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Here’s your YouTube-optimized description based on your script (under 5000 characters): In some of the harshest industrial environments on Earth, a single breakdown can cost millions per day. So why would companies willingly spend around $200,000 on a Mack Titan heavy haul truck? Because in the Australian Outback, reliability isn’t optional — it’s survival. Across remote mining corridors stretching 300–600 km between service depots, every truck is a lifeline. When payloads approach 180–200 tons, downtime isn’t just inconvenient — it can trigger contract penalties, halted production, and revenue losses between $1.2–$2.5 million per day. In this investigation, we break down: • The true economic cost of heavy-haul failure • Why triple-rail frames matter in extreme loads • How 3,800 Nm of torque becomes 22,800 Nm at the wheels • The engineering behind 1,757 sq in of cooling capacity • A real-world Outback recovery case • What happens when frame fatigue shuts down operations This isn’t about sticker price. It’s about uptime. From structural steel reinforcement to deep reduction gearing, every design choice in the Mack Titan is built to prevent catastrophic downtime in some of the world’s most isolated industrial regions. When every hour counts, the real question isn’t “Why is it so expensive?” It’s “What does failure actually cost?” Subscribe for more deep dives into the machines that keep global industry moving. Chapters 00:00 – Why Would Anyone Pay $200K for One Truck? 00:38 – The Reality of 500 km Between Depots 02:25 – The $2 Million Per Day Downtime Problem 04:23 – Triple-Rail Frame Engineering Explained 05:18 – Extreme Heat & Cooling Systems 06:48 – Torque, Gear Ratios & 200-Ton Pulling Power 08:48 – Real Outback Case Study: 12 Hours at 95% Load 10:01 – When Frame Fatigue Shuts Down Operations 11:38 – Why Uptime Is the Real Bottom Line