mhurhangee/ep-ind-claims huggingface dataset:
Method for identifying an oligonucleotide capable of modulating the immune system in a mammalian subject comprising analyzing the amount of non-G-quadruplex dimer type said oligonucleotide adopts, in phosphate-buffered saline solution; wherein the amount of non-G-quadruplex dimer type is estimated by quantifying against the tertiary structural type of a reference oligonucleotide that adopts, in phosphate-buffered saline solution, non-G-quadruplex dimer type.
A docking station for a portable terminal, the docking station comprising: a body configured with a connection member for removably connecting the portable terminal to the body, the connection member comprising connection terminals, a pair of hinge lugs extending from a pair of opposite ends of the connection member, respectively, a pair of support members mounted within an inside portion of the body, each of the pair of support members being configured to wrap one of the pair of hinge lugs, a pair of hinge holes formed in the pair of support members to receive the pair of hinge lugs, respectively, and a pair of stoppers formed along the opposite lateral sides of the connection member, wherein the pair of hinge lugs are wrapped by and rotatably coupled to the pair of support members, respectively, wherein a diameter of each of the pair of hinge holes is larger than a cross-sectional diameter of each the pair of hinge lugs so that the pair of hinge lugs are movable in the pair of hinge holes and the connection member is rotatable and movable up and down, left and right with respect to the docking station within an angular range limited by the stoppers. a body configured with a connection member for removably connecting the portable terminal to the body, the connection member comprising connection terminals, a pair of hinge lugs extending from a pair of opposite ends of the connection member, respectively, a pair of support members mounted within an inside portion of the body, each of the pair of support members being configured to wrap one of the pair of hinge lugs, a pair of hinge holes formed in the pair of support members to receive the pair of hinge lugs, respectively, and a pair of stoppers formed along the opposite lateral sides of the connection member, wherein the pair of hinge lugs are wrapped by and rotatably coupled to the pair of support members, respectively, wherein a diameter of each of the pair of hinge holes is larger than a cross-sectional diameter of each the pair of hinge lugs so that the pair of hinge lugs are movable in the pair of hinge holes and the connection member is rotatable and movable up and down, left and right with respect to the docking station within an angular range limited by the stoppers.
A method for encoding an audio signal with variable bitrate, the method comprising: receiving an audio signal to be encoded, the audio signal comprising a plurality of successive audio frames; for each successive audio frame of the audio signal: representing the audio frame in a frequency domain with respect to a plurality of frequency sub-bands; characterised by classifying the audio frame in each frequency sub-band as either background or foreground using a background model specific to the frequency sub-band; encoding each successive audio frame of the audio signal, wherein a number of bits is allocated for each frequency sub-band of the audio frame, wherein the number of bits allocated for a frequency sub-band is higher if the audio frame is classified as foreground in the frequency sub-band than if the audio frame is classified as background in the frequency sub-band. receiving an audio signal to be encoded, the audio signal comprising a plurality of successive audio frames; for each successive audio frame of the audio signal: representing the audio frame in a frequency domain with respect to a plurality of frequency sub-bands; characterised by classifying the audio frame in each frequency sub-band as either background or foreground using a background model specific to the frequency sub-band; representing the audio frame in a frequency domain with respect to a plurality of frequency sub-bands; characterised by classifying the audio frame in each frequency sub-band as either background or foreground using a background model specific to the frequency sub-band; encoding each successive audio frame of the audio signal, wherein a number of bits is allocated for each frequency sub-band of the audio frame, wherein the number of bits allocated for a frequency sub-band is higher if the audio frame is classified as foreground in the frequency sub-band than if the audio frame is classified as background in the frequency sub-band.
A method, of a network node (50, 50'), for providing, in a control plane for a terminal, connection management for at least a first network access entity and a second network access entity, wherein said at least first network access entity and second network access entity providing radio access for user plane data transfer for said terminal and being connectable to said network node, wherein said terminal being capable of having radio access to said at least first network access entity and second network access entity for user plane data transfer, the method comprising terminating at least one control plane signaling connection from said terminal for said at least first network access entity and second network access entity, maintaining a common terminal related access stratum context for radio accesses of said terminal to said at least first network access entity and second network access entity, and initiating switching of said radio access of said terminal from said first network access entity to said second network access entity for user plane data transfer with said control plane signaling connection for said second network access entity being applied unchanged. the method comprising terminating at least one control plane signaling connection from said terminal for said at least first network access entity and second network access entity, maintaining a common terminal related access stratum context for radio accesses of said terminal to said at least first network access entity and second network access entity, and initiating switching of said radio access of said terminal from said first network access entity to said second network access entity for user plane data transfer with said control plane signaling connection for said second network access entity being applied unchanged.
