mhurhangee/ep-ind-claims huggingface dataset:
A communication apparatus, comprising: a receiver, which, in operation, receives control information, the control information including an indication selected from a plurality of indications, the plurality of indications including: an indication to transmit a first set of channel quality indicators, CQIs, representing channel qualities for all subcarriers in a communication band; and an indication to transmit at least one second CQI, wherein the at least one second CQI represents channel quality for subcarriers selected among the all subcarriers, and position information for the selected subcarriers, wherein a first data volume associated with the at least one second CQI and the position information is less than a second data volume associated with the first set of CQIs; and circuitry, which, in operation, generates, based on the indication included in the received control information, one of: the first set of CQIs; and the at least one second CQI and the position information. an indication to transmit a first set of channel quality indicators, CQIs, representing channel qualities for all subcarriers in a communication band; and an indication to transmit at least one second CQI, wherein the at least one second CQI represents channel quality for subcarriers selected among the all subcarriers, and position information for the selected subcarriers, wherein a first data volume associated with the at least one second CQI and the position information is less than a second data volume associated with the first set of CQIs; and circuitry, which, in operation, generates, based on the indication included in the received control information, one of: the first set of CQIs; and the at least one second CQI and the position information. the first set of CQIs; and the at least one second CQI and the position information.
A boiler control system for controlling a heating device in a boiler, comprising: a delayed cycle controller (11;40) for activating and deactivating said heating device based on an upper temperature threshold and a lower temperature threshold; and a temperature sensor for measuring a boiler temperature, characterised in that the system comprises: an interrupt unit (28;42) for interrupting a heating device enable signal thereby to implement a delayed cycle control of the delayed cycle controller, wherein the heating device enable signal is a signal externally input to the boiler which takes priority over an internal thermostatic control of the heating device in the boiler when it is not interrupted by the interrupt unit. a delayed cycle controller (11;40) for activating and deactivating said heating device based on an upper temperature threshold and a lower temperature threshold; and a temperature sensor for measuring a boiler temperature, characterised in that the system comprises: an interrupt unit (28;42) for interrupting a heating device enable signal thereby to implement a delayed cycle control of the delayed cycle controller, wherein the heating device enable signal is a signal externally input to the boiler which takes priority over an internal thermostatic control of the heating device in the boiler when it is not interrupted by the interrupt unit. an interrupt unit (28;42) for interrupting a heating device enable signal thereby to implement a delayed cycle control of the delayed cycle controller, wherein the heating device enable signal is a signal externally input to the boiler which takes priority over an internal thermostatic control of the heating device in the boiler when it is not interrupted by the interrupt unit.
A method of programming a tire pressure monitoring sensor, the TPM sensor being configured with a TPM identifier and making transmissions according to a current transmission protocol or protocols and the TPM sensor comprising a memory that stores the TPM identifier and the current transmission protocol or protocols, a transmitter, a receiver and a controller coupled to the transmitter and the receiver, the method comprising: receiving, by the receiver, a low frequency signal, the LF signal having been transmitted according to a predetermined transmission protocol or language; determining, by the controller, an identity of the predetermined transmission protocol or language associated with the LF signal; characterized by, based upon the identity of the predetermined transmission protocol or language, adjusting, by the controller, the TPM identifier, the TPM sensor subsequently making transmissions according to the predetermined transmission protocol associated with the LF signal. receiving, by the receiver, a low frequency signal, the LF signal having been transmitted according to a predetermined transmission protocol or language; determining, by the controller, an identity of the predetermined transmission protocol or language associated with the LF signal; characterized by, based upon the identity of the predetermined transmission protocol or language, adjusting, by the controller, the TPM identifier, the TPM sensor subsequently making transmissions according to the predetermined transmission protocol associated with the LF signal.
An AMPA and/or a KA GluR antagonist for use in the prevention of, or reducing the likelihood of developing, post-traumatic osteoarthritis wherein said antagonist is administered to a trauma damaged joint..
An electrode active material consisting of: first particulate of SiO, and second particulate of Li 4 SiO 4, wherein a molar ratio of the metal or metalloid (Si) and oxygen included in the electrode active material, Si / O, is 1 or greater. first particulate of SiO, and second particulate of Li 4 SiO 4, wherein a molar ratio of the metal or metalloid (Si) and oxygen included in the electrode active material, Si / O, is 1 or greater.
