mhurhangee/patent-ind-claim-en huggingface dataset:
An aggregate storage array comprising: a plurality of drives ; a network controller to receive a hash table and a data payload, wherein the data payload is partitioned into a plurality of storage blocks and the hash table specifies how to index into and individually authenticate the plurality of storage blocks on a per block basis by using a hash function to compute an index into the storage blocks; and logic configured to: authenticate a digital signature of the hash table and the data payload, and conduct a write of the data payload to the plurality of drives in accordance with the hash table, wherein the hash table is authenticated on the per block basis at a drive level of the aggregate storage array based at least in part on a revision number in a header of the data payload. a plurality of drives ; a network controller to receive a hash table and a data payload, wherein the data payload is partitioned into a plurality of storage blocks and the hash table specifies how to index into and individually authenticate the plurality of storage blocks on a per block basis by using a hash function to compute an index into the storage blocks; and logic configured to: authenticate a digital signature of the hash table and the data payload, and conduct a write of the data payload to the plurality of drives in accordance with the hash table, authenticate a digital signature of the hash table and the data payload, and conduct a write of the data payload to the plurality of drives in accordance with the hash table, wherein the hash table is authenticated on the per block basis at a drive level of the aggregate storage array based at least in part on a revision number in a header of the data payload.
A system for cleaning a drive over reader sensor component , the system including a drive over reader , the drive over reader including a housing and at least one sensor component mounted in a wall of the housing , wherein the drive over reader further comprises a lens of the sensor component , characterised in that the lens being mounted on the wall , wherein the lens is disposed at an angle in a range of from 5 degrees to 10 degrees relative to a vertical plane of the drive over reader to thereby reduce the adhesion of dirt and other contaminants to the lens .
A working machine comprising: a machine body having an operator cab , a ground engaging propulsion structure to permit movement of the machine over the ground, a load handling apparatus coupled to the machine body and moveable by a movement actuator with respect to the machine body, an electric energy storage unit for providing power to the working machine, wherein the working machine comprises a longitudinal axis (A 3 ), wherein the operator cab is positioned towards a first side (S 1 ) of the working machine with respect to the longitudinal axis, and the electric energy storage unit is positioned towards a second side (S 2 ) of the working machine with respect to the longitudinal axis, wherein the first and second sides are located opposite each other, wherein the electric energy storage unit and the operator cab are positioned to axially overlap with respect to the longitudinal axis; wherein the ground engaging propulsion structure comprises a front axle (A 1 ) and a rear axle (A 2 ) supporting the machine body, and wherein at least one of the front and rear axles (A 1 , A 2 ) is coupled to the machine body by a pivot joint located at substantially the centre of the axle such that the axle can rock about a longitudinal axis of the working machine . a machine body having an operator cab , a ground engaging propulsion structure to permit movement of the machine over the ground, a load handling apparatus coupled to the machine body and moveable by a movement actuator with respect to the machine body, an electric energy storage unit for providing power to the working machine, wherein the working machine comprises a longitudinal axis (A 3 ), wherein the operator cab is positioned towards a first side (S 1 ) of the working machine with respect to the longitudinal axis, and the electric energy storage unit is positioned towards a second side (S 2 ) of the working machine with respect to the longitudinal axis, wherein the first and second sides are located opposite each other, wherein the electric energy storage unit and the operator cab are positioned to axially overlap with respect to the longitudinal axis; wherein the ground engaging propulsion structure comprises a front axle (A 1 ) and a rear axle (A 2 ) supporting the machine body, and wherein at least one of the front and rear axles (A 1 , A 2 ) is coupled to the machine body by a pivot joint located at substantially the centre of the axle such that the axle can rock about a longitudinal axis of the working machine .
A method comprising: receiving, by a packet data convergence protocol, PDCP, layer of a first transmitting device from a radio resource control, RRC, layer, a configuration information of whether to send an indication of service data unit, SDU, discard; determining, by the PDCP layer of the first transmitting device, a transmission failure of at least one PDCP service data unit, SDU, wherein a plurality of PDCP SDUs, comprising a data unit of a data flow, comprise the at least one PDCP SDU; discarding, by the PDCP layer of the first transmitting device and based on the determining, the plurality of PDCP SDUs; and sending, by the PDCP layer of the first transmitting device and based on the configuration information, a PDCP control protocol data unit, PDU, indicating that the plurality of PDCP SDUs are discarded. receiving, by a packet data convergence protocol, PDCP, layer of a first transmitting device from a radio resource control, RRC, layer, a configuration information of whether to send an indication of service data unit, SDU, discard; determining, by the PDCP layer of the first transmitting device, a transmission failure of at least one PDCP service data unit, SDU, wherein a plurality of PDCP SDUs, comprising a data unit of a data flow, comprise the at least one PDCP SDU; discarding, by the PDCP layer of the first transmitting device and based on the determining, the plurality of PDCP SDUs; and sending, by the PDCP layer of the first transmitting device and based on the configuration information, a PDCP control protocol data unit, PDU, indicating that the plurality of PDCP SDUs are discarded.
