mhurhangee/ep-ind-claims huggingface dataset:
A method for validating an eligibility for checksum verification of a memory device within an embedded demand paged memory operating system environment, the method comprising: receiving a request to utilize at least one memory location included in the memory device from an application being executed by a processor coupled to the memory device; identifying, by the processor, at least one memory block corresponding to at least one memory location within the memory device, wherein multiple memory locations are organized into memory blocks; determining, by the processor, whether the at least one memory block is eligible for checksum verification, wherein determining whether the at least one memory block is eligible for checksum verification comprises determining whether the at least one memory block is writable; and producing an eligibility result based on the determination by the processor. receiving a request to utilize at least one memory location included in the memory device from an application being executed by a processor coupled to the memory device; identifying, by the processor, at least one memory block corresponding to at least one memory location within the memory device, wherein multiple memory locations are organized into memory blocks; determining, by the processor, whether the at least one memory block is eligible for checksum verification, wherein determining whether the at least one memory block is eligible for checksum verification comprises determining whether the at least one memory block is writable; and producing an eligibility result based on the determination by the processor.
A patient support, comprising: a right side bladder having an interior region; a left side bladder having an interior region; and a valve assembly in fluid communication with the interior regions of the right and left side bladders (116; 118), the valve assembly having a plurality of positions to control the inflation of the right and left bladders; wherein the plurality of positions includes a first position with the right side bladder inflated and the left side bladder deflated, a second position with the left side bladder inflated and the right side bladder deflated, a third position with the left and right side bladders inflated, and a fourth position with the right side and left side bladders deflated; wherein the patient support further comprises a right foot bladder positioned to support a right lower leg of a patient, and a left foot bladder positioned to support a left lower leg of a patient, wherein the right side bladder is positioned to support a right side of a patient torso and the left side bladder is positioned to support a left side of the patient torso, and the valve assembly includes a fifth position that inflates the right and left side bladders (116; 118) and right and left foot bladders (120; 122) when in the fifth position; and the valve assembly deflates the right and left foot bladders when in the first, second, third, and fourth positions. a right side bladder having an interior region; a left side bladder having an interior region; and a valve assembly in fluid communication with the interior regions of the right and left side bladders (116; 118), the valve assembly having a plurality of positions to control the inflation of the right and left bladders; wherein the plurality of positions includes a first position with the right side bladder inflated and the left side bladder deflated, a second position with the left side bladder inflated and the right side bladder deflated, a third position with the left and right side bladders inflated, and a fourth position with the right side and left side bladders deflated;
A surgical cutting instrument for use with a computer-assisted medical device, the instrument comprising: an end effector located at a distal end of the instrument, the end effector comprising opposable gripping jaws and a cutting blade; one or more drive units; a shaft coupled to the one or more drive units; an articulated wrist coupling the end effector to the shaft; and one or more drive mechanisms in the shaft for coupling force or torque from the one or more drive units to the end effector and the articulated wrist; characterised in that to perform a cutting operation, the instrument is configured to: measure a jaw angle between the gripping jaws; measure articulation of the articulated wrist; correct the jaw angle based on the articulation of the articulated wrist; determine a restriction on the cutting operation based on the corrected jaw angle; and perform or prevent the cutting operation based on the restriction. an end effector located at a distal end of the instrument, the end effector comprising opposable gripping jaws and a cutting blade; one or more drive units; a shaft coupled to the one or more drive units; an articulated wrist coupling the end effector to the shaft; and one or more drive mechanisms in the shaft for coupling force or torque from the one or more drive units to the end effector and the articulated wrist; characterised in that to perform a cutting operation, the instrument is configured to: measure a jaw angle between the gripping jaws; measure articulation of the articulated wrist; correct the jaw angle based on the articulation of the articulated wrist; determine a restriction on the cutting operation based on the corrected jaw angle; and perform or prevent the cutting operation based on the restriction. measure a jaw angle between the gripping jaws; measure articulation of the articulated wrist; correct the jaw angle based on the articulation of the articulated wrist; determine a restriction on the cutting operation based on the corrected jaw angle; and perform or prevent the cutting operation based on the restriction.
Vehicle body with a device for securing loads, which comprises a lashing strap, which is attached at attachment points (11, 12) on mutually opposing long sides of a loading surface and is provided with a tensioning device, and a lashing strap guide which comprises two cable strands, which can be extended about deflection rollers in the corner region between the long walls (4, 5) and the roof of the vehicle body from a cable store against a spring force and displaceably engage the lashing strap, characterised in that the two deflection rollers are mounted in a hollow transverse strut of the roof, that, between the two deflection rollers, the transverse strut accommodates a tension spring and the cable store which has a set (18, 19) of cable rollers which is acted upon by the tension spring, can be displaced along the transvers strut and is non-displaceably held in the transverse strut, and that the two cable strands form end portions of a cable which is passed to and fro between the two cable roller sets (18, 19) in a loop-forming manner.
