7 Best Bitcoin Mining Pool in 2020 Reviewed (+ Fees Compared)

Bitcoin Mining Profitability: How Long Does it Take to Mine One Bitcoin in 2019?

When it comes to Bitcoin (BTC) mining, the major questions on people’s minds are “how profitable is Bitcoin mining” and “how long would it take to mine one Bitcoin?” To answer these questions, we need to take an in-depth look at the current state of the Bitcoin mining industry — and how it has changed — over the last several years.
Bitcoin mining is, essentially, the process of participating in Bitcoin’s underlying security mechanism — known as proof-of-work — to help secure the Bitcoin blockchain. In return, participants receive compensation in bitcoins (BTC).
When you participate in Bitcoin mining, you are essentially searching for blocks by crunching complex cryptographic challenges using your mining hardware. Once a block is discovered, new transactions are recorded and verified within the block and the block discoverer receives the block rewards — currently set at 12.5 BTC — as well as the transactions fees for the transactions included within the block.
Once the maximum supply of 21 million Bitcoins has been mined, no further Bitcoins will ever come into existence. This property makes Bitcoin deflationary, something which many argue will inevitably increase the value of each Bitcoin unit as it becomes more scarce due to increased global adoption.
The limited supply of Bitcoin is also one of the reasons why Bitcoin mining has become so popular. In previous years, Bitcoin mining proved to be a lucrative investment option — netting miners with several fold returns on their investment with relatively little effort.
bitcoin mining hardware
Mining Hardware
The mining hardware you choose will mostly depend on your circumstances — in terms of budget, location and electricity costs. Since the amount of hashing power you can dedicate to the mining process is directly correlated with how much Bitcoin you will mine per day, it is wise to ensure your hardware is still competitive in 2019.
Bitcoin uses SHA256 as its mining algorithm. Because of this, only hardware compatible with this algorithm can be used to mine Bitcoin. Although it is technically possible to mine Bitcoin on your current computer hardware — using your CPU or GPU — this will almost certainly not generate a positive return on your investment and you may end up damaging your device.
The most cost-effective way to mine Bitcoin in 2019 is using application-specific integrated circuit (ASIC) mining hardware. These are specially-designed machines that offer much higher performance per watt than typical computers and have been an absolutely essential purchase for anybody looking to get into Bitcoin mining since the first Avalon ASICs were shipped in 2013.
When it comes to selecting Bitcoin mining hardware, there are several main parameters to consider — though the importance of each of these may vary based on personal circumstances and budget.
Performance per Watt
When it comes to Bitcoin mining, performance per watt is a measure of how many gigahashes per watt a machine is capable of and is, hence, a simple measure of its efficiency. Since electricity costs are likely to be one of the largest expenses when mining Bitcoin, it is usually a good idea to ensure that you are getting good performance per watt out of your hardware.
Ideally, your mining hardware would be highly efficient, allowing it to mine Bitcoin with lower energy requirements — though this will need to be balanced with acquisition costs, as often the most efficient hardware is also the most expensive. This means it may take longer to see a return on investment.
In countries with cheap electricity, performance per watt is often less of a concern than acquisition costs and price-performance ratio. In most countries, operating outdated mining hardware is typically cost prohibitive, as energy costs outweigh the income generated by the mining equipment.
However, this may not be the case for those operating in countries with extremely cheap electricity — such as Kuwait and Venezuela — as even older equipment can still be profitable. Similarly, miners with a free energy surplus, such as from wind or solar electric generators, can benefit from the minimal gains offered by still running outdated hardware.
Longevity
The lifetime of mining hardware also plays a critical role in determining how profitable your mining venture will be. It’s always a good idea to do whatever possible to ensure it runs as smoothly as possible.
Since mining equipment tends to run at a full (or almost full) load for extended periods, they also tend to break down and fail more frequently than most electronics — which can seriously damage your profitability. Equipment failure is even more common when purchasing second-hand equipment. Since warranty claims are often challenging, it can often take a long time to receive a warranty replacement.
Price-Performance Ratio
In many cases, one of the major criteria used to select mining hardware is the price-performance ratio — a measure of how much performance a machine outputs per unit price. In the case of cryptocurrency mining hardware, this is commonly expressed as gigahashes per dollar or GH/$.
Under ideal circumstances, the mining hardware would have a high price-performance ratio, ensuring you get a lot of bang for your buck. However, this must also be considered in combination with the acquisition costs and the expected lifetime of the machine — since the absolute most powerful machines are not always the cheapest or the most energy efficient.
Acquisition Costs
Acquisition costs are almost always the biggest barrier to entry for most Bitcoin miners since most top-end mining hardware costs several thousand dollars. This problem is further compounded by the fact that many hardware manufacturers offer discounts for bulk purchases, allowing those with deeper pockets to achieve a better price-performance ratio.
Acquisition costs include all the costs involved in purchasing any mining equipment, including hardware costs, shipping costs, import duties, and any further costs. For example, many ASIC miners do not include a power supply — which can be another considerable expense, since the 1,000W+ power supplies usually required tend to cost several hundred dollars alone.
