mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device for decoding a video bitstream, the electronic device configured to: receive a bitstream; decode a portion of the bitstream to produce a decoded reference picture; determine a designated picture; track the decoded reference picture in a decoded picture buffer (DPB) based on a designated picture, wherein tracking the decoded reference picture comprises: determine a picture order count (POC) based on the designated picture; receive a wrap indicator from an encoder indicating a transition between two sets of pictures, the wrap indicator being a one bit flag; determine a current picture order count cycle parameter based on the designated picture, wherein the picture order count cycle parameter references sets of pictures including reference pictures, and wherein determining the current picture order count cycle parameter includes updating a previous picture order count cycle parameter after receiving the wrap indicator; obtain the decoded reference picture according to the POC and the picture order count cycle parameter; and decode a picture based on the decoded reference picture. receive a bitstream; decode a portion of the bitstream to produce a decoded reference picture; determine a designated picture; track the decoded reference picture in a decoded picture buffer (DPB) based on a designated picture, wherein tracking the decoded reference picture comprises: determine a picture order count (POC) based on the designated picture; receive a wrap indicator from an encoder indicating a transition between two sets of pictures, the wrap indicator being a one bit flag; determine a current picture order count cycle parameter based on the designated picture, wherein the picture order count cycle parameter references sets of pictures including reference pictures, and wherein determining the current picture order count cycle parameter includes updating a previous picture order count cycle parameter after receiving the wrap indicator; obtain the decoded reference picture according to the POC and the picture order count cycle parameter; and decode a picture based on the decoded reference picture. determine a picture order count (POC) based on the designated picture; receive a wrap indicator from an encoder indicating a transition between two sets of pictures, the wrap indicator being a one bit flag; determine a current picture order count cycle parameter based on the designated picture, wherein the picture order count cycle parameter references sets of pictures including reference pictures, and wherein determining the current picture order count cycle parameter includes updating a previous picture order count cycle parameter after receiving the wrap indicator; obtain the decoded reference picture according to the POC and the picture order count cycle parameter; and decode a picture based on the decoded reference picture.
A drive unit provided in an electric-assist bicycle capable of traveling with a combination of human driving force received from pedals as pedal force and auxiliary driving force generated by a motor the drive unit comprising: a crank shaft rotated by the human driving force; a resultant force transmitter rotatable by resultant force generated by a combination of the human driving force and the auxiliary driving force; a driving force output wheel body to which rotation of the resultant force transmitter is transmitted; and a transmission mechanism that has a plurality of selectable gear positions with different gear ratios, and transmits driving force to the resultant force transmitter , wherein the crank shaft and a resultant, force transmission shaft are coaxially provided, the transmission mechanism includes a plurality of transmission gears including a low-speed position transmission gear and a high-speed position transmission gear , a high-speed position clutch capable of transmitting driving force of the high-speed position transmission gear to the resultant force transmitter , characterised by clutch switch body engageable to and disengageable from the high-speed position clutch and shifted in accordance with a selected gear position, and a force applying mechanism is provided to apply force from the clutch switch body to the high-speed position clutch to switch a state of the high-speed position clutch from a connection state connected to the resultant force transmitter to a disconnection state disconnected from the resultant force transmitter when the clutch switch body contacts the high-speed position clutch . a crank shaft rotated by the human driving force; a resultant force transmitter rotatable by resultant force generated by a combination of the human driving force and the auxiliary driving force; a driving force output wheel body to which rotation of the resultant force transmitter is transmitted; and a transmission mechanism that has a plurality of selectable gear positions with different gear ratios, and transmits driving force to the resultant force transmitter , wherein the crank shaft and a resultant, force transmission shaft are coaxially provided, the transmission mechanism includes a plurality of transmission gears including a low-speed position transmission gear and a high-speed position transmission gear , a high-speed position clutch capable of transmitting driving force of the high-speed position transmission gear to the resultant force transmitter , characterised by clutch switch body engageable to and disengageable from the high-speed position clutch and shifted in accordance with a selected gear position, and a force applying mechanism is provided to apply force from the clutch switch body to the high-speed position clutch to switch a state of the high-speed position clutch from a connection state connected to the resultant force transmitter to a disconnection state disconnected from the resultant force transmitter when the clutch switch body contacts the high-speed position clutch .
