mhurhangee/ep-ind-claims huggingface dataset:
A laundry treating apparatus comprising: a cabinet; a laundry receiving part (2, 3) provided within the cabinet and arranged to store laundry; a water supply part configured to supply a wash water; and a detergent supplier configured to provide a space for storing a detergent, the detergent supplier comprising: a storage body having a first storage part (61, 62) configured to provide a space for storing the detergent, the first storage part configured to communicate with the laundry receiving part (2, 3), and a second storage part (63, 64) configured to provide a space for storing a liquid detergent; a passage body having a water supply passage (77, 79) configured to lead the wash water supplied by the water supply part to the first storage part (61, 62); and a liquid detergent supply part characterized in that said liquid detergent supply part is configured to supply the detergent stored in the second storage part (63, 64) to the water supply passage (77, 79). a cabinet; a laundry receiving part (2, 3) provided within the cabinet and arranged to store laundry; a water supply part configured to supply a wash water; and a detergent supplier configured to provide a space for storing a detergent, the detergent supplier comprising: a storage body having a first storage part (61, 62) configured to provide a space for storing the detergent, the first storage part configured to communicate with the laundry receiving part (2, 3), and a second storage part (63, 64) configured to provide a space for storing a liquid detergent; a passage body having a water supply passage (77, 79) configured to lead the wash water supplied by the water supply part to the first storage part (61, 62); and a liquid detergent supply part characterized in that said liquid detergent supply part is configured to supply the detergent stored in the second storage part (63, 64) to the water supply passage (77, 79). a storage body having a first storage part (61, 62) configured to provide a space for storing the detergent, the first storage part configured to communicate with the laundry receiving part (2, 3), and a second storage part (63, 64) configured to provide a space for storing a liquid detergent; a passage body having a water supply passage (77, 79) configured to lead the wash water supplied by the water supply part to the first storage part (61, 62); and a liquid detergent supply part characterized in that said liquid detergent supply part is configured to supply the detergent stored in the second storage part (63, 64) to the water supply passage (77, 79).
A method for carrier aggregation comprising: determining, by a primary base station, to add a cell of a secondary base station for a user equipment, UE; sending, by the primary base station, a second message to the secondary base station, wherein the second message is used to request the secondary base station to add the cell for the UE and further to request the secondary base station to add a data radio bearer, DRB for the UE, wherein the second message comprises an identifier of the to-be-added cell of the secondary base station, an identifier of the DRB, and bearer parameter corresponding to the DRB; receiving, by the primary base station, a third message from the secondary base station for responding to the second message, wherein the third message comprises configuration information of the to-be-added cell of the secondary base station; and sending, by the primary base station, a first message to the UE, wherein the first message is used to instruct the UE to add the cell, further to add the DRB and associate the DRB to the secondary base station, wherein the first message comprises the configuration information of the to-be-added cell of the secondary base station, the identifier of the DRB, configuration information of the DRB, and, an identifier or index of the secondary base station with which the DRB is associated. determining, by a primary base station, to add a cell of a secondary base station for a user equipment, UE; sending, by the primary base station, a second message to the secondary base station, wherein the second message is used to request the secondary base station to add the cell for the UE and further to request the secondary base station to add a data radio bearer, DRB for the UE, wherein the second message comprises an identifier of the to-be-added cell of the secondary base station, an identifier of the DRB, and bearer parameter corresponding to the DRB; receiving, by the primary base station, a third message from the secondary base station for responding to the second message, wherein the third message comprises configuration information of the to-be-added cell of the secondary base station; and sending, by the primary base station, a first message to the UE, wherein the first message is used to instruct the UE to add the cell, further to add the DRB and associate the DRB to the secondary base station, wherein the first message comprises the configuration information of the to-be-added cell of the secondary base station, the identifier of the DRB, configuration information of the DRB, and, an identifier or index of the secondary base station with which the DRB is associated.
