Knee Implant
Method of Manufacturing SLM
Material SS316L Ti6Al4V
Material Properties High Tensile Strength, Excellent Corrosion Resistance
Part Weight (g) SS316L 188 g Ti6Al4V 97 g
Part Density (g/cm3) 9.01 g/cm3
Cost (PKR) 60,000/- (SS316L) 102,000/- (Ti6Al4V)
Benefits of using 3D Printing/Additive Manufacturing A customized, patient-specific knee implant designed using the patient’s individual anatomical morphology to achieve precise structural conformity, optimize joint biomechanics and improve functional outcomes.
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Knee Implant
Method of Manufacturing SLM
Material SS316L Ti6Al4V
Material Properties High Tensile Strength, Excellent Corrosion Resistance
Part Weight (g) SS316L 150g Ti6Al4V 79g
Part Density (g/cm3) 8.06 g/cm3
Cost (PKR) 46,000/- (SS316L) 120,000/- (Ti6Al4V)
Benefits of using 3D Printing/Additive Manufacturing A customized femur implant designed on a patient-specific basis to replicate the individual femoral geometry, ensure accurate fit and alignment to support physiological load transfer, resulting in improved biomechanical function outcomes.
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Cranio-Facial Implants
Method of Manufacturing FDM
Material PEEK
Material Properties PEEK is a high-strength and temperature resistant 3D printing material with excellent chemical resistance and mechanically stability
Part Weight (g) Cranial Implant
45g
Jaw Implant
9g
Eye Implant
2g
Part Density (g/cm3) 1.01 g/cm3
Cost (PKR) Cranial Implant
45000/-
Jaw Implant
13000/-
Eye Implant
5500/-
Benefits of using 3D Printing/Additive Manufacturing Customized cranial implant manufactured from PEEK material offers excellent biocompatibality, mechanical properties similar to bone, corrosion resistance, lightweight and durability. PEEK is recognized as biocompatible for human implantation by US Food and Drug Administration and ISO 10993 Standards.
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Implant of Femoral for Crushed Bone
Method of Manufacturing FDM
Material ABS
Material Properties ABS is a strong, impact-resistant thermoplastic with good heat resistance, suitable for functional 3D-printed parts.
Part Weight (g) 185g
Part Density (g/cm3) 0.66 g/cm3
Cost (PKR) 17,000/-
Benefits of using 3D Printing/Additive Manufacturing Femoral implant manufactured using AM with porous structure for tissue ingrowth. AM enables customized fit, bone integration and improved healing.
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Implant of Femoral for Crushed Bone
Method of Manufacturing FDM
Material CPE
Material Properties CPE is a strong, chemically resistant, low-warping 3D printing material with good dimensional stability.
Part Weight (g) 61g
Part Density (g/cm3) 0.7 g/cm3
Cost (PKR) 9,000/-
Benefits of using 3D Printing/Additive Manufacturing Provides wrist stabilization and thumb support, with adjustable mobility to suit treatment need. Unlike solid, fixed designs, AM allows for a lightweight, customized structure that can be easily put on or removed with one hand.
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Tooth Denture
Method of Manufacturing SLM
Material SS316L
Material Properties High Tensile Strength, Excellent Corrosion Resistance
Part Weight (g) 34g
Part Density (g/cm3) 10.44 g/cm3
Cost (PKR) 10,000/-
Benefits of using 3D Printing/Additive Manufacturing Customized patient-specific dental crowns are designed to precisely fit each individual’s oral anatomy. This tailored approach enhances comfort and improve functionality.
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Shoe Insole
Method of Manufacturing FDM
Material TPU
Material Properties TPU is a flexible, abrasion-resistant 3D printing material with high elasticity, good chemical resistance and excellent durability
Part Weight (g) 130g
Part Density (g/cm3) 0.97 g/cm3
Cost (PKR) 5,000/-
Benefits of using 3D Printing/Additive Manufacturing 3D printing TPU insoles allows exact foot-curvature customization, offering superior comfort, flexibility and lightweight support.
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Shoe Outsole Mold
Method of Manufacturing SLM
Material SS316L
Material Properties High Tensile Strength, Excellent Corrosion Resistance, High impact strength
Part Weight (g) 426g
Part Density (g/cm3) 7.7 g/cm3
Cost (PKR) 125,000/-
Benefits of using 3D Printing/Additive Manufacturing Enables design freedom, easy modification and reduction in manufacturing time from 2 months to 1.5 weeks. AM also reduces the material wastage by 60-70%.
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