README.ASIC 16 KB

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  1. SUPPORTED DEVICES
  2. Currently supported ASIC devices include Avalon, Bitfountain's Block Erupter
  3. series (both USB and blades), a large variety of Bitfury-based miners,
  4. Butterfly Labs' SC range of devices, HashBuster boards, GekkoScience's Compac
  5. USB stick, Klondike modules, and KnCMiner's Mercury, Jupiter and Saturn.
  6. ALCHEMIST
  7. ---------
  8. This driver requires the latest FPGA firmware flashed on the blades (stock
  9. firmware has major bug and won't run properly with this driver). For
  10. instructions, please visit: https://litecointalk.org/?topic=27370
  11. The driver has been designed to run each of the 8 blades inside an AlcheMist
  12. 256 as a separate miner. To detect all the blades you need to manually probe it
  13. with the following serial ports:
  14. -S ALC:all -S ALC:/dev/ttyO1 -S ALC:/dev/ttyO2 -S ALC:/dev/ttyO3
  15. -S ALC:/dev/ttyO4
  16. (the four ttyUSB ports are auto detected by all)
  17. The driver supports custom frequency settings in the range of 200-400 MHz in 16
  18. MHz increments (driver will default to 352 MHz if these conditions are not met).
  19. Frequency is set with the following --set option:
  20. --set ALC:clock=336
  21. You can also set the frequency per board by specifying the tty port:
  22. --set ALC@/dev/ttyO3:clock=352
  23. Driver also supports running blades off a Raspberry Pi directly or with USB Dongles. For a single blade off a raspberry Pi make sure you have configured GPIO pin 25 correctly (see below) and scan via
  24. -S ALC:/dev/ttyAMA0
  25. echo 25 > /sys/class/gpio/export
  26. echo out > /sys/class/gpio/gpio25/direction
  27. for multiple blades using USB Dongles connected to a pi make sure the reset pin on the alcheminer board is connected to the RTS/DTR pin on the dongle board, and option --set
  28. ALC:mode=1 added to startup command line.
  29. ANTMINER U3
  30. -----------
  31. The U3 does not support autodetection, so you will want to use --scan-serial to
  32. manually probe it. For example, to scan all devices, you can use:
  33. -S antminer:all
  34. Additionally, for optimal performance you will need to set voltage, clock, and
  35. timing. Neither voltage nor clock for the U3 are documented by the manufacturer,
  36. thus must be provided as hexadecimal configuration codes. Timing is provided in
  37. the number of nanoseconds each hash takes at the given configuration. A
  38. known-working configuration is:
  39. --set antminer:voltage=x800 --set antminer:clock=x1286 --set antminer:timing=0.022421
  40. Some valid values for clock setting are:
  41. x0783 for 100 MHz, x0983 for 125 MHz, x0b83 for 150 MHz, x0d83 for 175 MHz,
  42. x0782 for 200 MHz, x0882 for 225 MHz, x0982 for 250 MHz, x0a82 for 275 MHz,
  43. x0b82 for 300 MHz, x0c82 for 325 MHz, x0d82 for 350 MHz, x0e82 for 375 MHz,
  44. and x08f2 for 400 MHz
  45. AVALON 1
  46. --------
  47. Currently, Avalon boards are best supported by connecting them directly (or via
  48. a hub) to a regular PC running BFGMiner. It is also possible to install the
  49. OpenWrt packages of BFGMiner to the Avalon's embedded controller, but this is
  50. not a simple task due to its lack of available flash space.
  51. To use the Avalon from a regular PC, you will need to specify two options:
  52. First, add the -S option specifying the avalon driver specifically. For example,
  53. -S avalon:\\.\COM9
  54. Next, use the --set-device option to provide the device configuration.
  55. If you are translating options from --avalon-options (cgminer and older versions
  56. of BFGMiner), note the values are baud:miner_count:asic_count:timeout:clock.
  57. baud=N The device is essentially hard coded to emulate 115200 baud,
  58. so you shouldn't change this.
  59. miner_count=N Most Avalons are 3 module devices, which come to 24 miners.
  60. 4 module devices would use 32 here.
  61. asic_count=N Virtually all have 10, so don't change this.
  62. timeout=N This defines how long the device will work on a work item
  63. before accepting new work to replace it. It should be changed
  64. according to the frequency (last setting). It is possible to
  65. set this a little lower if you are trying to tune for short
  66. block mining (eg p2pool) but much lower and the device will
  67. start creating duplicate shares.
  68. clock=N This is the clock speed of the devices. Only specific values
  69. work: 256, 270, 282 (default), 300, 325, 350 and 375.