A device for mounting lighting sources, the device including: - a frame insertable into an opening provided in a mounting surface and couplable with at least one electrically-powered light radiation source, and - at least one retain mechanism for retaining the frame at said opening, wherein the retain mechanism includes: - an arm member mounted on the frame tiltable between an insertion condition, wherein the arm member is retracted within the frame to facilitate insertion thereof into said opening, and a retain condition, wherein the arm member protrudes outwardly of the frame to abut against the rim of said opening to retain the frame at said opening, and - an actuator member coupled cam-like with the arm member to maintain the arm member in abutment against the rim of said opening in said retain condition, the actuator member slidable with respect to the frame, wherein the actuator member includes an L-shaped member with a proximal arm slideably coupled with the frame and a distal arm, and wherein the distal arm radially protrudes outwardly of the frame acting on the arm member by exerting an urging action onto the arm member to bring and keep a distal end of the arm member in abutment against the rim of said opening, whereby said retain condition is adjustable by varying the position of the actuator member with respect to the frame, characterized in that the actuator member is mounted on the frame selectively tiltable to a respective insertion condition, wherein the actuator member is retracted within the frame. - a frame insertable into an opening provided in a mounting surface and couplable with at least one electrically-powered light radiation source, and - at least one retain mechanism for retaining the frame at said opening, - an arm member mounted on the frame tiltable between an insertion condition, wherein the arm member is retracted within the frame to facilitate insertion thereof into said opening, and a retain condition, wherein the arm member protrudes outwardly of the frame to abut against the rim of said opening to retain the frame at said opening, and - an actuator member coupled cam-like with the arm member to maintain the arm member in abutment against the rim of said opening in said retain condition, the actuator member slidable with respect to the frame,
A method of producing a nickel alloy clad steel pipe comprising: providing a hollow cylinder of nickel alloy cladding material and a hollow cylinder of steel, wherein the steel is one of carbon steel, low alloy steel, and chrome-molybdenum steel; placing either the hollow cylinder of the nickel alloy cladding material concentrically inside the hollow cylinder of steel, or the hollow cylinder of steel concentrically inside the hollow cylinder of the nickel alloy cladding material to form a composite billet; heating the composite billet to an extrusion temperature of 1121-1260°C; and extruding the heated composite billet into an extrudate, wherein the nickel alloy cladding material comprises 6.0 to 12.0 wt.% molybdenum, 19.0 to 27.0 wt.% chromium, 1.0 wt.% maximum tungsten, 0.6 wt.% maximum aluminum, 0.6 wt.% maximum titanium, 0.001 to 0.05 wt.% carbon, 0.001 to 0.035 wt.% nitrogen, 0.001 to 0.3 wt.% silicon, 1.0 wt.% maximum niobium, 2.5 wt.% maximum iron, 0.5 wt.% maximum manganese, 0.015 wt.% maximum phosphorous, 0.015 wt.% maximum sulfur, 1.0 wt.% maximum cobalt, and the balance nickel and incidental impurities. providing a hollow cylinder of nickel alloy cladding material and a hollow cylinder of steel, wherein the steel is one of carbon steel, low alloy steel, and chrome-molybdenum steel; placing either the hollow cylinder of the nickel alloy cladding material concentrically inside the hollow cylinder of steel, or the hollow cylinder of steel concentrically inside the hollow cylinder of the nickel alloy cladding material to form a composite billet; heating the composite billet to an extrusion temperature of 1121-1260°C; and extruding the heated composite billet into an extrudate, wherein the nickel alloy cladding material comprises 6.0 to 12.0 wt.% molybdenum, 19.0 to 27.0 wt.% chromium, 1.0 wt.% maximum tungsten, 0.6 wt.% maximum aluminum, 0.6 wt.% maximum titanium, 0.001 to 0.05 wt.% carbon, 0.001 to 0.035 wt.% nitrogen, 0.001 to 0.3 wt.% silicon, 1.0 wt.% maximum niobium, 2.5 wt.% maximum iron, 0.5 wt.% maximum manganese, 0.015 wt.% maximum phosphorous, 0.015 wt.% maximum sulfur, 1.0 wt.% maximum cobalt, and the balance nickel and incidental impurities.
A composition for detecting a strain of Clostridium difficile, the composition comprising at least one primer set selected from (a) a primer set comprising (i) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 1, and (ii) a primer comprising at least 10 consecutive nucleotides selected from the nucleotide sequence of SEQ ID NO: 2; and (b) a primer set comprising (i) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 4 and (ii) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 5. (a) a primer set comprising (i) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 1, and (ii) a primer comprising at least 10 consecutive nucleotides selected from the nucleotide sequence of SEQ ID NO: 2; and (b) a primer set comprising (i) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 4 and (ii) a primer comprising at least 10 consecutive nucleotides of SEQ ID NO: 5.