A feed-through connector assembly for coupling a fiber optic cable with a connection point, the feed-through connector assembly comprising: a duct configured to slidingly receive a fiber optic cable that is pushed or pulled through the duct ; a cable connector comprising a connector body at a first end of the cable connector and extending in a longitudinal direction, the connector body defining a first longitudinal conduit configured to receive the duct ; a connector housing at a second end of the feed-through connector, the connector housing being configured to couple the fiber optic cable to a connection point; and a fiber optic connector configured to terminate the fiber optic cable , characterized in that the cable connector further comprises: a compression fitting configured to be received about a first end of the connector body and to slide relative to the connector body in the longitudinal direction to radially compress the first end of the connector body to grip the duct , and wherein an end of the duct is configured to be inserted into the compression fitting . a duct configured to slidingly receive a fiber optic cable that is pushed or pulled through the duct ; a cable connector comprising a connector body at a first end of the cable connector and extending in a longitudinal direction, the connector body defining a first longitudinal conduit configured to receive the duct ; a connector housing at a second end of the feed-through connector, the connector housing being configured to couple the fiber optic cable to a connection point; and a fiber optic connector configured to terminate the fiber optic cable , characterized in that the cable connector further comprises: a compression fitting configured to be received about a first end of the connector body and to slide relative to the connector body in the longitudinal direction to radially compress the first end of the connector body to grip the duct , and wherein an end of the duct is configured to be inserted into the compression fitting . a compression fitting configured to be received about a first end of the connector body and to slide relative to the connector body in the longitudinal direction to radially compress the first end of the connector body to grip the duct , and wherein an end of the duct is configured to be inserted into the compression fitting .
Rail vehicle having a coupling which is arranged centrally in the region of its front and is mounted in a transversely running crossmember , wherein forces acting on the coupling are introduced, via the crossmember , into abutments which are supported on a front side of a body of the rail vehicle, wherein the crossmember is connected to one of the abutments via at least one elastic energy-absorption arrangement , characterized in that the elastic energy-absorption arrangement is arranged on a connecting rod which runs horizontally in the longitudinal direction of the rail vehicle and is fixed to an associated abutment , wherein the connecting rod passes through an opening in a retaining portion of the crossmember and the elastic energy-absorption arrangement is designed for lateral abutment against the retaining portion , and the crossmember is guided vertically and/or laterally in relation to the abutments via the connecting rods .
An oral composition for reducing total salivary bacteria in an oral cavity of a consumer, the composition comprising magnolia bark extract (MBE) and L-arginine, N α -lauroyl-ethyl ester (LAE), wherein the oral composition comprises the MBE and LAE in amounts that provide a synergistic reduction of the total salivary bacteria in the oral cavity, wherein the weight ratio of MBE to LAE is from about 2:1 to about 1:2.
A pharmaceutical composition for use in treating a dry eye disease, the pharmaceutical composition comprising a secretome of amniotic fluid stem cells; wherein the secretome is prepared by a method comprising the following steps: culturing amniotic fluid stem cells in a basal medium for 24-72 hours to obtain a culture medium, collecting a supernatant of the culture medium after centrifugation, and filtrating the supernatant to obtain the secretome.
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin comprising: (A) ≥ 35 wt% to ≤ 55 wt% of an acrylic graft copolymer; (B) ≥ 35 wt% to ≤ 55 wt% of an aromatic vinyl-vinyl cyanide copolymer; and (C) ≥ 2 wt% to ≤ 15 wt% of an alkyl(meth)acrylate-based resin; (D) ≥ 0.4 parts by weight to ≤ 2 parts by weight of a first sterically hindered amine represented by Chemical Formula 1; and (E) ≥ 0.4 parts by weight to ≤ 2 parts by weight of a second sterically hindered amine represented by Chemical Formula 2: wherein, in Chemical Formula 2, m is an integer of 2 to 20. (A) ≥ 35 wt% to ≤ 55 wt% of an acrylic graft copolymer; (B) ≥ 35 wt% to ≤ 55 wt% of an aromatic vinyl-vinyl cyanide copolymer; and (C) ≥ 2 wt% to ≤ 15 wt% of an alkyl(meth)acrylate-based resin; (D) ≥ 0.4 parts by weight to ≤ 2 parts by weight of a first sterically hindered amine represented by Chemical Formula 1; and (E) ≥ 0.4 parts by weight to ≤ 2 parts by weight of a second sterically hindered amine represented by Chemical Formula 2: wherein, in Chemical Formula 2, m is an integer of 2 to 20.