A method for wireless communications, comprising: satisfying a first transmission power threshold, P LIMIT, to limit transmission power, P PUSCH,j, for an uplink transmission on a first component carrier j, wherein P LIMIT is determined by applying a power reduction, PR, to a network configured maximum transmission power; determining a transmission power, P PUSCH,c, for an uplink transmission on a second component carrier c with c≠j when the transmission power for the uplink transmission on the first component carrier is limited; and transmitting the uplink transmission on the first and second component carriers, wherein the P PUSCH,c for the uplink transmission on the second component carrier is determined as a minimum of: a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power. satisfying a first transmission power threshold, P LIMIT, to limit transmission power, P PUSCH,j, for an uplink transmission on a first component carrier j, wherein P LIMIT is determined by applying a power reduction, PR, to a network configured maximum transmission power; determining a transmission power, P PUSCH,c, for an uplink transmission on a second component carrier c with c≠j when the transmission power for the uplink transmission on the first component carrier is limited; and transmitting the uplink transmission on the first and second component carriers, wherein the P PUSCH,c for the uplink transmission on the second component carrier is determined as a minimum of: a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power. a transmission power adjusted by transmit power control, TPC; and P LIMIT reduced by a threshold adjustment value, wherein the threshold adjustment value is determined such that a total uplink transmission power of the uplink transmissions on the first and second component carriers exceeds P LIMIT but does not exceed the network configured maximum transmission power.
Frame segment for axially receiving an aft end of a combustor transition piece, the frame segment comprising an I-beam with an upper horizontal element, a lower horizontal element, and a vertical web, wherein the vertical web has a downstream face, facing towards a first stage of a turbine when installed in a gas turbine, and in that the vertical web comprises a cooling gas duct for cooling the vertical web and/or supplying cooling gas to the downstream face of the vertical web, characterized in that the vertical web is made of a U-profile with a base and two legs extending from the base wherein the base of the U-profile is the downstream face of the vertical web, wherein the two legs delimit the cooling gas duct,. wherein the vertical web comprises a central beam which is enclosed by the U-profile, and wherein a gap between the central beam and the U-profile forms the cooling gas duct.
A masonry screw comprising: a shank having a leading end, a trailing end and a longitudinal axis that extends between said leading and trailing ends and defines an axial direction of said shank; and a thread winding around said shank and having a leading flank and a trailing flank, said flanks having respective radially innermost ends (46, 48) adjoining said shank, the leading flank being disposed at an angle α substantially in the range 15 to 25° to a line perpendicular to the longitudinal axis and passes through a crest of the thread, the trailing flank being disposed at an angle β substantially in the range 30 to 40° to said line perpendicular to the longitudinal axis and passes through the crest of the thread; wherein along a first part of the thread said shank defines a depression between said adjacent leading and trailing flanks thereof, which depression has a first inclined face that faces said trailing end, wherein in cross-section in said axial direction said depression has a generally V-shaped profile; and wherein along a second part of the thread said shank does not define a said depression between said adjacent leading and trailing flanks thereof. a shank having a leading end, a trailing end and a longitudinal axis that extends between said leading and trailing ends and defines an axial direction of said shank; and a thread winding around said shank and having a leading flank and a trailing flank, said flanks having respective radially innermost ends (46, 48) adjoining said shank, the leading flank being disposed at an angle α substantially in the range 15 to 25° to a line perpendicular to the longitudinal axis and passes through a crest of the thread, the trailing flank being disposed at an angle β substantially in the range 30 to 40° to said line perpendicular to the longitudinal axis and passes through the crest of the thread; wherein along a first part of the thread said shank defines a depression between said adjacent leading and trailing flanks thereof, which depression has a first inclined face that faces said trailing end, wherein in cross-section in said axial direction said depression has a generally V-shaped profile; and wherein along a second part of the thread said shank does not define a said depression between said adjacent leading and trailing flanks thereof.
