Published

NASF Offers Online Aluminum Finishing Course

NASF’s Aluminum Finishing course consists of 11 modules over 16 training sessions, each one containing theoretical and practical information for employees and supervisors who apply anodizing and other finishing processes to aluminum.
#nasf

Share

A keyboard that says

The National Association for Surface Finishing (NASF) is offering a web-based aluminum finishing course. The Aluminum Finishing course consists of 11 modules over 16 training sessions, each one containing theoretical and practical information for employees and supervisors who apply anodizing and other finishing processes to aluminum. The course is also said to be beneficial for individuals in sales, as well as those who need foundational knowledge of the aluminum finishing process.

The course takes place online throughout May and July on Tuesdays and Wednesdays from 12–2 p.m. EST. The webinar dates are as follows:

  • May 3, 4, 10, 11, 17, 18, 24, 25
  • July 5, 6, 12, 13, 19, 20, 26, 27

Subjects covered in the Aluminum Finishing course include the metallurgy of aluminum, mechanical finishing of aluminum, preparing aluminum for anodizing and plating, aluminum bright dips and electropolishing, etching and chemical milling of aluminum, equipment requirements for anodizing, sulfuric acid anodizing of aluminum, coloring and sealing of anodizing aluminum, hardcoat and alternate anodizing solutions, anodizing aluminum in chromic acid and alternate solutions, as well as conversion coatings on aluminum.

Attendees that score 70 or above on the optional exam, will receive one credit toward certification as a Master Surface Finisher (MSF). Those passing six course exams earn MSF designation.

Course tuition is $1,325, and NASF members receive a discounted tuition of $1,050. Companies who register five or more employees will receive 10% off. The deadline to register is April 30, 2022.

For more information about the topics covered and to register for the course, visit NASF’s website.

RELATED CONTENT

  • Nanostructure of the Anodic and Nanomaterials Sol-Gel Based Materials Application: Advances in Surface Engineering

    Porous alumina can be fabricated electrochemically through anodic oxidation of aluminum.  This paper reviews sol-gel chemistry and applications, which also offers unusual nanoporous microstructures.  The ability to control pore chemistry at different scales and geometries, provides excellent bioactivity, enabling the entrapment of biologically active molecules and their controllable release for therapeutic and medical applications.

  • A Process for Alkaline Non-cyanide Silver Plating for Direct Plating on Copper, Copper Alloys and Nickel Without a Silver Strike Bath

    Traditionally, silver is electroplated in toxic, cyanide-based chemistry.  Due to cyanide’s extreme hazard to human health and environments, developing non-cyanide silver chemistry is essential for the silver electroplating industry.  Discussed here is an aqueous, alkaline non-cyanide silver plating technology, which can be directly plated over nickel as well as copper and its alloys.  The silver deposits have perfect white color and better anti-tarnishing properties than other non-cyanide silver processes.  The silver is plated entirely from the dissolving silver anode and the bath is very stable, and maintains a stable pH level both during plating and idle time.  This new non-cyanide silver technology will plate bright silver that is perfectly suitable for electronic, industrial and decorative applications.    .      

  • Plastics and Plating on Plastics [1944]

    This republished 1944 AES convention paper presents an historic perspective of the early days of plastics in surface finishing - using them and plating on them, in the waning years of World War II.  The discussion reviews the uses of plastics in plating equipment and processing at that time, as well as the coating of the plastics themselves, with accompanying application photos.  You will note that today’s conventional plating-on-plastics processes lay far in the future.  Surprisingly, CVD processes are discussed.