mhurhangee/ep-ind-claims huggingface dataset:
A wall portion for a tower of a wind turbine, the wall portion comprising: • a first wall segment having a first flange at a first lateral side of the first wall segment; • a connection plate having a first surface portion being mounted at a front side surface portion of the first wall segment, the connection plate protruding an edge at a second lateral side of the first wall segment; • a second wall segment having a second flange at a first lateral side of the second wall segment, wherein the second flange is mechanically connected to the first flange; and • a third wall segment, wherein a second surface portion of the connection plate is mounted at a front side surface portion of the third wall segment, the connection plate protruding an edge at a lateral side of the third wall segment, wherein the first flange and the second flange extend in a longitudinal direction of the tower of the wind turbine, wherein the wall portion further comprises: • a further connection plate a surface portion of which being mounted at a back side surface portion of the first wall segment, wherein the back side surface portion of the first wall segment is opposite to the front side portion of the first wall segment, wherein another surface portion of the further connection plate is mounted at a back side surface portion of the third wall segment, and wherein the back side surface portion of the third wall segment is opposite to the front side portion of the third wall segment, wherein a thickness of the connection plate and the further connection plate amounts to at least half of a thickness of each of the first wall segment and the third wall segment and to less than the thickness of each of the first wall segment and the third wall segment. • a first wall segment having a first flange at a first lateral side of the first wall segment; • a connection plate having a first surface portion being mounted at a front side surface portion of the first wall segment, the connection plate protruding an edge at a second lateral side of the first wall segment; • a second wall segment having a second flange at a first lateral side of the second wall segment, wherein the second flange is mechanically connected to the first flange; and • a third wall segment, wherein a second surface portion of the connection plate is mounted at a front side surface portion of the third wall segment, the connection plate protruding an edge at a lateral side of the third wall segment, • a further connection plate a surface portion of which being mounted at a back side surface portion of the first wall segment, wherein the back side surface portion of the first wall segment is opposite to the front side portion of the first wall segment, wherein another surface portion of the further connection plate is mounted at a back side surface portion of the third wall segment, and wherein the back side surface portion of the third wall segment is opposite to the front side portion of the third wall segment,
An encoding method for encoding a speech signal, comprising: dividing the to-be-encoded time-domain speech signal into a low band signal and a high band signal, according to a frequency threshold; performing encoding on the low band signal to obtain a low frequency encoding parameter, wherein the low frequency encoding parameter includes an algebraic codebook gain; performing linear predictive coding, LPC, analysis on the high band signal to obtain a LPC coefficient, predicting a high frequency excitation signal using the low frequency encoding parameter, obtaining a synthesized high band signal, using the high frequency excitation signal and a synthesis filter that is determined according to the LPC coefficient; the method being characterised by further comprising: performing filtering processing on the synthesized high band signal by using a pole-zero post-filter to obtain a short-time filtered signal, wherein a coefficient of the pole-zero post-filter is set based on the LPC coefficient; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. dividing the to-be-encoded time-domain speech signal into a low band signal and a high band signal, according to a frequency threshold; performing encoding on the low band signal to obtain a low frequency encoding parameter, wherein the low frequency encoding parameter includes an algebraic codebook gain; performing linear predictive coding, LPC, analysis on the high band signal to obtain a LPC coefficient, predicting a high frequency excitation signal using the low frequency encoding parameter, obtaining a synthesized high band signal, using the high frequency excitation signal and a synthesis filter that is determined according to the LPC coefficient; the method being characterised by further comprising: performing filtering processing on the synthesized high band signal by using a pole-zero post-filter to obtain a short-time filtered signal, wherein a coefficient of the pole-zero post-filter is set based on the LPC coefficient; and calculating a high frequency gain based on the high band signal and the short-time filtered signal. performing filtering processing on the synthesized high band signal by using a pole-zero post-filter to obtain a short-time filtered signal, wherein a coefficient of the pole-zero post-filter is set based on the LPC coefficient; and calculating a high frequency gain based on the high band signal and the short-time filtered signal.
