REGISTER

FR
Search
×
FR

Placeholder headline

This is just a placeholder headline

API 510: Pressure Vessel Inspection Code: In-service Inspection, Rating, Repair, and Alteration

$

481

BUY NOW

Placeholder headline

This is just a placeholder headline

API SPEC 6AV1: Validation of Safety and Shutdown Valves for Sandy Service : Edition 4

$

208

BUY NOW

Placeholder headline

This is just a placeholder headline

API 510: Errata 2

$

0

BUY NOW

Placeholder headline

This is just a placeholder headline

API SPEC 16B Coiled Tubing, Snubbing and Wireline Well Intervention Equipment

$

189

BUY NOW

Placeholder headline

This is just a placeholder headline

API SPEC 5CT: Casing and Tubing w/ Addendum 1

$

518

BUY NOW

Placeholder headline

This is just a placeholder headline

API SPEC 5CT: Casing and Tubing Addendum 1

$

0

BUY NOW

Placeholder headline

This is just a placeholder headline

API RP 1161: Hazardous Liquid Pipeline Operator Qualification (OQ) : Edition 6

$

301

BUY NOW

Placeholder headline

This is just a placeholder headline

API MPMS CH 22.6: Testing Protocols for Gas Chromatographs : Reaffirmed

$

192

BUY NOW

Placeholder headline

This is just a placeholder headline

API RP 1174: Onshore Hazardous Liquid Pipeline Emergency Preparedness and Response : Reaffirmed

$

182

BUY NOW

ISO 24543:2022

ISO 24543:2022 Non-destructive testing – Acoustic emission testing – Verification of the receiving sensitivity spectra of piezoelectric acoustic emission sensors

CDN $351.00

Description

This document specifies a method for the determination of the receiving sensitivity spectra of a piezoelectric acoustic emission sensor, in absolute units of volts output per motion input, whereby the motion can be particle displacement (e.g. in nanometres) or particle velocity (e.g. in millimetres per second) over a frequency range used for acoustic emission testing, from 20 kHz to about 1,5 MHz, whereby the sensor is stimulated by a motion pulse in normal direction to the sensor’s face from a directly coupled piezoelectric transmitter.

This document also specifies a method for the determination of the transmitting sensitivity spectrum of a piezoelectric transmitter in absolute units, for example, in nanometres output per volt input, by measuring both the particle displacement pulse over the transmitter’s active face and the transmitter’s input voltage spectrum, using a scanning laser vibrometer.

This document does not include the known cancellation effects on a sensor’s response, when the angle of incidence differs from normal (90°) or when the length of the wave passing across the sensor’s sensitive face is shorter than about 10 times the dimension of the sensor’s sensitive face.

This document does not specify a method to measure the influence of different materials on a sensor’s sensitivity, but this effect is addressed in Annex F.

NOTE      The methods described in this document can be considered for use with other than piezoelectric sensors, which detect motion at a flat face and work in the same frequency range.

Edition

1

Published Date

2022-09-29

Status

PUBLISHED

Pages

60

Language Detail Icon

English

Format Secure Icon

Secure PDF

Abstract

This document specifies a method for the determination of the receiving sensitivity spectra of a piezoelectric acoustic emission sensor, in absolute units of volts output per motion input, whereby the motion can be particle displacement (e.g. in nanometres) or particle velocity (e.g. in millimetres per second) over a frequency range used for acoustic emission testing, from 20 kHz to about 1,5 MHz, whereby the sensor is stimulated by a motion pulse in normal direction to the sensor’s face from a directly coupled piezoelectric transmitter.

This document also specifies a method for the determination of the transmitting sensitivity spectrum of a piezoelectric transmitter in absolute units, for example, in nanometres output per volt input, by measuring both the particle displacement pulse over the transmitter’s active face and the transmitter’s input voltage spectrum, using a scanning laser vibrometer.

This document does not include the known cancellation effects on a sensor’s response, when the angle of incidence differs from normal (90°) or when the length of the wave passing across the sensor’s sensitive face is shorter than about 10 times the dimension of the sensor’s sensitive face.

This document does not specify a method to measure the influence of different materials on a sensor’s sensitivity, but this effect is addressed in Annex F.

NOTE      The methods described in this document can be considered for use with other than piezoelectric sensors, which detect motion at a flat face and work in the same frequency range.

Previous Editions

Can’t find what you are looking for?

Please contact us at: