mhurhangee/ep-ind-claims huggingface dataset:
A transgenic plant exhibiting an increase in the content of a fat and oil per given seed of a plant, or an increase in the weight of single seed, compared with a wild-type plant, wherein a chimeric protein resulting from the fusion of a transcription factor with a functional peptide that converts an arbitrary transcription factor into a transcription repressor is expressed in the plant, so as to suppress transcription accelerating activity of the transcription factor; wherein the transcription factor is any of proteins (a) to (c) below: (a) a protein comprising the amino acid sequence as shown in SEQ ID NO: 2; (b) a protein comprising an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 2 by deletion, substitution, addition, or insertion of 1 to 10 amino acids and having transcription accelerating activity; or (c) a protein encoded by a polynucleotide hybridizing under stringent conditions to a polynucleotide comprising a nucleotide sequence complementary to the nucleotide sequence as shown in SEQ ID NO: 1 and having transcription accelerating activity. (a) a protein comprising the amino acid sequence as shown in SEQ ID NO: 2; (b) a protein comprising an amino acid sequence derived from the amino acid sequence as shown in SEQ ID NO: 2 by deletion, substitution, addition, or insertion of 1 to 10 amino acids and having transcription accelerating activity; or (c) a protein encoded by a polynucleotide hybridizing under stringent conditions to a polynucleotide comprising a nucleotide sequence complementary to the nucleotide sequence as shown in SEQ ID NO: 1 and having transcription accelerating activity.
A method, comprising: receiving a trigger frame indicating an allocated resource unit, in the following also referred to as RU, of a first size; and performing channel sensing responsive to receiving the trigger frame; characterized by performing a trigger-based, in the following also referred to as TB, transmission with a downsized RU or multi-RU, in the following also referred to as MRU, of a second size smaller than the first size responsive to detecting at least one subchannel being busy from the channel sensing, wherein the performing of the TB transmission comprises: utilizing information of the downsized RU or MRU instead of RU allocation information indicated in the trigger frame in an encoding process to perform the TB transmission while maintaining a value of each of one or more parameters indicated in a common field or a user-specific field of the trigger frame unchanged in the encoding process, and wherein the utilizing of the information of the downsized RU or MRU comprises calculating a packet size of the TB transmission based on the second size of the downsized RU or MRU instead of using RU allocation information in a user field of the trigger frame, and the maintaining of the value of each of one or more parameters unchanged comprises maintaining a number of symbols (N sym) and a packet extension unchanged in the encoding process. receiving a trigger frame indicating an allocated resource unit, in the following also referred to as RU, of a first size; and performing channel sensing responsive to receiving the trigger frame; characterized by performing a trigger-based, in the following also referred to as TB, transmission with a downsized RU or multi-RU, in the following also referred to as MRU, of a second size smaller than the first size responsive to detecting at least one subchannel being busy from the channel sensing, wherein the performing of the TB transmission comprises: utilizing information of the downsized RU or MRU instead of RU allocation information indicated in the trigger frame in an encoding process to perform the TB transmission while maintaining a value of each of one or more parameters indicated in a common field or a user-specific field of the trigger frame unchanged in the encoding process, and wherein the utilizing of the information of the downsized RU or MRU comprises calculating a packet size of the TB transmission based on the second size of the downsized RU or MRU instead of using RU allocation information in a user field of the trigger frame, and the maintaining of the value of each of one or more parameters unchanged comprises maintaining a number of symbols (N sym) and a packet extension unchanged in the encoding process.