Cage for retaining tapered rollers in a roller bearing, said cage having two rings (2, 3) spaced apart axially by a plurality of bridges each having two lateral walls forming between each of the adjacent bridges and a segment (2a, 3a) of each of said rings a peripheral frame wherein a tapered roller is held while being able to rotate about its own axis, each of said lateral walls having an exterior surface extending externally at an angle converging towards the exterior surface of an adjacent lateral wall in order to form between said exterior surfaces an exterior narrowing preventing the tapered rollers held in the peripheral frame from emerging to the outside, said cage being characterised in that each of the lateral walls has two adjacent interior surfaces respectively external and internal, which are separated by a step, each of said interior surfaces converging towards the centre of the cage over a distance that is sufficient to form between two adjacent internal - and respectively external - interior surfaces an internal - or respectively external - narrowing preventing the tapered rollers held in the peripheral frame from emerging to the inside.
A method for calibrating an eye-brain interface system that is controlled based on eye tracking and brain waves, the method comprising: providing an eye-brain calibration interface for calibrating gaze position and brain waves together, wherein the EBC interface comprises a visual object and instructs a user to gaze the visual object, hereby inducing a particular cognitive state of the user and simultaneously inducing the movement of the eyes to a particular point on the screen; obtaining the user's gaze position and brain wave on the visual object included in the EBC interface; mapping the visual object with the user's gaze position; and mapping the particular cognitive state with the user's brain wave, wherein the EBC interface sequentially and/or alternately provides a first visual object instructing the user to view the first visual object inducing a first cognitive state and a second visual object instructing the user to view the second visual object inducing a second cognitive state. providing an eye-brain calibration interface for calibrating gaze position and brain waves together, wherein the EBC interface comprises a visual object and instructs a user to gaze the visual object, hereby inducing a particular cognitive state of the user and simultaneously inducing the movement of the eyes to a particular point on the screen; obtaining the user's gaze position and brain wave on the visual object included in the EBC interface; mapping the visual object with the user's gaze position; and mapping the particular cognitive state with the user's brain wave, wherein the EBC interface sequentially and/or alternately provides a first visual object instructing the user to view the first visual object inducing a first cognitive state and a second visual object instructing the user to view the second visual object inducing a second cognitive state.
A heating and cooling system for a vehicle having an internal combustion engine, the system comprising: at least one exhaust pipe conveying exhaust gases away from the engine; a reactor vessel located in the exhaust pipe and containing an absorbent salt and a refrigerant fluid; a condenser in fluid communication with the reactor vessel, the condenser receiving refrigerant vapour from the reactor when exhaust gases heat the reactor vessel in the exhaust pipe; and wherein the system further comprises: an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel, the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel, the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe. at least one exhaust pipe conveying exhaust gases away from the engine; a reactor vessel located in the exhaust pipe and containing an absorbent salt and a refrigerant fluid; a condenser in fluid communication with the reactor vessel, the condenser receiving refrigerant vapour from the reactor when exhaust gases heat the reactor vessel in the exhaust pipe; and wherein the system further comprises: an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel, the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel, the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe. an evaporator locatable in a cab of the vehicle and being in fluid communication with the condenser and the reactor vessel, the evaporator receiving condensed refrigerant from the condenser so as to cool the air surrounding the evaporator, and returning refrigerant vapour to the reactor vessel; an air/fuel burner in fluid communication with sources of air and fuel, the burner selectively operable to introduce air or an air/fuel mixture into the at least one exhaust pipe upstream of the reactor vessel; and an exhaust air inlet in the at least one exhaust pipe upstream of the reactor vessel, the air inlet being movable between closed and open positions to selectively allow ambient air to be drawn into the exhaust pipe.
A method performed by a radio access network, RAN, node in wireless communication system, the method comprising: receiving (301, 1901), from an access and mobility management function, AMF, a first message including first information to request to report a radio resource control, RRC, state of a user equipment, UE; and, transmitting (302, 1902), to the AMF, a second message including second information on the RRC state of the UE based on the first information in case that the UE enters or leaves an inactive state. receiving (301, 1901), from an access and mobility management function, AMF, a first message including first information to request to report a radio resource control, RRC, state of a user equipment, UE; and, transmitting (302, 1902), to the AMF, a second message including second information on the RRC state of the UE based on the first information in case that the UE enters or leaves an inactive state.
