DIRECT 3D PRINTING: NEW OPPORTUNITIES FOR JEWELRY PRODUCTION

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DAMIANO ZITO DIRECT 3D PRINTING: NEW OPPORTUNITIES FOR JEWELRY PRODUCTION

PRESENTATION STRUCTURE AT YOUR GLANCE Introduction History of production processes and 3D direct precious metal printing overview Materials Overview on precious metals alloys already tested and their characteristics compared to casting Resolution Reproducible details and thicknesses Geometries Type of geometrical strengths Surface Quality Roughness, supports residuals and density Productivity Benchmark with casting Sustainability Environmental impact What to do next Approach Recommendations

HISTORY HOW JEWELLERY IS PRODUCED? wires sheets hand made chains chains tubing casting machining

INTRODUCTION HOW DOES IT WORKS A 3D METAL PRINTER Type of Process Powder metallurgy process Commercials Acronyms SLM, SLS, DMLS Technology Type Layer by Layer Tested Precious Metals Tested precious metals: Au, Pt, Pd, Ag Printers Producers ReaLizer GmbH, EOS GmbH, Concept Laser GmbH, Sisma S.p.A.; Others: Phenix Systems, SLM Solution GmbH, Arcam AB, Renishaw Precious Metals Powders Producers Progold S.p.A., Cookson Gold Ltd, Legor Group S.p.A., Hilderbrand CIE SA

UTS [MPa] Elongation [%] MATERIALS MECHANICAL PROPERTIES BENCHMARK 480 470 460 450 440 430 420 410 400 390 3D Direct Metal Printing 3D Direct Metal Printing Traditional Casting Traditional Casting Direct Casting Direct Casting 50% 40% 30% 20% 10% 0% UTS [MPa] Elongation [%]

MATERIALS 3N YELLOW GOLD MECHANICAL PROPERTIES Alloy ID UTS [MPa] Elongation [%] Hardness [HV] Au3N >450 >25 <150 Au5N+ >550 >15 <160 AuG2Pd130 >550 >15 <190 Pt950 >670 >20 <180 TiG4 >550 >15 >200

MATERIALS BENCHMARK OF GRAIN SIZE 3D Direct Metal Printing Traditional Casting Direct Casting

MATERIALS HIGH MELTING TEMPERATURE ALLOYS Platinum 950 These alloys has liquidus temperature above 1750 C Titanium Grade 4 These alloys has liquidus temperature above 1650 C

MATERIALS ANODIZED TITANIUM Blue Black Green Purple

MATERIALS ALLOYS OPPORTUNITIES Composite Alloys AuTi and AuNb Colour Super White YI<15 Density 30% less than standard Pd white gold

MATERIALS ALLOYS OPPORTUNITIES

RESOLUTION DPI (DOTS PER INCH) Alloy ID XY[DPI] Z [DPI] Au3N 120 1200 Au5N+ 120 1200 AuG2Pd130 150 1200 Pt950 170 1200 TiG4 120 500

Thickness [mm] RESOLUTION THICKNESSES VS. SURFACE EXTENSION 0,7 0,6 0,5 0,4 0,3 0,2 0,1 0 - + Surface Extension [mm2] Traditional Casting Direct Casting 3D Direct Metal Printing

GEOMETRIES MONOLITHIC JEWELS Casting To hollow rings the cast need to be assembled 3D direct metal printing To hollow the ring it can be printed monolithic

GEOMETRIES HOLLOW JEWELS

GEOMETRIES HOLLOW WEARABLE & SMART HOLLOW KSIZE

GEOMETRIES REINFORCEMENT RIB & LATTICE STRUCTURE

GEOMETRIES REINFORCEMENT RIB & LATTICE STRUCTURE

GEOMETRIES REINFORCEMENT RIB & LATTICE STRUCTURE

Titolo asse SURFACE QUALITY ROUGHNESS [R t ] BENCHMARK 3D Direct Metal Printing Direct Casting Traditional Casting 90 76 60 37 33 20 14 0 10 20 30 40 50 60 70 Roughness [µm]

SURFACE QUALITY DENSITY BENCHMARK Density 99.5% 99.9% Density 99.9% 99.99%

SURFACE QUALITY SUPPORTS RESIDUALS

SURFACE QUALITY SUPPORTS RESIDUALS

Production Lead Time [h] PRODUCTION PRODUCTION LEAD TIME 90 80 70 60 50 40 30 20 10 0 1 Piece 10 Pieces 100 Pieces

PRODUCTION PRODUCTION CAPACITY BENCHMARK Process Production Capacity [kg/day] Traditional Casting 3.75 Direct Casting 2.20 3D Direct Metal Printing 0.35

Carbon Footprint [kg CO 2 eq] SUSTAINABILITY CARBON FOOTPRINT 80 70 60 50 40 30 20 10 0 Traditional investment casting Direct investment casting SLM 14 g/h SLM 7 g/h SLM 25 g/h 27 37 47 57 67 77 87 97 Process Yield [%]