mhurhangee/ep-ind-claims huggingface dataset:
A method for synchronization of uplink transmissions and performing uplink transmissions, the method comprising: Receiving, by a user equipment, UE, (123, 124) a downlink configuration instruction from a base station, the downlink configuration instruction indicating a cyclic prefix length determined based on a coverage area size of the base station; and Performing, by the UE (123, 124), an uplink transmission without adjusting a timing advance, the uplink transmission carrying a cyclic prefix having the cyclic prefix length indicated by the downlink configuration instruction received from the base station; characterized in that the downlink configuration instruction indicates a shorter cyclic prefix length when the UE (123, 124) is in a first operation mode, in which the UE (123, 124) is required to update its downlink synchronization parameters prior to performing the uplink transmission, than when the UE (123, 124) is in a second operation mode, in which the UE (123, 124) is not required to update its downlink and uplink synchronization parameters prior to performing the uplink transmission. Receiving, by a user equipment, UE, (123, 124) a downlink configuration instruction from a base station, the downlink configuration instruction indicating a cyclic prefix length determined based on a coverage area size of the base station; and Performing, by the UE (123, 124), an uplink transmission without adjusting a timing advance, the uplink transmission carrying a cyclic prefix having the cyclic prefix length indicated by the downlink configuration instruction received from the base station; characterized in that the downlink configuration instruction indicates a shorter cyclic prefix length when the UE (123, 124) is in a first operation mode, in which the UE (123, 124) is required to update its downlink synchronization parameters prior to performing the uplink transmission, than when the UE (123, 124) is in a second operation mode, in which the UE (123, 124) is not required to update its downlink and uplink synchronization parameters prior to performing the uplink transmission.
A semiconductor structure (200; 300; 400; 500) comprising: an electron injector (202; 302; 402; 502), an active region (204; 304; 404; 504) adjacent to the electron injector, and an electron extractor (206; 306; 406; 506) adjacent to the active region, the electron injector, active region, and electron extractor each comprising layers of semiconductor, the layers configured to provide alternating quantum wells and barriers, wherein the active region comprises an injection barrier (208; 308; 408; 508), an exit barrier (214; 310; 410; 514), a first intermediate barrier (216; 312; 412; 516) between the injection barrier and the exit barrier, and a second intermediate barrier (218; 314; 414; 518) between the injection barrier and the exit barrier and downstream from the first intermediate barrier, wherein the energy of each of the exit barrier, the first intermediate barrier, and the second intermediate barrier is greater than the energy of the barriers (224; 320; 420; 524) of the electron injector, and further wherein the energy of the injection barrier is less than the energy of the exit barrier, and the energy of the first intermediate barrier is less than the energy of the second intermediate barrier; wherein the energy of the injection barrier is greater than the energy of the barriers of the electron injector or wherein the semiconductor structure is configured to emit laser radiation at a wavelength greater than 5 μm. an electron injector (202; 302; 402; 502), an active region (204; 304; 404; 504) adjacent to the electron injector, and an electron extractor (206; 306; 406; 506) adjacent to the active region, the electron injector, active region, and electron extractor each comprising layers of semiconductor, the layers configured to provide alternating quantum wells and barriers, wherein the active region comprises an injection barrier (208; 308; 408; 508), an exit barrier (214; 310; 410; 514), a first intermediate barrier (216; 312; 412; 516) between the injection barrier and the exit barrier, and a second intermediate barrier (218; 314; 414; 518) between the injection barrier and the exit barrier and downstream from the first intermediate barrier, wherein the energy of each of the exit barrier, the first intermediate barrier, and the second intermediate barrier is greater than the energy of the barriers (224; 320; 420; 524) of the electron injector, and further wherein the energy of the injection barrier is less than the energy of the exit barrier, and the energy of the first intermediate barrier is less than the energy of the second intermediate barrier; wherein the energy of the injection barrier is greater than the energy of the barriers of the electron injector or wherein the semiconductor structure is configured to emit laser radiation at a wavelength greater than 5 μm.
