Non-ECC RAM causes silent bit-flip data corruption at a rate of 1 error per GB per 1.8 hours, and consumer hardware universally ships without ECC

Cosmic rays and electrical interference cause single-bit errors in DRAM at a rate that Google's large-scale study measured as 25,000-70,000 errors per billion device-hours per megabit, translating to roughly 1 bit error per gigabyte of RAM every 1.8 hours, with over 8% of DIMM modules experiencing errors annually. Non-ECC RAM, which ships in virtually all consumer laptops, desktops, and gaming PCs, cannot detect or correct these errors. So what? A flipped bit in a spreadsheet cell can silently change '8' to '9', in a database index can corrupt query results, or in a filesystem metadata structure can cause silent file corruption. So what? For small accounting firms, freelance engineers running local databases, or researchers processing datasets, this means financial records, engineering calculations, or scientific results can contain undetectable errors that propagate through downstream systems. So what? When the corruption is eventually discovered (often weeks or months later), backups are also contaminated because they faithfully replicated the corrupted data, making recovery impossible. So what? This erodes trust in computational results at a fundamental level, yet the affected users have no way to know it happened because the hardware provides zero indication. So what? Society operates on an implicit assumption that computers compute correctly, but for the hundreds of millions of non-ECC consumer machines, this assumption is statistically false over multi-month timescales. This persists because Intel artificially restricted ECC support to Xeon/server platforms for decades (AMD broke this with Ryzen, but motherboard manufacturers often don't validate or enable it), ECC modules cost 10-20% more, and the errors are invisible so there is no consumer demand for protection against a threat they cannot perceive.