mhurhangee/ep-ind-claims huggingface dataset:
A system, comprising: a distributed acoustic sensing data collection system coupled to at least one optical fiber at least partially positioned within a wellbore and configured to repeatedly activate a seismic source of energy; and an information processing system communicatively coupled to the DAS data collection system, the information processing system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to: receive a seismic dataset from the DAS data collection system, the seismic dataset comprising a plurality of seismic data records that are each associated with a different activation of the source by the DAS data collection system; combine two or more of the plurality of seismic data records into a stack of seismic data records; determine a quality metric indicative of a desired signal-to-noise ratio or incoherence of the stack for the seismic dataset collected from the repeatedly activated source; and send instructions to the DAS data collection system to stop activating the seismic source, in response to determining that the quality metric has reached a predefined threshold. a distributed acoustic sensing data collection system coupled to at least one optical fiber at least partially positioned within a wellbore and configured to repeatedly activate a seismic source of energy; and an information processing system communicatively coupled to the DAS data collection system, the information processing system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to: receive a seismic dataset from the DAS data collection system, the seismic dataset comprising a plurality of seismic data records that are each associated with a different activation of the source by the DAS data collection system; combine two or more of the plurality of seismic data records into a stack of seismic data records; determine a quality metric indicative of a desired signal-to-noise ratio or incoherence of the stack for the seismic dataset collected from the repeatedly activated source; and send instructions to the DAS data collection system to stop activating the seismic source, in response to determining that the quality metric has reached a predefined threshold. receive a seismic dataset from the DAS data collection system, the seismic dataset comprising a plurality of seismic data records that are each associated with a different activation of the source by the DAS data collection system; combine two or more of the plurality of seismic data records into a stack of seismic data records; determine a quality metric indicative of a desired signal-to-noise ratio or incoherence of the stack for the seismic dataset collected from the repeatedly activated source; and send instructions to the DAS data collection system to stop activating the seismic source, in response to determining that the quality metric has reached a predefined threshold.
A method for adaptively controlling a gas turbine engine, comprising: generating model parameter data as a function of prediction error data, which model parameter data includes at least one model parameter that accounts for off-nominal operation of the engine; at least partially compensating an on-board model for the prediction error data using the model parameter data; generating model term data using the on-board model, wherein the on-board model includes at least one model term that accounts for the off-nominal operation of the engine, the model term comprises a mathematical equation, and the model term data comprises one or more terms of the mathematical equation; respectively updating one or more model parameters and one or more model terms of a model-based control algorithm with the model parameter data and model term data; and generating one or more effector signals using the model-based control algorithm. generating model parameter data as a function of prediction error data, which model parameter data includes at least one model parameter that accounts for off-nominal operation of the engine; at least partially compensating an on-board model for the prediction error data using the model parameter data; generating model term data using the on-board model, wherein the on-board model includes at least one model term that accounts for the off-nominal operation of the engine, the model term comprises a mathematical equation, and the model term data comprises one or more terms of the mathematical equation; respectively updating one or more model parameters and one or more model terms of a model-based control algorithm with the model parameter data and model term data; and generating one or more effector signals using the model-based control algorithm.
A method of tracking a wireless device (100, 602), the method comprising: receiving signal strength data for each of a plurality of access points (101a-c, 601a-h); comparing the signal strength data from the plurality of access points (101a-c, 601a-h) to identify an anchor access point (101; 601h; 601e,f,g), the anchor access point comprising the access point which has the highest signal strength of the plurality of access points; comparing remaining signal strength data from the plurality of access points to a threshold signal strength to identify at least one attractor access point (101b-c; 601c-g; 601c-g) comprising at least one of the access points from the plurality of access points which has a signal strength higher than said threshold signal strength; accessing a memory for locations of the anchor access point (101; 601h; 601e,f,g) and the at least one attractor access point (101b-c; 601c-g; 601c-g); calculating, for each of the at least one attractor access points, a pull point (103b-c; 603) comprising a location along a line (111b-c) from the anchor access point to the attractor access point, the location of the pull point along the line based on a pull factor based on the signal strength of said attractor access point relative to the signal strength of the anchor access point; and estimating a location of the wireless device (100, 602) as an average of the location of the one or more pull points (101b-c, 603) and the location of the anchor access point (101a; 601h; 601e,f,g). receiving signal strength data for each of a plurality of access points (101a-c, 601a-h); comparing the signal strength data from the plurality of access points (101a-c, 601a-h) to identify an anchor access point (101; 601h; 601e,f,g), the anchor access point comprising the access point which has the highest signal strength of the plurality of access points; comparing remaining signal strength data from the plurality of access points to a threshold signal strength to identify at least one attractor access point (101b-c; 601c-g; 601c-g) comprising at least one of the access points from the plurality of access points which has a signal strength higher than said threshold signal strength; accessing a memory for locations of the anchor access point (101; 601h; 601e,f,g) and the at least one attractor access point (101b-c; 601c-g; 601c-g); calculating, for each of the at least one attractor access points, a pull point (103b-c; 603) comprising a location along a line (111b-c) from the anchor access point to the attractor access point, the location of the pull point along the line based on a pull factor based on the signal strength of said attractor access point relative to the signal strength of the anchor access point; and estimating a location of the wireless device (100, 602) as an average of the location of the one or more pull points (101b-c, 603) and the location of the anchor access point (101a; 601h; 601e,f,g).