A control information sending method, comprising: determining, by a base station, target control information and characteristic information corresponding to the target control information, wherein the target control information is information for scheduling target user equipment by the base station, wherein the characteristic information corresponding to the target control information is a message type corresponding to the target control information, wherein the message type corresponding to the target control information comprises a random access channel, RACH, acknowledgement message of a target RACH request or a paging request message of the target user equipment; learning, by the base station, of a target coverage level of the target user equipment by a preamble sequence from the user equipment in a random access process or a random access channel, RACH, resource occupied by the target user equipment in a random access process; wherein the target coverage level is a coverage level corresponding to a location at which the target user equipment is located in a coverage area of the base station; determining, by the base station according to a preset rule and the characteristic information from a resource block set corresponding to the target coverage level, a target resource block subset corresponding to the target control information; selecting, from the target resource block subset, any available resource block as a target resource block; and sending (203, 404), by the base station, the target control information by using the target resource block. determining, by a base station, target control information and characteristic information corresponding to the target control information, wherein the target control information is information for scheduling target user equipment by the base station, wherein the characteristic information corresponding to the target control information is a message type corresponding to the target control information, wherein the message type corresponding to the target control information comprises a random access channel, RACH, acknowledgement message of a target RACH request or a paging request message of the target user equipment; learning, by the base station, of a target coverage level of the target user equipment by a preamble sequence from the user equipment in a random access process or a random access channel, RACH, resource occupied by the target user equipment in a random access process; wherein the target coverage level is a coverage level corresponding to a location at which the target user equipment is located in a coverage area of the base station; determining, by the base station according to a preset rule and the characteristic information from a resource block set corresponding to the target coverage level, a target resource block subset corresponding to the target control information; selecting, from the target resource block subset, any available resource block as a target resource block; and sending (203, 404), by the base station, the target control information by using the target resource block.
A wireless transmit/receive unit, WTRU, comprising: a non-transitory memory (130, 132) including instructions stored thereon for re-establishing a radio resource control, RRC, connection with a base station (114, 140, 160, 180); and a processor, operably coupled to the non-transitory memory, characterized in that it is capable of executing the instructions of: determining, based upon a radio link failure occurring in an active downlink bandwidth part, DL BWP, to initiate a random access channel, RACH, procedure; initiating the RACH procedure; determining whether one or more RACH resources are configured for an active uplink bandwidth part, UL BWP; after determining no RACH resources are configured for the active UL BWP, switching to a default UL BWP, wherein at least one RACH resource is configured for the default UL BWP; transmitting, to a base station, a random access, RA, preamble using one of the RACH resources configured for the default UL BWP; receiving a RA response from the base station; and switching from the default UL BWP to either the active UL BWP or another active UL BWP after re-establishing the RRC connection. a non-transitory memory (130, 132) including instructions stored thereon for re-establishing a radio resource control, RRC, connection with a base station (114, 140, 160, 180); and a processor, operably coupled to the non-transitory memory, characterized in that it is capable of executing the instructions of: determining, based upon a radio link failure occurring in an active downlink bandwidth part, DL BWP, to initiate a random access channel, RACH, procedure; initiating the RACH procedure; determining whether one or more RACH resources are configured for an active uplink bandwidth part, UL BWP; after determining no RACH resources are configured for the active UL BWP, switching to a default UL BWP, wherein at least one RACH resource is configured for the default UL BWP; transmitting, to a base station, a random access, RA, preamble using one of the RACH resources configured for the default UL BWP; receiving a RA response from the base station; and switching from the default UL BWP to either the active UL BWP or another active UL BWP after re-establishing the RRC connection. determining, based upon a radio link failure occurring in an active downlink bandwidth part, DL BWP, to initiate a random access channel, RACH, procedure; initiating the RACH procedure; determining whether one or more RACH resources are configured for an active uplink bandwidth part, UL BWP; after determining no RACH resources are configured for the active UL BWP, switching to a default UL BWP, wherein at least one RACH resource is configured for the default UL BWP; transmitting, to a base station, a random access, RA, preamble using one of the RACH resources configured for the default UL BWP; receiving a RA response from the base station; and switching from the default UL BWP to either the active UL BWP or another active UL BWP after re-establishing the RRC connection.
A process for producing a polythiol composition, the process comprising: 1) contacting: a) 5-vinylnorborn-2-ene; b) H 2 S; and c) optionally, a phosphite compound; and 2) forming the polythiol composition; wherein a molar ratio of H 2 S to carbon-carbon double bonds of the 5-vinylnorborn-2-ene is in a range from 2:1 to 500:1; wherein the process further comprises a step of removing at least a portion of the H 2 S, of the phosphite compound (if used), of the 5-vinylnorborn-2-ene, of compounds having only one sulfur atom, or combinations thereof, from the polythiol composition; wherein the H 2 S, the phosphite compound (if used), the 5-vinylnorborn-2-ene, the compounds having only one sulfur atom, or combinations thereof, are removed by distillation, short path distillation, or a combination thereof; wherein the polythiol composition is formed in the presence of ultraviolet light. 1) contacting: a) 5-vinylnorborn-2-ene; b) H 2 S; and c) optionally, a phosphite compound; and a) 5-vinylnorborn-2-ene; b) H 2 S; and c) optionally, a phosphite compound; and 2) forming the polythiol composition; wherein a molar ratio of H 2 S to carbon-carbon double bonds of the 5-vinylnorborn-2-ene is in a range from 2:1 to 500:1; wherein the process further comprises a step of removing at least a portion of the H 2 S, of the phosphite compound (if used), of the 5-vinylnorborn-2-ene, of compounds having only one sulfur atom, or combinations thereof, from the polythiol composition; wherein the H 2 S, the phosphite compound (if used), the 5-vinylnorborn-2-ene, the compounds having only one sulfur atom, or combinations thereof, are removed by distillation, short path distillation, or a combination thereof; wherein the polythiol composition is formed in the presence of ultraviolet light.
