Table 1 Summary of recent progress in metal-polymer hybrid fabrication using various manufacturing methodologies
Publication Year | Reference | Polymer type | Metal type | Fabrication Method | Performance Metrics | Technological Trends |
---|---|---|---|---|---|---|
2025 | Wang et at.103 | Polyimide | Cu | SLA & ELP | Good electrical conductivity; improved interfacial adhesion | High-resolution metallization on heat-resistant polymer |
2025 | Mohammadi et al.109 | PLA | Al | FDM & Lamination | Enhanced stiffness with laminated Al insert | Polymer–metal bonding for lightweight structures |
2024 | Khan et al.110 | PETG | Sn, Ag, Cu | FFF | Printed circuitry; metal path continuity | Iterative printing of multi-layer electronics |
2023 | Tang et al.58 | PEGDA | Cu | EF-HMP & Electroplating | Copper layer: 45–50 µm; uniform coating; enhanced adhesion | Room-temperature single-step printing with field-assisted deposition |
2023 | Credi et al.111 | BISEMA | Ni | SLA & ELP | Surface resistivity ~0.1 Ω/sq | Self-activating polymer composite for selective metallization |
2023 | Nouri et al.112 | PETG | Ti, Cu, Ni, Zn | SLM & EPD | Antipathogenic surface properties; metallurgical bonding | SLM-enabled multifunctional surfaces |
2022 | Xiao et al.113 | PEGDA | Cu, Ni | DLP & ELP | Strong bonding via dopamine-functionalized resin | Functionalized polymers for direct metal deposition |
2022 | Ryspayev et al.114 | ABS | Ag | DLP & ELP | Cu layer 10.6–11.4 µm; conductivity 0.74 × 107 S/m | Multi-material DLP for site-specific copper plating |
2022 | Azar et al.115 | Polyester | Cu, Ag | DIW & ELP | Textile integration; decorative/functional layers | Inkjet-based nanoparticle seeding for textiles |
2020 | Hensleigh et al.108 | ABS | Cu, Ni-P | PμSL & ELP | Solenoids with resistance reduced from 3 kΩ to 18.7 mΩ; inductance 191 nH | Charge-programmed deposition for 3D electronics |
2020 | Zhan et al.93 | ABS | Ni, Pd | FFF & ELP | Flexible 3D structures with plated metal | Catalyst-loaded filament for hybrid 3D printing |
2019 | Matsuzaki et al.37 | PLA | Cu | FFF & Electroforming | Enhanced conductivity after plating | Multi-material printing with integrated metal layer |
2019 | Sadeqi et al.116 | ABS | Au, Ag | SLA & Electroplating | Functional metamaterials | Embedded optics and electronics in SLA-fabricated parts |
2019 | Vaněčková et al.117 | PLA | Cu | FDM & Electroplating | Good surface coverage after plating | Electrochemical activation of FDM parts |
2019 | Bernasconi et al.118 | Urethane-acrylate | Cu, CoNip | SLA & Electrodeposition | Magnetic navigation; multifunctional microdevices | Stimuli-responsive micro-systems |
2018 | James and Contractor119 | ABS/PLA | Cu/Graphite | FDM & Electroplating | Flexible solar cell electrodes | Fractal design for solar energy harvesting |
2018 | Angel et al. 32 | PLA | Cu, Ni | FFF & Electroplating | Printed inductors with reduced resistance | Selective metallization of conductive regions |
2018 | Li et al.38 | Polythiophene | Ni, Cu | Electroplating | Enhanced adhesion via surface-coated composites | Polymer surface coating with Ni nanoparticles |
2017 | Bahr et al.120 | ABS | Cu | SLA & ELP | Intricate 3D antennas with electroplated layers | Voronoi-based structural antennas |
2016 | Felco et al.121 | PEDOT: PSS | Ag | FDM & Spray-deposition | Planar functional coatings | Printed organic electronics |
2006 | Ansari et al.122 | PMMA | Ni | PBW & Electroplating | Nanoimprint lithography stamps with plated Ni | High-resolution mold fabrication for nanofabrication |