mhurhangee/ep-ind-claims huggingface dataset:
A system for modifying a location of a water impingement limit (144, 146) on an airfoil of an aircraft, the system comprising: a flight control computer configured to: receive data representative of environmental parameters sensed in an environment of a flight path of an aircraft; and determine, based on the environmental parameters, an existence of icing conditions to which the aircraft is currently subjected or is predicted to be subjected; and generate, based on the existence of icing conditions, a command signal for actuating a movable surface of the aircraft; and a surface actuator configured to receive the command signal from the flight control computer and adjust the movable surface in a manner causing an increase in an angle of attack of the airfoil to thereby modify a location of a water impingement limit (144, 146) on the airfoil, the flight control computer further being configured to temporarily adjust a thrust setting of a propulsion unit of the aircraft to maintain the aircraft at the same altitude for the time period when the aircraft is subjected to the icing conditions. receive data representative of environmental parameters sensed in an environment of a flight path of an aircraft; and determine, based on the environmental parameters, an existence of icing conditions to which the aircraft is currently subjected or is predicted to be subjected; and generate, based on the existence of icing conditions, a command signal for actuating a movable surface of the aircraft; and a surface actuator configured to receive the command signal from the flight control computer and adjust the movable surface in a manner causing an increase in an angle of attack of the airfoil to thereby modify a location of a water impingement limit (144, 146) on the airfoil, the flight control computer further being configured to temporarily adjust a thrust setting of a propulsion unit of the aircraft to maintain the aircraft at the same altitude for the time period when the aircraft is subjected to the icing conditions.
An organic electroluminescent element comprising a substrate having thereon electrodes and at least one organic layer, wherein at least one organic layer is a light-emitting layer incorporating a host compound and a phosphorescent compound, the host compound has a HOMO level of -7.20 to -5.42 eV and a LUMO level of -2.30 to -0.50 eV, and the phosphorescent compound is represented by wherein R 1 and R 2 represents a Substituent; R 3 represents a hydrogen atom or a Substituent; Z represents a non-metal atom group necessary to form a 5 to 7-membered ring; n1 represents an integer of 0 to 5; M 1 represents a metal of group 8 to 10 of the periodic table; X 1 and X 2 each independently represent a carbon atom, a nitrogen atom, or an oxygen atom; L 1 represents a group of atoms to form a bidentate Ligand together with X 1 and X 2; m1 is an integer of 1 to 3, and m2 is an integer of 0 to 2, provided that a sum of m1 and m2 is 2 or 3, and the Substituent represented by R 2 is represented by Formula, wherein R 4 represents a substituent having a steric parameter value (an Es value) of not more than -0.5, R 5 represents a Substituent, and n5 represent an integer of 0 to 4, an asterisk "*" indicates a bonding position, wherein values of the HOMO and the LUMO levels denote the value obtained by calculations using Gaussian 98 (Gaussian 98, Revision A. 11. 4, M. J. Frisch, et al., Gaussian, Inc., Pittsburg PA, 2002), which is software for a molecular orbital calculation, and produced by Gaussian Inc., and the value of the HOMO and the LUMO levels of the host compound of the present invention are defined as values (a converted value in eV unit) calculated via structure optimization employing B3LYP/6-31G* as a key word.
H-bridge inverter, where the H-bridge inverter comprises: - first and second DC terminals (Tdc1, Tdc2); - first and second AC terminals (Tacl, Tac2); - a first switch connected between the first DC terminal and the first AC terminal; - a second switch connected between the first AC terminal and the second DC terminal; - a third switch connected between the first DC terminal and the second AC terminal; - a fourth switch connected between the second AC terminal and the second DC terminal; - a control circuit for controlling the switching of the first, second, third and fourth switches (S1, S2, S3, S4); where the first, second, third and fourth switches (S1, S2, S3, S4) comprises anti-parallel diodes or is connected in parallel with anti-parallel diodes; characterized in that: the control circuit is configured to control the switches (S1, S2, S3, S4) in continuous mode between the following states: - a first state where the first switch is turned off, the second switch is performing PWM switching, the third switch is turned off and the fourth switch is turned on; - a second state where the first switch is turned off, the second switch is performing PWM switching, the third switch is turned on and the fourth switch is turned off; - a third state where the first switch is turned off, the second switch is turned on, the third switch is turned off and the fourth switch is performing PWM switching; - a fourth state where the first switch is turned on, the second switch is turned off, the third switch is turned off and the fourth switch is performing PWM switching. - first and second DC terminals (Tdc1, Tdc2); - first and second AC terminals (Tacl, Tac2); - a first switch connected between the first DC terminal and the first AC terminal; - a second switch connected between the first AC terminal and the second DC terminal; - a third switch connected between the first DC terminal and the second AC terminal; - a fourth switch connected between the second AC terminal and the second DC terminal; - a control circuit for controlling the switching of the first, second, third and fourth switches (S1, S2, S3, S4); - a first state where the first switch is turned off, the second switch is performing PWM switching, the third switch is turned off and the fourth switch is turned on; - a second state where the first switch is turned off, the second switch is performing PWM switching, the third switch is turned on and the fourth switch is turned off; - a third state where the first switch is turned off, the second switch is turned on, the third switch is turned off and the fourth switch is performing PWM switching; - a fourth state where the first switch is turned on, the second switch is turned off, the third switch is turned off and the fourth switch is performing PWM switching.
