mhurhangee/patent-ind-claim-en huggingface dataset:
A chroma intra prediction method for Versatile Video Coding, VVC, applied to a decoder, comprising: parsing bitstream data corresponding to a current chroma block, and determining that a prediction mode corresponding to the current chroma block is a direct mode, DM; obtaining residual data corresponding to the current chroma block from the bitstream data; and performing a decoding process according to a set of chroma prediction modes to perform a chroma reconstruction of the current chroma block, wherein the set of chroma prediction modes comprises at least one of DM, linear model, LM, Left Linear Model Prediction, LM_T, Right Linear Model Prediction, LM_L, DC, Planar, Horizontal, Vertical, or other directional prediction modes and the set of chroma prediction modes corresponds to the current chroma block; and wherein one chroma block corresponds to multiple luma blocks; characterized by when a luma prediction mode corresponding to the DM is a direct current, DC, mode or a planar mode, the set of chroma prediction modes is determined according to modified candidate modes, the modified candidate modes including a mode with a prediction direction index number 34 and two derived angular modes, the two derived angular modes being determined by adjusting a mode with a prediction direction index number 66 anticlockwise by an angle and adjusting a mode with a prediction direction index number 2 clockwise by the same angle simultaneously to obtain modified candidate modes that replace the luma prediction mode corresponding to the DM. parsing bitstream data corresponding to a current chroma block, and determining that a prediction mode corresponding to the current chroma block is a direct mode, DM; obtaining residual data corresponding to the current chroma block from the bitstream data; and performing a decoding process according to a set of chroma prediction modes to perform a chroma reconstruction of the current chroma block, wherein the set of chroma prediction modes comprises at least one of DM, linear model, LM, Left Linear Model Prediction, LM_T, Right Linear Model Prediction, LM_L, DC, Planar, Horizontal, Vertical, or other directional prediction modes and the set of chroma prediction modes corresponds to the current chroma block; and wherein one chroma block corresponds to multiple luma blocks; characterized by when a luma prediction mode corresponding to the DM is a direct current, DC, mode or a planar mode, the set of chroma prediction modes is determined according to modified candidate modes, the modified candidate modes including a mode with a prediction direction index number 34 and two derived angular modes, the two derived angular modes being determined by adjusting a mode with a prediction direction index number 66 anticlockwise by an angle and adjusting a mode with a prediction direction index number 2 clockwise by the same angle simultaneously to obtain modified candidate modes that replace the luma prediction mode corresponding to the DM.
Method for warning road users of potential danger areas caused by a vehicle that is carrying out a driving manoeuvre, wherein the vehicle is an articulated vehicle and wherein a control device is provided that - cyclically retrieves the steering angle of the vehicle by means of at least one steering angle sensor , - cyclically retrieves the direction of travel from a driving speed selector , - cyclically determines, from the steering angle and the direction of travel by using a steering model of the vehicle that is accessible to the control device , a road space that will be occupied in the future within a specifiable time and speed in the event the steering angle is maintained, wherein the control device in articulated vehicles also cyclically ascertains, in addition to the steering angle, the articulation angle and uses the future occupied road space for the ascertainment, - controls at least one projection device (4.1, 4.2, 4.3, 4.4) with the information about the future occupied road space thus obtained such that at least part of the future occupied road space is made visible by a light projection onto the ground surface surrounding the vehicle, wherein the projection of the future occupied road space takes into account a safety distance. - cyclically retrieves the steering angle of the vehicle by means of at least one steering angle sensor , - cyclically retrieves the direction of travel from a driving speed selector , - cyclically determines, from the steering angle and the direction of travel by using a steering model of the vehicle that is accessible to the control device , a road space that will be occupied in the future within a specifiable time and speed in the event the steering angle is maintained, wherein the control device in articulated vehicles also cyclically ascertains, in addition to the steering angle, the articulation angle and uses the future occupied road space for the ascertainment, - controls at least one projection device (4.1, 4.2, 4.3, 4.4) with the information about the future occupied road space thus obtained such that at least part of the future occupied road space is made visible by a light projection onto the ground surface surrounding the vehicle, wherein the projection of the future occupied road space takes into account a safety distance.