A method of making a collection of polymer beads comprising (a1) forming a first collection of monomer droplets in an aqueous medium in a container, wherein the first collection of monomer droplets has volume-average diameter DAV1 and has uniformity coefficient of 1.3 or less; (a2) forming a second collection of monomer droplets in the aqueous medium in the container, wherein the second collection of monomer droplets has volume-average diameter DAV2 and has uniformity coefficient of 1.3 or less, wherein DAV1 and DAV2 differ by 10 μm or more; wherein either step (a1) and step (a2) are performed simultaneously; or step (a2) is performed after step (a1), while the first collection of monomer droplets remains in the container; or a combination thereof; and (b) after steps (a1) and (a2), polymerizing the monomer droplets by suspension polymerization to form the polymer beads wherein DAV1 is from 100 to 1,000 μm, and "uniformity coefficient" is D60/D10, where D60 denotes the value of a diameter that has the property that exactly 60% of the collection of the particles, by volume, have diameter less than or equal to D60, and D10 denotes the value of a diameter that has the property that exactly 10% of the collection of the particles, by volume, have diameter less than or equal to D60, and wherein the collection of polymer beads has volume average sphericity Ψ of 0.9 to 1.0, wherein indicator of sphericity (Ψ) is calculated as follows: Ψ = bc / a 2 3 wherein a, b and c are the three mechanical principal axes of the particle, a being the longest principal axis of the particle, and c being the shortest principal axis of the particle, and further wherein the first collection of monomer droplets comprises one or more multifunctional vinyl monomer and one or more monofunctional vinyl monomer, and wherein the second collection of monomer droplets comprises one or more multifunctional vinyl monomer and one or more monofunctional vinyl monomer, wherein, in the first collection of monomer droplets and in the second collection of monomer droplets, the amount of monofunctional vinyl monomer is 75% or more, by weight based on the weight of all the monomers, and the amount of the multifunctional vinyl monomer is 5% to 25%, by weight based on the weight of all the monomers, and wherein the composition of the second collection of monomer droplets may the same or different from the composition of the first collection of monomer droplets. (a1) forming a first collection of monomer droplets in an aqueous medium in a container, wherein the first collection of monomer droplets has volume-average diameter DAV1 and has uniformity coefficient of 1.3 or less; (a2) forming a second collection of monomer droplets in the aqueous medium in the container, wherein the second collection of monomer droplets has volume-average diameter DAV2 and has uniformity coefficient of 1.3 or less, wherein DAV1 and DAV2 differ by 10 μm or more;
A polarization multiplexing optical transmission circuit, comprising: a first optical power splitter for branching an optical power of continuous light outputted from a light source ; a first polarization optical modulation circuit in a first path having a higher loss than a second path, and_connected to a first_output of the first optical power splitter; a second optical power splitter connected to a second_output of the first optical power splitter; and a second polarization optical modulation circuit in the second path connected to a first output of the second optical power splitter, wherein each of the first and second polarization optical modulation circuits is configured to modulate a polarization component of the continuous light based on a transmission electric signal; characterized in that each of the first and second optical power splitters is connected in an asymmetric manner to the respective one of the first and second polarization optical modulation circuits . a first optical power splitter for branching an optical power of continuous light outputted from a light source ; a first polarization optical modulation circuit in a first path having a higher loss than a second path, and_connected to a first_output of the first optical power splitter; a second optical power splitter connected to a second_output of the first optical power splitter; and a second polarization optical modulation circuit in the second path connected to a first output of the second optical power splitter, wherein each of the first and second polarization optical modulation circuits is configured to modulate a polarization component of the continuous light based on a transmission electric signal; characterized in that each of the first and second optical power splitters is connected in an asymmetric manner to the respective one of the first and second polarization optical modulation circuits .
