
Discover how ISO and ASTM standards create a common language for additive manufacturing, guaranteeing quality, safety, and reliable, globally interoperable production across industries.
Trace the evolution of additive manufacturing from rapid prototyping with SLA, SLS, and FDM to jet engines and medical implants, highlighting ASTM and ISO standards for safety and consistency.
Standards turn chaotic 3D printing into reliable, safe parts by providing a blueprint for consistency, the bedrock of quality, and a universal language trusted by regulators.
Decode the language of additive manufacturing and explore key methods like material extrusion and VAT photopolymerization. Assess build orientation, anisotropy, layer thickness, and role of QMS and ISO/ASTM in certification.
ISO/ASTM 52900 provides a universal vocabulary and workflow for additive manufacturing, defining more than 100 terms and guiding five stages—from design and modeling to inspection and testing—for reliable global production.
ISO/ASTM 52901 acts as a universal translator for AM part purchasing, turning purchase orders into a blueprint that specifies material, process, post-processing, quality checks, and supplier qualification to prevent mismatches.
Establish ISO/ASTM 52902 as the quality passport for 3D printing materials, detailing the six key properties to be measured, lifecycle handling, and traceability to ensure regulatory-ready parts.
Discover how ISO/ASTM 52903 establishes a universal material passport, standardizing mechanical, thermal, chemical, and processing data to ensure consistent, safe 3D printed parts across polymers and metals.
Discover how ISO/ASTM 52904, 52905, and 52906 standards validate 3D printers, guide design for additive manufacturing, and define post-processing workflows for reliable, safe parts.
Design with parametric cad assemblies and topology optimization to drive rapid 3d printing from file to form with NextGen3D, using pla, petg, Atlas, and sla resin.
Navigate medical device quality standards for additive manufacturing, detailing ISO 13485 and FDA guidance, biocompatibility, NDT, and process validation of digital-to-physical workflows.
Implement a four-tier regulatory architecture for flight-critical aerospace parts, integrating AS9100, NADCAP, SAE AMS, and FAA/EASA certification to ensure rigorous process control and material traceability.
Explore how 3d printing meets automotive quality through IATF 1694-9, APQP, FMEA, and PPAP to ensure mass-produced parts are identical, safe, and reliable.
Explore how additive manufacturing meets Mil-STD and Mil-Spec standards to ensure reliable, mission-critical parts. Understand DLA gatekeeping, material qualification, traceability, Mil-STD-810 compliance, and CMMC protections for digital design files.
Explore essential standards for designing and selling 3d printed consumer products, focusing on quality management with ISO 9001, product safety, labeling, IP protection, and a pre-launch checklist.
Certification bodies act as independent gatekeepers, assessing your entire 3d printing operation—from quality management to final parts—against established standards to enable trust and access to aerospace and medical markets.
Navigate the certification process with a five-step prep phase, stage one and stage two audits, and actionable findings, then maintain certification through surveillance and recertification.
Build an evidence trail for additive manufacturing by documenting machine qualification, material certificates, and the build record within a quality management system: manual, procedures, work instructions, and forms and records.
Maintain and renew your certified management system through a continuous compliance cycle of internal audits, management reviews, corrective actions, and up-to-date documentation, plus surveillance and three-year recertification.
Measure dimensional accuracy in additive manufacturing with calipers, CMM, CT scanning, and GDNT to define tolerances and relationships for quality control.
Explore how 3D printed parts, built layer by layer, undergo multi-directional mechanical testing to verify duty readiness, including tensile, compression, flexural, impact, fatigue, and hardness tests under ASTM standards.
Explore non-destructive testing (NDT) methods for additive manufacturing, from visual inspection to X-ray CT scanning, ultrasonic testing, dye penetrant inspection, and thermography, to detect hidden internal and surface flaws.
Discover how chemical analysis, microstructural inspection, thermal testing, and surface characterization build trust in 3D printed parts—from jet engine components to medical implants—layer by layer.
Master process validation across design, qualification, and continued verification to ensure every three-dimensional printed part meets regulatory standards, with real-time sensors and SPC enabling traceability and a digital twin.
Case study traces a digital spinal implant from design to FDA 510K clearance, highlighting additive manufacturing, material qualification, CT inspection, and regulatory collaboration.
Explore how a flight-critical Inconel fuel nozzle tip is designed, built, and approved through additive manufacturing, facing factory readiness, material validation, and flaw inspection, with record 98% first pass yield.
Discover how additive manufacturing relies on a standards and certification framework to ensure quality and safety. Learn the seven principles and how to engage with ISO and ASTM committees.
Explore how additive manufacturing transforms supply chains from mass production to on-demand, customized parts, with digital file sharing, enterprise adoption, and measurable gains in weight, cost, and emissions.
Discover how to pick 3d printing materials for real-world parts, balancing outdoor durability, heat, and flexibility with material profiles like ASA, PEEK, PEI, and food-safety guidance.
Explore how additive manufacturing enables on-demand, local 3d printing and a digital warehouse, enabling decentralized, data-driven production across aerospace, automotive, and healthcare.
This course contains the use of artificial intelligence.
The 3D Printing Standards & Certification course is a comprehensive professional training program designed to help engineers, designers, manufacturers, and quality professionals understand the global standards and certification systems governing additive manufacturing. As 3D printing evolves from rapid prototyping to full-scale production, industries such as aerospace, medical devices, automotive, defense, and consumer products require strict compliance with international standards to ensure safety, reliability, and quality.
In this course, you will learn the essential standards developed by organizations such as ISO and ASTM, explore industry-specific regulations, and understand how certification bodies evaluate manufacturing systems and processes. The course explains how standards help ensure consistency, reduce risk, and enable global communication between manufacturers, regulators, and customers.
You will explore the complete framework of additive manufacturing standards including ISO/ASTM 52900 terminology, ISO/ASTM quality requirements, and material specification standards, along with industry regulations such as ISO 13485 for medical devices, AS9100 for aerospace, and IATF 16949 for automotive manufacturing. These standards form the backbone of modern additive manufacturing quality assurance and production approval.
The course also covers certification processes step-by-step, explaining how organizations prepare for audits, implement quality management systems, and maintain compliance over time. You will gain practical insight into documentation requirements, process validation, supplier qualification, and inspection procedures required for certified additive manufacturing operations.
A major focus of the course is quality control and testing methods for 3D printed parts. Students will learn how dimensional accuracy is measured, how mechanical properties are tested, and how advanced non-destructive testing methods such as CT scanning and ultrasonic inspection are used to detect defects. Material characterization techniques and process monitoring strategies are also explained to ensure production reliability.
To connect theory with real-world application, the course includes detailed industry case studies, demonstrating how companies successfully qualified 3D printed medical implants and aerospace components through strict regulatory approval processes. These case studies highlight the challenges, documentation requirements, and validation methods used in regulated industries.
By the end of this course, students will understand how to implement additive manufacturing standards, manage certification processes, and apply quality control systems that meet global regulatory requirements.
This course material is based on structured modules covering additive manufacturing terminology, ISO/ASTM standards, industry regulations, certification processes, quality testing methods, and real-world case studies in medical and aerospace applications.
NextGen3D Academy is dedicated to empowering the next generation of designers, engineers, and innovators in the field of additive manufacturing. Our mission is to provide industry-focused training that bridges the gap between theoretical knowledge and real-world manufacturing practices. Through structured courses, practical examples, and emerging technology insights, NextGen3D Academy helps learners build the expertise needed to succeed in modern digital manufacturing and advanced 3D printing industries.