mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-core optical fiber comprising: four cores arranged in a square lattice shape along a longitudinal direction, each of the four cores having a step-index type refractive index distribution with a refractive index n 1 at a wavelength λ and a radius a; and a cladding region having a lower refractive index n 2 at the wavelength λ than that of each core , a diameter of 125 ± 1 μm and an absolute value of a relative refractive index difference between each core and the cladding region being Δ, and provided on an outer peripheral portion of each core , wherein a mode field diameter, MFD, at a wavelength of 1550 nm is 9 to 12 μm, a bending loss at a wavelength of 1625 nm and a bending radius of 30 mm is 0.1 dB/100 turns or less, a cutoff wavelength is 1530 nm or less, the radius a of each core , the relative refractive index difference Δ between each core and the cladding region , and the MFD satisfy Formula C7, and the four cores are arranged, so that a relationship between a minimum distance, OCT, from a center of each core to an outer periphery of the cladding region , a value A of spacing between the cores , and the MFD at a wavelength of 1550 nm satisfies Formulas C4, OCT μm ≥ 2.82 × MFD μm + 3.7 μm Λ μm ≤ − 3.99 × MFD μm + 83.15 μm MFD / 2 a ≈ 0.65 + 1.619 V − 1.5 + 2.879 V − 6 , wherein V is a normalized frequency, and is defined by V = 2πa/λ(n 1 2 -n 2 2 ) 0.5 using the core radius a, the refractive index n 1 of the core, the refractive index n 2 of the cladding, and the wavelength λ. four cores arranged in a square lattice shape along a longitudinal direction, each of the four cores having a step-index type refractive index distribution with a refractive index n 1 at a wavelength λ and a radius a; and a cladding region having a lower refractive index n 2 at the wavelength λ than that of each core , a diameter of 125 ± 1 μm and an absolute value of a relative refractive index difference between each core and the cladding region being Δ, and provided on an outer peripheral portion of each core , wherein a mode field diameter, MFD, at a wavelength of 1550 nm is 9 to 12 μm, a bending loss at a wavelength of 1625 nm and a bending radius of 30 mm is 0.1 dB/100 turns or less, a cutoff wavelength is 1530 nm or less, the radius a of each core , the relative refractive index difference Δ between each core and the cladding region , and the MFD satisfy Formula C7, and the four cores are arranged, so that a relationship between a minimum distance, OCT, from a center of each core to an outer periphery of the cladding region , a value A of spacing between the cores , and the MFD at a wavelength of 1550 nm satisfies Formulas C4, OCT μm ≥ 2.82 × MFD μm + 3.7 μm Λ μm ≤ − 3.99 × MFD μm + 83.15 μm MFD / 2 a ≈ 0.65 + 1.619 V − 1.5 + 2.879 V − 6 , wherein V is a normalized frequency, and is defined by V = 2πa/λ(n 1 2 -n 2 2 ) 0.5 using the core radius a, the refractive index n 1 of the core, the refractive index n 2 of the cladding, and the wavelength λ.
A device (DISP) for aiding in improving the posture of a user (UTL) including: ▪ a belt comprising a front part and a rear part , ▪ a first side tensioner comprising a first end and a second end and a second side tensioner comprising a first end and a second end , the first ends of the first side tensioner and second side tensioner joining each other at a stimulation zone , ▪ an elastic connection comprising a first end attached to the rear part of the belt and a second end attached to the stimulation zone , said elastic connection being built and arranged so that when the rear part of the belt is positioned on the posterior-superior iliac spines of the user (UTL), the stimulation zone is positioned between the third lumbar vertebra and fifth lumbar vertebra of the user (UTL) characterised in that it includes an element positioned on the stimulation zone , said element having an apex positioned on the fifth lumbar vertebra L5 when the device (DISP) is worn by the user (UTL). ▪ a belt comprising a front part and a rear part , ▪ a first side tensioner comprising a first end and a second end and a second side tensioner comprising a first end and a second end , the first ends of the first side tensioner and second side tensioner joining each other at a stimulation zone , ▪ an elastic connection comprising a first end attached to the rear part of the belt and a second end attached to the stimulation zone , said elastic connection being built and arranged so that when the rear part of the belt is positioned on the posterior-superior iliac spines of the user (UTL), the stimulation zone is positioned between the third lumbar vertebra and fifth lumbar vertebra of the user (UTL)
A composition for use in a method for treating, preventing, or reducing the progression rate and/or severity of myelofibrosis or one or more complications of myelofibrosis in a patient in need thereof, wherein the composition comprises an effective amount of a transforming growth factor beta type || receptor (TβRII) antagonist, wherein the TβRll antagonist is a fusion protein comprising: (a) a TβRII) polypeptide consisting of an amino acid sequence from the extracellular domain of TβRII that is at least 90% identical to the amino acid sequence of SEQ ID NO: 13; (b) a linker; and (c) an immunoglobulin Fc domain, and wherein the patient is being treated with a Janus kinase inhibitor. (a) a TβRII) polypeptide consisting of an amino acid sequence from the extracellular domain of TβRII that is at least 90% identical to the amino acid sequence of SEQ ID NO: 13; (b) a linker; and (c) an immunoglobulin Fc domain,