A folded digital camera, comprising: a) a lens system with a lens (204, 204', 204", 204′′′, 204ʺʺ, 204-C, 204'-C, 204"-C, 204′′′-C) and an image sensor , the lens having N ≥ 6 lens elements L i , an effective focal length (EFL) and a total track length (TTL), wherein each lens element has a respective focal length f i and wherein a first lens element L 1 faces an object side; and b) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens, wherein the lens system has a focusing range that covers object-lens distances from infinity to a minimal object distance (MIOD), and wherein 3.33 ≤ MIOD/EFL < 7, wherein the lens elements are divided into two lens element groups separated by a big gap greater than TTL/7. a) a lens system with a lens (204, 204', 204", 204′′′, 204ʺʺ, 204-C, 204'-C, 204"-C, 204′′′-C) and an image sensor , the lens having N ≥ 6 lens elements L i , an effective focal length (EFL) and a total track length (TTL), wherein each lens element has a respective focal length f i and wherein a first lens element L 1 faces an object side; and b) an optical path folding element (OPFE) for providing a folded optical path between an object and the lens, wherein the lens system has a focusing range that covers object-lens distances from infinity to a minimal object distance (MIOD), and wherein 3.33 ≤ MIOD/EFL < 7, wherein the lens elements are divided into two lens element groups separated by a big gap greater than TTL/7. wherein the lens system has a focusing range that covers object-lens distances from infinity to a minimal object distance (MIOD), and wherein 3.33 ≤ MIOD/EFL < 7, wherein the lens elements are divided into two lens element groups separated by a big gap greater than TTL/7.
A sharding engine, SE, configured to monitor and optimise the performance of a communicatively coupled distributed ledger technology, DLT, platform , the DLT platform comprising a DLT storage module configured for storing and processing DLT transactions, the DLT storage module being partitioned into one or more DLT shards according to a DLT configuration, each DLT shard being associated with a local network of transaction processing nodes configured to process and verify submitted DLT transactions according to a local consensus protocol defined by a Global Conflict Resolver, GCR, module in accordance with the DLT configuration, the sharding engine comprising: a sensor module configured to monitor a set of configuration parameters associated with the DLT platform ; and a decision and optimisation, DO, module configured to receive and process the values obtained from the set of configuration parameters to determine a set of corresponding performance metrics indicative of the operational performance of the target DLT platform ; wherein the DO module is configured to compare the values of the performance metrics with corresponding target values, and wherein, when at least one of the performance metrics is within a value range from at least one corresponding target value, the DO module is configured to adjust an aspect of the DLT configuration of the DLT platform to optimise its operational performance. a sensor module configured to monitor a set of configuration parameters associated with the DLT platform ; and a decision and optimisation, DO, module configured to receive and process the values obtained from the set of configuration parameters to determine a set of corresponding performance metrics indicative of the operational performance of the target DLT platform ; wherein the DO module is configured to compare the values of the performance metrics with corresponding target values, and wherein, when at least one of the performance metrics is within a value range from at least one corresponding target value, the DO module is configured to adjust an aspect of the DLT configuration of the DLT platform to optimise its operational performance.
A computer-implemented method comprising gamut mapping a color from a first color gamut towards a second color gamut, the gamut mapping comprising, in a plane of constant hue: obtaining a target lightness (L') for a first cusp color that is a color on a boundary of the first color gamut with maximum chroma; and characterized in that the method further comprises lightness mapping of the color from the first color gamut towards the second color gamut wherein the lightness mapped color is calculated from a parabolic function applied to the color, the parabolic function mapping the first cusp color to a color having the target lightness (L'). obtaining a target lightness (L') for a first cusp color that is a color on a boundary of the first color gamut with maximum chroma; and characterized in that the method further comprises lightness mapping of the color from the first color gamut towards the second color gamut wherein the lightness mapped color is calculated from a parabolic function applied to the color, the parabolic function mapping the first cusp color to a color having the target lightness (L').
A composition comprising a vinyl-group-containing compound represented by the following general formula : wherein W 1 and W 2 each independently represent a group represented by the following general formula or a group represented by the following general formula , provided that at least one of W 1 and W 2 represents a group represented by the following general formula ; a ring Y 1 and a ring Y 2 , which may be the same or different, represent benzene or naphthalene; R represents a single bond; and R 3a and R 3b are absent as n1 and n2 are equal to 0, wherein a ring Z represents a naphthalene ring; X represents a single bond; R 1 represents a single bond or an alkylene group having 1 to 4 carbon atoms; R 2 represents a monovalent hydrocarbon group and m is equal to 0 to 2, and wherein ring Z, X, R 1 , R 2 , and m are as defined above. wherein W 1 and W 2 each independently represent a group represented by the following general formula or a group represented by the following general formula , provided that at least one of W 1 and W 2 represents a group represented by the following general formula ; a ring Y 1 and a ring Y 2 , which may be the same or different, represent benzene or naphthalene; R represents a single bond; and R 3a and R 3b are absent as n1 and n2 are equal to 0, wherein a ring Z represents a naphthalene ring; X represents a single bond; R 1 represents a single bond or an alkylene group having 1 to 4 carbon atoms; R 2 represents a monovalent hydrocarbon group and m is equal to 0 to 2, and wherein ring Z, X, R 1 , R 2 , and m are as defined above.