A stroke-variable engine comprising: a main connecting rod connected at one end to a piston through a piston pin; a subsidiary connecting rod which is connected to a crankpin (27c; 77c) of a crankshaft rotatably supported in a crankcase of an engine body and which is connected to the other end of the main connecting rod; a control rod connected at one end to the subsidiary connecting rod at a position offset from a connected position of the main connecting rod; and a pivot shaft which is rotatably supported in the engine body so as to be rotatable about an eccentric axis parallel to the crankshaft and which is connected to the other end of the control rod so that a rotational power reduced at a reduction ratio of 1/2 is transmitted from the crankshaft to the pivot shaft, wherein a camshaft of a valve-operating mechanism is mounted at a portion of the engine body, characterized in that the camshaft is mounted at an upper portion of the engine body, wherein a timing transmitting means for transmitting the rotational power of the crankshaft at a reduction ratio of 1/2 is mounted between the camshaft of the valve-operating mechanism and the crankshaft; and the pivot shaft having an axis eccentric from the rotational axis of the camshaft is provided on the camshaft. a main connecting rod connected at one end to a piston through a piston pin; a subsidiary connecting rod which is connected to a crankpin (27c; 77c) of a crankshaft rotatably supported in a crankcase of an engine body and which is connected to the other end of the main connecting rod; a control rod connected at one end to the subsidiary connecting rod at a position offset from a connected position of the main connecting rod; and a pivot shaft which is rotatably supported in the engine body so as to be rotatable about an eccentric axis parallel to the crankshaft and which is connected to the other end of the control rod so that a rotational power reduced at a reduction ratio of 1/2 is transmitted from the crankshaft to the pivot shaft, wherein a camshaft of a valve-operating mechanism is mounted at a portion of the engine body, characterized in that the camshaft is mounted at an upper portion of the engine body, wherein a timing transmitting means for transmitting the rotational power of the crankshaft at a reduction ratio of 1/2 is mounted between the camshaft of the valve-operating mechanism and the crankshaft; and the pivot shaft having an axis eccentric from the rotational axis of the camshaft is provided on the camshaft.
Vehicle front, preferably lorry front or bus front, with a front outer skin, a windscreen and a ladder, wherein the ladder can be mounted in a manner secured on the vehicle by means of a ladder base (4.1) and a user can reach the windscreen from the outside via the ladder, characterized in that the ladder is displaceable in the transverse direction of the vehicle front via a guide system secured on the vehicle.
A wiring harness, comprising a conduit member which accommodates therein one or a plurality of conductor lines, and an identifying portion colored in a predetermined color and given a predetermined thickness and a non-identifying portion defined as a portion where the identifying portion is not provided circumferentially, the identifying portion and the non-identifying portion being provided on an outer surface of the conduit member, wherein a retrofit member is attached to the non-identifying portion, and a level difference produced between the identifying portion and the non-identifying portion functions as a position restricting portion for the retrofit member.
A riding grass mower comprising: a mower device disposed under a traveling machine body; a rollover protection structure (ROPS) standing erect at a rear end portion of the traveling machine body; a grass collecting container detachably supported by the ROPS; and a plurality of hydraulic cylinders (53, 54) for effecting lifting up/down and posture changing of the grass collecting container; wherein a pressure oil feeding/discharging passage extends from a pressure oil feeding source mounted on the traveling machine body side to the plurality of hydraulic cylinders (53, 54); a coupler being configured to connect/disconnect the pressure oil feeding/discharging passage; characterized in that in the pressure oil feeding/discharging passage, an electromagnetic valve is supported by the grass collecting container for feeding/discharging pressure oil to/from the plurality of hydraulic cylinders (53, 54), and the coupler is provided between the pressure oil feeding source and the electromagnetic valve. a mower device disposed under a traveling machine body; a rollover protection structure (ROPS) standing erect at a rear end portion of the traveling machine body; a grass collecting container detachably supported by the ROPS; and a plurality of hydraulic cylinders (53, 54) for effecting lifting up/down and posture changing of the grass collecting container; wherein a pressure oil feeding/discharging passage extends from a pressure oil feeding source mounted on the traveling machine body side to the plurality of hydraulic cylinders (53, 54); a coupler being configured to connect/disconnect the pressure oil feeding/discharging passage; characterized in that in the pressure oil feeding/discharging passage, an electromagnetic valve is supported by the grass collecting container for feeding/discharging pressure oil to/from the plurality of hydraulic cylinders (53, 54), and the coupler is provided between the pressure oil feeding source and the electromagnetic valve.