Ensuring your equipment runs smoothly can also add in additional costs, such as cooling and maintenance expenses. In addition, some miners may want to invest in uninterruptible power supplies to ensure their hardware keeps running — even if the power fails temporarily.
asic mining
Current Generation Hardware
One of the most recent additions to the Bitcoin mining hardware market is the Ebang Ebit E11++, which was released in October 2018. Using a 10nm fabrication process for its processors, the Ebit E11++ is able to achieve one of the highest hash rates on the market at 44TH/s.
In terms of efficiency, the Ebang Ebit E11++ is arguably the best on the market, offering 44TH/s of hash rate while drawing just 1,980W of power, offering 22.2GH/W performance. However, as of writing, the Ebang Ebit E11++ is out of stock until March 31, 2019 — while its price of $2,024 (excluding shipping) may make it prohibitively expensive for those first getting involved with Bitcoin mining.
Another popular choice is the ASICminer 8 Nano, a machine released in October 2018 that offers 44TH/s for $3,900 excluding shipping. The ASICminer 8 Nano draws 2,100W of power, giving it an efficiency of almost 21GH/W — slightly lower than the Ebit E11++ while costing almost double the price. However, unlike the E11++, the 8 Nano is actually in stock and available to purchase.
ASICminer also offers the 8 Nano Pro, a machine launched in mid-2018 that offers 80 TH/s of hash rate for $9,500 (excluding shipping). However, unlike the Ebit E11++ and 8 Nano, the minimum order quantity for the 8 Nano Pro is curiously set at five, meaning you will need to lay out a minimum of $47,500 in order to actually get your hands on one (or five).
While the 8 Nano Pro doesn’t offer the same performance per watt as the Ebit E11+ or AICMiner 8 Nano, it is one of the quieter miners on this list, making it more suitable for a home or office environment. That being said, the ASICminer 8 Nano Pro is easily the most expensive miner per TH on this list — costing a whopping $118.75/TH, compared to the $46/TH offered by the E11++ and $88.64 offered by the 8 Nano.
The latest hardware on this list is the Innosilicon T3 43T, which is currently available for pre-order at $2,279, and estimated to ship in March 2019. Offering 43TH/s of performance at 2,100W, the T3 43T comes in at an efficiency of 20.4GH/W, which is around 10 percent less energy efficient than the Ebit E11++.
The T3 43T also has a minimum order quantity of three units, making the minimum acquisition cost $6837 + shipping for preorders. All in all, the T3 43T is more costly and less efficient than the E11++ but may arrive slightly earlier since Ebang will not ship the E11++ units until at least end March 29, 2019.
Finally, this list would not be complete without including Bitmain’s latest offering, the Antminer S15-28TH/s, which — as its name suggests — offers 28TH/s of hash power while drawing just under 1600W at the wall. The Antminer S15 is one of the only SHA256 miners to use 7nm processors, making it somewhat smaller than some of the other devices on this list.
Like most pieces of top-end Bitcoin mining hardware, the Antminer S15 27TH/s model is currently sold out, with current orders not shipping until mid-February 2019. However, the S15 is offered at a significantly lower price than many of its competitors at just $1020 (excluding shipping), with no minimum quantity restriction. At these rates, the Antminer comes in at just $37.78/TH — though its energy efficiency is a much less impressive 17.5GH/W.
Mining Hardware Mining Hardware Comparison
Performance (GH/W) Price Performance Ratio ($/TH)
Ebang Ebit E11++ 22.2GH/W $46/TH
ASICminer 8 Nano 21GH/W $88.64/TH
ASICminer 8 Nano Pro 19GH/W $118.75/TH
Innosilicon T3 43T 20.4GH/W $53/TH
Antminer S15-28TH/s 17.5GH/W $37.78/TH
How To Select a Good Mining Pool
Mining pools are platforms that allow miners to pool their resources together to achieve a higher collective hash rate — which, in turn, allows the collective to mine more blocks than they would be able to achieve alone.
Typically, these mining pools will distribute block rewards to contributing miners based on the proportion of the hash rate they supply. If a pool contributing a total of 20 TH/s of hash rate successfully mines the next block, a user responsible for 10 percent of this hash rate will receive 10 percent of the 12.5 BTC reward.
Pools essentially allow smaller miners to compete with large private mining organizations by ensuring that the collective hash rate is high enough to successfully mine blocks on regular basis. Without operating through a mining pool, many miners would be unlikely to discover any blocks at all — due to only contributing a tiny fraction of the overall Bitcoin hash rate.
While it is quite possible to be successful mining without a pool, this typically requires an extremely large mining operation and is usually not recommended — unless you have enough hash rate to mine blocks on a regular basis.
Although it is technically possible to discover blocks mining solo and keep the entire 12.5 BTC reward for yourself, the odds of this actually occurring are practically zero — making pool collaboration practically the only way to compete in 2019 and beyond.
Selecting the best pool for you can be a challenging job since the vast majority of pools are quite similar and offer similar features and comparable fees. Because of this, we have broken down the qualities you should be looking for in a new pool into four categories; reputation, hash rate, pool fees, and usability/features:
Reputation
The reputation of a pool is one of the most important factors in selecting the pool that is best for you. Well-reputed pools will tend to be much larger than newer or less well-established pools since few pools with a poor reputation can stand the test of time.
Well-reputed pools also tend to be more transparent about their operation, many of which provide tools to ensure that each user is getting the correct reward based on the hash rate contributed. By using only pools with a great reputation, you also ensure your hash rate is not being used for nefarious purposes — such as powering a 51 percent attack.