Method for analyzing a wireless link of a wireless node of a customer premises equipment device, comprising performing a first test, during which a data transmission is forced through the wireless link, to obtain a first set of parameters, and performing a second test, which is a monitoring mode during which a data transmission of the wireless link is monitored, to obtain a second set of parameters, characterized in that the first set of parameters comprise at least a measured data rate with a Received Signal Strength Indicator, RSSI, value, the second set of parameters comprise at least clear channel assessment statistics and if the measured data rate with the RSSI value is within the boundary of reference data, said reference data comprising two sets of data rates with RSSI values measured at two different times in an interference free environment and for two different conditions of path loss, an observed decrease in the measured data rate is assigned to Physics effects or to a Far End Interference, wherein the observed decrease in the measured data rate is assigned to Far End Interference if the channel assessment statistics of the second parameters indicate the presence of interferences. performing a first test, during which a data transmission is forced through the wireless link, to obtain a first set of parameters, and performing a second test, which is a monitoring mode during which a data transmission of the wireless link is monitored, to obtain a second set of parameters, characterized in that the first set of parameters comprise at least a measured data rate with a Received Signal Strength Indicator, RSSI, value, the second set of parameters comprise at least clear channel assessment statistics and if the measured data rate with the RSSI value is within the boundary of reference data, said reference data comprising two sets of data rates with RSSI values measured at two different times in an interference free environment and for two different conditions of path loss, an observed decrease in the measured data rate is assigned to Physics effects or to a Far End Interference, wherein the observed decrease in the measured data rate is assigned to Far End Interference if the channel assessment statistics of the second parameters indicate the presence of interferences.
Method for treating the surface of at least one molded part produced in a 3D printing method, wherein: (a) the molded part is introduced into an interior of a pressure-tight container, (b) a negative pressure is generated in the interior of the container after the molded part has been introduced into the container, (c) a solvent is heated up to a predetermined solvent temperature, and (d) after the molded part has been introduced into the interior of the container, the heated solvent is introduced from a solvent container into the interior having the negative pressure, wherein the solvent container is designed to be pressure-tight and wherein a negative pressure, in particular an extensive vacuum, is generated in the interior of the solvent container before the solvent is introduced from the solvent container into the interior of the pressure-tight container, wherein - the temperature of the molded part is lower than the solvent temperature, and - the solvent is evaporated or is introduced as a steam into the interior upon being introduced into the interior, wherein the solvent steam condenses on the surface of the molded part. (a) the molded part is introduced into an interior of a pressure-tight container, (b) a negative pressure is generated in the interior of the container after the molded part has been introduced into the container, (c) a solvent is heated up to a predetermined solvent temperature, and (d) after the molded part has been introduced into the interior of the container, the heated solvent is introduced from a solvent container into the interior having the negative pressure, wherein the solvent container is designed to be pressure-tight and wherein a negative pressure, in particular an extensive vacuum, is generated in the interior of the solvent container before the solvent is introduced from the solvent container into the interior of the pressure-tight container, wherein - the temperature of the molded part is lower than the solvent temperature, and - the solvent is evaporated or is introduced as a steam into the interior upon being introduced into the interior, wherein the solvent steam condenses on the surface of the molded part. - the temperature of the molded part is lower than the solvent temperature, and - the solvent is evaporated or is introduced as a steam into the interior upon being introduced into the interior, wherein the solvent steam condenses on the surface of the molded part.
Mounting for holding an elongate object, such as an electric cable, in position relative to a structure, said mounting comprising: - two parts for connecting the mounting to the structure (2, 3, 21, 22), each having a bearing face (2a, 3a, 21a, 22a) for bearing on both sides of the structure against a bearing surface (12a, 12b) of the structure, said two connecting parts being fitted to one another by clamping means (7, 8, 10), the two connecting parts being in the form of a pair of flanges (21, 22), said flanges comprising one edge having an essentially inwardcurved shape (21b, 22b) and one edge extended by an extension (25, 29), - at least one mounting part (4, 23, 24) able to hold said elongate object by means of holding means (50, 31, 37, 69), characterized in that said mounting part is in the form of an essentially cylindrical ramp (23, 24) secured to a connecting part and the holding means are in the form of a clipper module (31, 37, 69) able to hold the elongate object relative to the ramp (23, 24). - two parts for connecting the mounting to the structure (2, 3, 21, 22), each having a bearing face (2a, 3a, 21a, 22a) for bearing on both sides of the structure against a bearing surface (12a, 12b) of the structure, said two connecting parts being fitted to one another by clamping means (7, 8, 10), the two connecting parts being in the form of a pair of flanges (21, 22), said flanges comprising one edge having an essentially inwardcurved shape (21b, 22b) and one edge extended by an extension (25, 29), - at least one mounting part (4, 23, 24) able to hold said elongate object by means of holding means (50, 31, 37, 69),
