mhurhangee/ep-ind-claims huggingface dataset:
An iterative method for configuring parameter values for a plurality of cameras (100a-100f), comprising the iteration acquiring image data corresponding to still pictures from said plurality of cameras (100a-100f), said plurality of cameras stores parameter values which control the appearance of image data captured by said plurality of cameras, buffering said image data from said plurality of cameras (100a-100f), displaying, simultaneously, said buffered image data from said plurality of cameras (100a-100f), changing at least one parameter value for a first subset (600/700/800/900) of said plurality of cameras, wherein the step of changing is made by choosing a template, wherein the template comprises a set of predetermined parameter values for a certain environment, transmitting said set of predetermined parameter values to said first subset (600/700/800/900) of said plurality of cameras to allow update of each camera in accordance with said set of predetermined parameter values, acquiring image data corresponding to still pictures from a second subset of said plurality of cameras (100a-100f) comprising at least the cameras of the first subset, replacing buffered image data from said second subset (602/702/802/902) of cameras with said acquired image data from said second subset of cameras, and displaying, simultaneously, said buffered image data for said plurality of cameras (100a-100f), wherein the iteration is repeated until a user accptance signal is received.
A portable monitoring system (100,200,300,400), comprising: a housing (104,204,304,404) sized to be manually held by a human, the housing having a passage sized to removably receive sample holders, the passage including at least one opening at least proximate a portion of the passage that provides access into the passage from an exterior of the housing; a dark chamber (606,1300) having an inner surface (608,1304) that at least partially encloses an interior of the dark chamber, the inner surface being optically reflective and spherical, other than where there are openings in the dark chamber (606,1300), with an associated center point, the dark chamber (606, 1300) located at a distal portion of the passage with respect to the at least one opening, the passage oriented relative to the dark chamber (606,1300) to position a distal portion of the sample holder to pass through the center point of the optically reflective and spherical inner surface (608, 1304) when the sample holder is removably received in the passage; at least one photo-responsive sensor protruding into the interior of the dark chamber (606, 1300); and a control subsystem including at least one processor communicatively coupled to the at least one photo-responsive sensor, the control subsystem including at least one user interface component (102, 102a). a housing (104,204,304,404) sized to be manually held by a human, the housing having a passage sized to removably receive sample holders, the passage including at least one opening at least proximate a portion of the passage that provides access into the passage from an exterior of the housing; a dark chamber (606,1300) having an inner surface (608,1304) that at least partially encloses an interior of the dark chamber, the inner surface being optically reflective and spherical, other than where there are openings in the dark chamber (606,1300), with an associated center point, the dark chamber (606, 1300) located at a distal portion of the passage with respect to the at least one opening, the passage oriented relative to the dark chamber (606,1300) to position a distal portion of the sample holder to pass through the center point of the optically reflective and spherical inner surface (608, 1304) when the sample holder is removably received in the passage; at least one photo-responsive sensor protruding into the interior of the dark chamber (606, 1300); and a control subsystem including at least one processor communicatively coupled to the at least one photo-responsive sensor, the control subsystem including at least one user interface component (102, 102a).
A wireless communications system comprising: a plurality of different wireless communications networks (21a - 21d); an application server; an intermediate server configured to communicate with said application server; a mobile wireless communications device configured to pass first test data through said intermediate server over each of said plurality of different wireless communications networks (21a-21d), analyze the first test data, and generate first scoring data based upon the analyzed first test data; wherein said intermediate server is configured to pass second test data through said mobile wireless device, analyze the second test data, generate second scoring data based upon the analyzed second test data, and send the second scoring data back to said mobile wireless device; and wherein said mobile wireless communications device is configured to determine the selected wireless communications network based upon the first and second scoring data, and communicate with said application server via said intermediate server over the selected wireless communications network. a plurality of different wireless communications networks (21a - 21d); an application server; an intermediate server configured to communicate with said application server; a mobile wireless communications device configured to pass first test data through said intermediate server over each of said plurality of different wireless communications networks (21a-21d), analyze the first test data, and generate first scoring data based upon the analyzed first test data; wherein said intermediate server is configured to pass second test data through said mobile wireless device, analyze the second test data, generate second scoring data based upon the analyzed second test data, and send the second scoring data back to said mobile wireless device; and wherein said mobile wireless communications device is configured to determine the selected wireless communications network based upon the first and second scoring data, and communicate with said application server via said intermediate server over the selected wireless communications network.