A method for detecting a target nucleic acid, said method comprising the steps of: sequentially or simultaneously bringing a fragmentation product of a target nucleic acid, a plurality of detection probes, and a capture probe immobilized on a support, into contact with each other to hybridize said capture probe with said fragmentation product of said target nucleic acid and to hybridize said fragmentation product of said target nucleic acid with said plurality of detection probes, thereby binding said plurality of detection probes to said support through said capture probe and said fragmentation product of said target nucleic acid; and detecting said plurality of detection probes bound to said support, wherein in said fragmentation product of said target nucleic acid to be hybridized with said capture probe, a plurality of detection probes are hybridized at distances of not more than the mode of the nucleic acid length of said fragmentation product of said target nucleic acid from the binding position of said capture probe, the mode of the nucleic acid length of said fragmentation product of said target nucleic acid to be hybridized with said capture probe being within the range of 100 bases to 1500 bases, and wherein the mode of the nucleic acid length is the x-axis value of the highest position in the waveform (peak top) of an electropherogram obtained using an electrophoretic method. sequentially or simultaneously bringing a fragmentation product of a target nucleic acid, a plurality of detection probes, and a capture probe immobilized on a support, into contact with each other to hybridize said capture probe with said fragmentation product of said target nucleic acid and to hybridize said fragmentation product of said target nucleic acid with said plurality of detection probes, thereby binding said plurality of detection probes to said support through said capture probe and said fragmentation product of said target nucleic acid; and detecting said plurality of detection probes bound to said support, wherein in said fragmentation product of said target nucleic acid to be hybridized with said capture probe, a plurality of detection probes are hybridized at distances of not more than the mode of the nucleic acid length of said fragmentation product of said target nucleic acid from the binding position of said capture probe, the mode of the nucleic acid length of said fragmentation product of said target nucleic acid to be hybridized with said capture probe being within the range of 100 bases to 1500 bases, and wherein the mode of the nucleic acid length is the x-axis value of the highest position in the waveform (peak top) of an electropherogram obtained using an electrophoretic method.
A method for preparing a water-insoluble lignosulfonate polymer from a solution containing lignosulfonate precursors, namely from brown liquor, wherein the lignosulfonate precursor is a mixture of water-soluble lignosulfonate oligomers, the method comprising the following steps: a. separating the lignosulfonate oligomers and providing a solution with at least 5% by weight, preferably at least 10% by weight, of lignosulfonate oligomers, comprising filtering out components having a particle diameter of less than 1 μm, in particular of less than 100 nm, and removing low-molecular components with a molecular weight of less than 500 Da, b. adding an enzyme and gassing the lignosulfonate oligomer solution provided in step (a) with oxygen to form polymerizable lignosulfonate radicals, the enzyme being adapted to catalyze the formation of oxygen radicals at phenolic hydroxyl groups, the enzyme being a laccase, a peroxidase, or a mixture of several of these enzymes, oxygen being added as a gas with an admixture of not more than 10% by volume, preferably not more than 5 % by volume, of other gases, and c. polymerizing the lignosulfonate oligomers to form a water-insoluble lignosulfonate polymer. a. separating the lignosulfonate oligomers and providing a solution with at least 5% by weight, preferably at least 10% by weight, of lignosulfonate oligomers, comprising filtering out components having a particle diameter of less than 1 μm, in particular of less than 100 nm, and removing low-molecular components with a molecular weight of less than 500 Da, b. adding an enzyme and gassing the lignosulfonate oligomer solution provided in step (a) with oxygen to form polymerizable lignosulfonate radicals, the enzyme being adapted to catalyze the formation of oxygen radicals at phenolic hydroxyl groups, the enzyme being a laccase, a peroxidase, or a mixture of several of these enzymes, oxygen being added as a gas with an admixture of not more than 10% by volume, preferably not more than 5 % by volume, of other gases, and c. polymerizing the lignosulfonate oligomers to form a water-insoluble lignosulfonate polymer.
A method of quantifying whether an adhesive agent leaks from a polarizing plate or a degree of leakage of the adhesive agent, the method comprising: (a) preparing a polarizing plate including an adhesive layer; (b) providing the polarizing plate so that one end of the polarizing plate adjoins a guide unit; (c) moving the polarizing plate on the guide unit; (d) measuring frictional force applied between the polarizing plate and the guide unit while moving the polarizing plate; and (e) deriving, based on the measured value of the frictional force, a determination criterion based on which whether the adhesive agent leaks from the polarizing plate or the degree of leakage of the adhesive agent is determined. (a) preparing a polarizing plate including an adhesive layer; (b) providing the polarizing plate so that one end of the polarizing plate adjoins a guide unit; (c) moving the polarizing plate on the guide unit; (d) measuring frictional force applied between the polarizing plate and the guide unit while moving the polarizing plate; and (e) deriving, based on the measured value of the frictional force, a determination criterion based on which whether the adhesive agent leaks from the polarizing plate or the degree of leakage of the adhesive agent is determined.