Mixture for applying a coating comprising at least an epoxy resin either constituted of an epoxy resin made of bisphenol A and epichlorohydrin with reactive or not reactive diluting, or made of bisphenol F and epichlorohydrin, or of a mixture thereof and a hardening in proportions depending on the ratio between the equivalent weight of the active hydrogen of the mixture of hardeners and the epoxy equivalent weight of the epoxy resin, said mixture comprises a solid fraction in particles having dimensions larger than a predefined minimal value, said particles are assigned to confer a suitable white and almost time invariant coloration, and comprises also a rheologic product assigned to facilitate the coating application through the mixture in the fluid state; said mixture being characterized in that the particles of the solid fraction are sintered particles and said particles are coloured by means of white epoxy or polyurethane resin, were said particles of the solid fraction is constituted by quartzous silica with granulometry comprised between about 0,06 millimetres and 0,5 millimetres and having the following chemical composition features, reference values obtained by means of chemical analysis with X, XRF ray fluorescence techniques: - SiO2 ≥ 99,00 % - TiO2 ≤ 0,04 % - Fe2O3 ≤ 0,02 % - Al2O3 ≤ 0,20 % - CaO < 0,023 % - P.F. 0,15 % and the following mineralogical composition features: - Quartz 99,00 % - Others 1,00%, and said mixture comprises stabilizing at the light additives including HALS molecule mixtures (Hindered Amine Light Stabilizer) + UV Adsorbers used in synergy, but in such a concentration that their mixture does not exceed 5% in weight calculated on the basis of the resin inserted in the final formulation; were said hardening comprises one cycloaliphatic amine consisting of polyamide with at least an amine group directly bound in a saturated ring mixed with amidoamine consisting of a reaction product of aliphatic amines with fatty acids of tall oil. - SiO2 ≥ 99,00 % - TiO2 ≤ 0,04 % - Fe2O3 ≤ 0,02 % - Al2O3 ≤ 0,20 % - CaO < 0,023 % - P.F. 0,15 % - Quartz 99,00 % - Others 1,00%,
Information and entertainment system for use in a motor vehicle, wherein the system has a receiving device, a signal memory for storing at least one signal received by means of the receiving device and a reproduction part for reproducing the received signal or the signal stored in the signal memory, wherein a signal selected from at least two of the stored or received signals on the basis of at least one reproduction parameter of a user profile is intended for reproduction, wherein the reproduction is effected according to a prescribable pattern that is a sequence of reproduction parameters, characterized in that the pattern is time-oriented and/or space-oriented, wherein the time-oriented pattern provides for reproduction of a particular signal at a particular time or after a particular time and the space-oriented pattern provides for reproduction of the particular signal when a particular position or a particular distance from the position is reached.