A method for separation of submicron particles of illite mineral from illite clay, comprising the following steps: (i) mixing of illite clay in dispersant aqueous solution or mixing of illite clay and dispersant in water, wherein the dispersant is a pyrophosphate or polyphosphate and weight ratio of illite clay, water and dispersant is from 1:8:0.05 to 1:16:0.15; (ii) sedimentation of the resultant suspension, preferably so long to precipitate particles which are larger than one micron and the rest of the ballast; (iii) addition of a coagulant composition formed from a saturated solution of hydrazine hydrogen chloride, hydrochloride acid and acetone in weight ratio from 1:1:4 to 1:1:6 to the resultant suspension; (iv) separation of submicron particles of illite mineral from the solution, containing the potential dispersant and coagulant residues. (i) mixing of illite clay in dispersant aqueous solution or mixing of illite clay and dispersant in water, wherein the dispersant is a pyrophosphate or polyphosphate and weight ratio of illite clay, water and dispersant is from 1:8:0.05 to 1:16:0.15; (ii) sedimentation of the resultant suspension, preferably so long to precipitate particles which are larger than one micron and the rest of the ballast; (iii) addition of a coagulant composition formed from a saturated solution of hydrazine hydrogen chloride, hydrochloride acid and acetone in weight ratio from 1:1:4 to 1:1:6 to the resultant suspension; (iv) separation of submicron particles of illite mineral from the solution, containing the potential dispersant and coagulant residues.
A method for measuring a current comprising the steps of sending left and right circularly polarized light waves at least once along a sensing fiber extending around said current, passing said right and left circularly polarized light waves through an optical retarder for generating two orthogonally linearly polarized returning light waves, sending a first part of said returning light waves to a first detector, a second part of said returning light waves to a second detector, characterized by the step of sending a third part of said returning light waves to a third detector, wherein said first part of said returning light is passed through a first circular analyzer (15a, 15b) before impinging on said first detector, wherein said second part of said returning light waves is passed through a second circular analyzer (17a, 17b) before impinging on said second detector and having a polarization opposite to said first circular analyzer (15a, 15b), and wherein said third part of said returning light waves is passed through a linear analyzer before impinging on said third detector, wherein said first detector generates a signal I + and said second detector generates a signal I - and said third detector generates a signal I L, and knowledge of the three signals I +, I -, I L allows to obtain the current even if the values for fringe visibility V and arriving optical power I 0 are not known in advance.
A method of setting up a secure path in a network for establishing a secure communication session between a first endpoint that connects to the network via a first access node of the network and a second endpoint that connects to the network via a second access node of the network, said method characterized by the steps of: sending a first message from the first access node to the second access node, said first message propagated by one or more intermediate nodes in said network establishing a path through said network, and wherein each said intermediate node stores a hint token included in the first message that is derived from cryptographic information to be used for said secure communication session; sending a second message from the second access node to the first access node, in response to the second access node receiving the propagated first message, said second message including a disclosure token verifiable using the hint token, and said second message conditionally propagated by each intermediate node back towards the first access node based on the intermediate node verifying the disclosure token via the hint token stored at the intermediate node; and indicating to the first endpoint that said path has been established as said secure path, responsive to receiving and verifying the second message at the first access node. sending a first message from the first access node to the second access node, said first message propagated by one or more intermediate nodes in said network establishing a path through said network, and wherein each said intermediate node stores a hint token included in the first message that is derived from cryptographic information to be used for said secure communication session; sending a second message from the second access node to the first access node, in response to the second access node receiving the propagated first message, said second message including a disclosure token verifiable using the hint token, and said second message conditionally propagated by each intermediate node back towards the first access node based on the intermediate node verifying the disclosure token via the hint token stored at the intermediate node; and indicating to the first endpoint that said path has been established as said secure path, responsive to receiving and verifying the second message at the first access node.
A method which is executed by a mobile station for autonomous uplink transmission, in which a scheduling grant from a network is not required, and in which autonomous uplink transmissions are transmissible in one or more air interface transmission time intervals by a Medium Access Control entity of the mobile station, the method comprising: determining, in addition to said air interface transmission time interval, a virtual transmission time interval for the Medium Access Control entity, which virtual transmission time interval defines a minimum time interval between a first autonomous uplink transmission and a subsequent first autonomous uplink transmission, and which virtual transmission time interval is a multiple of the air interface transmission time interval, wherein, when the Medium Access Control entity is not able to empty a buffer of the Radio Link Control layer in a first said air interface transmission time interval, the method comprises checking the buffer for the next said air interface transmission time interval. determining, in addition to said air interface transmission time interval, a virtual transmission time interval for the Medium Access Control entity, which virtual transmission time interval defines a minimum time interval between a first autonomous uplink transmission and a subsequent first autonomous uplink transmission, and which virtual transmission time interval is a multiple of the air interface transmission time interval, wherein, when the Medium Access Control entity is not able to empty a buffer of the Radio Link Control layer in a first said air interface transmission time interval, the method comprises checking the buffer for the next said air interface transmission time interval.