A pharmaceutical composition for use in a method of treating metabolic acidosis, wherein the pharmaceutical composition comprises a proton-binding, crosslinked amine polymer comprising the residue of an amine corresponding to Formula 2b and the crosslinked amine polymer is prepared by radical polymerization of an amine corresponding to Formula 2b: wherein m and n are independently non-negative integers; each R 12 is independently hydrogen, substituted hydrocarbyl, or hydrocarbyl; R 22 and R 32 are independently hydrogen, substituted hydrocarbyl, or hydrocarbyl; R 42 is hydrogen, hydrocarbyl or substituted hydrocarbyl; X 1 is X 2 is alkyl, aminoalkyl, or alkanol; each X 13 is independently hydrogen, hydroxy, alicyclic, amino, aminoalkyl, halogen, alkyl, heteroaryl, boronic acid or aryl; z is a non-negative number; and the amine corresponding to Formula 2b comprises at least one allyl group, and the crosslinked amine polymer has (i) an equilibrium proton binding capacity of at least 5 mmol/g and a chloride ion binding capacity of at least 5 mmol/g in an aqueous simulated gastric fluid buffer ("SGF") containing 35 mM NaCl and 63 mM HCl at pH 1.2 and 37 °C, (ii) an equilibrium swelling ratio in deionized water of 2 or less, and (iii) chloride binding greater than 2.0 mmol per gram of polymer in the SIB assay after one hours exposure of the polymer to a SIB assay buffer comprising 36 mM NaCl, 20 mM NaH 2 PO 4 , 50 mM 2-(N-morpholino)ethanesulfonic acid (MES) buffered to pH 5.5 at 37 °C. m and n are independently non-negative integers; each R 12 is independently hydrogen, substituted hydrocarbyl, or hydrocarbyl; R 22 and R 32 are independently hydrogen, substituted hydrocarbyl, or hydrocarbyl; R 42 is hydrogen, hydrocarbyl or substituted hydrocarbyl; X 1 is X 2 is alkyl, aminoalkyl, or alkanol; each X 13 is independently hydrogen, hydroxy, alicyclic, amino, aminoalkyl, halogen, alkyl, heteroaryl, boronic acid or aryl; z is a non-negative number; and the amine corresponding to Formula 2b comprises at least one allyl group, and the crosslinked amine polymer has (i) an equilibrium proton binding capacity of at least 5 mmol/g and a chloride ion binding capacity of at least 5 mmol/g in an aqueous simulated gastric fluid buffer ("SGF") containing 35 mM NaCl and 63 mM HCl at pH 1.2 and 37 °C, (ii) an equilibrium swelling ratio in deionized water of 2 or less, and (iii) chloride binding greater than 2.0 mmol per gram of polymer in the SIB assay after one hours exposure of the polymer to a SIB assay buffer comprising 36 mM NaCl, 20 mM NaH 2 PO 4 , 50 mM 2-(N-morpholino)ethanesulfonic acid (MES) buffered to pH 5.5 at 37 °C.
A method of processing a digital radio broadcast signal in a digital radio receiver comprising: receiving baseband signal samples at a first sample rate; adjusting the sample rate of the baseband signals based on a difference between a receiver clock and a transmitter clock to produce adjusted baseband signal samples at a second sample rate; wherein the step of adjusting the sample rate of the baseband signals comprises resampling the baseband signal samples using an asynchronous sample rate converter; wherein the asynchronous sample rate converter adjusts the sample rate for the baseband signal samples in response to a sample rate correction value; wherein a sample slip and a sample rate offset are estimated; wherein the sample rate correction value is derived from both the estimated sample slip and the estimated sample rate offset; wherein the adjusted baseband signal samples are produced at the second sample rate to drive both the sample slip and the sample rate offset to zero; the method further comprising: filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal. receiving baseband signal samples at a first sample rate; adjusting the sample rate of the baseband signals based on a difference between a receiver clock and a transmitter clock to produce adjusted baseband signal samples at a second sample rate; wherein the step of adjusting the sample rate of the baseband signals comprises resampling the baseband signal samples using an asynchronous sample rate converter; wherein the asynchronous sample rate converter adjusts the sample rate for the baseband signal samples in response to a sample rate correction value; wherein a sample slip and a sample rate offset are estimated; wherein the sample rate correction value is derived from both the estimated sample slip and the estimated sample rate offset; wherein the adjusted baseband signal samples are produced at the second sample rate to drive both the sample slip and the sample rate offset to zero; the method further comprising: filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal. filtering the adjusted baseband signal samples to separate a digital component of the samples and an analog component of the samples, wherein the digital component and the analog component are synchronous; and separately demodulating the digital component and the analog component to produce a digital output signal and an analog output signal.