When comparing a list of pools that appear suitable for you, it is a wise move to read their user reviews before making your choice — ensuring you don’t end up mining at a pool that steals your hard-fought earnings.
Hash Rate
When it comes to mining Bitcoin, the probability of discovering the next block is directly related to the amount of hashing power you contribute to the network. Because of this, one of the major features you should be considering when selecting your pool is its total hash rate — which is often closely related to the proportion of new blocks mined by the pool
Since the total hash rate of a pool is directly related to how quickly it discovers new blocks, this means the largest pools tend to discover a relative majority of blocks — leading to more regular rewards. However, the very largest pools also tend the have higher fees but often make up for this with sheer success and additional features.
Sometimes, some of the largest pools have a minimum hash rate requirement ù leaving some of the smaller miners left out of the loop. Although smaller pools typically have more relaxed requirements with reduced performance thresholds, these pools may be only slightly more profitable than mining solo.
Pool Fees
When choosing a suitable pool, typically one of the major considerations is its fees. Typically, most pools will charge a small fee that is deducted from your earnings and is usually around 1-2 percent — but sometimes slightly lower or higher.
There are also pools that offer 0 percent fees. However, these are often much smaller than the major pools and tend to make their money in a different way — such as through monthly subscriptions or donations.
Ideally, you will choose the pool that offers the best balance of fees to other features. Usually, the pool with the absolute lowest fees is not the best choice. Additionally, pools with the lowest fees often have the highest withdrawal minimums — making pool hopping uneconomical for most.
Usability and Features
When first starting out with Bitcoin mining, learning how to set up a pool and navigating through the settings can be a challenge. Because of this, several pools target their services to newer users by offering a simple to navigate user interface and providing detailed learning resources and prompt customer support.
However, for more experienced miners, simple pools don’t tend to offer a variety of features needed to maximize profitability. For example, although many mining pools focus their entire hash rate towards mining a single cryptocurrency, some are large enough to offer additional options — allowing users to mine other SHA256 coins such as Bitcoin Cash (BCH) or Fantom if they choose.
These pools are technically more challenging to use and mostly designed for those familiar with mining, happy to hop from coin to coin mining whichever is most profitable at the time. There are even some exchanges that automatically direct their combined hash rate at the most profitable cryptocurrency — taking the guesswork out of the equation.
bitcoin mining pool
Best Mining Pools for 2019
The Bitcoin mining pool industry has a large number of players, but the vast majority of the Bitcoin hash rate is concentrated within just a few pools. Currently, there are dozens of suitable pools to choose from — but we have selected just a few of the best to help get you started on your journey.
Slushpool was the first Bitcoin mining pool released, being launched way back in 2010 under the name “Bitcoin Pooled Mining Server.” Since then, Slushpool has grown into one of the most popular pools around — currently accounting for just under 10 percent of the total Bitcoin hash rate.
Although Slushpool isn’t one of the very largest pools, it does offer a newbie-friendly interface alongside more advanced features for those that need them. The pool has moderately high fees of 2 percent but offers servers in several countries — including the U.S., Europe, China, and Japan — giving it a good balance of fees to features.
BTC.com is another potential candidate for your pool and currently stands as the largest public Bitcoin mining pool. It is responsible for mining around 17 percent of new blocks. Being the largest public mining pool provides users with a sense of security, ensuring blocks are mined regularly and a stable income is made.
Image courtesy of Blockchain.info.
BTC.com is owned by Bitmain, a company that manufacturers mining hardware, and charges a 1.5 percent fees — placing it squarely in the middle-tier in terms of fees. Unlike other platforms, BTC.com uses its own payment structure known as FPPS (Full Pay Per Share), which means miners also receive a share of the transaction fees included within mined blocks — making it slightly more profitable than standard payment per share (PPS) pools.
Another great option is Antpool, a mining pool that supports mining services for 10 different cryptocurrencies, including Bitcoin, Litecoin (LTC) and Ethereum (ETH). AntPool frequently trades places with BTC.com as the largest Bitcoin mining pool. However, as of this writing, it occupies the title of the third-largest public mining pool.
What sets Antpool apart from other pools is the ability to choose your own fee system — including PPS, PPS+, and PPLNS. If you choose PPLNS, using Antpool is free but you will not receive any transaction fees from any blocks mined. Antpool also offers regular payouts and has a low minimum payout of just 0.001 BTC, making it suitable for smaller miners.
Last on the list of the best Bitcoin mining pools in 2019 is the Bitcoin.com mining pool. Although this is one of the smaller pools available, the Bitcoin.com pool has some redeeming features that make it worth a look. It offers mining contracts, allowing you to test out Bitcoin mining before investing in mining equipment of your own. According to Bitcoin.com, they are the highest paying Pay Per Share (PPS) pool in the world, offering up to 98 percent block rewards as well as automatic switching between BTC and BCH mining to optimize profitability.

