The mechanical performance of the printed bars was investigated by means of uniaxial tension tests.
The performance of the printing system was assessed by application of liquids with a broad range of viscosity (1 384.5 cP).
Correlations between the process parameters, structure parameters, density, fibre content, and final performance of the printed specimens were discussed.
The performance of the printing system at high viscosity was assessed via the application of liquids with a broad range of viscosity (1 384.5 cP).
In this study, the thermal performance of the printed circuit board (PCB) as a heat sink for the light-emitting diode (LED) bulb is analyzed.
Along with the characterization and interpretation of electrical properties of the established conductive antenna patterns, the performance of the printed antennas were analyzed in detail by measuring the scattering parameter S11 and the antenna gain.
In particular, the material inside the fabricated part often exhibits spatially varying material distribution (heterogeneity) and direction dependent behavior (anisotropy), indicating that the design model is no longer a suitable surrogate to consistently estimate the mechanical performance of the printed component.
Our study shows that there are two efficient knobs to alter the performance of the printed GMR sensors: The enhancement of the GMR ratio of the printed sensors as well as the increase in their sensitivity can be realized by reducing the size of the GMR flakes and/or changing the polymeric binder solution.
The objective of study is to optimize the structural integrity and mechanical performance of the components printed at a favourable buildability situation.
The performance of the 3D printed housing and 70 μm slit was benchmarked against a commercially available interface using the CE separation of Zn2+ and Cu2+ complexes with PAR.
Some positive portrayals of the non-medical use of MPH for performance enhancement in the print media and bioethics discourses could entice further uses.
