13 results about "Structural property" patented technology

The invention discloses a high-precision detection device and method for a large well chamber, and relates to the field of geotechnical engineering detection and test.The detection device comprises a host, a well mouth tripod, a depth step counting wheel, a motor and a spherical machine, and an optical range finder, a sonar probe, a camera and a depth sensor are integrated in the spherical machine; the host controls the motor to drive the depth pedometer wheel to control the lifting of the spherical machine, and the detection mode can be automatically switched; the invention further comprises a detection method based on the device. The method comprises the steps of controlling the spherical machine to ascend and descend, switching detection modes, collecting space information, conducting fusion processing to generate a three-dimensional digital model of the well chamber and the like. According to the invention, digital acquisition and three-dimensional model reconstruction of the spatial contour and the internal structure attribute of the large well chamber are realized, the detection modes can be automatically switched according to the well chamber environment, and the detection precision and efficiency are improved.

This disclosure relates to the field of seismic exploration technology, and particularly to a method, equipment, and medium for depth domain velocity model analysis based on well-seismic co-processing. The method includes: extracting stratigraphic and fault information from seismic data to construct a three-dimensional depth domain structural model of the target three-dimensional work area; smoothing well logging velocities and extrapolating the smoothed well logging velocities across the entire work area based on the three-dimensional depth domain structural model; inverting an initial velocity model based on the three-dimensional depth domain structural model and the overall work area well logging velocity model; iterating the initial depth domain velocity model based on the structural properties of the three-dimensional depth domain structural model to obtain an isotropic depth domain velocity model; analyzing the anisotropic parameters and anisotropic velocities of the target three-dimensional work area, and iterating the isotropic velocity model based on the anisotropic parameters and anisotropic velocities to obtain the depth domain velocity model. This invention can improve the accuracy of depth domain velocity model analysis.

The invention discloses a coal-bearing stratum three-property and mining design linkage anti-impact and seismic control method, which belongs to the technical field of coal mining, and specifically comprises the following steps: S1, collecting data, and classifying the collected data according to the physical property, the structural property and the occurrence, performing normalization processing on the classified data to obtain a plurality of corresponding physical indexes, structural indexes and occurrence indexes, performing multi-field coupling monitoring on the target mining area to obtain a plurality of dynamic monitoring coefficients, and performing weighted fusion on the plurality of physical indexes, structural indexes, occurrence indexes and dynamic monitoring coefficients to obtain a risk index R; dividing the mine area into a plurality of dangerous zones according to the R value; s2, formulating a corresponding three-property joint debugging strategy and a mining linkage scheme according to the dangerous zone; s3, three-property joint debugging operation is organized, and mining operation is conducted; the method can comprehensively and objectively characterize the mechanical characteristics, geologic structure characteristics and stress occurrence states of the coal and rock mass, and realizes accurate early warning grading of the mine area.

A balloon (160) for use in an energy handling system (1) based on a vessel and a balloon (160) mounted therein, the balloon comprising a balloon wall, wherein the balloon wall includes at least one variation in structural properties inducing a variation in elasticity configured to control the expansion behavior of the balloon (160) at that location. The variation in structural properties may be a variation in balloon wall thickness or a variation in material used, e.g. in elasticity. Examples are balloons having at least one local thickening located where the balloon needs to touch the vessel the latest when expanded or balloons having at least one local thickening near an inlet (410) or a sharp edge in the vessel wall, such as an assembly gap (520) between components, avoiding rupture.

The invention discloses an engineering project cost data management system. Comprising a template module, an input module, a central processing unit, a comparison module, a correction module, a period prediction module, a cost budgeting module, a settlement module, a project file management module, a reminding module, a data storage module and a transmission module. The central processing unit modifies and changes the construction scale, the structural property, the equipment type and the like through the correction module by utilizing a data correction program, and the preliminary design and budget are correspondingly adjusted; predicting a project completion period through a period prediction module; the cost budgeting module utilizes a budgeting program to predict and estimate all costs of the construction project; settlement is carried out on the completed project price through a settlement module by using a settlement program; and the project archive management module utilizes an archive management program to manage engineering project archives.

The application provides a hammer mill digital twin construction method based on multi-dimensional fusion modeling, comprising: constructing a multi-dimensional model of a hammer mill; the multi-dimensional model comprises: a geometric model, a physical model, a behavior model, a mechanism model and a data model; the multi-dimensional model is fused to construct a digital twin of the hammer mill. By constructing the geometric model, the physical model, the behavior model, the mechanism model and the data model, the structural properties of the hammer mill, the key physical quantities in the running process, the raw material particle crushing process, the mapping relationship between the key physical quantities and the equipment health index, and the change law of the crushing particle size in the production process are described, the performance and the crushing particle size of the hammer mill are obtained in real time and online, and important basis can be provided for keeping the hammer mill running smoothly and the stability of the crushing particle size.

