提高用于射频和高性能电子产品的3D打印导电浆料的导电性

S. Hawasli, H. Tsang, N. Lazarus, G. Smith, E. Forsythe
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引用次数: 7

摘要

3D打印导电线的低导电性是成功3D打印电子产品的主要障碍之一。这些低电导率导致传输线损耗,天线性能差,并从电路设计的角度提出了许多挑战。在这项工作中,展示了两种技术来提高3D打印银浆的导电性:光子烧结和选择性电镀。银线直接写入挤压到FFF 3D打印基板上,并在固化前干燥。作为传统热固化的替代方案,打印在单轴双倾斜3D表面上的部件使用商用PulseForge系统进行光子烧结,从而使线路导电性提高806%。然后在镀铜溶液中电镀,选择性地沉积一层铜,进一步提高了线路的导电性886%,总导电性提高了7150%。使用4点测量装置和x射线CT扫描系统来验证线材的电导率,以确定线材的横截面积。使高分辨率3D打印金属线更接近体电导率对于实现3D打印RF和高性能电子产品至关重要。
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Improving Conductivity of 3D Printed Conductive Pastes for RF & High Performance Electronics
The low conductivity of 3D printed conductive lines is one of the main obstacles in successful 3D printed electronics. These low conductivities lead to lossy transmission lines, poorly performing antennas, and pose many challenges from a circuit design prospective. In this work, two techniques are demonstrated for improving the conductivity of 3D printed silver paste: photonic sintering and selective electroplating. The silver lines were direct write extruded onto a FFF 3D printed substrate and dried before curing. As an alternative to traditional heat curing, parts printed on a uniaxial double sloped 3D surface are photonically sintered using a commercial PulseForge system, resulting in an increase of the line conductivity by 806%. The lines were then electroplated in a copper plating solution, selectively depositing a layer of copper to obtain a further increase in the line conductivity of 886%, a total improvement of 7,150%. Line conductivities were verified using a 4-point measurement setup along with an X-Ray CT scanning system to determine the cross sectional area of the lines. Bringing high resolution 3D printed metal lines closer to bulk conductivities is critical in enabling 3D printed RF and high performance electronics.
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