A cellular base station for communicating with a user terminal operable to utilize radio resources of the cellular base station and a wireless local area network, WLAN, access point, comprising: a controller configured to execute functions of: a plurality of packet data convergence protocol, PDCP, entities corresponding to a plurality of bearers used in performing a communication with a user terminal; and a specific entity that generates a specific packet by adding, to a PDCP packet generated by each of the plurality of PDCP entities, a header including a bearer identifier, wherein the bearer identifier is for identifying a bearer to which the specific packet belongs, from the plurality of bearers, and the specific entity transmits the specific packet to the user terminal via the WLAN access point. a controller configured to execute functions of: a plurality of packet data convergence protocol, PDCP, entities corresponding to a plurality of bearers used in performing a communication with a user terminal; and a specific entity that generates a specific packet by adding, to a PDCP packet generated by each of the plurality of PDCP entities, a header including a bearer identifier, wherein a plurality of packet data convergence protocol, PDCP, entities corresponding to a plurality of bearers used in performing a communication with a user terminal; and a specific entity that generates a specific packet by adding, to a PDCP packet generated by each of the plurality of PDCP entities, a header including a bearer identifier, wherein the bearer identifier is for identifying a bearer to which the specific packet belongs, from the plurality of bearers, and the specific entity transmits the specific packet to the user terminal via the WLAN access point.
Bringer rapier head for a rapier weaving machine with double weft insertion with a first guide device for a first weft thread and a second guide device for a second weft thread, which are both arranged at a distance from one another at the front end of the bringer rapier head in the insertion direction of the weft threads, wherein the first weft thread being guided in the first open guide device and the second guide device for the second weft thread having a clamping plate for holding it closed, the weft threads (7,8) are clamped in a rapier clamp during weft insertion and wherein the rapier clamp can be brought by means of an actuating device from a clamping position into an open, non-clamping position and the clamping plate can be brought by means of the actuating device into an open position not closing the second guide device, characterised in that by means of the actuating device the rapier clamp can be actuated in the sense of a dual function either decoupled from the movement of the clamping plate for transferring the weft threads (7, 8) out of the rapier clamp or together with the clamping plate for releasing the second weft thread also out of the second guide device, wherein the times of the release of the respective weft thread are adjustable.
A peptide having the following structural formula I R 1 -X-Y-R 2 (SEQ ID NO:12) or a pharmaceutically acceptable salt or solvate thereof, wherein: R 1 is hydrogen, a C1-C6 alkyl, a C6-C12 aryl, a C6-C12 aryl C1-C6 alkyl, a C1-C20 alkanoyl or pGlu; R 2 is -NH 2 or -OH; X is a peptide sequence having the formula (Ic) X1-Thr-His-X4-X5-Cys-Ile-X8-Phe-X10 (Ic) (SEQ ID NO:3) wherein: X1 is Asp, Ida, or absent; X4 is Phe or Dpa; X5 is Pro; X8 is Ile, Lys, Glu, Phe, Gln, or Arg; and X10 is Lys or absent; and Y is absent or Y is a peptide sequence having the formula (IIa) Y1-Y2-Y3-Y4-Y5-Y6-Y7-Y8-Y9-Y10-Y11-Y12-Y13-Y14-Y15 (IIa) (SEQ ID NO:5) wherein Y1 is Gly, Glu, Lys, Ser, or absent; Y2 is Pro, Ala, Cys, Gly, or absent; Y3 is Arg, Lys, Ala, or absent; Y4 is Ser, Ala, or absent; Y5 is Lys, Arg, or absent; Y6 is Gly, Ser, Lys, Ile, Arg, Ala, Pro, Val, or absent; Y7 is Trp, Val, or absent; Y8 is Val, Thr, Tyr, Ala, Glu, Lys, Asp, or absent; Y9 is Cys, Tyr, or absent; Y10 is Met, Lys, Arg, Tyr, or absent; Y11 is Arg, Met, Cys, Lys, or absent; Y12 is Arg, Lys, Ala, or absent; Y13 is Arg, Cys, Lys, Val, or absent; Y14 is Arg, Lys, Pro, Cys, Thr, or absent; and Y15 is Thr, Arg, or absent, - wherein the peptide of formula comprises two or more cysteine residues; optionally wherein the peptide is conjugated to one or more additional chemical moieties; and wherein the peptide or pharmaceutically acceptable salt or solvate thereof has hepcidin activity. R 1 is hydrogen, a C1-C6 alkyl, a C6-C12 aryl, a C6-C12 aryl C1-C6 alkyl, a C1-C20 alkanoyl or pGlu; R 2 is -NH 2 or -OH; X is a peptide sequence having the formula (Ic) X1 is Asp, Ida, or absent; X4 is Phe or Dpa; X5 is Pro; X8 is Ile, Lys, Glu, Phe, Gln, or Arg; and X10 is Lys or absent; and Y is absent or Y is a peptide sequence having the formula (IIa) Y1 is Gly, Glu, Lys, Ser, or absent; Y2 is Pro, Ala, Cys, Gly, or absent; Y3 is Arg, Lys, Ala, or absent; Y4 is Ser, Ala, or absent; Y5 is Lys, Arg, or absent; Y6 is Gly, Ser, Lys, Ile, Arg, Ala, Pro, Val, or absent; Y7 is Trp, Val, or absent; Y8 is Val, Thr, Tyr, Ala, Glu, Lys, Asp, or absent; Y9 is Cys, Tyr, or absent; Y10 is Met, Lys, Arg, Tyr, or absent; Y11 is Arg, Met, Cys, Lys, or absent; Y12 is Arg, Lys, Ala, or absent; Y13 is Arg, Cys, Lys, Val, or absent; Y14 is Arg, Lys, Pro, Cys, Thr, or absent; and Y15 is Thr, Arg, or absent, - wherein the peptide of formula comprises two or more cysteine residues; optionally wherein the peptide is conjugated to one or more additional chemical moieties; and wherein the peptide or pharmaceutically acceptable salt or solvate thereof has hepcidin activity.
