
Martin 'Dram' Melicharek
1.1K posts

Martin 'Dram' Melicharek
@dramthethief
Dev at @bohemiainteract Into space/games/science. Working on @SilicaGame. Created #TakeOnMars. Also worked on: Arma 2:OA, CC:GM, @thedarkmod. Views are my own.




StarCraft (1998)





Merry Christmas from the team. Dram did his thing.

Researchers have created a 5D glass disc capable of storing an astounding 360 terabytes of data — roughly 100,000 times the capacity of a standard DVD — while surviving for billions of years under extreme conditions. The disc uses ultrafast laser writing to create five-dimensional nanoscale structures inside fused silica glass. The five dimensions include three spatial coordinates plus two dimensions representing light polarization and intensity, allowing incredibly dense data encoding. Scientists have tested the disc under temperatures up to 1,000°C and intense radiation, confirming that the data remains intact without degradation. This technology promises permanent digital archives, ideal for preserving humanity’s most important cultural, scientific, and historical records. Imagine storing entire libraries, government archives, or scientific datasets in a device that could outlast civilizations. Its potential applications span astronomy, climate science, and archival preservation, making it one of the most remarkable achievements in data storage and materials science.

🗣️🗣️🗣️ UNIT SPLIT UPDATE OUT NOW 🗣️🗣️🗣️ 13 new buildings. 21 new units to dismantle them. 2 new maps to host the chaos. You know the drill. Dive in: tinyurl.com/silicaunitsplit


upcoming December update: Jingle Hell

New researsh shows ice is slippery because of electrical charges — not pressure and friction. For almost 200 years, the prevailing explanation for ice’s slipperiness was that friction or pressure from a skate, boot, or tire melted a microscopic film of water on the surface, creating a lubricating layer. A new study from Saarland University has overturned that long-standing idea. Instead, the true cause lies in the electric fields generated by molecular dipoles. When any object contacts ice, the partial charges in its own molecules interact with the highly ordered dipole arrangement of water molecules in the ice crystal. This electrostatic tug-of-war loosens the topmost layer of the ice lattice, transforming it into a thin, disordered, quasi-liquid film—without any need for heat or significant pressure. Remarkably, this self-lubrication mechanism works even at temperatures approaching absolute zero, where thermal energy is virtually absent and conventional pressure-melting or frictional heating theories completely break down. In those extreme conditions, ice remains slippery simply because its surface molecules are electrically vulnerable. The discovery fundamentally rewrites our understanding of one of nature’s most familiar phenomena. Beyond settling a centuries-old debate, it has immediate practical implications: from designing better winter tires and non-slip surfaces that actually work on ice, to engineering superior skis, ice skates, and even advanced nanomaterials that perform reliably in cryogenic environments. By revealing the dominant role of intermolecular electric forces, the research opens entirely new avenues for controlling friction and adhesion at the molecular scale—potentially transforming fields from winter sports equipment to aerospace and nanotechnology. ["Cold Self-Lubrication of Sliding Ice", Physical Review Letters, 2025]



this is all centauri could afford for a tank, just like us

your amazon delivery has arrived



our new upcoming vehicle - lightly armored, heavily motivated

we prayed to the gods and they sent this




