Semiconductor & Computer Engineering
| Line 4: | Line 4: | ||
== Overview == | == Overview == | ||
with the proliferation of [[cryptocurrencies]] in the late 2010s it became increasingly important to perform transactions in more efficient ways. This was further driven by high cryptocurrency values and the fact that many of those currencies rewarded for mining or for the process of logging transactions. The demand for more efficient ways of mining cryptocurrencies resulted in the birth of a new industry that designs cryptocurrency accelerators and full mining systems. Over three dozen known startups are known to have design custom cryptocurrency accelerators. | with the proliferation of [[cryptocurrencies]] in the late 2010s it became increasingly important to perform transactions in more efficient ways. This was further driven by high cryptocurrency values and the fact that many of those currencies rewarded for mining or for the process of logging transactions. The demand for more efficient ways of mining cryptocurrencies resulted in the birth of a new industry that designs cryptocurrency accelerators and full mining systems. Over three dozen known startups are known to have design custom cryptocurrency accelerators. | ||
| + | |||
| + | === Specifications === | ||
| + | Designed to be as power-efficient as possible, the major specification people are usually concerned with are: | ||
| + | |||
| + | * Chip power efficiency | ||
| + | * Module power efficiency | ||
| + | * System power efficiency | ||
| + | |||
| + | Calculated in Giga and MegaHashes/Second (GH/s, MH/s) for a specific difficulty level, this number is used to calculate the profitability of the machine against the cost of electricity. | ||
== List of Accelerators == | == List of Accelerators == | ||
Revision as of 13:37, 31 March 2018
A cryptocurrency accelerator (also crypto mining ASIC) is a processor designed specifically for the acceleration of cryptocurrency transactions.
Overview
with the proliferation of cryptocurrencies in the late 2010s it became increasingly important to perform transactions in more efficient ways. This was further driven by high cryptocurrency values and the fact that many of those currencies rewarded for mining or for the process of logging transactions. The demand for more efficient ways of mining cryptocurrencies resulted in the birth of a new industry that designs cryptocurrency accelerators and full mining systems. Over three dozen known startups are known to have design custom cryptocurrency accelerators.
Specifications
Designed to be as power-efficient as possible, the major specification people are usually concerned with are:
- Chip power efficiency
- Module power efficiency
- System power efficiency
Calculated in Giga and MegaHashes/Second (GH/s, MH/s) for a specific difficulty level, this number is used to calculate the profitability of the machine against the cost of electricity.
List of Accelerators
- 21 inc
- ASICMiner, BE100, BE200, BE300S
- ASICrising, Wolfblood
- Avalon Project, Avalon 1, Avalon 2, Avalon 3, Avalon 4
- BIOSTAR, Cobra
- BitDragonfly
- BitFury, BF756C55, BF864C55
- Bitmain, BM1380, BM1382, BM1384, BM1385, BM1387
- Black Arrow, Minion
- Btc-Digger
- BTCGARDEN, Garden
- Butterfly Labs, BitForce SC, Monarch
- Clam, CLSH55Q100
- CoinTerra, GoldStrike 1
- DigBig, FB1600
- Ebang, DW1227, DW1228
- Gridseed, GC3355
- HashFast Technologies, Golden Nonce
- iCoinTech, QT20
- Innosilicon, A1 Booster
- KnCMiner, Jupiter, Neptune, Solar
- Land Asic, LDS600
- SFARDS, SFARDS
- SpondooliesTech, Hammer, RockerBox, PickAxe
 |
This article is still a stub and needs your attention. You can help improve this article by editing this page and adding the missing information. |