A security device that exhibits at least one dynamic response,, upon change of orientation with respect to gravity, wherein: the security device comprises one or more chambers filled with a liquid, containing a plurality of microscopic elements,,; and the dynamic response,,: a) continues after cessation of the change of orientation with respect to gravity; and b) comprises a transition of the microscopic elements,,, wherein the microscopic elements,, undergo rotation, sedimentation or flotation during the transition; and the transition of the microscopic elements,, is a transition (i) from substantial mechanical equilibrium to non-equilibrium upon action of the change of orientation with respect to gravity; and (ii) back to substantial mechanical equilibrium after cessation of the change of orientation with respect to gravity. the security device comprises one or more chambers filled with a liquid, containing a plurality of microscopic elements,,; and the dynamic response,,: a) continues after cessation of the change of orientation with respect to gravity; and b) comprises a transition of the microscopic elements,,, wherein a) continues after cessation of the change of orientation with respect to gravity; and b) comprises a transition of the microscopic elements,,, wherein the microscopic elements,, undergo rotation, sedimentation or flotation during the transition; and the transition of the microscopic elements,, is a transition (i) from substantial mechanical equilibrium to non-equilibrium upon action of the change of orientation with respect to gravity; and (ii) back to substantial mechanical equilibrium after cessation of the change of orientation with respect to gravity. (i) from substantial mechanical equilibrium to non-equilibrium upon action of the change of orientation with respect to gravity; and (ii) back to substantial mechanical equilibrium after cessation of the change of orientation with respect to gravity.
A system for visualizing quality information to a person who performs a treatment procedure of temporarily or permanently placing energy provision sources in a part of a body of a living being according to a treatment plan, the treatment plan comprising planned positions (pp1, pp2, ppn) and planned amounts of energy for the energy provision sources, the body comprising a volume of interest, the system comprising: - an input for receiving the treatment plan, - a data storage for storing positions (P1, P2) of previously placed energy provision sources, - a sub-system for determining a shape and a position of the volume of interest, - a tracking system for obtaining tracking information relating to a placement tool for guiding a to-be-placed energy provision source towards a specific position in the part of the body, the tracking information relating to a trajectory followed by the placement tool and/or a present position of the placement tool, - a processing device configured for calculating a dose-volume histogram (114, 300) for the volume of interest on basis of the shape and the position of the volume of interest, on basis of the positions (P1, P2) of the previously placed energy provision sources, on basis of the tracking information and on basis of a portion of the treatment plan to be carried out, the dose-volume histogram (114, 300) presenting a relation between a received amount of energy by a relative portion of the volume of interest, and - a display device for presenting the quality information to the person, the presented quality information comprising the dose-volume histogram (114, 300). - an input for receiving the treatment plan, - a data storage for storing positions (P1, P2) of previously placed energy provision sources, - a sub-system for determining a shape and a position of the volume of interest, - a tracking system for obtaining tracking information relating to a placement tool for guiding a to-be-placed energy provision source towards a specific position in the part of the body, the tracking information relating to a trajectory followed by the placement tool and/or a present position of the placement tool, - a processing device configured for calculating a dose-volume histogram (114, 300) for the volume of interest on basis of the shape and the position of the volume of interest, on basis of the positions (P1, P2) of the previously placed energy provision sources, on basis of the tracking information and on basis of a portion of the treatment plan to be carried out, the dose-volume histogram (114, 300) presenting a relation between a received amount of energy by a relative portion of the volume of interest, and - a display device for presenting the quality information to the person, the presented quality information comprising the dose-volume histogram (114, 300).
Tyre, the tread of which comprises a rubber composition comprising at least a diene elastomer, a reinforcing filler and a 1,2-cyclohexanedicarboxylate diester plasticizer corresponding to the formula: in which the R radicals, which are identical or different, represent a hydrocarbon radical.
Use in a vacuum-pressure forming preforming process for a decorating injection molding method of a decorative sheet comprising a base film made of a thermoplastic polyester resin and a decorative layer on the base film, the base film being not broken in both of MD (a flow direction of film-forming) and TD (a direction perpendicular to MD) and having a stress of 20 N/cm 2 or less in any of MD and TD, each under a 200% elongation at 80°C, wherein the stress in each of MD and TD at a 200% elongation is measured under the following conditions: thickness of test piece: thickness actually laminated to a decorative sheet; width of test piece: 10 mm (dumbbell test piece); tensile speed (rate of strain): 500 mm/min; and distance between chucks: 50 mm.
