Precision cleaning solvents
Published

Custom Precision Cleaning System for Additive Manufacturing

Layton Technologies designed a custom solvent cleaning system to remove wax from 3D-printed parts, replacing an inefficient manual process.

Share

Custom precision cleaning system from Latyton

Layton Technologies designed this system to perform precision solvent-based cleaning of 3D printed parts.  Source: Layton Technologies

When an orthopedic implant developer and manufacturer sought to improve their additive manufacturing (3D printing) cleaning process, Layton Technologies Ltd. (Staffordshire, U.K.) created a custom solution.

The additive manufacturing process in question called for the 3D printing of parts using two different proprietary wax products. One of these waxes is used as a support material for the second wax, which forms the basis of complex geometry molds for the orthopedic implants.

Previously, removing the support wax was a labor-intensive process which involved heating and agitating a flammable solvent in an open-top container using a hot plate and a magnetic stirrer. This set up afforded little control of the flammability hazards associated with heating the solvent and provided the operators with minimal protection from any solvent vapors and fumes.

In addition, the melting point of the support wax was only 5°C higher than the melting point of the mold wax, but it is essential to preserve the exact shape of the mold wax during support wax removal.

The manual process was causing a bottle neck that held up production.

Layton conducted trials and developed a single-stage system that used temperature control to remove only one type of wax. It was also designed to keep the waste stream to a minimum. The resulting process was said to be less labor intensive and greatly reduce downtime.

Layton produced a comprehensive Design Documentation Package which included a general arrangement diagram, a piping and instrumentation diagram and a functional design specification, a software design specification and a comprehensive project plan. It also designed and manufactured custom fixturing to hold the components and optimize the cleaning and drying process.

The final design resulted in a fully automated, low-emission, flammable solvent cleaning system with Layton’s 5-year warranty.

Layton Technologies Limited | laytontechnologies.com  | +441782370400

Related Content

  • NASF/AESF Foundation Research Project #123: Electrochemical Manufacturing for Energy Applications – 4th and 5th Quarter Report

    The NASF-AESF Foundation Research Board selected a project on electrodeposition toward developing low-cost and scalable manufacturing processes for hydrogen fuel cells and electrolysis cells for clean transportation and distributed power applications.  During the reporting period, efforts were focused on planning the overall project work, with the eventual goal of manufacturing an improved design for a Solid oxide fuel cell anode supported flat tube (SOFC).

  • NASF/AESF Foundation Research Project #123: Electrochemical Manufacturing for Energy Applications - 7th Quarterly Report

    The NASF-AESF Foundation Research Board selected a project on electrodeposition toward developing low-cost and scalable manufacturing processes for hydrogen fuel cells and electrolysis cells for clean transportation and distributed power applications.  In this period, we followed our work on 3D printing anode support for solid oxide fuel cells, SOFC (or cathode for solid oxide electrolyzers, SOEC) based on our designed optimization outlined in the previous report.  We worked on optimizing the printing parameters, obtaining binder burn out and sintering profiles to obtain printed parts with desired geometry and properties. 

  • NASF/AESF Foundation Research Project #123: Electrochemical Manufacturing for Energy Applications - 9th Quarterly Report

    This NASF-AESF Foundation research project report covers the ninth quarter of project work (January-March 2024) at the University of Texas at Dallas. In this period, we followed our work on 3D printing anode support for solid oxide fuel cells, SOFC (or cathode for solid oxide electrolyzers, SOEC).  We focused on the mechanical properties of 3D printed yttria-stabilized zirconia (YSZ) using a four-point bending test.  We then conducted a statistical analysis to characterize the flexural strength of porous 3D printed YSZ.  The full paper on the ninth quarter work can be accessed and printed at short.pfonline.com/NASF24June2.

Precision Cleaning Solvents
Cleaning questions ask Kyzen
vacuum vapor degreasers
high-performance systems for efficient parts cleaning
Pickelx one step metal prep
Echoflex modular ultrasonic cleaning machines
Cleaning Technologies Group
PF Podcast
Vacuum Degreasers and Aqueous Solutions