Hairline RDL Cracks
Conventional CT is unable to detect RDL layer cracks even with 50+ hours of scan time. Why? Because the projected thickness of the RDL layer causes photon starvation. Only Apex can detect sub-micron cracks in the RDL in 30 minutes regardless of the sample size.
Intact SSD Imaged in 3D in 27 Minutes
Apex eliminates the beam hardening artifacts common to conventional CT. Here, an intact SSD was imaged in 3D in 27 minutes with 8.6 micron voxel size. The cross sectional images show stunning contrast and resolution with a complete absence of streaking artifacts.
SSD failure analysis
This example of a 3D integrated circuit (3D NAND) shows the complex architecture of a modern IC, including voids in BGA, redistribution layer & under-bump metallization, and TSVs.
Targeted, Non-Destructive 3D Analysis on Large PCB at 1 micron
An intact GPU (GeForce 1070 Ti) die on its PCB was imaged with 1.0 micron voxels in 34 minutes.
GPU failure analysis
GPU imaged on intact PCB with 1.0 µm resolution. Voids in the solder ball and microbump arrasy can be clearly seen, along with through-silicon vias and 3D chip architecture.
Finding Defects in Minutes… on Full 300 mm Wafer
Failures such as cracks, non-wets, and voids can be found in 3D within minutes at high resolution. Shown on the right is an example of voids determined in a 300mm wafer and imaged within minutes. The TSV diameters are 5 micrometers.
Unbiased 3D Image Contrast Without Beam Hardening
Apex does not suffer from beam hardening like conventional CT. The unique system architecture mitigates many of the artifacts that affect 3D x-ray imaging in semiconductor inspection & FA, providing crisp, clean reconstructions in a fraction of the time.