A MEMS device, comprising: a radio frequency electrode having a rectangular shape; a first cantilever having a first end, and a second end opposite the first end, the first end and the second end defining a length of the first cantilever, wherein the first cantilever is movable; a second cantilever, the second cantilever being movable; and a first leg region (3, 5) and a second leg region (3, 5) coupled to both the first cantilever and the second cantilever, the first leg region also coupled to a first anchor area that is spaced from both the first cantilever and the second cantilever; wherein both the first cantilever and the second cantilever are disposed over the RF electrode, a second electrode, and a third electrode, wherein the first end of the first cantilever is disposed over the second electrode and the second end of the first cantilever is disposed over the third electrode, wherein the first leg region comprises a first leg parallel to the RF electrode, and the second leg region comprises a second leg parallel to both the RF electrode and the first leg, the first leg and the second leg extending between the first cantilever and the second cantilever, wherein the first leg region further comprises a third leg extending from the first leg to the first anchor area, wherein the third leg is perpendicular to the RF electrode and the first leg, wherein the second leg region comprises a fourth leg extending perpendicular from the second leg to a second anchor area, and wherein the second anchor area is spaced from the first anchor area by a distance greater than the first length. a radio frequency electrode having a rectangular shape; a first cantilever having a first end, and a second end opposite the first end, the first end and the second end defining a length of the first cantilever, wherein the first cantilever is movable; a second cantilever, the second cantilever being movable; and a first leg region (3, 5) and a second leg region (3, 5) coupled to both the first cantilever and the second cantilever, the first leg region also coupled to a first anchor area that is spaced from both the first cantilever and the second cantilever; wherein both the first cantilever and the second cantilever are disposed over the RF electrode, a second electrode, and a third electrode, wherein the first end of the first cantilever is disposed over the second electrode and the second end of the first cantilever is disposed over the third electrode, wherein the first leg region comprises a first leg parallel to the RF electrode, and the second leg region comprises a second leg parallel to both the RF electrode and the first leg, the first leg and the second leg extending between the first cantilever and the second cantilever, wherein the first leg region further comprises a third leg extending from the first leg to the first anchor area, wherein the third leg is perpendicular to the RF electrode and the first leg, wherein the second leg region comprises a fourth leg extending perpendicular from the second leg to a second anchor area, and wherein the second anchor area is spaced from the first anchor area by a distance greater than the first length.
A sole structure, comprising: a midsole; a bladder network, the bladder network including first and second bladders interconnected by a first conduit, wherein at least a portion of the bladder network contains a fluid, and wherein the bladder network is at least partially incorporated into the midsole; and a first stem positioned to impinge upon an external surface of, and at least partially deform, the first conduit wherein the bladder network comprises multiple bladders (36a-36p), the multiple bladders including the first and second bladders, wherein the bladder network further comprises a plurality of conduits (28ab-28op), the plurality of conduits including the first conduit, each of the conduits interconnecting two of the multiple bladders, and the sole structure further comprises: a plurality of stems (22ab-22op), the plurality of stems including the first stem, each of the stems corresponding to a different one of the conduits, each of the stems positioned to impinge upon an external surface of, and at least partially deform, its corresponding conduit; and wherein each of the stems is part of a frame. a midsole; a bladder network, the bladder network including first and second bladders interconnected by a first conduit, wherein at least a portion of the bladder network contains a fluid, and wherein the bladder network is at least partially incorporated into the midsole; and a first stem positioned to impinge upon an external surface of, and at least partially deform, the first conduit wherein the bladder network comprises multiple bladders (36a-36p), the multiple bladders including the first and second bladders, wherein the bladder network further comprises a plurality of conduits (28ab-28op), the plurality of conduits including the first conduit, each of the conduits interconnecting two of the multiple bladders, and the sole structure further comprises: a plurality of stems (22ab-22op), the plurality of stems including the first stem, each of the stems corresponding to a different one of the conduits, each of the stems positioned to impinge upon an external surface of, and at least partially deform, its corresponding conduit; and wherein each of the stems is part of a frame. a plurality of stems (22ab-22op), the plurality of stems including the first stem, each of the stems corresponding to a different one of the conduits, each of the stems positioned to impinge upon an external surface of, and at least partially deform, its corresponding conduit; and wherein each of the stems is part of a frame.
