mhurhangee/ep-ind-claims huggingface dataset:
Method for producing an air spring cover of an air spring system for a rail vehicle, the air spring cover being formed in a cup-shaped manner and having an upper wall, a lateral wall and a flange and the air spring cover being produced by a casting process, in particular by an aluminium casting process, characterized in that the casting is followed by carrying out an annealing treatment of the air spring cover, in which the air spring cover is immersed in an upright state, i.e. with the upper wall at the top and as result flange-first, into a cooling medium, the venting of the volume enclosed in the cup-shaped cover taking place through venting openings that are provided in the upper wall of the air spring cover and are arranged in projecting functional components of the air spring cover in such a way that the interior space of the cover is permanently vented during the entire process of immersion in the cooling medium.
A process comprising steps of: (a) contacting a mixture of i) an aqueous dispersion of TiO 2 particles and a sulfur-acid containing polymer; ii) an anionic surfactant; and iii) an aqueous solution of sodium styrene sulfonate with a redox initiator system; then (b) adding to the mixture of step (a) an aqueous dispersion of a first monomer mixture comprising monomers selected from the group consisting of acrylic monomers, ethylene monomers, styrene monomers, vinyl ester monomers, and combinations thereof; wherein said first monomer mixture comprises at least 60 wt% acrylic monomers, based on total weight of monomers in the first monomer mixture; (c) polymerizing the first monomer mixture to form an aqueous dispersion of a first polymer that at least partially encapsulates the TiO 2 particles; (d) adding to the aqueous dispersion of step (c) an aqueous dispersion of a second monomer mixture comprising monomers selected from the group consisting of acrylic monomers, ethylene monomers, styrene monomers, vinyl ester monomers, and combinations thereof; wherein said second monomer mixture comprises at least 50 wt% vinyl ester monomers, based on total weight of monomers in the second monomer mixture; and (e) polymerizing the second monomer mixture. (a) contacting a mixture of i) an aqueous dispersion of TiO 2 particles and a sulfur-acid containing polymer; ii) an anionic surfactant; and iii) an aqueous solution of sodium styrene sulfonate with a redox initiator system; then (b) adding to the mixture of step (a) an aqueous dispersion of a first monomer mixture comprising monomers selected from the group consisting of acrylic monomers, ethylene monomers, styrene monomers, vinyl ester monomers, and combinations thereof; wherein said first monomer mixture comprises at least 60 wt% acrylic monomers, based on total weight of monomers in the first monomer mixture; (c) polymerizing the first monomer mixture to form an aqueous dispersion of a first polymer that at least partially encapsulates the TiO 2 particles; (d) adding to the aqueous dispersion of step (c) an aqueous dispersion of a second monomer mixture comprising monomers selected from the group consisting of acrylic monomers, ethylene monomers, styrene monomers, vinyl ester monomers, and combinations thereof; wherein said second monomer mixture comprises at least 50 wt% vinyl ester monomers, based on total weight of monomers in the second monomer mixture; and (e) polymerizing the second monomer mixture.
A remote control system for operating a device, comprising: - a transmitting device for automatically emitting several device operating signals one after the other, wherein several different device operating signal sets are stored, which each are associated with a device, wherein each device operating signal set includes a plurality of device operating signals, and wherein at least two of the successive device operating signals are selected from different device operating signal sets; and wherein the device changes its operating condition in dependence on the device operating signal; - a receiving device coupled with the device for receiving the device operating signals; - a feedback device for emitting a feedback signal when the receiving device receives a device operating signal which originates from the device operating signal set associated with the device; - an actuating device coupled with the transmitting device for entering a confirmation by an operator; and comprising - a storage device coupled with the transmitting device for storing a device information on that device operating signal set which comprises the device operating signal that has been emitted directly before entering the confirmation, wherein the feedback device is coupled with the device and the feedback device includes an acoustic and/or optical feedback device, and wherein the device is an air-conditioning system. - a transmitting device for automatically emitting several device operating signals one after the other, wherein several different device operating signal sets are stored, which each are associated with a device, wherein each device operating signal set includes a plurality of device operating signals, and wherein at least two of the successive device operating signals are selected from different device operating signal sets; and wherein the device changes its operating condition in dependence on the device operating signal; - a receiving device coupled with the device for receiving the device operating signals; - a feedback device for emitting a feedback signal when the receiving device receives a device operating signal which originates from the device operating signal set associated with the device; - an actuating device coupled with the transmitting device for entering a confirmation by an operator; and comprising - a storage device coupled with the transmitting device for storing a device information on that device operating signal set which comprises the device operating signal that has been emitted directly before entering the confirmation,
A method to control a robot cleaner, the method comprising: selecting a first reference wall at a start position of the robot cleaner; and controlling the robot cleaner to move a first predetermined distance at specific intervals (d) along the selected first reference wall to travel a cleaning region; characterized in that controlling the robot cleaner to travel the cleaning region includes controlling the robot cleaner to move along paths in a matrix including at least two zigzag travel patterns in directions perpendicular to each other to allow the robot cleaner to travel throughout the cleaning region. selecting a first reference wall at a start position of the robot cleaner; and controlling the robot cleaner to move a first predetermined distance at specific intervals (d) along the selected first reference wall to travel a cleaning region; characterized in that controlling the robot cleaner to travel the cleaning region includes controlling the robot cleaner to move along paths in a matrix including at least two zigzag travel patterns in directions perpendicular to each other to allow the robot cleaner to travel throughout the cleaning region.
