the fixing member in a direction of narrowing a gap between the top face of the projection and bottom face of the depression, the optical scanner is fixed to the supporting structure.
A method for reconstructing a plurality of images depicting a subject from k-space data that is simultaneously acquired from a corresponding plurality of slice locations with a magnetic resonance imaging system, the steps of the method comprising: a) simultaneously acquiring k-space data from a plurality of slice locations with the MRI system following application of a composite radio frequency excitation pulse to the plurality of slice locations, the composite RF excitation pulse comprising a plurality of RF pulse profiles that each have a different phase such that the composite RF excitation pulse imparts a different phase to transverse magnetization in each of the plurality of slice locations; b) acquiring reference k-space data from one of the plurality of slice locations with the MRI system following application of an RF excitation pulse to the one of the plurality of slice locations, the RF excitation pulse having a phase such that the RF excitation pulse imparts the same phase to transverse magnetization in the one of the plurality of slice locations that was imparted to transverse magnetization in the same one of the plurality of slice locations in step a); c) repeating step b) for each of the different phases of the RF excitation pulses applied in step a) to acquire reference k-space data for each of the plurality of slice locations; d) reconstructing aliased images from the k-space data acquired in step a); e) reconstructing reference images from the reference k-space data acquired in steps b) and c); and f) producing an unaliased image for each of the plurality of slice locations using the aliased images reconstructed in step d) and the reference images reconstructed in step e). a) simultaneously acquiring k-space data from a plurality of slice locations with the MRI system following application of a composite radio frequency excitation pulse to the plurality of slice locations, the composite RF excitation pulse comprising a plurality of RF pulse profiles that each have a different phase such that the composite RF excitation pulse imparts a different phase to transverse magnetization in each of the plurality of slice locations; b) acquiring reference k-space data from one of the plurality of slice locations with the MRI system following application of an RF excitation pulse to the one of the plurality of slice locations, the RF excitation pulse having a phase such that the RF excitation pulse imparts the same phase to transverse magnetization in the one of the plurality of slice locations that was imparted to transverse magnetization in the same one of the plurality of slice locations in step a); c) repeating step b) for each of the different phases of the RF excitation pulses applied in step a) to acquire reference k-space data for each of the plurality of slice locations; d) reconstructing aliased images from the k-space data acquired in step a); e) reconstructing reference images from the reference k-space data acquired in steps b) and c); and f) producing an unaliased image for each of the plurality of slice locations using the aliased images reconstructed in step d) and the reference images reconstructed in step e).
An intrusion detection and protection system comprising: a database, the database storing: a plurality of profiles of legitimate users; a plurality of profiles relating to known attackers; attacker classification data; and attack prevention data comprising honeypot configuration parameters; and a data manager configured to communicate with the database and a plurality of users (106, 108, 110) via a network, the data manager providing services comprising: receiving, processing and logging network traffic data received at the data manager from the plurality of users of the intrusion detection and protection system, and updating the database with network traffic data to form a single data resource sourced from the users' traffic data; determining protection parameters in the form of a honeypot configuration appropriate for a particular attacker; and providing legitimate users with access to shared information on the database, enabling the users to identify attackers and implement the honeypot configuration. a database, the database storing: a plurality of profiles of legitimate users; a plurality of profiles relating to known attackers; attacker classification data; and attack prevention data comprising honeypot configuration parameters; and a plurality of profiles of legitimate users; a plurality of profiles relating to known attackers; attacker classification data; and attack prevention data comprising honeypot configuration parameters; and a data manager configured to communicate with the database and a plurality of users (106, 108, 110) via a network, the data manager providing services comprising: receiving, processing and logging network traffic data received at the data manager from the plurality of users of the intrusion detection and protection system, and updating the database with network traffic data to form a single data resource sourced from the users' traffic data; determining protection parameters in the form of a honeypot configuration appropriate for a particular attacker; and providing legitimate users with access to shared information on the database, enabling the users to identify attackers and implement the honeypot configuration. receiving, processing and logging network traffic data received at the data manager from the plurality of users of the intrusion detection and protection system, and updating the database with network traffic data to form a single data resource sourced from the users' traffic data; determining protection parameters in the form of a honeypot configuration appropriate for a particular attacker; and providing legitimate users with access to shared information on the database, enabling the users to identify attackers and implement the honeypot configuration.