Computer-implemented method for calculating process parameters, being laser cutting parameters, which are machine- and material-specifically optimized for laser 1 cutting a workpiece, being a sheet metal 2, with specific material properties by means of a laser machine with specific machine properties, comprising the method steps of: - Determining material and/or machine properties for which the process parameters should be optimized; - Determining preconfigured initial process parameters; - Re-defining a parameter domain for a re-optimization algorithm based on the determined preferences; - Executing the re-optimization algorithm until a target objective function is optimized for calculating material-specific process parameters by accessing a storage with a statistical model, wherein execution of the re-optimization algorithm comprises: - Controlling execution of test processes with the determined preconfigured initial process parameters; - Evaluating the test processes by using a measurement-based algorithm or a preference-based algorithm for determining preferences for the test processes. 1 Claim 1, "cutting with a laser machine " and original claim 12 "laser cutting" and description inter alia p 3, 1. 1; 2 P. 9, 1. 3 of the description in the application as filed; - Determining material and/or machine properties for which the process parameters should be optimized; - Determining preconfigured initial process parameters; - Re-defining a parameter domain for a re-optimization algorithm based on the determined preferences; - Executing the re-optimization algorithm until a target objective function is optimized for calculating material-specific process parameters by accessing a storage with a statistical model, wherein execution of the re-optimization algorithm comprises: - Controlling execution of test processes with the determined preconfigured initial process parameters; - Evaluating the test processes by using a measurement-based algorithm or a preference-based algorithm for determining preferences for the test processes. - Controlling execution of test processes with the determined preconfigured initial process parameters; - Evaluating the test processes by using a measurement-based algorithm or a preference-based algorithm for determining preferences for the test processes.
An exercise apparatus comprising: a substantially rigid platform; a substantially circular sidewall formed of an inflatable tubular member having an upper and a lower surface; the sidewall defining a central aperture external to the inflatable tubular member and surrounded by the sidewall; means for engagement of said platform over said central aperture in an engaged position adjacent to said upper surface; said means for engagement including an integral member that projects from the upper surface of the sidewall; and characterised by means to engage the platform to the integral member configured to clamp the integral member to the substantially rigid platform thereby coupling the inflatable tubular member to the substantially rigid platform. a substantially rigid platform; a substantially circular sidewall formed of an inflatable tubular member having an upper and a lower surface; the sidewall defining a central aperture external to the inflatable tubular member and surrounded by the sidewall; means for engagement of said platform over said central aperture in an engaged position adjacent to said upper surface; said means for engagement including an integral member that projects from the upper surface of the sidewall; and characterised by means to engage the platform to the integral member configured to clamp the integral member to the substantially rigid platform thereby coupling the inflatable tubular member to the substantially rigid platform.
A User Equipment, UE, (512, 1500) for a cellular communications system where the cellular communications system operates as a plurality of Ethernet network virtual bridges, the UE (512, 1500) comprising: one or more transmitters; one or more receivers; and processing circuitry associated with the one or more transmitters and the one or more receivers, the processing circuitry configured to cause the UE (512, 1500) to: establish a first Protocol Data Unit, PDU, session to an Ethernet network via a first User Plane Function, UPF, wherein PDU sessions that connect to the Ethernet network via the first UPF are grouped into a first Ethernet network virtual bridge; establish a second PDU session; determine that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, and in response to determining that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, cause the UE (512, 1500) to release one of the first PDU session and the second PDU session. one or more transmitters; one or more receivers; and processing circuitry associated with the one or more transmitters and the one or more receivers, the processing circuitry configured to cause the UE (512, 1500) to: establish a first Protocol Data Unit, PDU, session to an Ethernet network via a first User Plane Function, UPF, wherein PDU sessions that connect to the Ethernet network via the first UPF are grouped into a first Ethernet network virtual bridge; establish a second PDU session; determine that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, and in response to determining that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, cause the UE (512, 1500) to release one of the first PDU session and the second PDU session. establish a first Protocol Data Unit, PDU, session to an Ethernet network via a first User Plane Function, UPF, wherein PDU sessions that connect to the Ethernet network via the first UPF are grouped into a first Ethernet network virtual bridge; establish a second PDU session; determine that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, and in response to determining that both the first PDU session and the second PDU session are established to the Ethernet network via the first UPF, cause the UE (512, 1500) to release one of the first PDU session and the second PDU session.
An input device, comprising: a housing; a contact portion exposed, in at least a part, from the housing; an input detecting portion configured to detect an input according to an operation to the contact portion; and a holding portion arranged between the housing and the input detecting portion to hold the input detecting portion; characterized by the holding portion being fixed to the housing at one point, at two points or at more than two points that are on a straight line, wherein each of these manners of fixation enables the holding portion to tilt. a housing; a contact portion exposed, in at least a part, from the housing; an input detecting portion configured to detect an input according to an operation to the contact portion; and a holding portion arranged between the housing and the input detecting portion to hold the input detecting portion; characterized by the holding portion being fixed to the housing at one point, at two points or at more than two points that are on a straight line, wherein each of these manners of fixation enables the holding portion to tilt.
