Method for determining service life and reliability of high-temperature high-pressure component by utilizing ultrasonic
A high-temperature, high-pressure, high-reliability technology, which is applied to the analysis of solids using sound waves/ultrasonic waves/infrasonic waves, can solve problems such as complex on-site conditions and long test periods.
- Summary
- Abstract
- Description
- Claims
- Application Information
AI Technical Summary
Problems solved by technology
Method used
Image
Examples
Embodiment 1
[0016] figure 1 It is a flowchart for determining the service life of high-temperature and high-pressure components using ultrasonic testing probes and connecting devices. In module 1, the longitudinal wave waveform of the ultrasonic wave in the material is obtained through the ultrasonic probe, and converted to the ultrasonic velocity v; in module 2, the information of the inspected material (material type, component size) and prediction information (service temperature T, service stress σ and reliability R); in module 3, through the numerical conversion algorithm, the Dv value is determined according to the relationship between the ultrasonic longitudinal wave velocity v in different materials and the material damage state parameter Dv, and according to the material damage state parameter Dv and the high temperature durable The relationship between the performance deviation from the average value Z determines the Z value, according to the relationship between the reliability...
Embodiment 2
[0018] figure 2 It is a flowchart for determining the service life of high-temperature and high-pressure components using ultrasonic testing probes and connecting devices. Wherein module 1 is consistent with embodiment 1, obtains the longitudinal wave waveform of ultrasonic wave in material by ultrasonic probe, and converts to ultrasonic velocity v; Obtains and acquires the information (material type, component size) and prediction information ( Service temperature T, service stress σ and service time t r ); in module 6, through the numerical conversion algorithm, the Dv value is determined according to the relationship between the ultrasonic longitudinal wave velocity v and the material damage state parameter Dv in different materials, and according to the deviation from the average value of the material damage state parameter Dv and high-temperature durability The relationship between Z determines the Z value, according to the relationship Z=A+f[P(t r , T)]-log(σ) to dete...
PUM
Login to View More Abstract
Description
Claims
Application Information
Login to View More 