A connection system for two mutually crossing, stacked profiles (15, 16) which are C- shaped in the cross-section, comprising a cross-shaped quick connector and two C-profiles, preferably CD-profiles, each with a profile web, which are adjoined by two lateral profile flanges each at least substantially at a right angle, and are each terminated by an outer profile edge (19, 19'), wherein the cross-shaped quick connector comprises a web plate which engages beyond the profile which is at the top in the installed state and which is bounded on both sides by one deflection edge (3, 3) each, from which one respective fastening limb (4, 4') is bent off in at least an approximately right angle, and hook elements (6, 6') which are integrally attached on both sides and face away from the web plate extend laterally away from the longitudinal edges (5, 5') of the fastening limbs (4, 4'), and said hook elements (6, 6'), in the installed state, resiliently engage beneath the bent-back profile edge (19, 19') of the respective bottom profile, preferably in an interlocking fashion, and a respective opening (7, 7') which engages beyond the deflection edge (3, 3') is incorporated in the web plate in the region of the deflection edges (3, 3'), from which at least one spring tongue (10, 10') is punched out, characterized in that the lateral hook elements (6, 6') are each provided with a bead extending over the at least approximately entire outer circumference of the hook element (6, 6') up to the edge of the hook element in such a way that in a top view an at least V-shaped, U-shaped and/or undulating enlarged support surface is obtained for the bent-back profile edge (19, 19'), preferably a play-free two-point support, realised by the support of the outer edge of the bent-back profile edge (19, 19') and in the region of the bent-back part of the profile edge respectively on the hook element (6, 6'), and in the case of installation as designated the outer profile edges (19, 19') each rest within the orifice of the bead.
A test system comprising a radio unit, RU, and a radio equipment test device for testing the RU RU, the RU comprising a System-on-a-Chip, SoC, wherein an SoC internal loopback is used for testing purposes, wherein the SoC is operationally connected to a first interface and a second interface of the test device, wherein for data transmission in the forward run, interface of the test device is used and for data transmission in the return path, interface of the test device is used, wherein the feedback loop comprises in the forward run an first interface, a digital front end, DFE, and a second interface of the SoC, wherein signals arriving at the first interface of the SoC are returned via a return path via the DFE and the second interface of the SoC. wherein an SoC internal loopback is used for testing purposes, wherein the SoC is operationally connected to a first interface and a second interface of the test device, wherein for data transmission in the forward run, interface of the test device is used and for data transmission in the return path, interface of the test device is used, wherein the feedback loop comprises in the forward run an first interface, a digital front end, DFE, and a second interface of the SoC, wherein signals arriving at the first interface of the SoC are returned via a return path via the DFE and the second interface of the SoC.
PUFA, vitamin E, vitamin D and the protein bound amino acids glycine, arginine and tryptophan as active ingredients for use in therapy of cancer patients, which suffer from anorexia, cachexia and/or sarcopenia and/or which are pre-cachexic and/or pre-sarcopenic, wherein an effective amount of said active ingredients is administered in the form of a nutritional composition comprising a) a lipid component providing 40-50 EN% based on the total energy of the nutritional composition, wherein 12-16 EN% based on the total energy of the nutritional composition is provided by PUFA, b) 4.0-8.0 mg/100mL alpha-TE vitamin E, c) 5.0-12.0 μg/100mL vitamin D, d) 2.5-4.5 g/100mL glycine, e) 0.5-1.5 g/100mL arginine, and f) at least 0.02 g/100mL tryptophan. a) a lipid component providing 40-50 EN% based on the total energy of the nutritional composition, wherein 12-16 EN% based on the total energy of the nutritional composition is provided by PUFA, b) 4.0-8.0 mg/100mL alpha-TE vitamin E, c) 5.0-12.0 μg/100mL vitamin D, d) 2.5-4.5 g/100mL glycine, e) 0.5-1.5 g/100mL arginine, and f) at least 0.02 g/100mL tryptophan.