A method for isolating and purifying high-purity recombinant human serum albumin, sequentially comprising the following steps of: a) subjecting crude extract of recombinant human serum albumin to cation exchange chromatography, adding ethanol in buffers to remove endotoxin, to obtain primary product I; said buffers comprise a wash buffer, an equilibrium buffer I and an equilibrium buffer II; the wash buffer comprises 10-20% anhydrous ethanol by volume, the equilibrium buffer I comprises 0-10% anhydrous ethanol by volume, the equilibrium buffer II comprises 5-15% anhydrous ethanol by volume; equilibrating the chromatography column with equilibration buffer I, loading the sample, equilibrating the chromatography column with equilibration buffer II, eluting the impurities with wash buffer, eluting target protein with the elution buffer; the cation exchange chromatography is performed on a cation/hydrophobic composite resin selected from Capto-MMC or Bestarose Diamond MMC; b) subjecting the primary product I to anion exchange chromatography to obtain secondary product II; the anion exchange chromatography is performed on an anion/hydrophobic composite resin selected from Capto-Adhere or Bestarose Diamond MMA; c) subjecting the secondary product II to hydrophobic chromatography to obtain high-purity recombinant human serum albumin; the hydrophobic chromatography is performed on a resin selected from Phenyl Sepharose HP, Phenyl Sepharose FF, Phenyl Bestarose HP or Phenyl Bestarose FF; a) subjecting crude extract of recombinant human serum albumin to cation exchange chromatography, adding ethanol in buffers to remove endotoxin, to obtain primary product I; said buffers comprise a wash buffer, an equilibrium buffer I and an equilibrium buffer II; the wash buffer comprises 10-20% anhydrous ethanol by volume, the equilibrium buffer I comprises 0-10% anhydrous ethanol by volume, the equilibrium buffer II comprises 5-15% anhydrous ethanol by volume; equilibrating the chromatography column with equilibration buffer I, loading the sample, equilibrating the chromatography column with equilibration buffer II, eluting the impurities with wash buffer, eluting target protein with the elution buffer; the cation exchange chromatography is performed on a cation/hydrophobic composite resin selected from Capto-MMC or Bestarose Diamond MMC; b) subjecting the primary product I to anion exchange chromatography to obtain secondary product II; the anion exchange chromatography is performed on an anion/hydrophobic composite resin selected from Capto-Adhere or Bestarose Diamond MMA; c) subjecting the secondary product II to hydrophobic chromatography to obtain high-purity recombinant human serum albumin;
Non-aqueous rechargeable electrochemical battery cell, comprising a stack which comprises a positive electrode, an SO 2 -containing electrolyte, a separator layer and a negative electrode, and wherein the battery cell further comprises an indicator electrode, wherein the indicator electrode is electronically insulated from the negative and positive electrodes by a porous insulating layer and is designed for contacting by means of a metal deposit.
A method for recovering an acid gas from a liquid acid gas-rich absorbent comprising the steps of: a. Providing the liquid acid gas-rich absorbent stream having absorbed acid gas therein, b. separating acid gas from the acid gas-rich absorbent stream in a stripping column using a gaseous stripping medium in order to provide an acid gas-containing gas stream and a liquid acid gas-lean absorbent stream, c. transferring heat from the acid gas-containing gas stream to a stream of heat transfer fluid in order to provide a cooled acid gas-containing stream and a heated stream (L4'), d. separating the heated stream (L4') into a recovered stripping medium and a liquid heat carrier, and providing the recovered stripping medium directly or indirectly to the stripping column; wherein the separation of step d. is provided by the steps of: d.i. separating the heated stream (L4') by flashing in a first flashing column to provide the recovered stripping medium and a liquid stream (L4'''); d.ii. further depressurising the liquid stream (L4''') to provide a second depressurized stream (L4'''') having a pressure which is lower than the pressure of the liquid stream (L4'''); d.iii. separating the second depressurized stream (L4'''') in a third separating unit to provide a second gas (a) and the liquid heat carrier; d.iv. re-compressing the second gas (a) to provide a re-compressed second gas (b); and d. v. feeding the re-compressed second gas (b) to the first flashing column where it leaves the flashing separation unit as part of the recovered stripping medium. a. Providing the liquid acid gas-rich absorbent stream having absorbed acid gas therein, b. separating acid gas from the acid gas-rich absorbent stream in a stripping column using a gaseous stripping medium in order to provide an acid gas-containing gas stream and a liquid acid gas-lean absorbent stream, c. transferring heat from the acid gas-containing gas stream to a stream of heat transfer fluid in order to provide a cooled acid gas-containing stream and a heated stream (L4'), d. separating the heated stream (L4') into a recovered stripping medium and a liquid heat carrier, and providing the recovered stripping medium directly or indirectly to the stripping column; d.i. separating the heated stream (L4') by flashing in a first flashing column to provide the recovered stripping medium and a liquid stream (L4'''); d.ii. further depressurising the liquid stream (L4''') to provide a second depressurized stream (L4'''') having a pressure which is lower than the pressure of the liquid stream (L4'''); d.iii. separating the second depressurized stream (L4'''') in a third separating unit to provide a second gas (a) and the liquid heat carrier; d.iv. re-compressing the second gas (a) to provide a re-compressed second gas (b); and d. v. feeding the re-compressed second gas (b) to the first flashing column where it leaves the flashing separation unit as part of the recovered stripping medium.
A Method for the attachment of an arrangement for the attachment of a system to a structure at least partially, wherein a first element of the arrangement is bonded to the structure, wherein the first element is created by injecting at least one material into a mould carried by a robotic system to a target position of the arrangement on the structure which is closed at one side by pressing it against the structure, and after the first element is cured a second element of the arrangement is coupled indirectly to the first element, wherein an insert for coupling the second element to the first element is positioned at least partially in the mould during the material injection, wherein the mould is positioned on the structure with a manipulator of the robotic system, wherein the manipulator is carried by a railless automated vehicle.