A method for uplink transmission by a user equipment, UE, comprising: receiving an uplink grant for data transmission on an uplink channel, wherein the uplink grant includes a first resource block interlace assignment; determining a resource block for sending a channel usage beacon signal, CUBS, over a contention-based spectrum based on the assignment included in the uplink grant, wherein the CUBS reserves the uplink channel for the data transmission and indicates that the data transmission will follow in a subframe subsequent to that in which the CUBS is to be sent, according to the assignment; and transmitting, in response to a successful clear channel assessment on the uplink channel, the CUBS in the subframe that directly precedes the subsequent subframe for the data transmission. receiving an uplink grant for data transmission on an uplink channel, wherein the uplink grant includes a first resource block interlace assignment; determining a resource block for sending a channel usage beacon signal, CUBS, over a contention-based spectrum based on the assignment included in the uplink grant, wherein the CUBS reserves the uplink channel for the data transmission and indicates that the data transmission will follow in a subframe subsequent to that in which the CUBS is to be sent, according to the assignment; and transmitting, in response to a successful clear channel assessment on the uplink channel, the CUBS in the subframe that directly precedes the subsequent subframe for the data transmission.
A nanoparticle formulation suitable for the delivery of one or more therapeutic agents, the formulation comprising: i) a cationic cholesterol derivative; ii) a neutral phospholipid; iii) cholesterol or a neutral cholesterol derivative; and iv) a saturated fatty acid, PEGylated neutral derivative of phosphatidylethanolamine or phosphatidylcholine, and further comprising one or more therapeutic agents comprising at least one short-chain fatty acid which is an aliphatic carboxylic acid composed of 1 to 6 carbon atoms. i) a cationic cholesterol derivative; ii) a neutral phospholipid; iii) cholesterol or a neutral cholesterol derivative; and iv) a saturated fatty acid, PEGylated neutral derivative of phosphatidylethanolamine or phosphatidylcholine,
A medical device, comprising: an elongate member having a proximal end and a distal end; a lumen disposed through the elongate member; an opening disposed at the distal end of the elongate member in communication with the lumen; a pushing element disposed within the lumen; a plurality of fiducials disposed within the lumen and distal to the pushing element, wherein adjacent fiducials of the plurality of fiducials are disposed within compartments separated by spacers; and a separating mechanism disposed at the distal end of the elongate member, the separating mechanism configured to apply a separating force to deploy one fiducial of the plurality of fiducials disposed within the lumen as other fiducials of the plurality of fiducials remain disposed within the lumen. an elongate member having a proximal end and a distal end; a lumen disposed through the elongate member; an opening disposed at the distal end of the elongate member in communication with the lumen; a pushing element disposed within the lumen; a plurality of fiducials disposed within the lumen and distal to the pushing element, wherein adjacent fiducials of the plurality of fiducials are disposed within compartments separated by spacers; and a separating mechanism disposed at the distal end of the elongate member, the separating mechanism configured to apply a separating force to deploy one fiducial of the plurality of fiducials disposed within the lumen as other fiducials of the plurality of fiducials remain disposed within the lumen.
A method of preparing a stringer or stiffener and panel lay-up comprising the steps of a. providing a stringer preform, a panel preform, a filler and a mould (307,401), the mould (307,401) being adapted to define an inner surface of a stringer and configured to control filler placement and/or filler shape and/or filler volume, and the stringer preform and the panel preform each comprising a reinforcement material; b. arranging the stringer preform to contact the mould (307, 401), c. placing filler material between the mould (307, 401) surface and stringer preform, d. bringing the reinforcement material of the stringer preform into contact with the panel preform, and e. removing the mould (307, 401) and replacing said mould (307, 401) with an inflatable bladder; wherein the filler material comprises dry fibre, prepreg, or cured composite material; and further wherein steps b, c and d are performed in sequence, with step b preceding steps c and d, and preferably step c preceding step d; and step e is carried out after step c. a. providing a stringer preform, a panel preform, a filler and a mould (307,401), the mould (307,401) being adapted to define an inner surface of a stringer and configured to control filler placement and/or filler shape and/or filler volume, and the stringer preform and the panel preform each comprising a reinforcement material; b. arranging the stringer preform to contact the mould (307, 401), c. placing filler material between the mould (307, 401) surface and stringer preform, d. bringing the reinforcement material of the stringer preform into contact with the panel preform, and e. removing the mould (307, 401) and replacing said mould (307, 401) with an inflatable bladder;