A method for a mobile terminal detaching, comprising when the mobile terminal is powered off, starting a first timer, sending powering-off indication information to a network equipment, and keeping in an Evolved Mobility Management, EMM-registered state before powering-off without performing a detach operation, wherein the powering-off indication information indicates that the mobile terminal has been powered off such that the network equipment starts a second timer which is aligned with the first timer; and when the mobile terminal has not been powered on till the first timer expires, performing, by the mobile terminal, the detach operation to enter an EMM-deregistered state; when the mobile terminal is powered off and the mobile terminal has not performed the detach operation, keeping, by the mobile terminal, context information stored in the mobile terminal during attach.
A method for estimation of an ash level in a particle filter in an exhaust cleaning system, whereby - a passive partial regeneration of said particle filter is effected when a soot load of said particle filter exceeds a maximum permissible value, which passive partial regeneration is intended to reduce said soot load to a desired regenerated value, and - said estimation of said ash level is based on a pressure drop across said particle filter when said particle filter is substantially free from soot, characterised in that, if said passive partial regeneration is unsuccessful for a predetermined number of times to reduce said soot load to said desired regenerated value, - a passive total regeneration of said particle filter is effected, resulting in said particle filter being substantially free from soot, and thereafter - said estimate of said ash level is made. - a passive partial regeneration of said particle filter is effected when a soot load of said particle filter exceeds a maximum permissible value, which passive partial regeneration is intended to reduce said soot load to a desired regenerated value, and - said estimation of said ash level is based on a pressure drop across said particle filter when said particle filter is substantially free from soot, - a passive total regeneration of said particle filter is effected, resulting in said particle filter being substantially free from soot, and thereafter - said estimate of said ash level is made.
Aerosol detection apparatus comprising an aircraft having a dielectric member (10; 110) comprised in the body (12; 112) thereof such that a surface of the dielectric member (10; 110) forms part of the exterior surface of the aircraft, and detection means (16; 116) located in the interior of the aircraft characterized in that the detection means (16; 116) are arranged to detect an electric field within the aircraft, the electric field resulting from the dielectric member (10; 110) becoming polarised so that induced charge appears on a surface of the dielectric member (10; 110) opposite to that forming part of the exterior surface of the aircraft.
A compound of Formula I selected from the group consisting of: Compound ID Structures 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 and pharmaceutically acceptable salts, esters and solvates thereof.
Method of producing an electronic connection device (100, 100', 100''), comprising: a) the formation, at the surface of a substrate, of at least one first contact element, and, in at least one direction not parallel to said surface, of at least one second contact element having a first end in contact with the first contact element or elements and a second end, the second contact element or elements comprising one or more metal tracks, or beams or arms, firstly formed in a position parallel to the surface of the substrate, then standing up by the effect of stresses, from said position parallel to the surface of the substrate, towards an axis perpendicular to the surface of the substrate, said second end being maintained above the surface of the substrate; b) then the positioning of at least one electrical or electronic component in contact with the first contact element or elements, c) then, the encapsulation of the component(s) and of the first and second contact elements, at least the second end or ends of the second contact element or elements (4, 36) being flush with the surface of the encapsulating material. a) the formation, at the surface of a substrate, of at least one first contact element, and, in at least one direction not parallel to said surface, of at least one second contact element having a first end in contact with the first contact element or elements and a second end, the second contact element or elements comprising one or more metal tracks, or beams or arms, firstly formed in a position parallel to the surface of the substrate, then standing up by the effect of stresses, from said position parallel to the surface of the substrate, towards an axis perpendicular to the surface of the substrate, said second end being maintained above the surface of the substrate; b) then the positioning of at least one electrical or electronic component in contact with the first contact element or elements, c) then, the encapsulation of the component(s) and of the first and second contact elements, at least the second end or ends of the second contact element or elements (4, 36) being flush with the surface of the encapsulating material.