A method, implemented by computer means, for digitally encoding a multimedia content (M) into one or more video streams for on-demand distribution to at least one receiving terminal, the method comprising the following steps: - based on a given set of profiles, each profile being characterized by a value of at least one encoding parameter, forming (S4) one or more ordered groups of profiles, a same profile being able to be present in multiple groups, such that in each group, each profile and its immediate successor satisfy a first predetermined condition, and - selecting (S5) from the formed groups at least one group of profiles satisfying a second predetermined condition, wherein the step of forming one or more ordered groups of profiles comprises: - constructing (S41) a directed graph comprising a set of nodes and a set of arcs such that each node corresponds to a profile in the set of profiles, and such that a first node is connected to a second node by an arc, said arc having said first node as its origin and said second node as its end point, if and only if the profiles respectively associated with said first and second nodes satisfy the first predetermined condition, - selecting (S42) one or more paths of said directed graph such that each path comprises a node of zero outdegree, and - forming (S43) one or more ordered groups of profiles, each group corresponding to a selected path, such that a profile and its successor respectively correspond to a first node and a second node connected by an arc. - based on a given set of profiles, each profile being characterized by a value of at least one encoding parameter, forming (S4) one or more ordered groups of profiles, a same profile being able to be present in multiple groups, such that in each group, each profile and its immediate successor satisfy a first predetermined condition, and - selecting (S5) from the formed groups at least one group of profiles satisfying a second predetermined condition, wherein the step of forming one or more ordered groups of profiles comprises: - constructing (S41) a directed graph comprising a set of nodes and a set of arcs such that each node corresponds to a profile in the set of profiles, and such that a first node is connected to a second node by an arc, said arc having said first node as its origin and said second node as its end point, if and only if the profiles respectively associated with said first and second nodes satisfy the first predetermined condition, - selecting (S42) one or more paths of said directed graph such that each path comprises a node of zero outdegree, and - forming (S43) one or more ordered groups of profiles, each group corresponding to a selected path, such that a profile and its successor respectively correspond to a first node and a second node connected by an arc.
An aircraft (1; 3) comprising: a fuselage (11; 31); a first propulsion mounting spar (12a,b); a first propulsion unit (131; 33a,b) mounted to the fuselage (11; 31) by the first propulsion mounting spar (12a,b); a first tiltable wing (14a,b; 34a,b) spaced apart from the first propulsion mounting spar (12a,b), wherein the first tiltable wing (14a,b; 34a,b) is disposed in the wake from the first propulsion unit (131; 33a,b) and arranged to tilt to vary the angle of attack of the first tiltable wing (14a,b; 34a,b); a further propulsion mounting spar (12c,d) aft of the first propulsion mounting spar (12a,b); a further propulsion unit (131; 33c,d) mounted to the fuselage (11; 31) by the further propulsion mounting spar (12c,d); and a further tiltable wing (14c,d; 34c,d) spaced apart from the further propulsion mounting spar (12c,d), wherein the further tiltable wing (14c,d; 34c,d) is disposed in the wake from the further propulsion unit (131; 33c,d) and arranged to tilt to vary the angle of attack of the further tiltable wing (14c,d; 34c,d), characterized in that at least one of the first propulsion mounting spar (12a,b) and further propulsion mounting spar (12c,d) do not comprise a wing. a fuselage (11; 31); a first propulsion mounting spar (12a,b); a first propulsion unit (131; 33a,b) mounted to the fuselage (11; 31) by the first propulsion mounting spar (12a,b); a first tiltable wing (14a,b; 34a,b) spaced apart from the first propulsion mounting spar (12a,b), wherein the first tiltable wing (14a,b; 34a,b) is disposed in the wake from the first propulsion unit (131; 33a,b) and arranged to tilt to vary the angle of attack of the first tiltable wing (14a,b; 34a,b); a further propulsion mounting spar (12c,d) aft of the first propulsion mounting spar (12a,b); a further propulsion unit (131; 33c,d) mounted to the fuselage (11; 31) by the further propulsion mounting spar (12c,d); and a further tiltable wing (14c,d; 34c,d) spaced apart from the further propulsion mounting spar (12c,d), wherein the further tiltable wing (14c,d; 34c,d) is disposed in the wake from the further propulsion unit (131; 33c,d) and arranged to tilt to vary the angle of attack of the further tiltable wing (14c,d; 34c,d), characterized in that at least one of the first propulsion mounting spar (12a,b) and further propulsion mounting spar (12c,d) do not comprise a wing.
A disintegrative particulate composition consisting of the four components consisting of a first disintegrator component of an acid-type carboxymethylcellulose; one or more second disintegrator components selected from crospovidone, sodium croscarmellose, sodium carboxymethyl starch, calcium carboxymethylcellulose, and hydroxypropyl starch; an excipient of mannitol or lactose, and crystalline cellulose, wherein the amount of the first disintegrator component is within a range of 10% to 50% by weight, the amount of the second disintegrator component is within a range of 1% to 20% by weight, the amount of the excipient is within a range of 30 to 88% by weight, and the amount of the crystalline cellulose is within a range of 1% to 40% by weight, relative to the total weight of the disintegrative particulate composition.