A storage container for a refrigerator, comprising a container body comprising a receiving cavity, a bottom wall, and a front wall connected to a front side of the bottom wall and extending upward, and at least one decoration member, wherein the front wall comprises a front raised edge protruding toward the receiving cavity being engaged with the decoration member extending along the front wall, wherein the decoration member having a first slot, the front wall being inserted into the first slot, and the front raised edge being engaged with the decoration member in the first slot, wherein the decoration member comprises at least two protruding ribs disposed at an interval in the first slot, the protruding ribs being adapted to abut against an inner surface of the front wall, and wherein along a direction that the first slot points to a free end of at least one of the protruding ribs, a side of at least one of the protruding ribs facing the front wall has a first vertical section, an oblique cross section extending in the direction of the front wall, and a second vertical section in sequence, wherein the second vertical section abuts against the inner surface of the front wall, and a gap exists between the first vertical section and the inner surface of the front wall. a container body comprising a receiving cavity, a bottom wall, and a front wall connected to a front side of the bottom wall and extending upward, and at least one decoration member, wherein the front wall comprises a front raised edge protruding toward the receiving cavity being engaged with the decoration member extending along the front wall, wherein the decoration member having a first slot, the front wall being inserted into the first slot, and the front raised edge being engaged with the decoration member in the first slot, wherein the decoration member comprises at least two protruding ribs disposed at an interval in the first slot, the protruding ribs being adapted to abut against an inner surface of the front wall, and wherein along a direction that the first slot points to a free end of at least one of the protruding ribs, a side of at least one of the protruding ribs facing the front wall has a first vertical section, an oblique cross section extending in the direction of the front wall, and a second vertical section in sequence, wherein the second vertical section abuts against the inner surface of the front wall, and a gap exists between the first vertical section and the inner surface of the front wall.
A high-lift device for a flight vehicle, the high-lift device comprising: a flap main body adapted to be provided at a trailing portion of a main wing of the flight vehicle so as to be extracted from and be retracted in the trailing portion and extending in a wing span direction of the main wing; and a vortex suppressing portion (400, 450) provided at a tip end portion of the flap main body in an extending direction of the flap main body and configured to suppress a vortex rolling up from a lower surface of the tip end portion of the flap main body to an upper surface of the tip end portion of the flap main body, characterized in that: the vortex suppressing portion (400, 450) is a flow suppressing portion (401, 451) formed at an upper surface side of a leading edge portion of the tip end portion of the flap main body and configured to cause a flow along the upper surface of the tip end portion of the flap main body to be separated from the upper surface; and the flow suppressing portion (401, 451) is a projection provided only at the tip end portion of the flap main body along the wing span direction and projecting upward from the upper surface of the flap main body. a flap main body adapted to be provided at a trailing portion of a main wing of the flight vehicle so as to be extracted from and be retracted in the trailing portion and extending in a wing span direction of the main wing; and a vortex suppressing portion (400, 450) provided at a tip end portion of the flap main body in an extending direction of the flap main body and configured to suppress a vortex rolling up from a lower surface of the tip end portion of the flap main body to an upper surface of the tip end portion of the flap main body, characterized in that: the vortex suppressing portion (400, 450) is a flow suppressing portion (401, 451) formed at an upper surface side of a leading edge portion of the tip end portion of the flap main body and configured to cause a flow along the upper surface of the tip end portion of the flap main body to be separated from the upper surface; and the flow suppressing portion (401, 451) is a projection provided only at the tip end portion of the flap main body along the wing span direction and projecting upward from the upper surface of the flap main body. the vortex suppressing portion (400, 450) is a flow suppressing portion (401, 451) formed at an upper surface side of a leading edge portion of the tip end portion of the flap main body and configured to cause a flow along the upper surface of the tip end portion of the flap main body to be separated from the upper surface; and the flow suppressing portion (401, 451) is a projection provided only at the tip end portion of the flap main body along the wing span direction and projecting upward from the upper surface of the flap main body.