A communication device that is configured to operate as a master and is to be included in a multihop communication system , the communication device comprising: a communicator that is configured to transmit a hello packet to at least one slave (20a-c) included in the multihop communication system ; and a controller that is configured to cause the communicator to transmit activation count information that indicates a cumulative activation count of the communication device, the activation count information being included in the hello packet, wherein the hello packet is a packet for notifying the at least one slave (20a-c) that the communication device is communicable; characterized in that the activation count information indicates a cumulative value of a number of times the communication device in a state of deactivation has reactivated; and in that the communication device further comprises a storage that is configured to store an encryption key that is used for communicating with the at least one slave (20a-c), wherein the controller is configured to change the encryption key stored in the storage when the communication device is activated. a communicator that is configured to transmit a hello packet to at least one slave (20a-c) included in the multihop communication system ; and a controller that is configured to cause the communicator to transmit activation count information that indicates a cumulative activation count of the communication device, the activation count information being included in the hello packet, wherein the hello packet is a packet for notifying the at least one slave (20a-c) that the communication device is communicable; the activation count information indicates a cumulative value of a number of times the communication device in a state of deactivation has reactivated; and in that the communication device further comprises a storage that is configured to store an encryption key that is used for communicating with the at least one slave (20a-c), wherein the controller is configured to change the encryption key stored in the storage when the communication device is activated.
A computer-implemented method, comprising: receiving a plurality of recorded seismic traces associated with a target point in a reservoir; generating a first angle domain common image gather based on the received plurality of recorded seismic traces, wherein an angle domain common image gather is generated by performing bifocal imaging on the plurality of seismic traces using detection focusing operators and emission focusing operators, performing a Radon Transform on results of the bifocal imaging, and generating an angle domain common image gather based on results of the Radon Transform; generating a plurality of synthetic traces associated with the target point; generating a second angle domain common image gather based on the synthetic traces; and characterized by generating an enhanced angle domain common image gather using the first angle domain common image gather and the second angle domain common image gather, wherein the enhanced angle domain common image gather is generated by dividing the first angle domain common image gather by amplitudes of the second angle domain common image gather. receiving a plurality of recorded seismic traces associated with a target point in a reservoir; generating a first angle domain common image gather based on the received plurality of recorded seismic traces, wherein an angle domain common image gather is generated by performing bifocal imaging on the plurality of seismic traces using detection focusing operators and emission focusing operators, performing a Radon Transform on results of the bifocal imaging, and generating an angle domain common image gather based on results of the Radon Transform; performing bifocal imaging on the plurality of seismic traces using detection focusing operators and emission focusing operators, performing a Radon Transform on results of the bifocal imaging, and generating an angle domain common image gather based on results of the Radon Transform; generating a plurality of synthetic traces associated with the target point; generating a second angle domain common image gather based on the synthetic traces; and characterized by generating an enhanced angle domain common image gather using the first angle domain common image gather and the second angle domain common image gather, wherein the enhanced angle domain common image gather is generated by dividing the first angle domain common image gather by amplitudes of the second angle domain common image gather.
A system comprising: an adjustable implant configured for implantation internally within a patient, the adjustable implant comprising a magnetically responsive element configured for rotation about an axis of rotation, the magnetically responsive element operatively coupled to a drive transmission configured to change a dimension of the adjustable implant ; an external adjustment device configured for placement on or adjacent the skin of the patient comprising at least one magnet configured for rotation, the external adjustment device further comprising a motor to rotate the at least one magnet and an optical encoder comprising a light source and a light receiver configured to monitor the position of a surface mechanically coupled to the motor, whereby rotation of the at least one magnet of the external adjustment device effectuates rotational movement of the magnetically responsive element of the adjustable implant and changes the dimension of the adjustable implant ; and characterized in that it further comprises: a motor control circuit operatively connected to a programmable logic controller , configured to receive an input signal from the optical encoder corresponding to the angular position of the at least one magnet and control the rotation of the at least one magnet of the external adjustment device to achieve a change in dimension of the adjustable implant . an adjustable implant configured for implantation internally within a patient, the adjustable implant comprising a magnetically responsive element configured for rotation about an axis of rotation, the magnetically responsive element operatively coupled to a drive transmission configured to change a dimension of the adjustable implant ; an external adjustment device configured for placement on or adjacent the skin of the patient comprising at least one magnet configured for rotation, the external adjustment device further comprising a motor to rotate the at least one magnet and an optical encoder comprising a light source and a light receiver configured to monitor the position of a surface mechanically coupled to the motor, whereby rotation of the at least one magnet of the external adjustment device effectuates rotational movement of the magnetically responsive element of the adjustable implant and changes the dimension of the adjustable implant ; and characterized in that it further comprises: a motor control circuit operatively connected to a programmable logic controller , configured to receive an input signal from the optical encoder corresponding to the angular position of the at least one magnet and control the rotation of the at least one magnet of the external adjustment device to achieve a change in dimension of the adjustable implant .