An applicator for applying an on-skin sensor assembly to skin of a host, the applicator comprising: an applicator housing operatively coupled to a disposable housing , the disposable housing being configured to receive an electronics unit , and the electronics unit being configured to generate analyte information based on a signal from a sensor ; an insertion assembly comprising an insertion member, the insertion member being configured to insert the sensor into the skin of the host; a first drive assembly containing a first amount of stored energy, the first drive assembly being configured to drive the insertion member in a distal direction during a first phase; and a second drive assembly containing a second amount of stored energy, the second drive assembly being configured to drive the insertion member in a proximal direction, characterized in that the first drive assembly is configured to drive the insertion member in the proximal direction during a second phase, wherein the first drive assembly is configured to activate the second drive assembly during the second phase. an applicator housing operatively coupled to a disposable housing , the disposable housing being configured to receive an electronics unit , and the electronics unit being configured to generate analyte information based on a signal from a sensor ; an insertion assembly comprising an insertion member, the insertion member being configured to insert the sensor into the skin of the host; a first drive assembly containing a first amount of stored energy, the first drive assembly being configured to drive the insertion member in a distal direction during a first phase; and a second drive assembly containing a second amount of stored energy, the second drive assembly being configured to drive the insertion member in a proximal direction, characterized in that the first drive assembly is configured to drive the insertion member in the proximal direction during a second phase, wherein the first drive assembly is configured to activate the second drive assembly during the second phase.
A method for producing a composition containing at least one fluorine-containing olefin selected from 1,2-dichloro-3,3,3-trifluoropropene (HCFO-1223xd) and 1,1,2-trichloro-3,3,3-trifluoropropene (CFO-1213xa), comprising (i) subjecting at least one starting compound precursor of the formula CY 3 CHXCHX 2 (2-1) or CX 3 CX=CX 2 (2-2), wherein X each independently is H or Cl, with the proviso that at least two X are Cl, and Y each independently is F or Cl, to a gas-phase fluorination reaction using HF to convert the precursor into a starting compound of the formula CF 3 CHXCHX 2 (1-1) or CF 3 CX=CX 2 (1-2), wherein each X is independently H or Cl, with the proviso that at least one X is Cl; (ii) subjecting the at least one starting compound to a gas-phase oxychlorination reaction in a temperature range of ≤ 380°C in the presence of chlorine gas and HCl gas, wherein part or all of the HCl gas used in the gas-phase oxychlorination reaction is HCl gas generated when the starting compound precursor is subjected to a gas-phase fluorination reaction using HF. (i) subjecting at least one starting compound precursor of the formula CY 3 CHXCHX 2 (2-1) or CX 3 CX=CX 2 (2-2), wherein X each independently is H or Cl, with the proviso that at least two X are Cl, and Y each independently is F or Cl, to a gas-phase fluorination reaction using HF to convert the precursor into a starting compound of the formula CF 3 CHXCHX 2 (1-1) or CF 3 CX=CX 2 (1-2), wherein each X is independently H or Cl, with the proviso that at least one X is Cl; (ii) subjecting the at least one starting compound to a gas-phase oxychlorination reaction in a temperature range of ≤ 380°C in the presence of chlorine gas and HCl gas,
A plant comprising one or two copies of an allele of a mutated endogenous CENH3 gene, wherein the mutated endogenous CENH3 gene is mutated to reduce CENH3 function.
A support structure for at least partially supporting a user's head, the support structure comprising: a frame having a head engaging portion and a shoulder engaging portion , wherein the frame is adapted to be compressed under the weight of the user's head; wherein the frame is shaped to the contour of the user's body between the head engaging portion and the shoulder engaging portion such that, in use, the shoulder engaging portion is operable to spread the load of the user's head over a user's shoulder, characterised in that the support structure comprises an anchoring means adapted to secure the frame , in use, to a user's neck and to press the frame against the user's neck, wherein the anchoring means comprises an elongate length of fabric material, and wherein the elongate length of fabric material is a scarf .