Electricity Costs
While your mining hardware is most important when it comes to how much BTC you can earn when mining, your electricity costs are usually the largest additional expense. With electricity costs often varying dramatically between countries, ensuring you are on the best cost-per-KWh plan available will help to keep costs down when mining.
Most commonly, large mining operations will be set up in countries where electricity costs are the lowest — such as Iceland, India, and Ukraine. Since China has one of the lowest energy costs in the world, it was previously the epicenter of Bitcoin mining. However, since the government began cracking down on cryptocurrencies, it has largely fallen out of favor with miners.
Technically, Venezuela is one of the cheapest countries in the world in terms of electricity, with the government heavily subsidizing these energy costs — while Bitcoin offers an escape from the hyperinflation suffered by the Venezuelan bolivar. Despite this, importing mining hardware into the country is a costly endeavor, making it impractical for many people.
Finding ways to lower your electricity costs is one of the best ways to improve your mining profitability. This can include investing in renewable energy sources such as solar, geothermal, or wind — which can yield increased profitability over the long term.
if you are looking to buy bitcoin mining equipment here is some links:

Model Antminer S17 Pro (56Th) from Bitmain mining SHA-256 algorithm with a maximum hashrate of 56Th/s for a power consumption of 2385W.
https://miningwholesale.eu/product/bitmain-antminer-s17-pro-56th-copy/?wpam_id=17
Model Antminer S9K from Bitmain mining SHA-256 algorithm with a maximum hashrate of 14Th/s for a power consumption of 1323W.
https://miningwholesale.eu/product/bitmain-antminer-s9k-14-th-s/?wpam_id=17
Model T2T 30Tfrom Innosilicon mining SHA-256 algorithm with a maximum hashrate of 30Th/s for a power consumption of 2200W.
https://miningwholesale.eu/product/innosilicon-t2t-30t/?wpam_id=17
mining wholesale website:
https://miningwholesale.eu/?wpam_id=17
submitted by mohamadk to Bitcoin [link] [comments]

Decred Journal – July 2018

Note: you can read this on Medium, GitHub or old Reddit to view all the links

Development

dcrd: Several steps towards multipeer downloads completed: an optimization to use in-memory block index and a new 1337 chain view. Maintenance: improved test coverage, upgrading dependency management system and preparing for the upcoming Go 1.11 release.
dcrwallet: A big change introducing optional privacy-preserving SPV sync mode was merged. In this mode dcrwallet does not download the full blockchain but only gets the "filters", uses them to determine which blocks it needs and fetches them from random nodes on the network. This has on-disk footprint of 300-400 MB and sync time of minutes, compared to ~3.4 GB and sync time of hours for full sync (these are rough estimates).
jy-p: the server side of SPV (in dcrd) was deployed in v1.2.0, the client side of SPV (in dcrwallet) is in our next release, v1.3.0. Still some minor bugs in SPV that are being worked out. There will be an update to add the latest features from BIP 157/158 in the next few months. SPV will be optional in v1.3.0, but it will become the default after we get a proper header commitment for it (#general)
Decrediton: besides regular bugfixes and design improvements, several components are being developed in parallel like SPV mode, Politeia integration and Trezor support.
Politeia: testing started on mainnet, thanks to everyone who is participating. A lot of testing, bugfixing and polishing is happening in preparation for full mainnet launch. There are also a few missing features to be added before launch, e.g. capacity to edit a proposal and versioning for that, discussion to remain open once voting starts. Decrediton integration is moving forward, check out this video for a demo and this meta issue for the full checklist.
Trezor: Decrediton integration of initial Trezor support is in progress and there is a demo.
Android: app design version 2.0 completed.
dcrdata: development of several chart visualizations was completed and is awaiting deployment. Specifically, voting agendas and historic charts are merged while ticket pool visualization is in testing.
atomicswap: @glendc is seeking reviews of his Ethereum support pull request.
Dev activity stats for July: 252 active PRs, 220 master commits, 34,754 added and 12,847 deleted lines spread across 6 repositories. Contributions came from 6-10 developers per repository. (chart)

Network

Hashrate: the month started at 40.5 and ended at 51.6 PH/s, with a low of 33.3 and a new all time high of 68.4 PH/s. F2Pool is leading with 40-45%, followed by the new BeePool at 15-25% and coinmine.pl at 18-23%.
Staking: 30-day average ticket price is 92.6 DCR (-2.1). The price started the month at 94.6 and quickly retreated to month's low of 85 until 1,860 tickets were bought within a single period (versus target 720). This pushed the pool of tickets to 41,970 (2.5% above target), which in turn caused 10 price increases in a row to the month's high of 100.4. This was the highest ticket price seen on the new ticket price algorithm which has been in effect since Jul 2017. Second half of the month there was unusually low volatility between 92 and 94 DCR per ticket. Locked DCR held between 3.75 and 3.87 million or 46.6-48.0% of supply (+0.1% from previous peak).
Nodes: there are 212 public listening and 216 normal nodes per dcred.eu. Version distribution: 67% on v1.2.0 (+10%), 24% on v1.1.2 (-1%), 7% on v1.1.0 (-7%). Node count data is not perfect but we can see the steady trend of upgrading to v1.2.0. This version of dcrd is notable for serving compact filters. The increased count of such full nodes allows the developers to test SPV client mode in preparations for the upcoming v1.3.0 release.