A platform (70; 170) for a gas turbine engine comprising: a platform body (70A; 170A) including a gas path surface extending axially between a leading edge (70LE; 170LE) and a trailing edge (70TE; 170TE) and extending circumferentially between opposed mate faces (70M; 170M); a plurality of platform flanges (70B; 170B) extending from the platform body (70A; 170A) to define one or more slots, the one or more slots dimensioned to receive a respective flange of a rotatable hub, and each platform flange (70B; 170B) includes a retention member (73; 173) dimensioned to receive a retention pin (71; 171) to mount the platform body (70A; 170A); wherein the platform body (70A; 170A) includes a composite wrap (70E; 170E) extending about a perimeter of the platform body (70A; 170A) to define an internal cavity (70F; 170F); and characterized in that the platform body comprises at least one honeycomb core (74; 174) including a plurality of cells that is disposed in the internal cavity (70F; 170F). a platform body (70A; 170A) including a gas path surface extending axially between a leading edge (70LE; 170LE) and a trailing edge (70TE; 170TE) and extending circumferentially between opposed mate faces (70M; 170M); a plurality of platform flanges (70B; 170B) extending from the platform body (70A; 170A) to define one or more slots, the one or more slots dimensioned to receive a respective flange of a rotatable hub, and each platform flange (70B; 170B) includes a retention member (73; 173) dimensioned to receive a retention pin (71; 171) to mount the platform body (70A; 170A); wherein the platform body (70A; 170A) includes a composite wrap (70E; 170E) extending about a perimeter of the platform body (70A; 170A) to define an internal cavity (70F; 170F); and characterized in that the platform body comprises at least one honeycomb core (74; 174) including a plurality of cells that is disposed in the internal cavity (70F; 170F).
A method for producing a carbonaceous luminescent material that, when exposed to excitation light having a wavelength of 300 to 600 nm, emits light having a wavelength of 550 to 700 nm, which method comprises the step of mixing together and heating an ascorbic acid-containing starting material, an acid catalyst and a solvent, wherein the acid catalyst contains an inorganic acid which is at least one selected from the group consisting of phosphoric acid, polyphosphoric acid, hydrochloric acid and hydrofluoric acid, and the solvent consists of from 100 to 1,000 parts by weight water per 100 parts by weight starting material.
A polymeric reagent of Formula V: wherein: POLY 1 is a first poly(ethylene glycol) having a molecular weight in the range of greater than 5,000 Daltons to 100,000 Daltons; POLY 2 is a second poly(ethylene glycol) having a molecular weight in the range of greater than 5,000 Daltons to 100,000 Daltons; X 1 is a first spacer moiety; X 2 is a second spacer moiety; H is an ionizable hydrogen atom; R 1 is H or an organic radical; R 2 is H or an organic radical; (a) is either zero or one; (b) is either zero or one; R e1, when present, is a first electron altering group; R e2, when present, is a second electron altering group; and is a functional group capable of reacting with an amino group of an active agent to form a degradable linkage. POLY 1 is a first poly(ethylene glycol) having a molecular weight in the range of greater than 5,000 Daltons to 100,000 Daltons; POLY 2 is a second poly(ethylene glycol) having a molecular weight in the range of greater than 5,000 Daltons to 100,000 Daltons; X 1 is a first spacer moiety; X 2 is a second spacer moiety; H is an ionizable hydrogen atom; R 1 is H or an organic radical; R 2 is H or an organic radical; (a) is either zero or one; (b) is either zero or one; (a) is either zero or one; (b) is either zero or one; R e1, when present, is a first electron altering group; R e2, when present, is a second electron altering group; and is a functional group capable of reacting with an amino group of an active agent to form a degradable linkage.
A method of bowed rotor start response damping for a gas turbine engine, the method comprising: selectively modifying a spring rate and a damping characteristic of one or more bearing supports in the gas turbine engine by controlling a release of pressurized oil from an accumulator comprising a pressurizing reservoir having a variable volume while a shaft of the gas turbine engine rotates below a rotational speed which adversely affects the gas turbine engine during a bowed rotor condition of the gas turbine engine. selectively modifying a spring rate and a damping characteristic of one or more bearing supports in the gas turbine engine by controlling a release of pressurized oil from an accumulator comprising a pressurizing reservoir having a variable volume while a shaft of the gas turbine engine rotates below a rotational speed which adversely affects the gas turbine engine during a bowed rotor condition of the gas turbine engine.