A wheel axle for a combine harvester having a frame and at least one wheel suspension, the wheel suspension comprising: a first body connected to the frame; a distribution bar having a first end and an opposed second end, said distribution bar being pivotally mounted to the first body at a midpoint of the distribution bar between the first and second ends of the distribution bar; a lift link pivotally connected to the frame, wherein the first end of the distribution bar is pivotally connected to a first end of the lift link; a push link, wherein the second end of the distribution bar is pivotally connected to a first end of the push link; and a wheel carrier defining a wheel axis for a ground-contacting element to be mounted to the wheel carrier, wherein opposed second ends of the respective lift link and push link are pivotally coupled with the wheel carrier, such that the wheel carrier and wheel axis are adjustable relative to the frame; characterised in that the first body comprises an actuator having a first end mounted to the frame, and wherein the distribution bar is pivotally mounted to the second end of the actuator. a first body connected to the frame; a distribution bar having a first end and an opposed second end, said distribution bar being pivotally mounted to the first body at a midpoint of the distribution bar between the first and second ends of the distribution bar; a lift link pivotally connected to the frame, wherein the first end of the distribution bar is pivotally connected to a first end of the lift link; a push link, wherein the second end of the distribution bar is pivotally connected to a first end of the push link; and a wheel carrier defining a wheel axis for a ground-contacting element to be mounted to the wheel carrier, wherein opposed second ends of the respective lift link and push link are pivotally coupled with the wheel carrier, such that the wheel carrier and wheel axis are adjustable relative to the frame; characterised in that the first body comprises an actuator having a first end mounted to the frame, and wherein the distribution bar is pivotally mounted to the second end of the actuator.
Pneumatic vehicle tyre having a tread, a tyre sidewall and a tyre bead with a bead core and a core profile, wherein the core profile encloses the bead core rotationally symmetrically to the axial axis of the pneumatic vehicle tyre and at least one carcass inlay is wrapped around the bead core with the core profile, wherein the bead core has in cross section a multiplicity of steel cord wires (4, 5) and the steel cord wires (4, 5) each have an outer rubber coating, characterized in that the rubber coating of the individual steel cord wires in the inner region of the bead core is substantially unvulcanized and substantially uncrosslinked owing to a lack of vulcanizing agent, with the result that the individual steel cord wires in the inner region of the bead core are designed to be movable with respect to one another in the circumferential direction and the tyre bead has overall a reduced bending stiffness by comparison with conventional pneumatic vehicle tyres, wherein the outer edge region of the bead core is connected to the adjoining tyre bead components by a crosslinked rubber mixture.
The use of a nitrogen-containing ashless dispersant additive in an amount providing in the range of 50 to 150, preferably 75 to 125, ppm N by mass in a trunk piston marine lubricating oil composition for a medium-speed compression-ignited marine engine, fueled by a heavy fuel oil, and its lubrication by the composition, the composition having a BN in the range of 20 to 60, preferably 30 to 55, as measured by ASTM D2896, wherein the oil of lubricating viscosity present in the trunk piston marine lubricating oil composition in an amount of 50 mass % or more thereof contains a basestock containing greater than or equal to 90 % saturates and less than or equal to 0.03 % sulphur, the use being to diminish the loss of BN and to diminish the increase in viscosity without adversely affecting deposits performance.
