mhurhangee/patent-ind-claim-en huggingface dataset:
The use of a tire set for three-wheeled vehicles to mount the tire set on a three-wheeled vehicle that is configured with two front wheels and one rear wheel and includes a mechanism for tilting tires during cornering, wherein a two-wheel side tire mounted on the two-wheel side has a tire diameter smaller than a tire diameter of a one-wheel side tire mounted on the one-wheel side, characterized in that the two-wheel side tire comprises a lateral groove extending across a tire equator (CL) on a tread portion.
An engine oil composition comprising: a) greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the engine oil composition, wherein the base oil is selected from the group consisting of a Group III base oil, a Group IV base oil, a Group V base oil and mixtures thereof; b) 0.1-10 wt.% of a dispersant viscosity index improver, based on a total weight of the engine oil composition, wherein the dispersant viscosity index improver is a reaction product of an olefin copolymer comprising ethylene and one or more C 3 -C 28 alpha olefins, an acylating agent and a polyamine; c) one or more calcium-containing detergents, wherein the one or more calcium-containing detergents provides from 900 ppmw to 2500 ppmw of calcium to the engine oil composition, based on a total weight of the engine oil composition; and d) one or more molybdenum-containing compounds; and wherein the engine oil composition has an SAE viscosity grade of 0W-X or 5W-X, wherein X = 16, 20, 30, or 40; from 500 ppmw to 1000 ppmw of phosphorus; and a total sulfated ash content of no greater than 1.2 wt.%, as measured by ASTM D874, both based on a total weight of the engine oil composition; and wherein the engine oil composition further comprises up to 10 wt.% of a nitrogen-containing dispersant, based on a total weight of the engine oil composition; wherein a weight ratio of total metal from detergents to total nitrogen from dispersants is less than 2.5 or less than 2.0. a) greater than 50 wt.% of a base oil of lubricating viscosity, based on a total weight of the engine oil composition, wherein the base oil is selected from the group consisting of a Group III base oil, a Group IV base oil, a Group V base oil and mixtures thereof; b) 0.1-10 wt.% of a dispersant viscosity index improver, based on a total weight of the engine oil composition, wherein the dispersant viscosity index improver is a reaction product of an olefin copolymer comprising ethylene and one or more C 3 -C 28 alpha olefins, an acylating agent and a polyamine; c) one or more calcium-containing detergents, wherein the one or more calcium-containing detergents provides from 900 ppmw to 2500 ppmw of calcium to the engine oil composition, based on a total weight of the engine oil composition; and d) one or more molybdenum-containing compounds; and
A method for access control of a data flow in a software defined networking system , the method being performed in a controller device and comprising: - receiving , from an intermediate node , a first packet associated with a first data flow between a client node and a server node , - verifying , based on flow attributes of the first packet, authentication of the first packet, - repeating the receiving and verifying for each of a specific_number of subsequent packets of the first data flow, wherein the specific number of subsequent packets is based on type of protocol used for the first data flow and/or a policy set in the controller device , and - sending , to the intermediate node and/or another intermediate node along a path of the first data flow, a respective verification message for each successfully verified authentication of the first packet and any of said specific number of_subsequent packets, allowing forwarding of the respective successfully verified packet and, in case the specific number of subsequent packets have been successfully verified, of any subsequent packets of the first data flow, or - dropping any of said packets and any subsequent packets of the first data flow in case of an un-successfully verification of any of said packets. - receiving , from an intermediate node , a first packet associated with a first data flow between a client node and a server node , - verifying , based on flow attributes of the first packet, authentication of the first packet, - repeating the receiving and verifying for each of a specific_number of subsequent packets of the first data flow, wherein the specific number of subsequent packets is based on type of protocol used for the first data flow and/or a policy set in the controller device , and - sending , to the intermediate node and/or another intermediate node along a path of the first data flow, a respective verification message for each successfully verified authentication of the first packet and any of said specific number of_subsequent packets, allowing forwarding of the respective successfully verified packet and, in case the specific number of subsequent packets have been successfully verified, of any subsequent packets of the first data flow, or - dropping any of said packets and any subsequent packets of the first data flow in case of an un-successfully verification of any of said packets.