ASICs

Obelisk posted three updates in July. For the most recent daily updates join their Discord.
New miner from iBeLink: DSM7T hashes Blake256 at 7 TH/s or Blake2b at 3.5 TH/s, consumes 2,100 W and costs $3,800, shipping Aug 5-10.
There were also speculations about the mysterious Pangolin Whatsminer DCR with the speed of 44 TH/s at 2,200 W and the cost of $3,888, shipping November. If you know more about it please share with us in #pow-mining channel.

Integrations

Meet new stake pool: dcrpool.ibitlin.com has 1% fees and is hosted by @life.
An interesting detail about decredbrasil.com stake pool was posted in chat:
emiliomann: stakebrasil is one of the pools with the lowest number of missed and expired tickets. It was one of the first and has a smaller percentage than the most recent ones who haven’t had the time to do so. (...) The Brazilian pool should be the one with the more servers spread around the world: 6 to decrease the latency. This is to explain to you why the [pool fee] rate of 5% (currently around 0.06 DCR) on the reward is also one of the highest. girino: 8 voting wallets now. I just finished setting up a new one yesterday. All of them in different datacenters, 3 in europe, 3 in north america, 1 in brazil and one in asia. We also have 3 more servers, 1 for the front end, one for "stats" and one for dcrdata. (#general)
On the mining side, Luxor started a new set of pool servers inside mainland China, while zpool has enabled Decred mining.
StatX announced Decred integration into their live dashboard and public chat.
Decred was added to Satowallet with BTC and ETH trading pairs. Caution: do your best to understand the security model before using any wallet software.

Adoption

VotoLegal update:
Marina Silva is the first presidential candidate in Brazil using blockchain to keep all their electoral donations transparent and traceable. VotoLegal uses Decred technology, awesome use case! (reddit)
The story was covered by criptonoticias.com (translated) and livecoins.com.br (translated), the latter received hundreds of upvotes and comments on brasil.
On the OTC trading front, @i2Rav from i2trading reports:
We continue to see institutional interest in DCR. Large block buyers love the concept of staking as a way to earn additional income and appreciate the stakeholder rights it affords them. Likening a DCR investment to an activist shareholdebondholder gives these institutions some comfort while dipping their toes into a burgeoning new asset class.

Marketing

Targeted advertising reports released for June and July. As usual, reach @timhebel for full versions.
Big news in June: Facebook reversed their policy on banning crypto ads. ICO ads are still banned, but we should be OK. My team filled out the appeal today, so we should hopefully hear something within a few days. (u/timhebel on reddit)
After couple weeks Facebook finally responded to the appeal and the next step is to verify the domain name via DNS.
A pack of Stakey Telegram stickers is now available. Have fun!

Events

Attended:
Upcoming:

Media

Featured articles:
Articles:
Some articles are omitted due to low quality or factual errors.
Translations:
Videos:

Community Discussions

Community stats:
Comm systems update:
Articles:
Twitter: Ari Paul debates "There can be only one" aka "highlander argument".
Reddit and Forum: how ticket pool size influences average vote time; roadmap concerns; why ticket price was volatile; ideas for using Reddit chat for dcrtrader and alternative chat systems; insette's write-up on Andrew Stone's GROUP proposal for miner-validated tokenization that is superior to current OP_RETURN-based schemes; James Liu's paper to extend atomic swaps to financial derivatives; what happens when all DCR are mined, tail emission and incentives for miners.
Chats: why tickets don't have 100% chance to vote; ideas for more straightforward marketing; long-running chat about world economy and failure modes; @brandon's thoughts on tokenizing everything, ICOs, securities, sidechains and more; challenges of staking with Trezor; ideas how to use CryptoSteel wallet with Decred; why exchange can't stake your coins, how staking can increase security, why the function to export seed from wallet is bad idea and why dcrwallet doesn't ever store the seed; ticket voting math; discussion about how GitHub workflow forces to depend on modern web browser and possible alternatives; funding marketing and education in developing markets, vetting contractors based on deliverables, "Decred contractor clearance", continued in #governance.
#dex channel continues to attract thinkers and host chats about influence of exchanges, regulation, HFT, lot sizes, liquidity, on-chain vs off-chain swaps, to name a few topics. #governance also keeps growing and hosting high quality conversations.

Markets

In July DCR was trading in USD 56-76 and BTC 0.0072-0.0109 range. A recovery started after a volume boost of up to $10.5 m on Fex around Jul 13, but once Bitcoin headed towards USD ~8,000 DCR declined along with most altcoins.
WalletInvestor posted a prediction on dcrtrader.
Decred was noticed in top 10 mineable coins on coinmarketcap.com.

Relevant External

One million PCs in China were infected via browser plugins to mine Decred, Siacoin and Digibyte.
In a Unchained podcast episode David Vorick shared why ASICs are better than GPUs even if they tend toward mining centralization and also described Obelisk's new Launchpad service. (missed in June issue)
Sia project moved to GitLab. The stated reasons are to avoid the risk of depending on centralized service, to avoid vendor lock-in, better continuous integration and testing, better access control and the general direction to support decentralized and open source projects.
Luxor explained why PPS pools are better.
@nic__carter published slides from his talk "An Overview of Governance in Blockchains" from Zcon0.
This article arguing the importance of governance systems dates back to 2007.
Bancor wallet was hacked. This reminds us about the fake feeling of decentralizaion, that custody of funds is dangerous and that smart contracts must have minimum complexity and be verifiable.
Circle announced official Poloniex mobile apps for iOS and Android.
On Jul 27 Circle announced delisting of 9 coins from Poloniex that led to a loss of 23-81% of their value same day. Sad reminder about how much a project can depend on a single centralized exchange.
DCR supply and market cap is now correct on onchainfx.com and finally, on coinmarketcap.com. Thanks to @sumiflow, @jz and others doing the tedious work to reach out the various websites.