An antibody or antigen-binding fragment thereof comprising: (i) light chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof and heavy chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof; (ii) a variable human light chain framework comprising an amino acid sequence that is at least 85% identical to the sequence of SEQ ID NO: 2; and (iii) a variable human heavy chain framework, wherein the amino acid sequence of the variable heavy chain framework is at least 85% identical to the sequence of SEQ ID NO: 4 and comprises at least four of the following amino acids: threonine at position 24, alanine or glycine at position 56, threonine at position 84, valine at position 89, and arginine at position 108 (AHo numbering). (i) light chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof and heavy chain CDR1, CDR2 and CDR3 from a donor lagomorph antibody or antigen-binding fragment thereof; (ii) a variable human light chain framework comprising an amino acid sequence that is at least 85% identical to the sequence of SEQ ID NO: 2; and (iii) a variable human heavy chain framework, wherein the amino acid sequence of the variable heavy chain framework is at least 85% identical to the sequence of SEQ ID NO: 4 and comprises at least four of the following amino acids: threonine at position 24, alanine or glycine at position 56, threonine at position 84, valine at position 89, and arginine at position 108 (AHo numbering).
A travel pillow comprising: a U-shaped, pliable base cushion having a top side, a bottom side, an inner peripheral wall, a pair of opposing front walls, and an outer peripheral wall comprising a rear wall; a U-shaped raised cushion having a top side, a bottom side, an inner peripheral wall, and an outer peripheral wall comprising a rear wall, all defining a rear portion and two opposing side portions of the raised cushion, the raised cushion fixed with the top side of the base cushion, the rear portion of the raised cushion being thinner than each side portion of the raised cushion; and a selectively removable fabric cover adapted to cover the base and raised cushions (20,30) and Including an opening at a bottom side thereof; wherein the rear walls (27,47) of the base and raised cushions (20,30) are substantially flat, characterized in that the rear walls (27,47) of the base and raised cushions (20,30) are mutually flush. a U-shaped, pliable base cushion having a top side, a bottom side, an inner peripheral wall, a pair of opposing front walls, and an outer peripheral wall comprising a rear wall; a U-shaped raised cushion having a top side, a bottom side, an inner peripheral wall, and an outer peripheral wall comprising a rear wall, all defining a rear portion and two opposing side portions of the raised cushion, the raised cushion fixed with the top side of the base cushion, the rear portion of the raised cushion being thinner than each side portion of the raised cushion; and a selectively removable fabric cover adapted to cover the base and raised cushions (20,30) and Including an opening at a bottom side thereof; wherein the rear walls (27,47) of the base and raised cushions (20,30) are substantially flat, characterized in that the rear walls (27,47) of the base and raised cushions (20,30) are mutually flush.
A method for facilitating a change from a first communication channel to a second communication channel for an interaction within a contact center system for a first party after the interaction has been initiated and the first party is in queue for the first communication channel, comprising: a. providing, through a user interface (105, 110, 205, 300, 510), the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels; c. processing the first selection by a service associated with the first communication channel, and routing the interaction into a queue associated with the first communication channel; d. informing, through the user interface (105, 110, 205, 300, 510) while the first party in waiting in the queue for the first communication channel, the first party of estimated queue wait times associated with each of the plurality of communication channels; e. providing, through the user interface (105, 110, 205, 300, 510) while the first party in waiting in the queue for the first communication channel, the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels; f. receiving a selection from the first party of the second communication channel; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel. a. providing, through a user interface (105, 110, 205, 300, 510), the first party with estimated queue wait times for a plurality of communication channels associated with the contact center system; b. initiating an interaction through receiving a selection from the first party of the first communication channel from the plurality of communication channels; c. processing the first selection by a service associated with the first communication channel, and routing the interaction into a queue associated with the first communication channel; d. informing, through the user interface (105, 110, 205, 300, 510) while the first party in waiting in the queue for the first communication channel, the first party of estimated queue wait times associated with each of the plurality of communication channels; e. providing, through the user interface (105, 110, 205, 300, 510) while the first party in waiting in the queue for the first communication channel, the first party with the capability to switch channels through selection of a prompt associated with each of the plurality of communication channels; f. receiving a selection from the first party of the second communication channel; g. transferring, via a switch channel API, the interaction from the queue associated with the first communication channel to a queue associated with the second communication channel.
A method of preparing a positive electrode active material for a secondary battery, the method comprising: preparing a positive electrode active material precursor including nickel (Ni), cobalt (Co), manganese (Mn) and aluminum (Al); and forming a lithium composite transition metal oxide by mixing the positive electrode active material precursor and a lithium source and performing calcination, wherein the positive electrode active material precursor includes nickel (Ni) in an amount of 60 mol% or more out of the entire metal element, and a molar ratio (Li/M) of lithium (Li) of the lithium source to the entire metal element of the positive electrode active material precursor is 1.105 to 1.30. preparing a positive electrode active material precursor including nickel (Ni), cobalt (Co), manganese (Mn) and aluminum (Al); and forming a lithium composite transition metal oxide by mixing the positive electrode active material precursor and a lithium source and performing calcination, wherein the positive electrode active material precursor includes nickel (Ni) in an amount of 60 mol% or more out of the entire metal element, and a molar ratio (Li/M) of lithium (Li) of the lithium source to the entire metal element of the positive electrode active material precursor is 1.105 to 1.30.