  70. Sample settings for valid different frequencies (last 2 values):
  71. 34:375
  72. 36:350
  73. 39:325
  74. 43:300
  75. 45:282
  76. 47:270
  77. 50:256
  78. AVALON 2/3
  79. ----------
  80. Avalon 2/3 units communicate with a UART, usually attached to your host via a
  81. generic USB UART adapter. Therefore, you will need to manually probe the correct
  82. UART device with the -S option:
  83. -S avalonmm:\\.\COM22
  84. Next, use the --set option to configure at least your desired clock frequency
  85. and voltage.
  86. Avalon 2: --set avalonmm:clock=1500 --set avalonmm:voltage=1
  87. Avalon 3: --set avalonmm:clock=450 --set avalonmm:voltage=0.6625
  88. You may also want to set the fan speed, which is specified as a percentage:
  89. --set avalonmm:fan=95
  90. BFSB, MEGABIGPOWER, AND METABANK BITFURY BOARDS
  91. -----------------------------------------------
  92. Both BFSB and MegaBigPower (V2 only at this time) boards are supported with the
  93. "bfsb" driver. Metabank boards are supported with the "metabank" driver. These
  94. drivers are not enabled by default, since they must be run on a Raspberry Pi in
  95. a specific hardware configuration with the boards. To enable them, you must
  96. build with --enable-bfsb or --enable-metabank. Do not try to use these drivers
  97. without the manufacturer-supported hardware configuration! Also note that these
  98. drivers do not properly support thermal shutdown at this time, and without
  99. sufficient cooling you may destroy your board or chips!
  100. To start BFGMiner, ensure your Raspberry Pi's SPI is enabled (you can run the
  101. raspi-config utility for this). For Metabank boards, you must also load the I2C
  102. drivers (do not try to modprobe both with a single command; it won't work):
  103. modprobe i2c-bcm2708
  104. modprobe i2c-dev
  105. Then you must run BFGMiner as root, with the proper driver selected.
  106. For example:
  107. sudo bfgminer -S bfsb:auto
  108. BFx2
  109. ----
  110. You will need to install the WinUSB driver instead of the default FTDI serial
  111. driver. The easiest way to do this is using Zadig: http://zadig.akeo.ie/
  112. Note that since it's impossible to tell the BFx2 apart from various other
  113. devices (including BFL/Cairnsmore1 miners and even many non-mining devices!),
  114. you must run with the -S bfx:all option (or 'bfx:all' at the M+ menu).
  115. I do not know what this will do with other devices; it may start fires,
  116. launch nuclear missiles (please don't run BFGMiner on computers with
  117. missile controls), etc.
  118. BI*FURY
  119. -------
  120. Bi*Fury should just work; you may need to use -S bifury:<path>
  121. On Windows, you will need to install the standard USB CDC driver for it.
  122. http://store.bitcoin.org.pl/support
  123. If you want to upgrade the firmware, unplug your device. You will need to
  124. temporarily short a circuit. With the USB connector pointing forward, and the
  125. heatsink down, look to the forward-right; you will see two tiny lights, a set of
  126. 2 terminals, and a set of 3 terminals. The ones you need to short are the set of
  127. 2. With them shorted, plug the device back into your computer. It will then
  128. pretend to be a mass storage disk drive. If you use Windows, you can play along
  129. and just overwrite the firmware.bin file. If you use Linux, you must use mcopy:
  130. mcopy -i /dev/disk/by-id/usb-NXP_LPC1XXX_IFLASH_ISP-0:0 firmware.bin \
  131. ::/firmware.bin
  132. After this is complete, unplug the device again and un-short the 2 terminals.
  133. This completes the upgrade and you can now plug it back in and start mining.
  134. BIG PICTURE MINING BITFURY USB
  135. ------------------------------
  136. These miners are sensitive to unexpected data. Usually you can re-plug them to
  137. reset to a known-good initialisation state. To ensure they are properly detected
  138. and used with BFGMiner, you must specify -S bigpic:all (or equivalent) options
  139. prior to any other -S options (which might probe the device and confuse it).
  140. BLOCK ERUPTER BLADE
  141. -------------------
  142. Blades communicate over Ethernet using the old but simple getwork mining
  143. protocol. If you build BFGMiner with libmicrohttpd, you can have it work with
  144. one or more blades. First, start BFGMiner with the --http-port option. For
  145. example:
  146. bfgminer --http-port 8330
  147. Then configure your blade to connect to your BFGMiner instance on the same port,
  148. with a unique username per blade. It will then show up as a PXY device and
  149. should work more or less like any other miner.