About This Issue

This is the 4th issue of Decred Journal. It is mirrored on GitHub, Medium and Reddit. Past issues are available here.
Most information from third parties is relayed directly from source after a minimal sanity check. The authors of Decred Journal have no ability to verify all claims. Please beware of scams and do your own research.
Chat links were changed to riot.im from the static web viewer that suffered from UX issues (filed here and here). We will consider changing back to the static viewer once they are resolved because it does not require javascript to read chat logs.
In the previous issue we introduced "Featured articles". The judgement is subjective by definition, if you feel unfairness or want to debate the criteria please check this issue.
Feedback is appreciated: please comment on Reddit, GitHub or #writers_room.
Contributions are also welcome, some areas are adding content, pre-release review or translations to other languages.
Credits (Slack names, alphabetical order): bee, Haon and Richard-Red.
submitted by jet_user to decred [link] [comments]

Working of Cryptocurrency Mining pool

Working of Cryptocurrency Mining pool
Source - https://coinscapture.com/blog/working-of-cryptocurrency-mining-pool

Working of Cryptocurrency Mining pool
Cryptocurrency is the most discussed and trending topic on various internet forums, communities, and social media. Many individuals are keen to enter the cryptoworld and unfold all the profits within it. Cryptocurrency can be bought from an exchange or mined through the mining pools. In this guide, we’ll understand the working of the cryptocurrency mining pool.
What is Mining Pool?
Cryptocurrency mining is the same as mining the metals from the earth. The individual or company that digs out the metal from the earth becomes the owner similarly the individual who discovers first the valid hash using the computational power becomes the owner and earns a block reward. The crypto mining can either be done solo using his/her own mining devices or through a mining pool.
As more and more enthusiasts participated in mining to earn a block reward became equally difficult and it would take centuries for a miner to generate a block because the probability of finding the hash value first and generating a block is directly proportional to the computing power in the network. The smaller the computational power the smaller is the chance of generating the next block. Hence a solution, to this problem mining pools were formed.
A mining pool is a group of miners pooling/combining their computational power together in order to mine a cryptocurrency quickly and earn a block reward consistently. Each contributing miner earns reward according to their investment in processing power. The working of mining pools depends on certain algorithms that are designed to check the authenticity and validity of the transactions. Miners are required to solve a complex math problem that requires millions of calculations with the help of High computational power. When the miners combined their computational power the block generation process happens at a much faster rate as compared to a single mining rig. For more understanding of mining please refer our previous blog (What is Bitcoin mining?)
Types of Mining Pools
  • Single mining pools: This type of mining pool mine only single cryptocurrency
  • Multi-currency pools: This type of mining pool mine different cryptocurrencies and gives the miner a chance to choose the cryptocurrency for mining timely depending rewards points offered.
  • Cloud mining pools: Cloud-based mining can be combined with mining pools by making an online contract. This type of mining pool allows individuals to participate in mining activity without even buying specialized equipment.
How rewards are shared on mining pools?
The rewards shared after successfully adding the new block to the blockchain vary from currency to currency. The reward sharings also depend on the factors like mining difficulty, the exchange rate between different coins, the hash rate and the block generation time. Some of the followed reward structures are as follows:
  1. Pay-per-share (PPS): This method offers instant payout depending on the miner’s contribution to finding the block. The payment is done using the pool's existing balance and can be withdrawn immediately.
  2. Shared Maximum Pay Per Share (SMPPS): It is the same as Pay-per-share (PPS) but limits the payout to the maximum that the pool has earned.
  3. Equalized Shared Maximum Pay Per Share (ESMPPS): This method is similar to (SMPPS) but the rewards are distributed equally among all miners in the pool.
  4. Proportional (PROP): The miner is rewarded the share that is proportional to the number of shares he has in the pool with respect to the pool’s total shares
Advantages of mining pools
  • Mining pools offer a more stable income
  • Mining pools lower costs of mining
  • Mining pools helps in generating a higher income
Disadvantages of Mining pools
  • There may be some interruptions in the Mining pools
  • There is a sharing of block rewards
  • There may be sometimes unfavorable pool reward structure
Widely-Used Mining Pools
  • Antpool: The largest pool available on the web offering mining of cryptocurrencies like BTC, BCH, LTC, ETH, ETC, ZEC, DASH, SCC, XMC, BTM
  • Minergate.com: A public mining pool mining of cryptocurrencies like ETH, ETC, ZEC, BTG, BCN, XMR, XMO, FCN, XDN, AEON
  • Btc.com: The most popular mining pool among miners offering cryptocurrencies BTC, BCH, ETH, ETC, LTC, UBTC, DCR to mine
  • BTCC: The largest Chinese pool in the world mining 7% of all existing blocks.
  • Slush: The most trusted mining pools on internet mining 7% of all available blocks.
Mining pools can definitely be a change to the entire mining process offering the highest and the real income without spending years depending on the computational powers. Hence, investing in a mining pool can be beneficial but always choose the mining pool that fits your personal needs and facilities.
submitted by coinscapturecom to u/coinscapturecom [link] [comments]

Antminer S9 no longer hashing?