A soil compactor, comprising at least one compactor roller supported on a machine chassis to be rotatable about a roller rotary axis (A), wherein at least one compactor roller is supported in its two axial end areas respectively via a suspension assembly on the machine chassis to be movable with respect to the same, wherein at least one suspension assembly comprises at least one helical spring coupling the compactor roller movably to the machine chassis, wherein the at least one suspension assembly comprises a roller carrier assembly , wherein the compactor roller is supported on the roller carrier assembly to be rotatable about the roller rotary axis (A), wherein the roller carrier assembly is coupled to the machine chassis via at least one helical spring , wherein the roller carrier assembly comprises a carrier element , which supports the compactor roller to be rotatable about the roller rotary axis (A), wherein the carrier element is coupled to the machine chassis in a plurality of first coupling areas arranged at a circumferential spacing from one another about the roller axis of rotation (A) via at least one helical spring respectively, wherein at least one pair of first coupling areas , situated diametrically opposite one another with respect to the roller axis of rotation (A), is provided on the carrier element (64a; 64b), wherein in at least one first coupling area , the carrier element is coupled to the machine chassis via at least two first helical springs , characterized in that all first helical springs are arranged with spring longitudinal axes (F) not situated in at least one plane orthogonal to the roller axis of rotation (A), and in that in at least one pair of first coupling areas , the first helical springs are supported respectively on the machine chassis in a support area , and that the support areas have a different radial spacing to the roller axis of rotation (A) than the first coupling area coupled to the machine chassis via these first helical springs .
An optical receiver comprising at least one local oscillator providing local oscillator light at a local oscillator frequency, a combiner/splitter for coupling an optical signal with the local oscillator light to provide first and second coupled optical signals having orthogonal polarizations, two opto-electrical converters for converting the first and second coupled optical signals into first and second electrical signals, a first rectifier to rectify the first electrical signal into an inverted data signal; a second rectifier to rectify the second electrical signal into a non-inverted data signal; and a subtractor for combining the inverted data signal and the non-inverted data signal by subtracting them from each other. at least one local oscillator providing local oscillator light at a local oscillator frequency, a combiner/splitter for coupling an optical signal with the local oscillator light to provide first and second coupled optical signals having orthogonal polarizations, two opto-electrical converters for converting the first and second coupled optical signals into first and second electrical signals, a first rectifier to rectify the first electrical signal into an inverted data signal; a second rectifier to rectify the second electrical signal into a non-inverted data signal; and a subtractor for combining the inverted data signal and the non-inverted data signal by subtracting them from each other.
An electrolyte for a lithium-ion battery, comprising: an organic solvent; an electrolyte lithium salt dissolved in the organic solvent; and an additive; characterized in that the additive is a compound represented by following formula I: wherein R 1 is a C1-10 alkylene group, and optionally, one or more hydrogen atoms in the alkylene group may be substituted with one or more of phenyl, halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus; R 2 and R 3 each are independently selected from the halogen, a saturated or unsaturated C1-10 alkyl group or alkoxy group, R-NR 4 -, or -R 1 -NR 4 R 5 , and optionally, one or more hydrogen atoms in the saturated or unsaturated alkyl group or alkoxy group may be substituted with one or more of the halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus; and R is a saturated or unsaturated C1-10 alkyl group, optionally, one or more hydrogen atoms in the saturated or unsaturated alkyl group may be substituted with one or more of the halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus, and R 4 and R 5 each are independently selected from H or the halogen. an organic solvent; an electrolyte lithium salt dissolved in the organic solvent; and an additive; characterized in that the additive is a compound represented by following formula I: wherein R 1 is a C1-10 alkylene group, and optionally, one or more hydrogen atoms in the alkylene group may be substituted with one or more of phenyl, halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus; R 2 and R 3 each are independently selected from the halogen, a saturated or unsaturated C1-10 alkyl group or alkoxy group, R-NR 4 -, or -R 1 -NR 4 R 5 , and optionally, one or more hydrogen atoms in the saturated or unsaturated alkyl group or alkoxy group may be substituted with one or more of the halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus; and R is a saturated or unsaturated C1-10 alkyl group, optionally, one or more hydrogen atoms in the saturated or unsaturated alkyl group may be substituted with one or more of the halogen, nitrogen, oxygen, sulfur, silicon, boron, or phosphorus, and R 4 and R 5 each are independently selected from H or the halogen.