A folding device comprising: a conveying path that can convey a sheet member in a predetermined conveying direction; a placement portion that constitutes a part of the conveying path and has a placement face on which the sheet member can be placed; a through portion that is formed on the placement portion and formed to be through from the placement face side to an opposite face on an opposite side of the placement face; a blade member that is arranged on the opposite face side in the placement portion, to be movable between an initial position where a tip end part thereof is positioned at a predetermined position on the opposite face side and a protruded position where the tip end part penetrates the through portion and is positioned at a predetermined position on the placement face side, the blade member folding and moving the sheet member by moving from the initial position to the protruded position in a state in which the sheet member is placed thereon; a pair of folding rollers that is arranged on the placement face side of the placement portion, and pinches and receives the sheet member thus folded as well as the blade member in a state in which the blade member is positioned at the protruded position; a driving mechanism having a rotational driving unit that can output a rotational driving force and a rotating member that is rotated by the rotational driving force from the rotational driving unit, the driving mechanism making the blade member reciprocate between the initial position and the protruded position; a rotational position detecting mechanism that detects a rotational position of the rotating member and outputs rotational position information; a rotational drive control unit that receives the rotational position information from the rotational position detecting mechanism, wherein: the driving mechanism includes a converting unit that converts a rotational motion of the rotating member into a reciprocating motion; and the rotating member is directly or indirectly connected to the rotational driving unit; and characterized in that the folding device comprises a signal receiving unit that receives a predetermined signal; and the rotational driving unit can reverse a direction of the rotational drive; and the rotational drive control unit, when the signal receiving unit receives the predetermined signal, determines whether the blade member is in a state of moving from the initial position to the protruded position or the blade member is in a state of moving from the protruded position to the initial position based on the rotational position information, and, in a case in which the blade member is determined to be in the state of moving from the initial position to the protruded position, controls the rotational driving unit to reverse the direction of rotational drive, and in a case in which the blade member is determined to be in the state of moving from the protruded position to the initial position, controls the rotational driving unit to maintain the direction of rotational drive.
A process of producing a coffee beverage powder, the process comprising: a) stripping aroma from roast and ground coffee beans and/or coffee extract with gas and/or steam b) extracting roast and ground coffee beans with an aqueous liquid to produce an aqueous coffee extract; c) preparing an aqueous composition comprising at least 5% by weight of dry matter of coffee solids extracted in step b), and at least 5% by weight of dry matter of compounds not derived from coffee selected among fat and protein; d) adding coffee aroma obtained in step a) to aqueous composition provided in step c); and e) drying the aqueous composition with added coffee aroma to produce a coffee beverage powder. a) stripping aroma from roast and ground coffee beans and/or coffee extract with gas and/or steam b) extracting roast and ground coffee beans with an aqueous liquid to produce an aqueous coffee extract; c) preparing an aqueous composition comprising at least 5% by weight of dry matter of coffee solids extracted in step b), and at least 5% by weight of dry matter of compounds not derived from coffee selected among fat and protein; d) adding coffee aroma obtained in step a) to aqueous composition provided in step c); and e) drying the aqueous composition with added coffee aroma to produce a coffee beverage powder.
A process for preparing (2-(4-(2-(1-isopropyl-3-methyl-1H-1,2,4-triazol-5-yl)-5,6-dihydrobenzo[f]imidazo[1,2-d][1,4]oxazepin-9-yl)-1H-pyrazol-1-yl)-2-methylpropanamide I, having the structure: and stereoisomers, geometric isomers, tautomers, and pharmaceutically acceptable salts thereof, comprising: (a) reacting IV and 4,4,4',4',5,5,5',5'-octamethyl-2,2'-bi(1,3,2-dioxaborolane) to form 22 (b) reacting 22, a palladium catalyst, and III to form 23 (c) reacting 23 with an aqueous basic reagent to form II and (d) reacting II with an acyl activating reagent, followed by ammonia to give I, wherein III is prepared by reacting 28 with N'-isopropylacetohydrazonamide 6 to form III wherein IV is prepared by reacting 17: with a brominating reagent, and wherein (i) steps (a) and (b) or (ii) steps (a) to (c) are conducted as one pot process. (a) reacting IV and 4,4,4',4',5,5,5',5'-octamethyl-2,2'-bi(1,3,2-dioxaborolane) to form 22 (b) reacting 22, a palladium catalyst, and III to form 23 (c) reacting 23 with an aqueous basic reagent to form II and (d) reacting II with an acyl activating reagent, followed by ammonia to give I, wherein III is prepared by reacting 28 with N'-isopropylacetohydrazonamide 6 to form III wherein IV is prepared by reacting 17: with a brominating reagent, and wherein (i) steps (a) and (b) or (ii) steps (a) to (c) are conducted as one pot process.