Good morning folks,
I have an Antminer S9 that has performed flawlessly. After I moved it to a better location, I noticed that it no longer seems to be working. The green light is flashing, but it doesn't seem to be hashing to my pool (Nicehash).
I'm fairly new to Bitcoining mining and can't make sense of some of the information on my status screen. Before I jump into Bitmain support, I was wondering if anyone could clue me in as to what the problem might be.
https://s15.postimg.cc/i0n5qsyoInked_Capture_LI.jpg
I'll post my Kernal Log here.
Thank you in advance!!!
KERNAL LOG: [ 0.000000] Booting Linux on physical CPU 0x0
[ 0.000000] Linux version 3.14.0-xilinx-ge8a2f71-dirty ([email protected]) (gcc version 4.8.3 20140320 (prerelease) (Sourcery CodeBench Lite 2014.05-23) ) #82 SMP PREEMPT Tue May 16 19:49:53 CST 2017
[ 0.000000] CPU: ARMv7 Processor [413fc090] revision 0 (ARMv7), cr=18c5387d
[ 0.000000] CPU: PIPT / VIPT nonaliasing data cache, VIPT aliasing instruction cache
[ 0.000000] Machine model: Xilinx Zynq
[ 0.000000] cma: CMA: reserved 128 MiB at 27800000
[ 0.000000] Memory policy: Data cache writealloc
[ 0.000000] On node 0 totalpages: 258048
[ 0.000000] free_area_init_node: node 0, pgdat c0740a40, node_mem_map e6fd8000
[ 0.000000] Normal zone: 1520 pages used for memmap
[ 0.000000] Normal zone: 0 pages reserved
[ 0.000000] Normal zone: 194560 pages, LIFO batch:31
[ 0.000000] HighMem zone: 496 pages used for memmap
[ 0.000000] HighMem zone: 63488 pages, LIFO batch:15
[ 0.000000] PERCPU: Embedded 8 pages/cpu @e6fc0000 s9088 r8192 d15488 u32768
[ 0.000000] pcpu-alloc: s9088 r8192 d15488 u32768 alloc=8*4096
[ 0.000000] pcpu-alloc: [0] 0 [0] 1
[ 0.000000] Built 1 zonelists in Zone order, mobility grouping on. Total pages: 256528
[ 0.000000] Kernel command line: noinitrd mem=1008M console=ttyPS0,115200 root=ubi0:rootfs ubi.mtd=1 rootfstype=ubifs rw rootwait
[ 0.000000] PID hash table entries: 4096 (order: 2, 16384 bytes)
[ 0.000000] Dentry cache hash table entries: 131072 (order: 7, 524288 bytes)
[ 0.000000] Inode-cache hash table entries: 65536 (order: 6, 262144 bytes)
[ 0.000000] Memory: 884148K/1032192K available (5032K kernel code, 283K rwdata, 1916K rodata, 204K init, 258K bss, 148044K reserved, 253952K highmem)
[ 0.000000] Virtual kernel memory layout:
[ 0.000000] vector : 0xffff0000 - 0xffff1000 ( 4 kB)
[ 0.000000] fixmap : 0xfff00000 - 0xfffe0000 ( 896 kB)
[ 0.000000] vmalloc : 0xf0000000 - 0xff000000 ( 240 MB)
[ 0.000000] lowmem : 0xc0000000 - 0xef800000 ( 760 MB)
[ 0.000000] pkmap : 0xbfe00000 - 0xc0000000 ( 2 MB)
[ 0.000000] modules : 0xbf000000 - 0xbfe00000 ( 14 MB)
[ 0.000000] .text : 0xc0008000 - 0xc06d1374 (6949 kB)
[ 0.000000] .init : 0xc06d2000 - 0xc0705380 ( 205 kB)
[ 0.000000] .data : 0xc0706000 - 0xc074cf78 ( 284 kB)
[ 0.000000] .bss : 0xc074cf84 - 0xc078d9fc ( 259 kB)
[ 0.000000] Preemptible hierarchical RCU implementation.
[ 0.000000] Dump stacks of tasks blocking RCU-preempt GP.
[ 0.000000] RCU restricting CPUs from NR_CPUS=4 to nr_cpu_ids=2.
[ 0.000000] RCU: Adjusting geometry for rcu_fanout_leaf=16, nr_cpu_ids=2
[ 0.000000] NR_IRQS:16 nr_irqs:16 16
[ 0.000000] ps7-slcr mapped to f0004000
[ 0.000000] zynq_clock_init: clkc starts at f0004100
[ 0.000000] Zynq clock init
[ 0.000015] sched_clock: 64 bits at 333MHz, resolution 3ns, wraps every 3298534883328ns
[ 0.000308] ps7-ttc #0 at f0006000, irq=43
[ 0.000618] Console: colour dummy device 80x30
[ 0.000658] Calibrating delay loop... 1325.46 BogoMIPS (lpj=6627328)
[ 0.040207] pid_max: default: 32768 minimum: 301
[ 0.040436] Mount-cache hash table entries: 2048 (order: 1, 8192 bytes)
[ 0.040459] Mountpoint-cache hash table entries: 2048 (order: 1, 8192 bytes)
[ 0.042612] CPU: Testing write buffer coherency: ok