  150. BLOCK ERUPTER USB
  151. -----------------
  152. These will autodetect if supported by the device; otherwise, you need to use
  153. the '--scan-serial erupter:<device>' option to tell BFGMiner what device to
  154. probe; if you know you have no other serial devices, or only ones that can
  155. tolerate garbage, you can use '--scan-serial erupter:all' to probe all serial
  156. ports. They communicate with the Icarus protocol, which has some additional
  157. options in README.FPGA
  158. COMPAC
  159. ------
  160. These USB sticks are based on Bitmain's BM1384 chip, and use the antminer
  161. driver. You can set the clock frequency with
  162. --set compac:clock=x0782
  163. The same values for Antminer U3 (above) are valid for the BM1384.
  164. HEX*FURY
  165. --------
  166. Hex*Fury uses the bifury driver. Miners using earlier boards may need to
  167. workaround bugs in the firmware:
  168. bfgminer --set bifury:chips=6 --set bifury:free_after_job=no
  169. This may cause poor behaviour or performance from other bifury-based devices.
  170. If you encounter this, you can set the workarounds per-device by using their
  171. serial number (which can be seen in the TUI device manager; in this example,
  172. 141407160211cdf):
  173. bfgminer --set bifury@141407160211cdf:chips=15 ...
  174. KLONDIKE
  175. --------
  176. --klondike-options <arg> Set klondike options clock:temptarget
  177. KNCMINER (Jupiter)
  178. --------
  179. KnCMiner rigs use a BeagleBone Black (BBB) as the host; this is pluged into a
  180. "cape" with a FPGA and connections for 4-6 ASIC modules (depending on the cape
  181. version). Note that in addition to the usual dependencies, this driver also
  182. requires i2c-tools (aka libi2c-dev on some systems). The BBB comes with the
  183. Ångström Distribution by default. The following is a step by step install for
  184. BFGMiner on this system;
  185. -----------------Start------------
  186. cat >/etc/opkg/feeds.conf <<\EOF
  187. src/gz noarch http://feeds.angstrom-distribution.org/feeds/v2013.06/ipk/eglibc/all/
  188. src/gz base http://feeds.angstrom-distribution.org/feeds/v2013.06/ipk/eglibc/armv7ahf-vfp-neon/base/
  189. src/gz beaglebone http://feeds.angstrom-distribution.org/feeds/v2013.06/ipk/eglibc/armv7ahf-vfp-neon/machine/beaglebone/
  190. EOF
  191. opkg update
  192. opkg install angstrom-feed-configs
  193. rm /etc/opkg/feeds.conf
  194. opkg update
  195. opkg install update-alternatives
  196. opkg install automake autoconf make gcc cpp binutils git less pkgconfig-dev ncurses-dev libtool nano bash i2c-tools-dev
  197. while ! opkg install libcurl-dev; do true; done
  198. curl http://www.digip.org/jansson/releases/jansson-2.0.1.tar.bz2 | tar -xjvp
  199. cd jansson-2.0.1
  200. ./configure --prefix=/usr CC=arm-angstrom-linux-gnueabi-gcc --disable-static NM=arm-angstrom-linux-gnueabi-nm
  201. make install && ldconfig
  202. cd ..
  203. git clone git://github.com/luke-jr/bfgminer
  204. cd bfgminer
  205. ./autogen.sh
  206. git clone git://github.com/troydhanson/uthash
  207. ./configure --host=arm-angstrom-linux-gnueabi --enable-knc --disable-other-drivers CFLAGS="-I$PWD/uthash/src"
  208. make AR=arm-angstrom-linux-gnueabi-ar
  209. /etc/init.d/cgminer.sh stop
  210. ./bfgminer -S knc:auto -c /config/cgminer.conf
  211. ---------------END-------------
  212. KNCMINER (Titan)
  213. --------
  214. Titan uses RaspberryPi as a controller.
  215. Build instructions:
  216. -----------------Start------------
  217. git clone git@github.com:KnCMiner/bfgminer.git
  218. cd bfgminer
  219. ./autogen.sh
  220. ./configure --enable-scrypt --disable-sha256d --enable-titan --disable-other-drivers
  221. make
  222. sudo /etc/init.d/bfgminer.sh restart
  223. screen -r
  224. ---------------END-------------
  225. MONARCH
  226. -------
  227. The Butterfly Labs Monarch devices can be used as either USB devices, or in a
  228. PCI-Express slot. As USB devices, they are essentially plug-and-play. If you
  229. wish to use them via PCI-Express, however, you must first load the proper
  230. driver. BFGMiner can work with either Linux uio (2.6.23+, requires root access)
  231. or Linux vfio (3.6+, requires IOMMU support).