An electronic device, comprising: at least one antenna; a wireless communication module comprising a plurality of processing circuits performing communication based on a wireless-fidelity, Wi-Fi, communication using the at least one antenna; a memory configured to store transmission power level information according to a number of processing circuits that are operating; and one or more processors, wherein the one or more processors are configured to: determine whether the wireless communication module is simultaneously operating in a plurality of different frequency bands of the Wi-Fi communication; obtain a number of processing circuits that are simultaneously operating in the wireless communication module when the wireless communication module is simultaneously operating in the plurality of different frequency bands of the Wi-Fi communication; verify the transmission power level information corresponding to the number of processing circuits; and reduce a transmission power level of the wireless communication module based on the verified transmission power level information. at least one antenna; a wireless communication module comprising a plurality of processing circuits performing communication based on a wireless-fidelity, Wi-Fi, communication using the at least one antenna; a memory configured to store transmission power level information according to a number of processing circuits that are operating; and one or more processors, wherein the one or more processors are configured to: determine whether the wireless communication module is simultaneously operating in a plurality of different frequency bands of the Wi-Fi communication; obtain a number of processing circuits that are simultaneously operating in the wireless communication module when the wireless communication module is simultaneously operating in the plurality of different frequency bands of the Wi-Fi communication; verify the transmission power level information corresponding to the number of processing circuits; and reduce a transmission power level of the wireless communication module based on the verified transmission power level information. determine whether the wireless communication module is simultaneously operating in a plurality of different frequency bands of the Wi-Fi communication; obtain a number of processing circuits that are simultaneously operating in the wireless communication module when the wireless communication module is simultaneously operating in the plurality of different frequency bands of the Wi-Fi communication; verify the transmission power level information corresponding to the number of processing circuits; and reduce a transmission power level of the wireless communication module based on the verified transmission power level information.
A device for strapping goods with a strap, having a strap guide frame (9, 10) to which strap is fed to form a loop around the goods (4, 5), the strap guide frame (9, 10) having an upper horizontal section which is formed by a horizontally displaceable and height-adjustable lance which can be displaced from a strapping position closing the strap guide frame into an opening position outside the strap guide frame, characterized in that a first vertical section of the strap guide frame (9, 10) has a plurality of swivel segments arranged one above the other, and in that the lance is coupled to a vertically acting displacement drive configured to align the lance with one of the swivel segments before the horizontal insertion into the strapping position.
An ex vivo computer-implemented method of measuring immune infiltration in a tumour, the method comprising: providing an image of the tumour in which lymphocytes and cancer cells have been identified; obtaining a lymphocyte-to-cancer measurement for each lymphocyte, comprising applying a density estimate to obtain a model of the cancer cell density; and determining the proximity of each lymphocyte to cancer cell density; classifying a subset of the lymphocytes as intra-tumour lymphocytes according to their lymphocyte-to-cancer measurement wherein a lymphocyte is classified as an intra-tumour lymphocyte if its lymphocyte-to-cancer measurement is above a threshold value; quantifying the intra-tumour lymphocytes and the cancer cells in the tumour image; and calculating the intra-tumour lymphocyte ratio (ITLR) as the ratio of intra-tumour lymphocytes to cancer cells, wherein the ITLR is a measurement of immune infiltration in the tumour. providing an image of the tumour in which lymphocytes and cancer cells have been identified; obtaining a lymphocyte-to-cancer measurement for each lymphocyte, comprising applying a density estimate to obtain a model of the cancer cell density; and determining the proximity of each lymphocyte to cancer cell density; classifying a subset of the lymphocytes as intra-tumour lymphocytes according to their lymphocyte-to-cancer measurement wherein a lymphocyte is classified as an intra-tumour lymphocyte if its lymphocyte-to-cancer measurement is above a threshold value; quantifying the intra-tumour lymphocytes and the cancer cells in the tumour image; and calculating the intra-tumour lymphocyte ratio (ITLR) as the ratio of intra-tumour lymphocytes to cancer cells, wherein the ITLR is a measurement of immune infiltration in the tumour.