A method in a communication network entity , the method comprising: transmitting a resource allocation in a control information message, the resource allocation comprising one or more resource blocks, wherein each of the one or more resource blocks comprises a plurality of subcarriers; transmitting an indication in the control information message identifying whether one or more guard subcarriers are present on a respective one or more of the edges of at least one resource block of the resource allocation; transmitting in control information an indication of the number of guard subcarriers, wherein the indication of the number of guard subcarriers comprises a ratio of the number of guard subcarriers to the number of allocated subcarriers in the resource allocation. transmitting a resource allocation in a control information message, the resource allocation comprising one or more resource blocks, wherein each of the one or more resource blocks comprises a plurality of subcarriers; transmitting an indication in the control information message identifying whether one or more guard subcarriers are present on a respective one or more of the edges of at least one resource block of the resource allocation; transmitting in control information an indication of the number of guard subcarriers, wherein the indication of the number of guard subcarriers comprises a ratio of the number of guard subcarriers to the number of allocated subcarriers in the resource allocation.
A microfluidic droplet comprising a first particle that has been associated with an amount of a first detectable label, and a potential particle binding partner that has been associated with an amount of a second detectable label, wherein the first particle has been associated with the second label via binding to the potential particle binding partner, wherein the amount of the first detectable label is known and/or is ±50% of the amount of the first detectable label that has been associated with a further particle comprised in a further microfluidic droplet, wherein the first detectable label is different from the second detectable label, and wherein the further microfluidic droplet is comprised in a plurality of microfluidic droplets also comprising said microfluidic droplet comprising said first particle, wherein the association of the first particle with the first detectable label, the association of the potential particle binding partner with the second detectable label, the association of the first particle with the second label, and the association of the further particle with the first detectable label is a direct or an indirect interaction, wherein the direct interaction is a covalent or non-covalent binding without a further molecule as an intermediary, and wherein the indirect interaction is a non-covalent or covalent binding with a further molecule as an intermediary.
A method for producing a porous microstructure comprising the steps of: in the presence of a polymerization initiator and an emulsion stabilizer, emulsifying a continuous phase composition containing at least one monomer and a crosslinking agent with a dispersed phase composition containing a solvent to obtain an emulsion containing a continuous phase and a dispersed phase dispersed in the continuous phase; pre-polymerizing the at least one monomer and the crosslinking agent, so that the at least one monomer and the crosslinking agent are partially polymerized to an extent that the emulsion has an increased viscosity while still being flowable; subjecting the emulsion to a forced sedimentation to obtain a high internal phase emulsion, wherein the dispersed phase has a volume fraction of at least 74.05% (v/v) in the high internal phase emulsion, and wherein the subjecting the emulsion to a forced sedimentation comprises subjecting the emulsion to centrifugation and removing an excess part of the continuous phase separated from the dispersed phase; and curing the continuous phase in the high internal phase emulsion and removing the dispersed phase to obtain the porous microstructure; wherein the emulsion further comprises a polymerization promoter selected from the group consisting of N,N,N',N'-tetramethylethylenediamine (TEMED), N,N,N',N",N"-pentamethyl diethylene triamine (PMDTA), tris(2-dimethylamino) ethylamine, 1,1,4,7,10,10-hexamethyltriethylenetetramine, and 1,4,8,11-tetramethyl-1,4,8,11-tetraazacyclotetradecane. in the presence of a polymerization initiator and an emulsion stabilizer, emulsifying a continuous phase composition containing at least one monomer and a crosslinking agent with a dispersed phase composition containing a solvent to obtain an emulsion containing a continuous phase and a dispersed phase dispersed in the continuous phase; pre-polymerizing the at least one monomer and the crosslinking agent, so that the at least one monomer and the crosslinking agent are partially polymerized to an extent that the emulsion has an increased viscosity while still being flowable; subjecting the emulsion to a forced sedimentation to obtain a high internal phase emulsion, wherein the dispersed phase has a volume fraction of at least 74.05% (v/v) in the high internal phase emulsion, and wherein the subjecting the emulsion to a forced sedimentation comprises subjecting the emulsion to centrifugation and removing an excess part of the continuous phase separated from the dispersed phase; and curing the continuous phase in the high internal phase emulsion and removing the dispersed phase to obtain the porous microstructure; wherein the emulsion further comprises a polymerization promoter selected from the group consisting of N,N,N',N'-tetramethylethylenediamine (TEMED), N,N,N',N",N"-pentamethyl diethylene triamine (PMDTA), tris(2-dimethylamino) ethylamine, 1,1,4,7,10,10-hexamethyltriethylenetetramine, and 1,4,8,11-tetramethyl-1,4,8,11-tetraazacyclotetradecane.