An equipment for reclamation of used foundry sand, especially with an inorganic geopolymer binder system, the equipment comprising a container casing, in which shafts are arranged at a certain distance between them and are provided with impact bars, wherein spaced from the bottom of the container casing there is a permeable bottom of a fluidized bed attached on a carrier, and further, the container casing is in its upper part provided with a dosing opening, wherein in its lower part the container casing has an unloading opening, and wherein in the container casing there is arranged a pair of vertically oriented shafts on which cylindrical impact bars are attached, characterized in that the container casing has in its ground plan section the shape of an oval, and the inside of the container casing is provided with a wear-resistant lining.
A method comprising: transmitting, by a control interface of an audio device to a playback device, via a first frequency channel in a first spectrum, control information identifying a second frequency channel from a second spectrum over which first audio information will be transmitted to the playback device; selecting, by a channel selector of the audio device, the second frequency channel from the second spectrum for transmitting the first audio information to the playback device; and transmitting by an audio interface of the audio device the first audio information to the playback device via the second frequency channel of the second spectrum; characterized by further comprising: when the second frequency channel of the second spectrum becomes unsuitable, selecting, by the channel selector, a third frequency channel in the first spectrum and providing control information identifying the selected third frequency channel to the control interface; transmitting, by the control interface to the playback device, the control information identifying the third frequency channel; and transmitting by the audio interface of the audio device second audio information to the playback device via the third frequency channel. transmitting, by a control interface of an audio device to a playback device, via a first frequency channel in a first spectrum, control information identifying a second frequency channel from a second spectrum over which first audio information will be transmitted to the playback device; selecting, by a channel selector of the audio device, the second frequency channel from the second spectrum for transmitting the first audio information to the playback device; and transmitting by an audio interface of the audio device the first audio information to the playback device via the second frequency channel of the second spectrum; characterized by further comprising: when the second frequency channel of the second spectrum becomes unsuitable, selecting, by the channel selector, a third frequency channel in the first spectrum and providing control information identifying the selected third frequency channel to the control interface; transmitting, by the control interface to the playback device, the control information identifying the third frequency channel; and transmitting by the audio interface of the audio device second audio information to the playback device via the third frequency channel. when the second frequency channel of the second spectrum becomes unsuitable, selecting, by the channel selector, a third frequency channel in the first spectrum and providing control information identifying the selected third frequency channel to the control interface; transmitting, by the control interface to the playback device, the control information identifying the third frequency channel; and transmitting by the audio interface of the audio device second audio information to the playback device via the third frequency channel.
Method for producing a rotor, wherein, starting from a position, permanent magnets are arranged next to one another toward one side or toward two sides along the axis of rotation of the rotor, wherein the rotor has a recess on a lateral surface (25, 25a), wherein the permanent magnets are arranged in the recess, characterised in that a variable gap is formed between the outer faces of those permanent magnets and at least one inner surface of the recess which does not extend parallel to the lateral surface, wherein the variable gap is covered with an end plate band, and wherein a sleeve is applied around the at least one part of the lateral surface of the rotor and/or the outer face of the permanent magnets.