A surgical instrument (130, 200) for use with a computer-assisted device, the instrument (130, 200) comprising: an end effector located at a distal end of the instrument (130, 200); a drive unit for operating a mechanical degree of freedom of the instrument (130, 200); a shaft coupled to the drive unit; and one or more drive mechanisms in the shaft for coupling force or torque from the drive unit to the end effector; wherein to control the mechanical degree of freedom, the instrument (130, 200) is configured to: determine a current position of the mechanical degree of freedom; determine a force or torque limit compensation based on the current position; alter one or more force or torque limits based on the force or torque limit compensation; and adjust the mechanical degree of freedom subject to the one or more force or torque limits. an end effector located at a distal end of the instrument (130, 200); a drive unit for operating a mechanical degree of freedom of the instrument (130, 200); a shaft coupled to the drive unit; and one or more drive mechanisms in the shaft for coupling force or torque from the drive unit to the end effector; wherein to control the mechanical degree of freedom, the instrument (130, 200) is configured to: determine a current position of the mechanical degree of freedom; determine a force or torque limit compensation based on the current position; alter one or more force or torque limits based on the force or torque limit compensation; and adjust the mechanical degree of freedom subject to the one or more force or torque limits. determine a current position of the mechanical degree of freedom; determine a force or torque limit compensation based on the current position; alter one or more force or torque limits based on the force or torque limit compensation; and adjust the mechanical degree of freedom subject to the one or more force or torque limits.
Method for locating at least one movable magnetic object (OMM k) in relation to a network of at least N tri-axial magnetometers (M i,j) linked together mechanically with no degree of freedom to retain a known relative position of these magnetometers (M i,j), N being an integer number at least equal to 2, comprises, continuously: - a step of detection of a magnetometer (M i,j) capable of being magnetized, i.e. capable of delivering as output measurements (B i,j mes) comprising a measurement bias (BM i,j mes) following a magnetization; - a step of correction, by means of a correction bias (BC i,j mes), of the measurements (B i,j mes) delivered by said magnetometer (Mij) capable of being magnetized, said correction bias (BC i,j mes) corresponding to a deviation between the measurements (B i,j mes) supplied by said magnetometer (Mij) as input for a location filtering and the estimations (B i,j est), upon said location filtering, of the data delivered by said magnetometer (M i,j); and - a step of consideration of said magnetometer (M i,j) as not capable of being magnetized, by taking into account said step of correction of said magnetometer (M i,j) capable of being magnetized. - a step of detection of a magnetometer (M i,j) capable of being magnetized, i.e. capable of delivering as output measurements (B i,j mes) comprising a measurement bias (BM i,j mes) following a magnetization; - a step of correction, by means of a correction bias (BC i,j mes), of the measurements (B i,j mes) delivered by said magnetometer (Mij) capable of being magnetized, said correction bias (BC i,j mes) corresponding to a deviation between the measurements (B i,j mes) supplied by said magnetometer (Mij) as input for a location filtering and the estimations (B i,j est), upon said location filtering, of the data delivered by said magnetometer (M i,j); and - a step of consideration of said magnetometer (M i,j) as not capable of being magnetized, by taking into account said step of correction of said magnetometer (M i,j) capable of being magnetized.