A method of blending fuel compositions, comprising: blending one or more residual components having a T50 of 615°C or greater and at least 25 vol.% of one or more petroleum distillate fractions having a cetane index of 8 to 29 and a density of 910 kg/m 3 or less as determined according to ISO 3675, wherein the one or more residual components have a higher sulfur content than the one or more petroleum distillate fractions, to prepare a fuel composition, wherein the fuel composition has the following enumerated properties: a sulfur content of 0.50% or less by weight of the fuel composition; a calculated carbon aromaticity index of 870 or less; a density at 15 °C of 900 kg/m 3 to 1,010 kg/m 3 as determined according to ISO 3675; a kinematic viscosity at 50 °C of 100 centistokes to 700 centistokes; and an estimated cetane number of 7 or greater.
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein, independently for each occurrence: R 1 is C1-C6 alkyl, C1-C6 fluoroalkyl, C3-C8 cycloalkyl, halo, NR 8 SO 2 R 8, SO 2 R 8, SR 8, SOR 8, NR 8 COR 8, NR8CO 2 R 8, CN, CON(R 8) 2, SO 2 N(R 8) 2, CF 3, heterocycloalkyl, phenyl, heteroaryl, or a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR 8; R 2 is C1-C6 alkyl, C1-C6 fluoroalkyl, cycloalkyl, aryl, heteroaryl, or heterocycloalkyl, COR 8, CO 2 R 8, CON(R 8) 2, CF 3, CHF 2, or a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR 8; R 3 is C1-C6 alkyl or halo; R 8 is H, C1-C6 alkyl, or C3-C8 cycloalkyl, a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR, or 2 R 8 taken together with the atoms to which they are attached form a ring; R 9 is H, CF 3, CHF 2, CH 2 F, CO 2 R, OH, aryl, heteroaryl, C3-C8 cycloalkyl, heterocycloalkyl, N 2, NRCOR, CON 2, CN, or SO 2 R; R is H, C1-C6 alkyl, aryl, heteroaryl, C3-C8 cycloalkyl, or heterocycloalkyl; A is an aryl, heteroaryl or heterocyclic; n is an integer from 1 to 4 inclusive; and o is an integer from 0 to 4 inclusive; wherein each alkyl, fluoroalkyl, cycloalkyl, heterocycloalkyl, phenyl, heteroaryl, C3-C8 cycloalkyl, or aryl of R 1 to R 8 is ontionally substituted with one or more substituents selected from halo, cyano, oxoalkoxy, hydroxy, amino, nitro, aryl, haloalkyl, and alkyl. R 1 is C1-C6 alkyl, C1-C6 fluoroalkyl, C3-C8 cycloalkyl, halo, NR 8 SO 2 R 8, SO 2 R 8, SR 8, SOR 8, NR 8 COR 8, NR8CO 2 R 8, CN, CON(R 8) 2, SO 2 N(R 8) 2, CF 3, heterocycloalkyl, phenyl, heteroaryl, or a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR 8; R 2 is C1-C6 alkyl, C1-C6 fluoroalkyl, cycloalkyl, aryl, heteroaryl, or heterocycloalkyl, COR 8, CO 2 R 8, CON(R 8) 2, CF 3, CHF 2, or a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR 8; R 3 is C1-C6 alkyl or halo; R 8 is H, C1-C6 alkyl, or C3-C8 cycloalkyl, a straight chain, branched, or cyclic (C1-C8)-R 9 wherein up to two CH 2 units may be replaced with O, CO, S, SO, SO 2, N, CF 2, or NR, or 2 R 8 taken together with the atoms to which they are attached form a ring; R 9 is H, CF 3, CHF 2, CH 2 F, CO 2 R, OH, aryl, heteroaryl, C3-C8 cycloalkyl, heterocycloalkyl, N 2, NRCOR, CON 2, CN, or SO 2 R; R is H, C1-C6 alkyl, aryl, heteroaryl, C3-C8 cycloalkyl, or heterocycloalkyl; A is an aryl, heteroaryl or heterocyclic; n is an integer from 1 to 4 inclusive; and o is an integer from 0 to 4 inclusive;