A permanent-magnet magnetic field generator comprising: inner and outer dipole rings (22,24) which share a central axis, a rotator for allowing the outer dipole ring to rotate around the central axis, a unidirectional variable magnetic field generated in the space within the inner dipole ring, each of the inner and outer dipole rings having a plurality of permanent magnets arranged in a ring shape, and the plurality of permanent magnets in each of the dipole rings being arranged in such a way as to allow a magnetization direction of the permanent magnets to make a full rotation per half circle of the ring, characterized by, a yoke which surrounds the dipole rings and is fixed to and integrated with the outer dipole ring, a fastener for fixing the inner dipole ring, a friction-resistant ring for reducing rotational friction provided in a friction part between the inner and outer dipole rings and made of a non-magnetic material and wherein the ratio (T i /T o) in which T i represents the thickness of the inner dipole ring and T o represents the thickness of the outer dipole ring is 0.7 to 1.0. inner and outer dipole rings (22,24) which share a central axis, a rotator for allowing the outer dipole ring to rotate around the central axis, a unidirectional variable magnetic field generated in the space within the inner dipole ring, each of the inner and outer dipole rings having a plurality of permanent magnets arranged in a ring shape, and the plurality of permanent magnets in each of the dipole rings being arranged in such a way as to allow a magnetization direction of the permanent magnets to make a full rotation per half circle of the ring, characterized by, a yoke which surrounds the dipole rings and is fixed to and integrated with the outer dipole ring, a fastener for fixing the inner dipole ring, a friction-resistant ring for reducing rotational friction provided in a friction part between the inner and outer dipole rings and made of a non-magnetic material and wherein the ratio (T i /T o) in which T i represents the thickness of the inner dipole ring and T o represents the thickness of the outer dipole ring is 0.7 to 1.0.
An LG 12-clade variant subtilisin enzyme or an active fragment thereof comprising an amino acid modification to a parent LG12-clade subtilisin enzyme, wherein the modification is at productive position 166, wherein said variant has at least 75% identity to the amino acid sequence of a parent LG12-clade subtilisin enzyme selected from Bacillus sp.LG12sprC substilin set forth in SEQ ID NO:3; Bacillus sp. M3-13 subtilisin enzyme E set forth in SEQ ID NO:7; Bacillus horikoshii strain DSM 8719, Bhon03321 set forth in SEQ ID NO:10; Bacillus horikoshii strain DSM_9711 set forth in SEQ ID NO:13; Bacillus horikoshii strain DSM_9712 set forth in SEQ ID NO:16; Bacillus horikoshii strain DSM_6951 set forth in SEQ ID NO:19; B_sp_sprD_AAC43581 as shown in Fig. 9A-C; Bacillus_sp_WP_010192405 as shown in Fig. 9A-C; Bacillus_sp_BAD 11988 as shown in Fig. 9A-C; and/or Bacillus sp. KSM-LD1, SB (BAD21128.1) set forth in SEQ ID NO:20, wherein the modification is selected from the group consisting of residues 166 C, F, I, L, A, D, E, H, M, N, Q, S, T and Y, wherein the amino acid positions of the LG12-clade subtilisin variant are numbered by correspondence with the amino acid sequence of Bacillus sp. LG12sprC subtilisin set forth in SEQ ID NO:3.
A safety device comprising: a connecting member (2, 3, 7) including a rope, an attaching portion (35, 71) connected to a first end of the rope and arranged to be attached to a body belt worn around a body of a worker, and a hook (24, 34, 72) connected to a second end of the rope and arranged to be attached to a holding object, wherein the connecting member (2, 3, 7) includes a load detection portion (261, 301, 306, 720, 727, 820, 831, 832) arranged to detect whether or not a load is applied to the connecting member (2, 3, 7) and to output a load detection signal; and a control device including a receiver unit arranged to receive the load detection signal, a control unit arranged to determine a status of the worker or a status of the safety device based on the load detection signal, and a notification unit (211, 212, 213) arranged to provide a notification in accordance with control performed by the control unit corresponding to the determined status. a connecting member (2, 3, 7) including a rope, an attaching portion (35, 71) connected to a first end of the rope and arranged to be attached to a body belt worn around a body of a worker, and a hook (24, 34, 72) connected to a second end of the rope and arranged to be attached to a holding object, wherein the connecting member (2, 3, 7) includes a load detection portion (261, 301, 306, 720, 727, 820, 831, 832) arranged to detect whether or not a load is applied to the connecting member (2, 3, 7) and to output a load detection signal; and a control device including a receiver unit arranged to receive the load detection signal, a control unit arranged to determine a status of the worker or a status of the safety device based on the load detection signal, and a notification unit (211, 212, 213) arranged to provide a notification in accordance with control performed by the control unit corresponding to the determined status.