ASTM E 2033 : 2017 : REDLINE
Superseded
A superseded Standard is one, which is fully replaced by another Standard, which is a new edition of the same Standard.
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Standard Practice for Radiographic Examination Using Computed Radiography (Photostimulable Luminescence Method)
06-07-2024
English
01-11-2017
Important note : All end users must be registered with an Account prior to user licenses being assigned.CONTAINED IN VOL. 03.03, 2017 Defines the minimum requirements for computed radiographic (CR) examination for metallic and nonmetallic materials using X-ray or gamma radiation.
| Committee |
E 07
|
| DocumentType |
Redline
|
| Pages |
13
|
| PublisherName |
American Society for Testing and Materials
|
| Status |
Superseded
|
| SupersededBy |
1.1This practice establishes the minimum requirements for computed radiographic (CR) examination for metallic and nonmetallic materials using X-ray or gamma radiation.
1.2Applicability—The requirements in this practice are intended to control the quality of computed radiographic examinations and are not intended to establish acceptance criteria for parts or materials.
1.3Basis of Application—The requirements of this practice, Practice E2445 and E2446 shall be used together. The requirements of Practice E2445 will provide the baseline performance evaluation and long term stability test procedures for the CR system. Practice E2446 CR performance levels are recommended in Table 1. The user of the CR system shall establish a written procedure that addresses the specific requirements and tests to be used in their application and shall be approved by the Cognizant Radiographic Level 3 before examination of production hardware. The items that shall be determined and addressed in the written procedure are:
(a)Personnel qualification and certification.
(b)Minimum effective pixel coverage appropriate to the acceptance criteria and to meet the radiographic image quality level requirements of Table 1.
(c)Additional tests per Practice E2445 deemed appropriate.
(d)Organizations using a gamma source or radiation energy above 320 kV may need to modify the E2445 tests, gauges, or both.
(e)Maximum allowed unsharpness when other than Table 1.
(f)The method used to provide image traceability to the part and the examination facility.
1.3.1 This practice also requires the user to perform a system qualification suitable for its intended purpose and to issue a system qualification report (see subsection 7.1). Additionally, the user shall develop part specific inspection procedures (see subsections 5.5 and 7.5).
1.4Units—The values stated in either SI units or inch-pound units are to be regarded separately as standard. The values stated in each system may not be exact equivalents; therefore, each system shall be used independently of the other. Combining values from the two systems may result in non-conformance with the standard. Where applicable, SI units are shown in brackets [xx].
1.5Compliance—Systems, equipment and materials that do not comply with this practice shall require a waiver from the Cognizant Engineering Organization (CEO).
1.6This standard does not purport to address all of the safety concerns, if any, associated with its use. It is the responsibility of the user of this standard to establish appropriate safety, health, and environmental practices and determine the applicability of regulatory limitations prior to use.
1.7This international standard was developed in accordance with internationally recognized principles on standardization established in the Decision on Principles for the Development of International Standards, Guides and Recommendations issued by the World Trade Organization Technical Barriers to Trade (TBT) Committee.
| EN 12543-5:1999 | Non-destructive testing - Characteristics of focal spots in industrial X-ray systems for use in non-destructive testing - Part 5: Measurement of the effective focal spot size of mini and micro focus X-ray tubes |
| EN 12543-2:2008 | Non-destructive testing - Characteristics of focal spots in industrial X-ray systems for use in non-destructive testing - Part 2: Pinhole camera radiographic method |
| ASNT SNT TC 1A : 2016 | TOPICAL OUTLINES FOR QUALIFICATION OF NONDESTRUCTIVE TESTING PERSONNEL |
| ISO 9712:2012 | Non-destructive testing Qualification and certification of NDT personnel |
| ANSI/NCSL Z540 3 : 2006(R2013) | REQUIREMENTS FOR THE CALIBRATION OF MEASURING AND TEST EQUIPMENT |
| NAS410:2003 | NAS CERTIFICATION & QUALIFICATION OF NONDESTRUCTIVE TEST PERSONNEL |
| SMPTE RP 133 : 1991(R1999) | SPECIFICATIONS FOR MEDICAL DIAGNOSTIC IMAGING TEST PATTERN FOR TELEVISION MONITORS AND HARD-COPY RECORDING CAMERAS |
| ASNT CP 189 : 2016 | QUALIFICATION AND CERTIFICATION OF NONDESTRUCTIVE TESTING PERSONNEL |
| ISO 17636-2:2013 | Non-destructive testing of welds — Radiographic testing — Part 2: X- and gamma-ray techniques with digital detectors |
| ISO 10012:2003 | Measurement management systems — Requirements for measurement processes and measuring equipment |
| ISO 19232-1:2013 | Non-destructive testing — Image quality of radiographs — Part 1: Determination of the image quality value using wire-type image quality indicators |
| EN 4179:2017 | Aerospace series - Qualification and approval of personnel for non-destructive testing |
| ISO 19232-2:2013 | Non-destructive testing — Image quality of radiographs — Part 2: Determination of the image quality value using step/hole-type image quality indicators |
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