Electroplating is the process of plating metal with another metal. Electroplating uses a process called electrodeposition to apply metal coating on a conductive surface. This includes chromium plating, nickel plating, zinc plating, copper plating, electroless nickel plating and the associated baths, chemistries and pollution control methods.
Choosing and Troubleshooting Copper Electroplating Processes
Learn more on this inexpensive and highly efficient process.
Electroplating: Essential Reading
Automated Electroplating Systems
Simultaneous engineering reduces energy and resource consumption.
An overview of decorative and hard chromium electroplating processes.
Applications, plating solutions, brighteners, good operating practices and troubleshooting.
Troubleshooting Bright Nickel Processes: How to Identify the Problem
For bright nickel process troubleshooting, Doug Lay of Coventya suggests narrowing the scope with a checklist.
Controlling Quality of Zinc Flake Coatings on Steel Fasteners
Scott McEuen, North American business development manager of zinc flake coatings at Atotech, explains how the quality of zinc flake coatings depends on good adhesion and bonding to the substrate of the fasteners.
What is the difference between hexavalent and trivalent chrome?
The sulfate/chloride process has shown indefinite electrolyte life, process stability, ease of use, and excellent exterior corrosion performance. From an operational performance standpoint, throwing power is much better with trivalent chromium. Trivalent chromium is also extremely forgiving with respect to current interruption (this feature eliminates the occurrence of white wash commonly experienced with hexavalent chromium). The advantages of improved covering power and uniform thickness have eliminated the need for use of auxiliary anodes for plating difficult geometries.
How do you apply the 720 rule to current density anodizing?
The 720 Rule describes the relationship between the amount of current passed through an aluminum surface and the resultant anodic oxide thickness produced over time. It is known that 720 amp-minutes of current per square foot of load are required to produce one mil (0.001" or 25.4 microns) of anodic oxide.
How do you calculate electroless nickel square footage?
Calculating the proper square footage of work that you would be able to process through your EN bath is key for determining the proper costing for a job, as well as, providing a reference for proper bath performance. As we are trying to calculate for the square footage, or the area, that can be processed through a solution, you would also need to consider the thickness of your final product. As the thickness increases per part, the total amount of nickel eligible to be plated decreases, thus decreasing the amount of area that can be plated.
How is electrolysis used in electroplating ?
In electrolysis, in contrast to chemical synthesis, one can easily control the reaction rate of a system by working at a given current density, or easily select the magnitude of the driving force for the reaction by adjustment of the electrode potential. Modern electronics has greatly enhanced this inherent advantage of electrolysis by allowing current or voltage to be applied as almost any function of time.
Narrow by Electroplating Category
- Chromate Conversion Coatings
- Chrome-Free Final Rinses (for Paint Pretreatment)
- Consultants, Independent, Electroplating and/or Electroless Plating
- Consultants, Independent, Aluminum Finishing
- Controls, Electroless Plating
- Controls, Electroplating
- Courses in Electronics Finishing
- Courses in Electroplating
- Courses in Electroplating, Correspondence
- Current Controls
- Current-Density Meters
- Electrical Connectors, Chemical & Corrosion Resistant
- Plating Processes for Aluminum
- Plating Processes, Alloy: Chromium Substitute
- Plating Processes, Brass or Bronze
- Plating Processes, Chromium
- Plating Processes, Cadmium
- Plating Processes, Chromium, Colored
- Plating Processes, Chromium, Trivalent
- Plating Processes, Cobalt, Cobalt Alloy
- Plating Processes, Copper
- Plating Processes, Copper, Electroless
- Plating Processes for Magnesium
- Plating Processes for Plastics
- Plating Processes
- Plating Equipment, Continuous (Wire & Strip)
- Plating & Anodizing Equipment
- Plating Activators, All Metals
- Plating Conveyors
- Plating Processes for Printed Circuits
- Plating Processes, Fluoborate
- Plating Processes, Gold
- Plating Processes, Gold, Electroless
- Plating Processes, Indium
- Plating Processes, Iron
- Plating Processes, Lead
- Plating Processes, Nickel
- Plating Processes, Nickel Sulfamate
- Plating Processes, Nickel, Colored
- Plating Processes, Nickel, Electroless
- Plating Processes, Nickel, Satin Finish
- Plating Processes, Nickel-Iron
- Plating Processes, Palladium
- Plating Processes, Palladium, Electroless
- Plating Processes, Particle Co-Deposition
- Plating Processes, Platinum
- Plating Processes, Rhenium, Ruthenium
- Plating Timers
- Plating Testing Equipment
- Plating Rack Coatings
- Plating Processes, Zinc-Nickel
- Plating Processes, Zinc-Iron
- Plating Processes, Zinc-Cobalt
- Plating Processes, Zinc
- Plating Processes, Tin-Zinc
- Plating Processes, Tin-Nickel
- Plating Processes, Tin-Lead
- Plating Processes, Tin, Electroless
- Plating Processes, Tin
- Plating Processes, Silver, Electroless
- Plating Processes, Silver
- Plating Processes, Rhodium, Electroless
- Plating Processes, Rhodium
- Rack Trucks
- Racking/Unracking Machines
- Racks, Plating, Painting & Anodizing
- Rectifier Rebuilding & Repair
- Refiners & Reclaimers, Metals
- Tank Covers
- Tank Linings, Tumbling Barrel Linings
- Tanks, Chemical Shipping
- Tanks, Metal
- Tanks, Plastic