A digital microfluidic device, comprising: a first substrate comprising a first plurality of electrodes coupled to a first set of thin-film-transistors, and including a first dielectric layer covering both the first plurality of electrodes and the first set of thin-film-transistors; a second substrate comprising a second plurality of electrodes coupled to a second set of thin-film-transistors and a drive electrode, and including a second dielectric layer covering the second plurality of electrodes, the second set of thin-film-transistors, and the drive electrode; a spacer separating the first and second substrates and creating a microfluidic region between the first and second substrates; a first controller operatively coupled to the first set of thin-film-transistors and configured to provide a propulsion voltage between at least a portion of the first plurality of electrodes and the drive electrode; and a second controller operatively coupled to the second set of thin-film-transistors and configured to determine a capacitance between at least one of the second plurality of electrodes and the drive electrode. a first substrate comprising a first plurality of electrodes coupled to a first set of thin-film-transistors, and including a first dielectric layer covering both the first plurality of electrodes and the first set of thin-film-transistors; a second substrate comprising a second plurality of electrodes coupled to a second set of thin-film-transistors and a drive electrode, and including a second dielectric layer covering the second plurality of electrodes, the second set of thin-film-transistors, and the drive electrode; a spacer separating the first and second substrates and creating a microfluidic region between the first and second substrates; a first controller operatively coupled to the first set of thin-film-transistors and configured to provide a propulsion voltage between at least a portion of the first plurality of electrodes and the drive electrode; and a second controller operatively coupled to the second set of thin-film-transistors and configured to determine a capacitance between at least one of the second plurality of electrodes and the drive electrode.
Method for controlling power supply through a local electric power network , wherein the local power network has a root node (2-0) and end nodes hierarchically interconnected in a tree structure, wherein, starting from the root node (2-0) of the tree structure, electric currents, which flow between a superordinate distribution node in a hierarchy level of the power network , via power lines of the power network , and one or more subordinate nodes in a directly underneath hierarchy level of the power network , are adapted iteratively across all hierarchy levels of the power network up until the end nodes of the local power network until the sum of the measured currents flowing between the relevant superordinate distribution node of the power network and its subordinate nodes is within admissible current limits of the relevant superordinate distribution node and of the end nodes . wherein the local power network has a root node (2-0) and end nodes hierarchically interconnected in a tree structure, wherein, starting from the root node (2-0) of the tree structure, electric currents, which flow between a superordinate distribution node in a hierarchy level of the power network , via power lines of the power network , and one or more subordinate nodes in a directly underneath hierarchy level of the power network , are adapted iteratively across all hierarchy levels of the power network up until the end nodes of the local power network until the sum of the measured currents flowing between the relevant superordinate distribution node of the power network and its subordinate nodes is within admissible current limits of the relevant superordinate distribution node and of the end nodes .
A Fab region-binding peptide represented by any one of the following to : a Fab region-binding peptide having an amino acid sequence of SEQ ID NO: 1 derived from the β1 domain of protein G with substitution of an amino acid residue at the 13th position to Thr or Ser, optionally with substitution of an amino acid residue at not less than one position selected from the 19th, 30th and 33rd positions, and wherein the Fab region-binding peptide has a higher binding force to the Fab region of immunoglobulin than that before introduction of the substitution; a Fab region-binding peptide having an amino acid sequence specified in the with deletion, substitution and/or addition of not less than 1 and not more than 10 amino acid residues at a region other than the 13th, 19th, 30th and 33rd positions, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1; a Fab region-binding peptide having an amino acid sequence having not less than 80% sequence identity to the amino acid sequence specified in the , and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1, wherein the substituted amino acid residue specified in the is not further mutated in the . a Fab region-binding peptide having an amino acid sequence of SEQ ID NO: 1 derived from the β1 domain of protein G with substitution of an amino acid residue at the 13th position to Thr or Ser, optionally with substitution of an amino acid residue at not less than one position selected from the 19th, 30th and 33rd positions, and wherein the Fab region-binding peptide has a higher binding force to the Fab region of immunoglobulin than that before introduction of the substitution; a Fab region-binding peptide having an amino acid sequence specified in the with deletion, substitution and/or addition of not less than 1 and not more than 10 amino acid residues at a region other than the 13th, 19th, 30th and 33rd positions, and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1; a Fab region-binding peptide having an amino acid sequence having not less than 80% sequence identity to the amino acid sequence specified in the , and having a higher binding force to the Fab region of immunoglobulin than the peptide having the amino acid sequence of SEQ ID NO: 1, wherein the substituted amino acid residue specified in the is not further mutated in the .