Pressurized gas container , in particular a gas cylinder, comprising an internal volume for storing gas under pressure, and further comprising: - a fluid distribution valve comprising a flow outlet connection to which a flexible gas line is connected, - a flow rate selector device for selecting a desired flow rate (Qd) of gas to be delivered through the flow outlet connection , the flow rate selector device comprising a rotary handwheel configured to move between a plurality of positions angularly offset from each other, each position corresponding to a given desired gas flow rate value (Qd) of between 0 and 30 L/min, the desired flow rate value (Qd) being selected by the user by actuating the rotary handwheel, - a pressure sensor for measuring the gas pressure at several successive instants (t 1 , t 2 ), and for providing pressure measurements (p 1 , p 2 ) corresponding to the pressure of the gas measured at said successive instants (t 1 , t 2 ), and - microprocessor control means configured for processing the pressure measurements (p 1 , p 2 ) provided by the pressure sensor , characterized in that the control means are arranged in an electronic device with a digital display attached to the fluid distribution valve and are further configured to: a) determine an actual gas flow rate (Qr) supplied by the flow outlet connection from the valve to the flexible gas line between successive instants (t 1 , t 2 ) from the pressure measurements (p 1 , p 2 ) taken at the successive instants (t 1 , t 2 ), b) compare the actual gas flow rate (Qr) to the desired gas flow rate (Qd), c) trigger a clamping alert when: Qr < n . Qd with: n ≤ 0.80. - a fluid distribution valve comprising a flow outlet connection to which a flexible gas line is connected, - a flow rate selector device for selecting a desired flow rate (Qd) of gas to be delivered through the flow outlet connection , the flow rate selector device comprising a rotary handwheel configured to move between a plurality of positions angularly offset from each other, each position corresponding to a given desired gas flow rate value (Qd) of between 0 and 30 L/min, the desired flow rate value (Qd) being selected by the user by actuating the rotary handwheel, - a pressure sensor for measuring the gas pressure at several successive instants (t 1 , t 2 ), and for providing pressure measurements (p 1 , p 2 ) corresponding to the pressure of the gas measured at said successive instants (t 1 , t 2 ), and - microprocessor control means configured for processing the pressure measurements (p 1 , p 2 ) provided by the pressure sensor , a) determine an actual gas flow rate (Qr) supplied by the flow outlet connection from the valve to the flexible gas line between successive instants (t 1 , t 2 ) from the pressure measurements (p 1 , p 2 ) taken at the successive instants (t 1 , t 2 ), b) compare the actual gas flow rate (Qr) to the desired gas flow rate (Qd), c) trigger a clamping alert when: Qr < n . Qd with: n ≤ 0.80.
A wet pet food product comprising 30-90 wt.% of meat analogue and 10-70 wt.% of a sauce, said meat analogue comprising: • 10-60 wt.% protein, at least 40 wt.% of said protein being non-animal protein; • 30-90 wt.% water; • 0-15 wt.% starch; • 0-20 wt.% fat; wherein, when the meat analogue contains starch, non-animal protein and starch are present in the meat analogue in a weight ratio of non-animal protein to starch that exceeds 1:3; wherein the wet food product contains 0.1-3 wt.% of yeast extract; and wherein the wet pet food product contains yeast extract and non-animal protein in a weight ratio in the range of 1:10 to 1:5; wherein the term "yeast extract" refers to a yeast product made by extracting the cell contents from yeast by removing the cell walls. • 10-60 wt.% protein, at least 40 wt.% of said protein being non-animal protein; • 30-90 wt.% water; • 0-15 wt.% starch; • 0-20 wt.% fat; wherein, when the meat analogue contains starch, non-animal protein and starch are present in the meat analogue in a weight ratio of non-animal protein to starch that exceeds 1:3; wherein the wet food product contains 0.1-3 wt.% of yeast extract; and wherein the wet pet food product contains yeast extract and non-animal protein in a weight ratio in the range of 1:10 to 1:5; wherein the term "yeast extract" refers to a yeast product made by extracting the cell contents from yeast by removing the cell walls.
An integrated valve and manifold assembly comprising: a water valve configured to selectively divert a first portion of a stream of water to a first outlet and a second portion of the stream of water to a second outlet; a first manifold comprising a first water conduit in fluid communication with a first water port, wherein a first end of the first water conduit is configured to couple to the first outlet of the water valve ; and a second manifold comprising a second water conduit in fluid communication with a second water port, wherein a first end of the second water conduit is configured to couple to the second outlet of the water valve ; wherein a water-valve actuator configured to actuate the water valve is disposed adjacent a second end of the first water conduit distal the first end of the first water conduit, the first manifold includes a first air channel externally connected to the first water conduit, the second manifold includes a second air channel externally connected to the second water conduit, and the water valve includes a third air channel configured to couple the first air channel to the second air channel. a water valve configured to selectively divert a first portion of a stream of water to a first outlet and a second portion of the stream of water to a second outlet; a first manifold comprising a first water conduit in fluid communication with a first water port, wherein a first end of the first water conduit is configured to couple to the first outlet of the water valve ; and a second manifold comprising a second water conduit in fluid communication with a second water port, wherein a first end of the second water conduit is configured to couple to the second outlet of the water valve ; wherein a water-valve actuator configured to actuate the water valve is disposed adjacent a second end of the first water conduit distal the first end of the first water conduit, the first manifold includes a first air channel externally connected to the first water conduit, the second manifold includes a second air channel externally connected to the second water conduit, and the water valve includes a third air channel configured to couple the first air channel to the second air channel.