A particle removal assembly comprising: (a) a filter; (b) a dryer; (c) a flow controller; and (d) an outlet, wherein the filter, dryer, flow controller, and outlet are connected to allow a gas to flow through the filter, dryer, and outlet, and wherein the flow controller controls the rate of flow through the outlet, characterized in that the particle removal assembly further comprises a reservoir for storage of the gas, wherein the reservoir is provided upstream of the outlet and downstream of the filter and dryer. (a) a filter; (b) a dryer; (c) a flow controller; and (d) an outlet, wherein the filter, dryer, flow controller, and outlet are connected to allow a gas to flow through the filter, dryer, and outlet, and wherein the flow controller controls the rate of flow through the outlet, characterized in that the particle removal assembly further comprises a reservoir for storage of the gas, wherein the reservoir is provided upstream of the outlet and downstream of the filter and dryer.
An electronically functional yarn comprising a plurality of carrier fibres forming a core with a series of electronic devices mounted thereon, wherein conductive interconnects extend from the devices along the core, characterized in that a plurality of packing fibres extend around the core, the devices and the interconnects, and are selectively bunched or twisted to fill spaces between the devices, in order to preserve a substantially uniform cross-section along the length of the yarn and between the devices; and wherein the packing fibres are enclosed within a retaining sleeve around the packing fibres, and the core, the devices and the interconnects are confined within the plurality of packing fibres retained in the sleeve.
A hybrid tower section for arrangement between a concrete tower section and a steel tower section of a hybrid tower for a wind power installation , the hybrid tower section comprising: - a steel flange having a multiplicity of annularly arranged blind holes and having a multiplicity of annularly arranged passage holes , - a steel outer casing , and - a concrete core , - wherein the annular arrangement of the blind holes has a larger radius (R5) than the annular arrangement of the passage holes , - wherein the steel outer casing has a larger radius (R6) than the annular arrangement of the blind holes , - wherein the concrete core adjoins the steel flange and the steel outer casing , - wherein a radially inner side of the concrete core has a larger radius (RB) than the annular arrangement of the passage holes . - a steel flange having a multiplicity of annularly arranged blind holes and having a multiplicity of annularly arranged passage holes , - a steel outer casing , and - a concrete core , - wherein the annular arrangement of the blind holes has a larger radius (R5) than the annular arrangement of the passage holes , - wherein the steel outer casing has a larger radius (R6) than the annular arrangement of the blind holes , - wherein the concrete core adjoins the steel flange and the steel outer casing , - wherein a radially inner side of the concrete core has a larger radius (RB) than the annular arrangement of the passage holes .
A catheter assembly comprising: a catheter carried by a catheter adapter ; a needle having a distal tip and disposed in the catheter such that in a first needle position, the needle extends beyond the catheter; a needle hub fixed adjacent to a proximal end of the needle; a clip disposed in the catheter adapter and cooperating with the needle; and a barrel assembly including an inner diameter ; wherein when the needle is in a second needle position, the clip encloses the distal tip of the needle; and when the needle moves to a third needle position, the clip, the needle hub and the needle are disposed in the inner diameter of the barrel assembly. a catheter carried by a catheter adapter ; a needle having a distal tip and disposed in the catheter such that in a first needle position, the needle extends beyond the catheter; a needle hub fixed adjacent to a proximal end of the needle; a clip disposed in the catheter adapter and cooperating with the needle; and a barrel assembly including an inner diameter ; wherein when the needle is in a second needle position, the clip encloses the distal tip of the needle; and when the needle moves to a third needle position, the clip, the needle hub and the needle are disposed in the inner diameter of the barrel assembly.