An antiseptic composition suitable for use on skin and wounds comprising an antiseptic agent comprising 0.01% to 1.0 % by weight of iodine, wherein the iodine source is an iodide, an oxidant, buffering agent to maintain the composition at a pH of about 4 to 6, and from 0.5% to 10% by weight of a di-, tri, or tetra-basic salt of EDTA; wherein the oxidant is held separately from the iodide until the point of use.
A method for managing a secure session, comprising: detecting a login event at an electronic device using a first login method to initiate a secure session for a user; capturing an initial image of the user at a same time as the login event using a camera of the electronic device capturing initial sensor data at the same time as the login event , wherein the initial sensor data comprises data relating to one or more environmental factors; monitoring for changes in the initial sensor data during the secure session ; maintaining the secure session based on the initial sensor data and the monitored changes from the initial sensor data ; and during the secure session, permitting access to the electronic device using reidentification if a confidence score remains an acceptable value based on the monitored changes from the initial sensor data. detecting a login event at an electronic device using a first login method to initiate a secure session for a user; capturing an initial image of the user at a same time as the login event using a camera of the electronic device capturing initial sensor data at the same time as the login event , wherein the initial sensor data comprises data relating to one or more environmental factors; monitoring for changes in the initial sensor data during the secure session ; maintaining the secure session based on the initial sensor data and the monitored changes from the initial sensor data ; and during the secure session, permitting access to the electronic device using reidentification if a confidence score remains an acceptable value based on the monitored changes from the initial sensor data.
A ruggedized cable connection structure configured to direct mate first and second ruggedized optical fiber connectors , the connection structure comprising: a housing having a channel extending from a first end (1 10a) of the housing through to a second end (1 10b) of the housing; an adapter secured within the channel at a midpoint of the housing to enable direct mating of the first and second ruggedized optical fiber connectors ; and an interconnection feature integrally formed with the housing to allow connection to another cable connection structure , wherein the interconnection feature includes: a vertical alignment guide extending from the housing transverse to a longitudinal axis of the cable connection structure configured to allow a second cable connection structure to be mounted on top of the cable connection structure housing in a stacked configuration; and a horizontal flange comprising at least one interlocking structure disposed on the flange configured to engage with a complementary interlocking structure to link two or more of the cable connection structures (800A-800D) in a side-by-side configuration. a housing having a channel extending from a first end (1 10a) of the housing through to a second end (1 10b) of the housing; an adapter secured within the channel at a midpoint of the housing to enable direct mating of the first and second ruggedized optical fiber connectors ; and an interconnection feature integrally formed with the housing to allow connection to another cable connection structure , wherein the interconnection feature includes: a vertical alignment guide extending from the housing transverse to a longitudinal axis of the cable connection structure configured to allow a second cable connection structure to be mounted on top of the cable connection structure housing in a stacked configuration; and a horizontal flange comprising at least one interlocking structure disposed on the flange configured to engage with a complementary interlocking structure to link two or more of the cable connection structures (800A-800D) in a side-by-side configuration. a vertical alignment guide extending from the housing transverse to a longitudinal axis of the cable connection structure configured to allow a second cable connection structure to be mounted on top of the cable connection structure housing in a stacked configuration; and a horizontal flange comprising at least one interlocking structure disposed on the flange configured to engage with a complementary interlocking structure to link two or more of the cable connection structures (800A-800D) in a side-by-side configuration.