A method comprising: establishing, by a cloud computer system, components for execution in a cloud computing environment to provide a service, wherein the components include a first container (360, 370) and a second container, wherein the first container (360, 370) includes a virtual machine that is a child container executing in the second container for the service, and wherein the second container includes a computer system; determining, by the cloud computer system, a set of values defining an anomaly bound for a metric related to the service provided by the cloud computing environment; configuring the first container to include an anomaly detection and resolution component, ADRC (364, 374), for resolution of one or more anomaly events in the first container (360, 370); detecting, by the ADRC (364, 374), in the first container (360, 370), an anomaly event of an anomaly related to operation of the service provided by the cloud computing environment, wherein the anomaly event is detected based on a value of the metric not satisfying the anomaly bound for the metric; identifying a policy for resolving the anomaly in the first container (360, 370); determining, by the ADRC, that a rule in the policy is satisfied by the anomaly; and initiating, by the ADRC (364, 374), a corrective action in the first container (360, 370) to resolve the anomaly, the corrective action being identified in the policy based on the rule being satisfied by the anomaly. establishing, by a cloud computer system, components for execution in a cloud computing environment to provide a service, wherein the components include a first container (360, 370) and a second container, wherein the first container (360, 370) includes a virtual machine that is a child container executing in the second container for the service, and wherein the second container includes a computer system; determining, by the cloud computer system, a set of values defining an anomaly bound for a metric related to the service provided by the cloud computing environment; configuring the first container to include an anomaly detection and resolution component, ADRC (364, 374), for resolution of one or more anomaly events in the first container (360, 370); detecting, by the ADRC (364, 374), in the first container (360, 370), an anomaly event of an anomaly related to operation of the service provided by the cloud computing environment, wherein the anomaly event is detected based on a value of the metric not satisfying the anomaly bound for the metric; identifying a policy for resolving the anomaly in the first container (360, 370); determining, by the ADRC, that a rule in the policy is satisfied by the anomaly; and initiating, by the ADRC (364, 374), a corrective action in the first container (360, 370) to resolve the anomaly, the corrective action being identified in the policy based on the rule being satisfied by the anomaly.
A method for generating an executable application using a provisioned flexible software library, the method comprising: accessing a flexible software library containing an intermediate representation of one or more library source-code files and metadata corresponding to a plurality of security and optimization parameters, wherein values of the plurality of security and optimization parameters, which include defaults and respective user-supplied security and optimization decisions, determine transformations to be applied to the intermediate representation; extracting the metadata from the intermediate representation; determining, based upon the metadata, program transformation parameters applied to an API of the flexible software library; determining, based upon the program transformation parameters, corresponding transformations to be applied to source-code files corresponding to the executable application; applying the corresponding transformations to the source-code files corresponding to the executable application to create correctly functioning transformed application source-code files, wherein said applying further comprises determining that the user-supplied security and optimization decisions are consistent with the defaults; and compiling the transformed application source-code files with a native compiler to create native object code files corresponding to the executable application. accessing a flexible software library containing an intermediate representation of one or more library source-code files and metadata corresponding to a plurality of security and optimization parameters, wherein values of the plurality of security and optimization parameters, which include defaults and respective user-supplied security and optimization decisions, determine transformations to be applied to the intermediate representation; extracting the metadata from the intermediate representation; determining, based upon the metadata, program transformation parameters applied to an API of the flexible software library; determining, based upon the program transformation parameters, corresponding transformations to be applied to source-code files corresponding to the executable application; applying the corresponding transformations to the source-code files corresponding to the executable application to create correctly functioning transformed application source-code files, wherein said applying further comprises determining that the user-supplied security and optimization decisions are consistent with the defaults; and compiling the transformed application source-code files with a native compiler to create native object code files corresponding to the executable application.