A mobile terminal comprising: a terminal body defining an interior space and having an exterior; a case defining an appearance of the terminal body, the case formed of a nonmetal and having side surfaces; and a metal frame (180, 280, 380, 480, 580, 680, 780) formed of a metal, wherein the case and the metal frame (180, 280, 380, 480, 580, 680, 780) are integrally formed together, wherein the case is formed to cover side surfaces of the terminal body, characterized in that the metal frame (180, 280, 380, 480, 580, 680, 780) includes at least two exposed portions (183,283,683,783) extending from the interior space and through the side surfaces of the case to the exterior of the terminal body so that the at least two exposed portions (183,283,683,783) form at least two stripe patterns formed along the side surfaces of the case, and the at least two stripe patterns define the appearance of the terminal body together with the case. a terminal body defining an interior space and having an exterior; a case defining an appearance of the terminal body, the case formed of a nonmetal and having side surfaces; and a metal frame (180, 280, 380, 480, 580, 680, 780) formed of a metal, wherein the case and the metal frame (180, 280, 380, 480, 580, 680, 780) are integrally formed together, wherein the case is formed to cover side surfaces of the terminal body, characterized in that the metal frame (180, 280, 380, 480, 580, 680, 780) includes at least two exposed portions (183,283,683,783) extending from the interior space and through the side surfaces of the case to the exterior of the terminal body so that the at least two exposed portions (183,283,683,783) form at least two stripe patterns formed along the side surfaces of the case, and the at least two stripe patterns define the appearance of the terminal body together with the case.
A computer-implemented method of distributing program instructions, the method comprising: identifying a set of program instructions for distribution, wherein the set of program instructions is associated with a feature; determining a parameter value of at least one parameter for each tenant (106A, 106B, 106C) of a plurality of tenants associated with a cloud computing environment; comparing the plurality of tenants (106A, 106B, 106C) based on the parameter value of the at least one parameter for each tenant; based on the comparison, assigning a rank to each tenant (106A, 106B, 106C) of the plurality of tenants, wherein at least a first tenant is assigned a lower rank than at least a second tenant; based on the assigned rank, distributing the set of program instructions to at least the first tenant; receiving telemetry data regarding execution of the set of program instructions by at least the first tenant; based on the telemetry data, updating the set of program instructions; and distributing the updated set of program instructions to at least the second tenant. identifying a set of program instructions for distribution, wherein the set of program instructions is associated with a feature; determining a parameter value of at least one parameter for each tenant (106A, 106B, 106C) of a plurality of tenants associated with a cloud computing environment; comparing the plurality of tenants (106A, 106B, 106C) based on the parameter value of the at least one parameter for each tenant; based on the comparison, assigning a rank to each tenant (106A, 106B, 106C) of the plurality of tenants, wherein at least a first tenant is assigned a lower rank than at least a second tenant; based on the assigned rank, distributing the set of program instructions to at least the first tenant; receiving telemetry data regarding execution of the set of program instructions by at least the first tenant; based on the telemetry data, updating the set of program instructions; and distributing the updated set of program instructions to at least the second tenant.
An apparatus for mud pulse telemetry, comprising: a. a motor-driven rotor-stator combination configured for use in a drill string; wherein the rotor comprises blades and the stator comprises openings, and, b. a drive and control system configured to operate the motor to drive the rotor relative to the stator in rotation around a predetermined axis according to a modulation scheme resulting in motion comprising both oscillating movement and full rotational movement, wherein the modulation scheme is carried out according to an algorithm of formula 1: S t = Pmax − Pmin ∗ sin trajectory t + Pavg wherein, Pmax is a pressure at a closed position in which the blades are in front of the openings, Pmin is a pressure at an open position in which the blades do not block the openings, sin is a sine wave related to the design of the rotor blades, trajectory(t) is a trajectory algorithm, t represents time, and Pavg is average pressure, and wherein the trajectory algorithm is a QAM trajectory algorithm defined as follows: trajectory t = ( trajectory t n + 1 * φ t + trajectory t n * 1 − φ t and trajectory t n = Asin Sin 2 πft + φ n ∗ A n, wherein, A n is amplitude, and φ n is phase wherein amplitude and phase transitions are done simultaneously using a trajectory φ (t) which possesses the following attributes: - φ (t) is derivable two times for t ranging from t n to t n + 1 - φ (tn) = 0 and φ (t n + 1) = 1 - φ (t) is a function that allows smoothly completing the transition from trajectory t n to t n + 1. a. a motor-driven rotor-stator combination configured for use in a drill string; wherein the rotor comprises blades and the stator comprises openings, and, b. a drive and control system configured to operate the motor to drive the rotor relative to the stator in rotation around a predetermined axis according to a modulation scheme resulting in motion comprising both oscillating movement and full rotational movement, - φ (t) is derivable two times for t ranging from t n to t n + 1 - φ (tn) = 0 and φ (t n + 1) = 1 - φ (t) is a function that allows smoothly completing the transition from trajectory t n to t n + 1.