AMPP Store - Energy Generation

Available for download

99257 CORROSION OF SCWO CONSTRUCTIONAL MATERIALS IN CL- CONTAINING ENVIRONMENTS

Product Number: 51300-99257-SG

ISBN: 99257 1999 CP

Author: D.B. Mitton, Y.S. Kim, J.H. Yoon, S. Take and R.M. Latanision

$20.00

Available for download

99267 RECENT DEVELOPMENT ON CORROSION-RESISTANT DIFFUSION COATINGS

Product Number: 51300-99267-SG

ISBN: 99267 1999 CP

Author: Steven C. Kung, Robert A. Rapp

$20.00

Available for download

99272 High-Temperature Corrosion and Wear Properties of HVOF Coatings of Cobalt-based (CoCr) Surfacing Alloys

Product Number: 51300-99272-SG

ISBN: 99272 1999 CP

Author: Damodaran Raghu, David A Lee, Preet M Singh

$20.00

Available for download

99346 RESOLVING FLOW-ACCELERATED CORROSION PROBLEMS IN THE INDUSTRIAL STEAM PLANT

Product Number: 51300-99346-SG

ISBN: 99346 1999 CP

Author: James O. Robinson, James O. Robinson

$20.00

Available for download

99347 FLOW-ACCELERATED CORROSION

Product Number: 51300-99347-SG

ISBN: 99347 1999 CP

Author: R.B. Dooley and V.K. Chexal

$20.00

Available for download

99353 RECENT DEVELOPMENTS IN MEASUREMENT AND EVALUATION OF FAC DAMAGE IN POWER PIANTS

Product Number: 51300-99353-SG

ISBN: 99353 1999 CP

Author: Yogendra S. Garud, Phil Besuner, and Marvin J. Cohn

$20.00

Available for download

99373 Industrial Water Reuse in Texas

Product Number: 51300-99373-SG

ISBN: 99373 1999 CP

Author: Herman William Hoflinan Jr., P.E.

$20.00

Available for download

99437 In-Situ Electrochemical Impedance Measurement of Oxide Film on 304 SS in 288°C Water

Product Number: 51300-99437-SG

ISBN: 99437 1999 CP

Author: Young-Jin Kim

$20.00

Available for download

99617 POWER PLANT CORROSION

Product Number: 51300-99617-SG

ISBN: 99617 1999 CP

Author: Elliott R. Sampson, Theodore P. Vassallo Jr., Manish Bhusari, Vally McBride

$20.00

Available for download

AC Interference and Mitigation: Heartland Case Study

Product Number: 51317--9461-SG

ISBN: 9461 2017 CP

Author: Matthew Lechelt

Publication Date: 2017

$20.00

Challenges associated with coordinating the modelling, design, and installation of an alternating current interference and mitigation systems. The project consisted of a 65 kilometer long double circuit 500 kilovolt (kV) overhead transmission in a heavily congested right-of-way corridor with more than 80 pipelines.

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AMPP SP21496-2023-IEEE Std 2683-2022, Guide to Strength loss of Tubular Steel Poles

Product Number: AMPP SP21496-2023-IEEE Std 2683

$109.00

There are an estimated 900,000 electric utility steel transmission and distribution structures in North America alone. An increasing number of these structures are tubular steel poles. The degradation effects of corrosion can have a significant effect on the structural reliability of this important segment of our infrastructure. While the predictability of strength for a newly installed tubular steel pole is relatively easy to calculate, deterioration of these poles over time due to corrosion presents a different challenge to those calculations.

This standard is intended for use by electric utility personnel, contractors, inspectors, and those interested in the impact of corrosion on the needed strength capacity of a tubular steel pole structure used in transmission, distribution, and/or substation applications.

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AMPP SP21511-1-2024, Laser Ablation for Surface Preparation of Ferrous Metals, Pulsed Laser

Product Number: AMPP SP21511-1-2024

Publication Date: 2024

$109.00

This AMPP standard, designated AMPP SP21511-1, is intended to enable specifiers to develop project specification re- quirements and end users to achieve the required level of surface preparation or cleanliness using pulsed laser ablation (PLA). For the purpose of this standard, PLA employs pulsed, Q-switched laser technology.

PLA is a media-free, commercially available process that uses high-intensity directed energy in the form of a collimated, monochromatic, pulsed, focused, and scanned laser beam to remove coatings, oxides, contaminants, and hazardous materials (HAZMATs). This process is also referred to as laser ablation coating removal (LACR). PLA may be used to prepare coated or uncoated ferrous metal substrates before the application of a protective coating or lining, or it may be used in conjunction with other surface preparation methods. PLA offers environmental, health, and safety (EH&S) ben- efits as well as a level of precision that cannot be achieved with other surface preparation technologies. This standard is intended to be used by corrosion control professionals in civil infrastructure, defense, nuclear, petrochemical, auto- motive, aerospace, and other related industries. It is for use by coating specifiers, engineers, contractors, inspectors, and others who are responsible for defining a specific level of surface cleanliness or producing a post-laser treatment surface condition specified, using PLA technology.

PLA can remove 100% of existing coatings. However, it is most effective for applications requiring less than 95% of coating removal (by surface area of exposed substrate) when prescribed by appropriate Technical Authority guidance.

The primary functions of PLA cleaning applications are:

a) To remove material from the surface that can cause premature failure of the new coating system. Paragraph A1 of Appendix A (nonmandatory) provides additional information.

b) To enhance the adhesion of a new coating system.

c) To expose the surface profile of the substrate that is underneath the existing coating, rust, other corrosion products, or other contaminants and,

d) To reduce or remove nonvisible contamination that may be present on the substrate. Examples include thin films of oil and grease, and soluble ionic materials such as chlorides, ferrous salts, nitrates, and sulfates. PLA can reduce or completely remove water-soluble contaminants as well as fixed, non-smear- able low-level radiological contamination.

Energy Generation

Association for Materials Protection and Performance