There is provided a system and method of examining a specimen. The method comprises obtaining an actual measurement in response to scanning the specimen using a set of scanning parameters with predefined values; obtaining a simulated measurement based on design data; comparing the actual measurement with the simulated measurement to identify a deviation with respect to a predefined tolerance; identifying at least one structural property as root cause of the deviation by: obtaining one or more additional actual measurements in response to scanning the specimen using one or more varying values of at least one scanning parameter; and providing the actual measurement and the additional actual measurements to a simulation model representative of simulated measurement distribution in a multi-dimensional property space characterized by the structural properties of the plurality of layers and the at least one scanning parameter, thereby identifying the at least one structural property.

This invention relates to the field of object property analysis technology, and more particularly to a method for predicting and analyzing the long-term durability of ultra-high performance concrete. The method includes the following steps: performing durability characterization analysis of the concrete's materials and structure based on ultra-high performance concrete design parameters, generating concrete material-structure durability characterization data; establishing a mapping relationship between the state evolution trend of concrete structural properties and durability assessment based on target area environmental data, concrete test data, and concrete material-structure durability characterization data, generating a concrete durability state evolution trend assessment model; and using the concrete durability state evolution trend assessment model to predict and assess the durability of ultra-high performance concrete based on the concrete test data, generating ultra-high performance concrete durability prediction and assessment data. This invention achieves accurate prediction and analysis of the long-term durability of ultra-high performance concrete by considering its materials, structure, and environment.

Aspects of the present disclosure provide techniques for graphical modeling of a structural design. Embodiments include instantiating, by a three-dimensional graphical modeling system, a three dimensional object in a three-dimensional space displayed via a graphical user interface based on configuration information for the three dimensional object. Embodiments include automatically determining, based on the configuration information for the three-dimensional object, synchronization data for synchronizing a graphical display of the three dimensional object with a graphical display of one or more additional three-dimensional objects, the synchronization data including structural properties of the one or more additional three-dimensional objects. Embodiments include automatically instantiating, by the three-dimensional graphical modeling system, the one or more additional three-dimensional objects in the three-dimensional space displayed via the graphical user interface based on the synchronization data.

An untethered apparatus for measuring properties along a subterranean well includes a housing and one or more sensors configured to measure data along the subterranean well. The data includes one or more physical, chemical, geological or structural properties in the subterranean well. The untethered apparatus further includes a processor configured to control the one or more sensors measuring the data and to store the measured data, and a transmitter configured to transmit the measured data to a receiver arranged external to the subterranean well. Further, the untethered apparatus includes a controller configured to control the buoyancy or the drag of the untethered apparatus to control a position of the untethered apparatus in the subterranean well. The processor includes instructions defining measurement parameters for the one or more sensors of the untethered apparatus within the subterranean well.

This invention provides a method and system for stress simulation of cable trench supports based on ANSYS. The method includes: constructing a global collaborative parameterized model of the cable trench support, precast trench body, and surrounding soil using ANSYS's APDL language; simultaneously outputting driving variables between the structural properties of the cable trench support and the soil properties through the global collaborative parameterized model; embedding the driving variables into a material time-varying degradation parameter library to define the time-varying damage structure between steel and concrete; simultaneously reconstructing the material performance degradation law over service time based on the time-varying damage structure; generating a full-cycle load set for the cable trench support based on the degradation law; simultaneously solving for full-cycle stress based on the full-cycle load set; comparing the full-cycle stress solution results with the standard limits; and simultaneously generating a corresponding simulation report based on the comparison results. This invention avoids the drawbacks of existing simulations, such as large deviations and non-standardized processes.

The utility model provides a kind of gear box input end sealing device, it is related to sealing device technical field, including composite sealing ring, the inside of the composite sealing ring is provided with pressure detection sheet, the pressure detection sheet signal is connected with microcontrol unit, the microcontrol unit signal is connected with alarm.The utility model has the advantages that: in the inside of labyrinth composite sealing ring, the pressure detection sheet for detecting the pressure inside composite sealing ring is arranged, the pressure between the internal structure when composite sealing ring works is monitored in real time, according to the structural property of composite sealing ring itself, the pressure between the structure of its damaged place will appear attenuation due to damage when it appears damage, according to the pressure change information detected by pressure detection sheet, the damage condition of sealing structure can be judged quickly, and alarm is controlled to alarm, so as to repair or replace the damaged sealing structure in time, improve the stability of sealing structure use.

This invention discloses a multi-sensor health detection method and system for soft rail wheels, belonging to the field of wheel inspection technology. It includes the following steps: S1, real-time acquisition of wheel diameter distance, surface morphology, ultrasonic echo, and operating condition information, followed by preprocessing; S2, extraction of penetration attenuation characteristics reflecting the internal propagation properties of the material, and formation of a robust attenuation characterization; S3, analysis of ultrasonic echo reflection characteristics and spectral structure stability, comprehensive evaluation of the structural properties of internal anomalies, and determination of the anomaly response type and its spatial distribution; S4, analysis of surface degradation trends and internal evolution behavior for lifespan constraint assessment, outputting maintenance warnings and safety decision guidance. This invention solves the problems of traditional ultrasonic testing's difficulty in distinguishing between structural cracks and non-structural internal defects, and the instability of early crack evolution criteria, leading to misjudgments in health assessments and inaccurate maintenance decisions.