Method for authenticating a computer device at the level of a user (13, 14, 12); an association of said user with at least one sensory content being known on the one hand at the level of the user and on the other hand at the level of the computer device; said method comprising the following steps: /a/ at the level of the computer device, determine a digital content as a function of the sensory content associated with said user; /b/ from the computer device, provide at the level of the user the digital content determined in step /a/; /c/ compare the sensory content associated with said user with the digital content provided in step /b/ so as to decide to authenticate the computer device; in which the computer device is configured to manage a determination parameter evolving according to a rule known at the level of the user; in which step /a/ is carried out as a function furthermore of said determination parameter and step /c/ is carried out as a function furthermore of said rule of evolution of the determination parameter; and in which the determination parameter is a temporal reference which evolves according to a rule based on a temporal clock known at the level of the computer device and at the level of the user. /a/ at the level of the computer device, determine a digital content as a function of the sensory content associated with said user; /b/ from the computer device, provide at the level of the user the digital content determined in step /a/; /c/ compare the sensory content associated with said user with the digital content provided in step /b/ so as to decide to authenticate the computer device;
A 3β,5α,6β-trihydroxyl steroid compound having formula A or a pharmaceutically acceptable salt thereof for use in prophylaxis or treatment of an altitude sickness caused by hypobaric hypoxia: wherein R1 is H, a linear or branched alkyl or terminal alkenyl having 1 to 5 carbon atoms, or -CH(CH 3)(CH 2) 3 CH(CH 3) 2.
A method of making a balloon catheter, the method comprising: providing a balloon catheter comprising a catheter having a folded balloon coupled to one end of the catheter, wherein the balloon has an external surface, a length, and a circumference; immersing the folded balloon in a pre-conditioning solution; at least partially drying the pre-conditioning solution on the balloon to form a pre-conditioned balloon; partially expanding the pre-conditioned balloon; and coating the external surface of the preconditioned balloon with a restenosis inhibitor, wherein the restenosis inhibitor comprises an active agent and a contrast agent, wherein the active agent is paclitaxel and the contrast agent is iopromide, wherein coating the external surface of the preconditioned balloon with a restenosis inhibitor comprises: providing a coating solution comprising: 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; coating the balloon with the coating solution and drying the coating solution on the balloon under conditions effective to provide a balloon catheter having a dried coating on the external surface of the balloon, wherein the pre-conditioning solution comprises 70% to 95% acetone and 5% to 30% ethanol. providing a balloon catheter comprising a catheter having a folded balloon coupled to one end of the catheter, wherein the balloon has an external surface, a length, and a circumference; immersing the folded balloon in a pre-conditioning solution; at least partially drying the pre-conditioning solution on the balloon to form a pre-conditioned balloon; partially expanding the pre-conditioned balloon; and coating the external surface of the preconditioned balloon with a restenosis inhibitor, wherein the restenosis inhibitor comprises an active agent and a contrast agent, wherein the active agent is paclitaxel and the contrast agent is iopromide, wherein coating the external surface of the preconditioned balloon with a restenosis inhibitor comprises: providing a coating solution comprising: 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; 30 mg/ml to 90 mg/ml paclitaxel; at least 45 mg/ml iopromide; 7.5 vol-% to 50 vol-% acetone; 30 vol-% to 80 vol-% ethanol; and at least 4 vol-% water; coating the balloon with the coating solution and drying the coating solution on the balloon under conditions effective to provide a balloon catheter having a dried coating on the external surface of the balloon, wherein the pre-conditioning solution comprises 70% to 95% acetone and 5% to 30% ethanol.
A method of biometric authentication of a user, comprising: capturing a biometric sample from a user; gathering metadata relating to the user to identify information sources relevant to the user, the metadata relating to the user comprising one or more of: user contacts, user employer, user home location or work location; using the information sources relevant to the user and the captured biometric sample to obtain a plurality of biometric samples potentially captured from the user and metadata associated with the plurality of potentially captured biometric samples, wherein the metadata associated with the plurality of potentially captured biometric samples comprises one or more of: a list of names, an employer name, a number of recent locations or a home location; and matching the metadata relating to the user associated with the captured biometric sample against the metadata associated with the plurality of potentially captured biometric samples to determine whether the captured biometric sample represents the user. capturing a biometric sample from a user; gathering metadata relating to the user to identify information sources relevant to the user, the metadata relating to the user comprising one or more of: user contacts, user employer, user home location or work location; using the information sources relevant to the user and the captured biometric sample to obtain a plurality of biometric samples potentially captured from the user and metadata associated with the plurality of potentially captured biometric samples, wherein the metadata associated with the plurality of potentially captured biometric samples comprises one or more of: a list of names, an employer name, a number of recent locations or a home location; and matching the metadata relating to the user associated with the captured biometric sample against the metadata associated with the plurality of potentially captured biometric samples to determine whether the captured biometric sample represents the user.