Additive manufacturing requires flawless documentation of build parameters, material specifications, and post-processing protocols. Editorial mistakes in toolpath instructions or support structure specs directly cause production failures and material waste.

Our assessments test candidates' mastery of stereolithography, selective laser sintering, and FDM terminology. We evaluate precision with build envelope parameters and thermal processing documentation that predicts real-world performance.

Illustrative scenario

Powder Bed Fusion Documentation Error Causes $180K Material Loss

A technical writer confused 'laser power density' with 'energy density' in SLS build parameters, specifying incorrect values for titanium powder processing. The resulting documentation led to 12 failed builds before engineers identified the terminology error, wasting $180,000 in aerospace-grade powder.

A composite example of a failure mode that is common in Additive Manufacturing. It is not an account of a real client engagement and no real organisation is described.

Documents You'll Be Testing

Build Parameter Specifications
Post-Processing Protocols
Material Certification Sheets
Quality Control Reports
Build Failure Analysis
Equipment Maintenance Logs

Avoid These Common Editorial Mistakes

Confusing laser power with energy density

Incorrect build parameters leading to poor part quality or failed prints

Misspecifying support structure requirements

Parts with inadequate support failing mid-build or requiring extensive rework

Incorrect infill density documentation

Parts with wrong mechanical properties failing quality specifications

Mixing up curing and sintering terminology

Wrong post-processing procedures applied, compromising material properties

Build envelope dimension errors

Parts designed outside printer capabilities, wasting setup time and materials

Master These Key Terms

Laser power vs Energy density
Curing vs Sintering
Layer adhesion vs Interlayer bonding
Build volume vs Build envelope
Support material vs Support structures

Smart Hiring Strategies

Prioritize candidates who demonstrate accuracy with build specifications, layer parameters, and AM process terminology. Look for precision in documenting powder bed fusion, cure schedules, and post-processing procedures.

Technical documentation errors in additive manufacturing cascade into costly production failures and safety issues. Candidates must master complex multi-technology terminology while maintaining absolute accuracy in build specifications.

Frequently Asked Questions

How technical should candidates be for additive manufacturing communication roles? ↓
Candidates need strong technical vocabulary but don't require engineering expertise. Focus on their ability to accurately use process terminology, specify build parameters correctly, and distinguish between different AM technologies without mixing up critical technical terms.
What level of 3D printing knowledge do editorial candidates need? ↓
Editorial staff should understand the differences between major AM processes like FDM, SLS, and SLA, plus common parameters like layer height and infill density. They don't need to operate equipment but must communicate technical specifications accurately.
Should we test candidates on all additive manufacturing technologies? ↓
Test broadly on common AM terminology but focus on the specific technologies your company uses. A candidate working primarily with metal powder bed fusion needs different vocabulary precision than someone documenting polymer FDM processes.
How do we assess candidates' ability to handle build parameter documentation? ↓
Look for precision in technical specifications and understanding of parameter relationships. Candidates should recognize that changing one parameter (like laser power) affects others (like scan speed) and communicate these relationships clearly in documentation.
What's the biggest communication risk in additive manufacturing roles? ↓
Parameter specification errors that cascade into production failures. A candidate who confuses energy density with laser power density can cause expensive build failures, so test their precision with critical technical terminology used in your production environment.