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    Direct and Indirect Additive Manufacturing

    The tables below summarise established and emerging direct and indirect manufacturing and production routes where Additive Manufacturing (AM) is based on SLA, DLP, LCD and Inkjet 3D printing technologies.

    Direct Additive Manufacturing (AM) of 3D Printed Products

    3D resin / system Process Product Properties Benefits Limitations
    3D resins Direct AM 3D-printed resin parts, optionally filled with functional additives, ceramics, metals, polymers and exotic materials Properties of cured resins and polymers, enhanced by functional additives and fillers Cost-effective direct production for short runs Generally cost-effective only for short-run production
    Direct printing of sinterable ceramics, metals, polymers and exotic materials Resin printing followed by debinding and sintering Fully or near-fully sintered ceramics, metals, polymers and exotic materials Properties of sintered technical ceramics, metals and polymers Direct production of short runs of sintered parts Expensive printers, difficult tuning, slower debinding, limited feature sizes (≈1–3 mm) and higher micro-cracking risk compared to indirect routes

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    Injection molds

    Indirect Additive Manufacturing (AM) of 3D Printed Products

    3D resin / system Process Product Properties Benefits Limitations
    Castable 3D resins Direct investment casting (DC) Metal cast parts Typical properties of cast metals Cost-effective direct investment casting of metal parts Many competitor castable resins show fine-detail and surface imperfections
    Non-castable 3D resins Indirect investment casting (IC) Metal cast parts Typical properties of cast metals Very high-resolution master models for premium casting workflows Slower and more complex multi-step production process
    Durable injection-molding 3D resins Injection of plastics, ceramics, metals, polymers (e.g. polyimide) and exotic feedstocks in 3D-printed durable molds Plastics, ceramics, metals, polymers and exotic materials Properties of the injected or sintered materials Cost-effective molds for short and medium production runs with simple geometries Not suitable for complex or highly intertwined internal geometries
    Easy-break sacrificial 3D resins Plastic injection in easy-break sacrificial molds Soft plastics, rubbers or silicone parts Properties of soft plastics, rubbers and silicones Enables molding of complex geometries with mechanical mold removal Mold is destroyed during production; unnecessary for simple shapes
    Water-soluble sacrificial 3D resins Injection of plastics, ceramics, metals, polymers and exotic feedstocks in water-soluble sacrificial molds Plastics, ceramics, metals, polymers and exotic materials Properties of the injected or sintered materials Ideal for complex geometries with easy mold removal using water Mold is lost during production; unnecessary for simple geometries

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    Investment casting mold
    Recommended white paper

    Read our flagship technical analysis explaining why indirect additive manufacturing often outperforms direct AM in ceramics, metals and advanced materials when density, purity, debinding efficiency, process robustness and industrial scalability matter more than direct-print immediacy.

    This white paper is especially relevant for users evaluating printed molds, sacrificial mold strategies, CIM and MIM feedstocks, and other indirect manufacturing routes where final material performance matters more than printing the loaded system directly.

    Direct AM Is Solving the Wrong Problem →

    Alternative Technologies: Direct AM by SLS with Binder Powders

    • Selective Laser Sintering (SLS), where layers of plastic or metal powders are selectively sintered to create 3D objects
    • 3Dresyns has developed universal bio-based, non-photoreactive binder powders for cold SLS printing (CMF, CCF, CEPF), compatible with ceramic, metal, polymer and exotic powders: Powder binders for cold SLS printing

    Benefits of 3Dresyns SLS Bio-Based Binder Powders

    • Suitable for SLS printing of traditional ceramics, metals, polymers (e.g. PTFE, PEEK) and exotic materials