An ankle protecting device, comprising: a wrapping sheath having a lower-leg sheath, a foot sheath and a loincloth that are integrated with thereof, the loincloth constricting the wrapping sheath on a sole, an ankle and a lower leg and being adjustable for tightness thereof, the lower-leg sheath of the wrapping sheath has a back surface, a left side surface and a right side surface in order to wrap around the back side, the inner side and the outer side of the lower leg, the foot sheath of the wrapping sheath having a bottom portion, a left side portion and a right side portion in order to wrap around the bottom portion, the inner side and the outer side of the sole, the connecting position of the back surface of the lower-leg sheath and the bottom portion of the foot sheath having a heel positioning hole, the number of the loincloth can be plural, the loincloth being a flat ribbon fabric with a Velcro® thereon and winding around the peripheries of the lower-leg sheath and the foot sheath; characterised by an internal supporting plate and an outer supporting plate fastened on the left and right sides of the wrapping sheath respectively, the shapes of the internal supporting plate and the outer supporting plate being symmetrical to each other, the internal supporting plate and the outer supporting plate elongating to be over the ankle along the internal and outer sides of the lower leg and then to the two sides of the sole toward the top of the sole; and a foot bottom supporting plate fastened on the bottom of the foot sheath. a wrapping sheath having a lower-leg sheath, a foot sheath and a loincloth that are integrated with thereof, the loincloth constricting the wrapping sheath on a sole, an ankle and a lower leg and being adjustable for tightness thereof, the lower-leg sheath of the wrapping sheath has a back surface, a left side surface and a right side surface in order to wrap around the back side, the inner side and the outer side of the lower leg, the foot sheath of the wrapping sheath having a bottom portion, a left side portion and a right side portion in order to wrap around the bottom portion, the inner side and the outer side of the sole, the connecting position of the back surface of the lower-leg sheath and the bottom portion of the foot sheath having a heel positioning hole, the number of the loincloth can be plural, the loincloth being a flat ribbon fabric with a Velcro® thereon and winding around the peripheries of the lower-leg sheath and the foot sheath; characterised by an internal supporting plate and an outer supporting plate fastened on the left and right sides of the wrapping sheath respectively, the shapes of the internal supporting plate and the outer supporting plate being symmetrical to each other, the internal supporting plate and the outer supporting plate elongating to be over the ankle along the internal and outer sides of the lower leg and then to the two sides of the sole toward the top of the sole; and a foot bottom supporting plate fastened on the bottom of the foot sheath.
A User Equipment, UE, comprising: a transmission and reception unit; a controller; and a storage, wherein in a case that the transmission and reception unit receives a control message including a first rejected Network Slice Selection Assistance information, NSSAI, including a Single Network Slice Selection Assistance information, S-NSSAI, and a rejection cause value associated with the S-NSSAI, and in a case that the rejection cause value indicates that the S-NSSAI is not available due to failed or revoked Network Slice-Specific Authentication and Authorization, the controller is configured to store the S-NSSAI included in the first rejected NSSAI into a second rejected NSSAI for failed or revoked Network Slice-Specific Authentication and Authorization in the storage, and the controller is configured to handle the S-NSSAI included in the second rejected NSSAI stored in the storage as information regardless of an access type. a transmission and reception unit; a controller; and a storage, wherein in a case that the transmission and reception unit receives a control message including a first rejected Network Slice Selection Assistance information, NSSAI, including a Single Network Slice Selection Assistance information, S-NSSAI, and a rejection cause value associated with the S-NSSAI, and in a case that the rejection cause value indicates that the S-NSSAI is not available due to failed or revoked Network Slice-Specific Authentication and Authorization, the controller is configured to store the S-NSSAI included in the first rejected NSSAI into a second rejected NSSAI for failed or revoked Network Slice-Specific Authentication and Authorization in the storage, and the controller is configured to handle the S-NSSAI included in the second rejected NSSAI stored in the storage as information regardless of an access type. in a case that the transmission and reception unit receives a control message including a first rejected Network Slice Selection Assistance information, NSSAI, including a Single Network Slice Selection Assistance information, S-NSSAI, and a rejection cause value associated with the S-NSSAI, and in a case that the rejection cause value indicates that the S-NSSAI is not available due to failed or revoked Network Slice-Specific Authentication and Authorization, the controller is configured to store the S-NSSAI included in the first rejected NSSAI into a second rejected NSSAI for failed or revoked Network Slice-Specific Authentication and Authorization in the storage, and the controller is configured to handle the S-NSSAI included in the second rejected NSSAI stored in the storage as information regardless of an access type.