A method for displaying content on a screen where light intensity of pixels of the screen is adjustable, comprising: receiving a touch of a touching object on the screen; and adjusting light intensity of the pixels so as to make surrounding pixels of a contact point between the touching object and the screen have a higher light intensity and remaining pixels have no light intensity or a lower light intensity, wherein the lower light intensity enables content displayed on corresponding pixels to be perceptible to a user, characterized in that: the received touch is a continuous touch of the touching object along a track of contact points on the screen wherein surrounding pixels of said track of contact points have the higher light intensity; and in that the method further comprises counting a time from adjustment of the light intensity for the pixels; and upon elapse of a given time period from when the light intensity of a pixel was adjusted, readjusting the light intensity of the pixel from the higher light intensity to the lower light intensity or no light intensity. receiving a touch of a touching object on the screen; and adjusting light intensity of the pixels so as to make surrounding pixels of a contact point between the touching object and the screen have a higher light intensity and remaining pixels have no light intensity or a lower light intensity, wherein the lower light intensity enables content displayed on corresponding pixels to be perceptible to a user, characterized in that: the received touch is a continuous touch of the touching object along a track of contact points on the screen wherein surrounding pixels of said track of contact points have the higher light intensity; and in that the method further comprises counting a time from adjustment of the light intensity for the pixels; and upon elapse of a given time period from when the light intensity of a pixel was adjusted, readjusting the light intensity of the pixel from the higher light intensity to the lower light intensity or no light intensity. the received touch is a continuous touch of the touching object along a track of contact points on the screen wherein surrounding pixels of said track of contact points have the higher light intensity; and in that the method further comprises counting a time from adjustment of the light intensity for the pixels; and upon elapse of a given time period from when the light intensity of a pixel was adjusted, readjusting the light intensity of the pixel from the higher light intensity to the lower light intensity or no light intensity.
Lubricant pump comprising a mounting unit as an assembly and a pump housing in which the mounting unit is accommodated, wherein the mounting unit comprises - a base plate, - at least one pump element housing which is firmly connected to the base plate and in which a pump element driven by a linear movement is inserted, and - furthermore an eccentric fixing in order to be able to mount an eccentric arrangement provided with a revolving eccentric in a fixed position relative to the pump element inserted in the pump element housing, wherein the eccentric fixing is provided on the base plate. - a base plate, - at least one pump element housing which is firmly connected to the base plate and in which a pump element driven by a linear movement is inserted, and - furthermore an eccentric fixing in order to be able to mount an eccentric arrangement provided with a revolving eccentric in a fixed position relative to the pump element inserted in the pump element housing, wherein the eccentric fixing is provided on the base plate.
A packet processing node comprising: an input to receive data and control packets; an output to send data and control packets; a control plane function to process control packets; and a forwarding function configured to receive data and control packets via the input, to forward received data packets to the output, and to forward received control packets to the control plane function; characterised in that the control plane function is configured to receive the control packets, and to analyze the content of control packets to: determine which control packets are to be processed by the control plane function, and which control packets are to be processed by a particular control plane service external to the packet processing node; and for control packets that are determined to be processed externally, to further provide an address of an external processor at a remote location, where said particular control plane service is executed, to process the control packets, the external control services residing at different locations of multiple remote locations. an input to receive data and control packets; an output to send data and control packets; a control plane function to process control packets; and a forwarding function configured to receive data and control packets via the input, to forward received data packets to the output, and to forward received control packets to the control plane function; characterised in that the control plane function is configured to receive the control packets, and to analyze the content of control packets to: determine which control packets are to be processed by the control plane function, and which control packets are to be processed by a particular control plane service external to the packet processing node; and for control packets that are determined to be processed externally, to further provide an address of an external processor at a remote location, where said particular control plane service is executed, to process the control packets, the external control services residing at different locations of multiple remote locations. determine which control packets are to be processed by the control plane function, and which control packets are to be processed by a particular control plane service external to the packet processing node; and for control packets that are determined to be processed externally, to further provide an address of an external processor at a remote location, where said particular control plane service is executed, to process the control packets, the external control services residing at different locations of multiple remote locations.
Tool for crimping, pressing or forming a workpiece, having - a first grip element, which has a first grip portion, - a second grip element, which has a second grip portion, - a mechanism housing, which is arranged on the first grip element and has an end face that faces away from the first grip portion, and - a tool mechanism, which is enclosed in the mechanism housing and can be actuated to crimp, press or form the workpiece by adjusting the first and second grip elements (10, 11) relative to one another, characterized by an impact-protection element, which is arranged on the first grip element and has two limbs (130, 132) and an end-face portion connecting the limbs (130, 132) to one another, wherein the mechanism housing is arranged between the limbs (130, 132) and the end-face portion extends beyond the end face of the mechanism housing. - a first grip element, which has a first grip portion, - a second grip element, which has a second grip portion, - a mechanism housing, which is arranged on the first grip element and has an end face that faces away from the first grip portion, and - a tool mechanism, which is enclosed in the mechanism housing and can be actuated to crimp, press or form the workpiece by adjusting the first and second grip elements (10, 11) relative to one another,