A sound signal processing method comprising: receiving a sound signal generating an early reflection sound control signal that reproduces an early reflection sound and a reverberant sound control signal that reproduces a reverberant sound from the sound signal; controlling a volume of the sound signal and distributing the sound signal to generate a direct sound control signal that reproduces a direct sound; mixing the direct sound control signal, the early reflection sound control signal, and the reverberant sound control signal to generate an output signal; the method being characterized in obtaining a first impulse response of an early reflection sound excluding a direct sound and a reverberant sound and measured in advance in a space and a second impulse response of the reverberant sound excluding the direct sound and the early reflection sound and measured in advance in the space; convolving the first impulse response with the sound signal to generate the early reflection sound control signal; and convolving second the impulse response with the sound signal to generate the reverberant sound control signal wherein the sound signal includes a first sound signal to be convolved with the first impulse response and a second sound signal to be convolved with the second impulse response; the first sound signal is received from a directional microphone (11A, 11B, 11C); and wherein the second sound signal is received from an omnidirectional microphone (12A, 12B, 12C). receiving a sound signal generating an early reflection sound control signal that reproduces an early reflection sound and a reverberant sound control signal that reproduces a reverberant sound from the sound signal; controlling a volume of the sound signal and distributing the sound signal to generate a direct sound control signal that reproduces a direct sound; mixing the direct sound control signal, the early reflection sound control signal, and the reverberant sound control signal to generate an output signal; the method being characterized in obtaining a first impulse response of an early reflection sound excluding a direct sound and a reverberant sound and measured in advance in a space and a second impulse response of the reverberant sound excluding the direct sound and the early reflection sound and measured in advance in the space; convolving the first impulse response with the sound signal to generate the early reflection sound control signal; and convolving second the impulse response with the sound signal to generate the reverberant sound control signal wherein the sound signal includes a first sound signal to be convolved with the first impulse response and a second sound signal to be convolved with the second impulse response; the first sound signal is received from a directional microphone (11A, 11B, 11C); and wherein the second sound signal is received from an omnidirectional microphone (12A, 12B, 12C).
A system, comprising: a flight management computer suitable for being in communication with a trajectory generator and a speed profile generator, the flight management computer configured to: receive a first time of arrival (RTA 1) at a first target waypoint (WPT 1) of an aircraft during flight and a second time of arrival (RTA 2) at a second target waypoint (WPT 2) of the aircraft during the flight, the second target waypoint (WPT 2) being different than the first target waypoint (WPT 1) and both first target waypoint (WPT 1) and second target waypoint (WPT 2) corresponding to a descent phase of the flight; determine a first set of cruise speed and descent speed pairs corresponding to the first time of arrival (RTA 1), the first set satisfying the first time of arrival (RTA 1) at the first target waypoint (WPT 1); determine a second set of cruise speed and descent speed pairs corresponding to the second time of arrival (RTA 2), the second set satisfying the second time of arrival (RTA 2) at the second target waypoint (WPT 2); select a cruise speed and descent speed pair existing in each one of the first and second sets; determine an aircraft trajectory that satisfies the selected cruise speed and descent speed pair; and cause at least one of: 1) the aircraft to travel along the aircraft trajectory or 2) the aircraft trajectory to be displayed. receive a first time of arrival (RTA 1) at a first target waypoint (WPT 1) of an aircraft during flight and a second time of arrival (RTA 2) at a second target waypoint (WPT 2) of the aircraft during the flight, the second target waypoint (WPT 2) being different than the first target waypoint (WPT 1) and both first target waypoint (WPT 1) and second target waypoint (WPT 2) corresponding to a descent phase of the flight; determine a first set of cruise speed and descent speed pairs corresponding to the first time of arrival (RTA 1), the first set satisfying the first time of arrival (RTA 1) at the first target waypoint (WPT 1); determine a second set of cruise speed and descent speed pairs corresponding to the second time of arrival (RTA 2), the second set satisfying the second time of arrival (RTA 2) at the second target waypoint (WPT 2); select a cruise speed and descent speed pair existing in each one of the first and second sets; determine an aircraft trajectory that satisfies the selected cruise speed and descent speed pair; and cause at least one of: 1) the aircraft to travel along the aircraft trajectory or 2) the aircraft trajectory to be displayed.
Carbon black wherein pores which are at most 6 nm in pore diameter have a cumulative pore volume of less than 0.25 cm 3 /g, a specific surface area by BET is 500 to 900 m 2 /g, and a volatile matter content is 1.0 to 10.0%.
Blade for a propeller of a turbine engine, in particular of the unducted-fan type, comprising a protrusion on its leading edge, characterised in that it comprises means (20, 21) for adjusting the position of the protrusion along its leading edge.