A display comprising: a display stack to generate a digital display image; and a media layer that includes a plurality of diffusive emissive elements disposed in a predetermined pattern; wherein the diffusive emissive elements are configured to emit a scattered signal in response to infrared, IR, light incident to the media layer, characterized by the diffusive emissive elements comprising metallic nanoparticles, which undergo surface plasmon resonance in response to infrared, IR, light, residing in a carrier material. a display stack to generate a digital display image; and a media layer that includes a plurality of diffusive emissive elements disposed in a predetermined pattern; wherein the diffusive emissive elements are configured to emit a scattered signal in response to infrared, IR, light incident to the media layer, characterized by the diffusive emissive elements comprising metallic nanoparticles, which undergo surface plasmon resonance in response to infrared, IR, light, residing in a carrier material.
A method of wireless communication at a wireless receiver , comprising: determining that a transmission of a first transport block, TB, based on a first redundancy version is not received from a wireless transmitter ; and transmitting , to the wireless transmitter , a hybrid automatic repeat request, HARQ, acknowledgement, ACK, to terminate one or more HARQ retransmissions associated with one or more different redundancy versions of the first TB, wherein the wireless receiver transmits the ACK to terminate the one or more HARQ retransmissions based on: the one or more HARQ retransmissions indicate a reserved modulation and coding scheme, MCS, of a lost HARQ transmission where the MCS is indicated; or a determination that a number of systematic bits were lost from a HARQ transmission, the number being greater than a threshold; or a coding rate associated with a HARQ transmission being greater than a threshold, wherein a lower coding rate corresponds to more redundancy bits in a channel coding process and a higher coding rate corresponds to less redundancy bits in the channel coding process; or a number of HARQ processes associated with the one or more HARQ retransmissions being greater than a threshold. determining that a transmission of a first transport block, TB, based on a first redundancy version is not received from a wireless transmitter ; and transmitting , to the wireless transmitter , a hybrid automatic repeat request, HARQ, acknowledgement, ACK, to terminate one or more HARQ retransmissions associated with one or more different redundancy versions of the first TB, wherein the wireless receiver transmits the ACK to terminate the one or more HARQ retransmissions based on: the one or more HARQ retransmissions indicate a reserved modulation and coding scheme, MCS, of a lost HARQ transmission where the MCS is indicated; or a determination that a number of systematic bits were lost from a HARQ transmission, the number being greater than a threshold; or a coding rate associated with a HARQ transmission being greater than a threshold, wherein a lower coding rate corresponds to more redundancy bits in a channel coding process and a higher coding rate corresponds to less redundancy bits in the channel coding process; or a number of HARQ processes associated with the one or more HARQ retransmissions being greater than a threshold. the one or more HARQ retransmissions indicate a reserved modulation and coding scheme, MCS, of a lost HARQ transmission where the MCS is indicated; or a determination that a number of systematic bits were lost from a HARQ transmission, the number being greater than a threshold; or a coding rate associated with a HARQ transmission being greater than a threshold, wherein a lower coding rate corresponds to more redundancy bits in a channel coding process and a higher coding rate corresponds to less redundancy bits in the channel coding process; or a number of HARQ processes associated with the one or more HARQ retransmissions being greater than a threshold.
Line-carrying device having a multiplicity of links which are connected to one another in an articulated manner and which form a loop made up of an upper run , a deflection region and a lower run , wherein adjacent links are pivotable about a respective pivot axis in relation to one another, wherein, at least for a portion of the links , the pivot axes are arranged closer to a loop inner side than a loop outer side , wherein the links each have two mutually oppositely situated side plates , wherein side plates of adjacent links form at least one running surface on the loop inner side , wherein at least a portion of the links has a respective roller which projects from the running surface , wherein the upper run and the lower run are able to bear against one another via the running surface in such a way that the upper run and the lower run are movable relative to one another by means of the rollers , wherein, at at least a portion of the transitions between adjacent links , the running surface is interrupted in such a way that one part of the running surface , which is formed by a first one of the two adjacent links , has a recess , and that one part of the running surface , which is formed by a second one of the two adjacent links , has a pin which engages into the recess such that a gap is formed.