Intel Celeron G3900 Processor

This item is a central processing unit (CPU) for a desktop computer, specifically an Intel Celeron G3900. It features a square Land Grid Array (LGA) design with a dark green fiber-reinforced substrate base and a silver-colored integrated heat spreader (IHS) made of nickel-plated copper. The IHS is laser-etched with technical specifications: 'INTEL CELERON', model number 'G3900', S-spec code 'SR2HV', a base clock frequency of '2.80GHZ', and a serial/batch number 'X713D213'. Launched in early 2016 as part of the Skylake sixth-generation microarchitecture, this dual-core processor is designed for the LGA 1151 socket. Physically, the chip measures approximately 37.5mm x 37.5mm. The condition appears fair to good for a used component; the surface of the IHS shows minor mechanical wear and remnants of thermal paste in the crevices near the mounting wings. There are no visible chips to the green substrate or deep scratches on the metal surface that would impede thermal transfer. This is a low-end, budget-oriented component intended for basic productivity tasks, representing the entry-level tier of Intel's silicon manufacturing from the mid-2010s.

I have examined the provided images of the Intel Celeron G3900 (SR2HV). Physically, the unit appears authentic, displaying the correct etching typography and substrate layout consistent with Intel's 2016 'Skylake' manufacturing. The integrated heat spreader shows typical wear, including minor scuffing and thermal paste residue, which suggests it was previously operational. There is no evidence of delidding or substrate cracking. From a market perspective, this is a bottom-tier, legacy component. Launched as a budget CPU, the Celeron G3900 has been superseded by much more powerful chips. Its current utility is limited to basic office tasks, headless server builds, or bio-maintenance of older LGA 1151 motherboards. Current secondary market data shows high availability and low demand, with units regularly selling for under $10.00. Limitations of this appraisal include the inability to verify functional integrity. In-person testing using a compatible H110, B150, or Z170 motherboard is required to ensure the silicon has not been damaged by voltage spikes or thermal throttling. Furthermore, while the laser etching looks genuine, full authentication would require checking the internal 'Management Engine' digital signature via BIOS to confirm the silicon matches the lid’s branding, as counterfeit IHS swaps are an occasional occurrence in the hardware market. Given the low inherent value, further scientific testing is not economically justified.