  232. To enable uio on your cards, you may need to do:
  233. sudo modprobe uio_pci_generic
  234. echo 1cf9 0001 | sudo tee /sys/bus/pci/drivers/uio_pci_generic/new_id
  235. Enabling vfio is similar, but allows you to run BFGMiner without root
  236. privileges. Since setting this up is more complicated, BFGMiner includes a
  237. setup-vfio script (which must be run with root permissions). Simply run:
  238. sudo setup-vfio --unsafe --user $(whoami) 1cf9 0001
  239. You will be asked about each Monarch found, and must answer 'yes' to each one.
  240. If you wish to manually setup VFIO, follow these steps:
  241. First, load the kernel module:
  242. sudo modprobe vfio-pci
  243. Next, identify what the device ids are for your card(s):
  244. lspci -D | grep 1cf9 # the first number of each line is the device id
  245. From that, you can identify its IOMMU group, and list all devices sharing that
  246. group:
  247. readlink "/sys/bus/pci/devices/$DEVICE_ID/iommu_group"
  248. ls "/sys/kernel/iommu_groups/$IOMMU_GROUP_ID/devices/"
  249. All of the devices listed (other than the Monarch), if any, will need to be
  250. disabled and unbound! To do that, use:
  251. echo "$DEVICE_ID" | sudo tee "/sys/bus/pci/devices/$DEVICE_ID/driver/unbind"
  252. echo "$DEVICE_CODE" | sudo tee /sys/bus/pci/drivers/vfio-pci/new_id
  253. Note that $DEVICE_ID should be something like "0000:01:00.0" and $DEVICE_CODE is
  254. something like "1cf9 0001" (this example is the Monarch itself).
  255. If you want to run BFGMiner as a normal user:
  256. chown "$USERNAME" "/dev/vfio/$IOMMU_GROUP_ID"
  257. Depending on your system, you may also need to do:
  258. echo 1 | sudo tee /sys/module/vfio_iommu_type1/parameters/allow_unsafe_interrupts
  259. ONESTRINGMINER
  260. --------------
  261. OneStringMiner boards use the bifury driver. Miners using earlier boards may
  262. need to workaround bugs in the firmware:
  263. bfgminer --set bifury:chips=15 --set bifury:free_after_job=no
  264. If you have different devices using the bifury driver, see the section on
  265. Hex*Fury for applying workarounds per-device.
  266. GRIDSEED
  267. --------
  268. Gridseed units, at the present time, come in two versions: Blade - a 40 chip
  269. unit and Orb - a 5 chip unit. Orb units can be used to mine both SHA256d and
  270. scrypt based coins whereas the Blade is scrypt only, although BFGMiner only
  271. supports scrypt mode at this time.
  272. BFGMiner allows a miner to connect both types of units to a single miner
  273. instance and provides for granular control of the clock frequencies for each
  274. device and each chip on each device. The basic use of this feature is to use the
  275. --set option on from the command line:
  276. bfgminer --scrypt -S gridseed:all --set gridseed@<serial_number>:clock=825
  277. for multiple devices, add multiple --set arguments.
  278. Additionally, these can be added to the bfgminer.conf file for persistence like
  279. this:
  280. "set" : [
  281. "gridseed@<serial_number>:clock=825",
  282. "gridseed@<serial_number>:clock=850",
  283. "gridseed@<serial_number>:clock=875"
  284. ]
  285. To find the device serial number, start bfgminer and press <M> to manage
  286. devices, then <Page Down> or <down arrow> through the list of devices and take
  287. note of the device serial number in the device information shown.
  288. ...
  289. Select processor to manage using up/down arrow keys
  290. GSD 0a: | 74.4/ 72.9/ 10.2kh/s | A: 1 R:0+0(none) HW:0/none
  291. STM32 Virtual COM Port from STMicroelectronics
  292. Serial: 6D85278F5650
  293. Clock speed: 875
  294. ...
  295. So for example, an entry would look like this:
  296. gridseed@6D85278F5650:clock=875
  297. ZEUSMINER
  298. ---------
  299. Zeusminers do not support autodetection, so you will need to use --scan to probe
  300. for them:
  301. -S zeusminer:\\.\COM3
  302. You should also configure the driver for your specific device:
  303. --set zeusminer:clock=N Clock frequency (default: 328)
  304. --set zeusminer:chips=N Number of chips per device
  305. Blizzard : 6 Cyclone : 96
  306. Hurricane X2: 48 (2*24) Hurricane X3: 64 (2*32)
  307. Thunder X2: 96 (4*24) Thunder X3: 128 (4*32)
  308. Note: if you set this option incorrectly, the device may underperform and/or
  309. misreport hashrate.
  310. For example:
  311. bfgminer --scrypt -o stratum+tcp://pool:port -u user -p pass -S zeusminer:\\.\COM3 --set zeusminer:clock=328 --set zeusminer:chips=128
  312. ---
  313. This code is provided entirely free of charge by the programmer in his spare
  314. time so donations would be greatly appreciated. Please consider donating to the
  315. address below.
  316. Luke-Jr <luke-jr+bfgminer@utopios.org>
  317. 1QATWksNFGeUJCWBrN4g6hGM178Lovm7Wh