A power supply system for providing a fast-varying power supply voltage for a power amplifier in a wireless communication device, wherein the power supply voltage is varied in accordance with power to be supplied for transmissions of the wireless communication device, the power supply system comprising: a parallel arrangement of a first switched mode power supply having a first system bandwidth and a second switched mode power supply having a second system bandwidth covering higher frequencies than the first system bandwidth, the first switched mode power supply being dimensioned to supply a first maximal output power (P1m), the second switched mode power supply being dimensioned to supply a second maximal output power (P2m) being smaller than the first maximal output power (P1m), and a control circuit for modulating a reference voltage (Vr) of both the first switched mode power supply receiving an input voltage (Vin) and the second switched mode power supply receiving the same input voltage (Vin) to obtain a corresponding modulation of an output voltage (Vo) of the parallel arrangement; wherein: the output voltage (Vo) is provided as the fast-varying power supply voltage for the power amplifier; and the second switched-mode power supply reacts faster than the first switch-mode power supply to fast changes of the reference voltage (Vr). a parallel arrangement of a first switched mode power supply having a first system bandwidth and a second switched mode power supply having a second system bandwidth covering higher frequencies than the first system bandwidth, the first switched mode power supply being dimensioned to supply a first maximal output power (P1m), the second switched mode power supply being dimensioned to supply a second maximal output power (P2m) being smaller than the first maximal output power (P1m), and a control circuit for modulating a reference voltage (Vr) of both the first switched mode power supply receiving an input voltage (Vin) and the second switched mode power supply receiving the same input voltage (Vin) to obtain a corresponding modulation of an output voltage (Vo) of the parallel arrangement; wherein: the output voltage (Vo) is provided as the fast-varying power supply voltage for the power amplifier; and the second switched-mode power supply reacts faster than the first switch-mode power supply to fast changes of the reference voltage (Vr). the output voltage (Vo) is provided as the fast-varying power supply voltage for the power amplifier; and the second switched-mode power supply reacts faster than the first switch-mode power supply to fast changes of the reference voltage (Vr).
A method for capturing DNA molecules in solution, comprising: a) extracting DNA from a sample that comprises: endogenous DNA and environmental DNA to produce extracted DNA, wherein the extracted DNA comprises more environmental DNA than endogenous DNA; b) ligating a universal adaptor to the extracted DNA; c) hybridizing the extracted DNA, in solution, with affinity-tagged RNA probes generated by: in vitro transcribing, in the presence of an affinity-tagged ribonucleotide, a library of fragmented reference genomic DNA that has been ligated to an RNA promoter adaptor wherein the hybridizing is done in the presence of RNA oligonucleotides that are complementary to the universal adpator; d) binding the product of step c) with a capture agent that is tethered to a substrate, thereby capturing the hybridized DNA molecules on the substrate; e) washing the substrate to remove any unbound DNA molecules; f) releasing the captured DNA molecules; and g) amplifying the captured DNA molecules using primers that hybridize to the adaptors or their complements, following RNase treatment. a) extracting DNA from a sample that comprises: endogenous DNA and environmental DNA to produce extracted DNA, wherein the extracted DNA comprises more environmental DNA than endogenous DNA; b) ligating a universal adaptor to the extracted DNA; c) hybridizing the extracted DNA, in solution, with affinity-tagged RNA probes generated by: in vitro transcribing, in the presence of an affinity-tagged ribonucleotide, a library of fragmented reference genomic DNA that has been ligated to an RNA promoter adaptor wherein the hybridizing is done in the presence of RNA oligonucleotides that are complementary to the universal adpator; d) binding the product of step c) with a capture agent that is tethered to a substrate, thereby capturing the hybridized DNA molecules on the substrate; e) washing the substrate to remove any unbound DNA molecules; f) releasing the captured DNA molecules; and g) amplifying the captured DNA molecules using primers that hybridize to the adaptors or their complements, following RNase treatment.