A filter arrangement for a vacuum cleaning appliance , comprising: a filter enclosure having an enclosure opening; a filter configured to be received through the enclosure opening into the filter enclosure in an insertion direction; and retention means operable between latched and unlatched states for releasably retaining the filter in the filter enclosure, characterised in that the filter includes an actuation portion configured to operate the retention means , wherein the actuation portion is moveable between at least first and second positions and is biased towards the second position, wherein, when the filter is in the filter enclosure, movement of the actuation portion in the insertion direction from the first position to a depressed position transitions the retention means to the unlatched state, whereinafter the actuation portion is moved to the second position in which at least a part of the actuation portion is elevated above the enclosure opening, and wherein the filter further includes a filter body , and wherein the actuation portion is movable relative to the filter body . a filter enclosure having an enclosure opening; a filter configured to be received through the enclosure opening into the filter enclosure in an insertion direction; and retention means operable between latched and unlatched states for releasably retaining the filter in the filter enclosure, characterised in that the filter includes an actuation portion configured to operate the retention means , wherein the actuation portion is moveable between at least first and second positions and is biased towards the second position, wherein, when the filter is in the filter enclosure, movement of the actuation portion in the insertion direction from the first position to a depressed position transitions the retention means to the unlatched state, whereinafter the actuation portion is moved to the second position in which at least a part of the actuation portion is elevated above the enclosure opening, and wherein the filter further includes a filter body , and wherein the actuation portion is movable relative to the filter body .
An apparatus for wastewater treatment and phosphorus recovery through magnesium ammonium phosphate precipitation, comprising a reactor tank for wastewater retention with an inlet and an outlet , a dosing unit for magnesium chloride (MgClz) and a degassing unit , wherein the dosing unit and the degassing unit are each connected or attached to the reactor tank , the apparatus comprises an inlet duct connected to the reactor tank inlet and the dosing unit is connected to the inlet duct , the degassing unit comprises a vacuum pump and the apparatus is configured for maintaining a headspace in the reactor tank at an absolute pressure of 5 to 40 kPa.
A cable management device , comprising: a first cable management arm ; a second cable management arm movable relative to the first cable management arm ; a first connecting member movably connected to the first cable management arm ; and a blocking member arranged adjacent to a junction area between the first connecting member and the first cable management arm , and configured to abut against at least one of the first connecting member and the first cable management arm to limit a relative movement between the first connecting member and the first cable management arm to a limited range; wherein the first connecting member is pivotally connected to an end of the first cable management arm by a first shaft member , characterized in that the blocking member has a curved portion adjacent to the first shaft member , and the blocking member has a first limiting part and a second limiting part configured to respectively abut against the first connecting member and the first cable management arm . a first cable management arm ; a second cable management arm movable relative to the first cable management arm ; a first connecting member movably connected to the first cable management arm ; and a blocking member arranged adjacent to a junction area between the first connecting member and the first cable management arm , and configured to abut against at least one of the first connecting member and the first cable management arm to limit a relative movement between the first connecting member and the first cable management arm to a limited range; wherein the first connecting member is pivotally connected to an end of the first cable management arm by a first shaft member , characterized in that the blocking member has a curved portion adjacent to the first shaft member , and the blocking member has a first limiting part and a second limiting part configured to respectively abut against the first connecting member and the first cable management arm .
A method of adjusting properties of an original electromagnetic interference (EMI) shielding composite, the original EMI shielding composite comprising carbon nanostructure (CNS) fillers and a matrix material, the CNS fillers being distributed within the matrix material, the CNS fillers comprising a plurality of cross-linked carbon nanotubes and a polymeric encapsulation material encapsulating at least some of the carbon nanotubes, the method comprising: providing carbon nanostructure (CNS) fillers comprising a plurality of cross-linked carbon nanotubes and one or more polymeric encapsulation materials, the carbon nanotubes being at least partially encapsulated by the one or more polymeric encapsulation materials; treating the CNS fillers to remove at least a portion of the polymeric encapsulation materials from the CNS fillers; and after removing the polymeric encapsulation material, mixing the treated CNS fillers with a curable matrix material to obtain a modified electromagnetic interference (EMI) shielding composite. providing carbon nanostructure (CNS) fillers comprising a plurality of cross-linked carbon nanotubes and one or more polymeric encapsulation materials, the carbon nanotubes being at least partially encapsulated by the one or more polymeric encapsulation materials; treating the CNS fillers to remove at least a portion of the polymeric encapsulation materials from the CNS fillers; and after removing the polymeric encapsulation material, mixing the treated CNS fillers with a curable matrix material to obtain a modified electromagnetic interference (EMI) shielding composite.