Bitmain Antminer KA3 (166Th)

The Bitmain Antminer KA3 (166Th) is a specialized ASIC engineered exclusively for Kadena, delivering 166 TH/s at 3,154 W for an energy efficiency of 19 J/TH, which, together with its robust chassis, four high-speed fans, and durable air-cooling path, secures stable performance under sustained load; advanced firmware provides per‑chain auto‑tuning, frequency and voltage controls for fine‑grained efficiency optimization, and real‑time telemetry for hashrate, temperatures, fan speeds, and power draw, while external smart PDUs can augment metering and alerting; continuous consumption at this load is approximately 3.154 kW, translating to roughly 75.7 kWh per day and about 2.3 MWh over a typical 30‑day span, so deployment planning should include a dedicated 200–240 V AC circuit with appropriate wiring gauge, quality PDUs, and surge protection, avoiding daisy‑chains and ensuring sufficient headroom for startup inrush; the unit connects via Ethernet and integrates smoothly with Stratum‑based pools, where pooled mining is generally preferred over solo operation to reduce variance, and a stable network with low latency and minimal packet loss supports consistent share submission; for thermal management, maintain front‑to‑back airflow in a clean, dust‑controlled environment, isolate hot and cold aisles to prevent recirculation, and operate within common miner envelopes (roughly 5–35°C, non‑condensing humidity) while noting that acoustic output is substantial and better suited to industrial or hosted facilities; routine maintenance-monthly dust removal, heatsink and fan checks, periodic firmware updates, and monitoring of hashboard temperatures-helps preserve efficiency and uptime, and attention to ambient conditions at higher altitudes is prudent due to reduced air density affecting cooling; to project operating outcomes, use a mining profitability calculator that models daily, monthly, or annual results by incorporating your power rate, uptime assumptions, pool fees, and current network difficulty, and validate projections with actual wattmeter readings from the deployment site for precise reconciliation.

The Bitmain Antminer KA3 (166Th) wields 10 nm BM1366 ASICs tuned for Kadena’s algorithm, driving a sustained 166 TH/s at roughly 3,154 W for about 19 J/TH, and, like a warded engine that drinks current and exhales heat, it relies on a rugged air-cooling train with four high‑static‑pressure fans built for nonstop duty; expect acoustic output around 80 dB and plan placement accordingly in industrial or hosted spaces with front‑to‑back airflow, separated hot and cold paths, and clean intake air, as the unit sheds on the order of eleven thousand BTU per hour and benefits from dust filtration, monthly cleaning, and periodic checks of fan bearings and heatsink contact; the integrated control stack supports auto‑tune to steady hashrate under changing conditions, per‑chain voltage and frequency adjustments for either peak performance or tighter efficiency, watchdogs for automatic recovery, and a straightforward web interface for pool credentials, with Ethernet (RJ45) connectivity to Stratum‑compatible Kadena pools-pooled mining typically smooths variance better than solo-and stable, low‑latency networking helps avoid stale shares; smart PDUs can add real‑time metering, power alarms, and graceful reboots, and deployment on a dedicated 200–240 V AC circuit with appropriately rated wiring, C19/C20‑class cords, surge protection, and allowance for startup inrush is prudent, as is considering UPS or site‑level power conditioning; daily energy draw is in the mid‑70s kWh range at full tilt, so thermal and electrical planning should include room ventilation capacity and breaker headroom, while sites at higher altitude may need extra airflow due to thinner air; security‑minded operators will isolate the management interface on a firewalled VLAN, change default credentials, and apply only verified firmware packages, though community firmware options exist for expanded controls and pool flexibility; initial commissioning is simple-set pool and worker strings, add two backup endpoints, confirm fan and temperature targets, and watch hashrate, board temps, and power draw stabilize-then rely on continuous telemetry, SNMP or API hooks, and trend monitoring to catch rising temperatures or errant fans before they bite, because in this machine’s steady chorus of fans and silicon, resilience comes from discipline: clean air, clean power, and careful tuning.

Kadena je kryptografická hashovací funkce, která slouží jako základna pro Kadena důkaz-práce konsenzuální mechanismus. Tento algoritmus zpracovává vstupní data libovolné délky a produkuje pevnou hash hodnotu, čímž zajišťuje bezpečnost a integritu v procesu těžby.