GTX 1660 Super Mining Settings and Hashrate

For Ethereum Classic mining, the GTX 1660 Super provides a hashrate of 31 Mh/s while consuming 80 watts of power. To achieve this, set the core clock to 1100 and adjust the memory clock to -1004 for Linux and -502 for Windows.

When mining DYNEX (DNX), the GTX 1660 Super delivers a hashrate of 1150.00 H/s with a power consumption of 130 watts. To optimize your mining, set the core clock to 1470 and adjust the memory clock to Linux: 5000 and Windows: 2500.

For NEXA mining, the GTX 1660 Super achieves a hashrate of 30 Mh/s while consuming 125 watts of power. Set the core clock to 1470 and adjust the memory clock to Linux: 5000 and Windows: 2500 for optimal results.

When mining Ravencoin, the GTX 1660 Super provides a hashrate of 14 Mh/s while consuming 115 watts of power. To maximize efficiency, set the core clock to 100 and adjust the memory clock to Linux: 1000 and Windows: 500.

For mining Meowcoin, the GTX 1660 Super achieves a hashrate of 15 Mh/s with a power consumption of 115 watts. Optimize your settings by setting the core clock to 100 and adjusting the memory clock to Linux: 1000 and Windows: 500.

When mining Ergo, the GTX 1660 Super provides an impressive hashrate of 63 Mh/s while consuming only 80 watts of power. Set the core clock to 0 and adjust the memory clock to Linux: -1004 and Windows: -502 for optimal performance.

For Flux mining, the GTX 1660 Super achieves a hashrate of 19 Mh/s with a power consumption of 100 watts. To maximize efficiency, set the core clock to 1150 and adjust the memory clock to Linux: 1200 and Windows: 600.

When mining Firo, the GTX 1660 Super delivers a hashrate of 14 Mh/s while consuming 120 watts of power. Optimize your mining settings by setting the core clock to 120 and adjusting the memory clock to Linux: 1800 and Windows: 900.

For Neoxa mining, the GTX 1660 Super provides a hashrate of 14 Mh/s with a power consumption of 115 watts. Set the core clock to 100 and adjust the memory clock to Linux: 1000 and Windows: 500 to achieve optimal mining performance.

When mining Conflux, the GTX 1660 Super achieves a hashrate of 22 Mh/s while consuming 120 watts of power. Set the core clock to 125 and adjust the memory clock to Linux: 900 and Windows: 300 for optimal results.

For Kaspa mining, the GTX 1660 Super provides an impressive hashrate of 280 Mh/s while consuming only 90 watts of power. Set the core clock to 150 and adjust the memory clock to Linux: -2000 and Windows: -1000 for optimal performance.

When mining Alephium, the GTX 1660 Super achieves a hashrate of 290 Mh/s with a power consumption of 120 watts. Set the core clock to 150 and adjust the memory clock to Linux: -2000 and Windows: -1000 for optimal mining efficiency.

For Ethereum POW mining, the GTX 1660 Super provides a hashrate of 31 Mh/s while consuming 80 watts of power. Optimize your settings by setting the core clock to 1100 and adjusting the memory clock to Linux: 1700 and Windows: 850.

When mining Ethereum Fair, the GTX 1660 Super achieves a hashrate of 31 Mh/s with a power consumption of 80 watts. Set the core clock to 1100 and adjust the memory clock to Linux: 1700 and Windows: 850 for optimal mining performance.

For Beam mining, the GTX 1660 Super provides a hashrate of 15 Mh/s while consuming 100 watts of power. Set the core clock to 1500 and adjust the memory clock to Linux: 1200 and Windows: 600 to optimize your mining efficiency.