[ 0.042974] CPU0: thread -1, cpu 0, socket 0, mpidr 80000000
[ 0.043036] Setting up static identity map for 0x4c4b00 - 0x4c4b58
[ 0.043263] L310 cache controller enabled
[ 0.043282] l2x0: 8 ways, CACHE_ID 0x410000c8, AUX_CTRL 0x72760000, Cache size: 512 kB
[ 0.121037] CPU1: Booted secondary processor
[ 0.210227] CPU1: thread -1, cpu 1, socket 0, mpidr 80000001
[ 0.210357] Brought up 2 CPUs
[ 0.210376] SMP: Total of 2 processors activated.
[ 0.210385] CPU: All CPU(s) started in SVC mode.
[ 0.211051] devtmpfs: initialized
[ 0.213481] VFP support v0.3: implementor 41 architecture 3 part 30 variant 9 rev 4
[ 0.214724] regulator-dummy: no parameters
[ 0.223736] NET: Registered protocol family 16
[ 0.226067] DMA: preallocated 256 KiB pool for atomic coherent allocations
[ 0.228361] cpuidle: using governor ladder
[ 0.228374] cpuidle: using governor menu
[ 0.235908] syscon f8000000.ps7-slcr: regmap [mem 0xf8000000-0xf8000fff] registered
[ 0.237440] hw-breakpoint: found 5 (+1 reserved) breakpoint and 1 watchpoint registers.
[ 0.237453] hw-breakpoint: maximum watchpoint size is 4 bytes.
[ 0.237572] zynq-ocm f800c000.ps7-ocmc: ZYNQ OCM pool: 256 KiB @ 0xf0080000
[ 0.259435] bio: create slab at 0
[ 0.261172] vgaarb: loaded
[ 0.261915] SCSI subsystem initialized
[ 0.262814] usbcore: registered new interface driver usbfs
[ 0.262985] usbcore: registered new interface driver hub
[ 0.263217] usbcore: registered new device driver usb
[ 0.263743] media: Linux media interface: v0.10
[ 0.263902] Linux video capture interface: v2.00
[ 0.264150] pps_core: LinuxPPS API ver. 1 registered
[ 0.264162] pps_core: Software ver. 5.3.6 - Copyright 2005-2007 Rodolfo Giometti <[[email protected]](mailto:[email protected])>
[ 0.264286] PTP clock support registered
[ 0.264656] EDAC MC: Ver: 3.0.0
[ 0.265719] Advanced Linux Sound Architecture Driver Initialized.
[ 0.268708] DMA-API: preallocated 4096 debug entries
[ 0.268724] DMA-API: debugging enabled by kernel config
[ 0.268820] Switched to clocksource arm_global_timer
[ 0.289596] NET: Registered protocol family 2
[ 0.290280] TCP established hash table entries: 8192 (order: 3, 32768 bytes)
[ 0.290375] TCP bind hash table entries: 8192 (order: 4, 65536 bytes)
[ 0.290535] TCP: Hash tables configured (established 8192 bind 8192)
[ 0.290612] TCP: reno registered
[ 0.290633] UDP hash table entries: 512 (order: 2, 16384 bytes)
[ 0.290689] UDP-Lite hash table entries: 512 (order: 2, 16384 bytes)
[ 0.290971] NET: Registered protocol family 1
[ 0.291346] RPC: Registered named UNIX socket transport module.
[ 0.291359] RPC: Registered udp transport module.
[ 0.291368] RPC: Registered tcp transport module.
[ 0.291376] RPC: Registered tcp NFSv4.1 backchannel transport module.
[ 0.291391] PCI: CLS 0 bytes, default 64
[ 0.291857] hw perfevents: enabled with ARMv7 Cortex-A9 PMU driver, 7 counters available
[ 0.293945] futex hash table entries: 512 (order: 3, 32768 bytes)
[ 0.295408] bounce pool size: 64 pages
[ 0.296323] jffs2: version 2.2. (NAND) © 2001-2006 Red Hat, Inc.
[ 0.296525] msgmni has been set to 1486
[ 0.297330] io scheduler noop registered
[ 0.297343] io scheduler deadline registered
[ 0.297385] io scheduler cfq registered (default)
[ 0.308358] dma-pl330 f8003000.ps7-dma: Loaded driver for PL330 DMAC-2364208
[ 0.308380] dma-pl330 f8003000.ps7-dma: DBUFF-128x8bytes Num_Chans-8 Num_Peri-4 Num_Events-16
[ 0.434378] e0001000.serial: ttyPS0 at MMIO 0xe0001000 (irq = 82, base_baud = 3124999) is a xuartps
[ 1.006815] console [ttyPS0] enabled
[ 1.011106] xdevcfg f8007000.ps7-dev-cfg: ioremap 0xf8007000 to f0068000
[ 1.018731] [drm] Initialized drm 1.1.0 20060810
[ 1.036029] brd: module loaded
[ 1.045494] loop: module loaded
[ 1.055163] e1000e: Intel(R) PRO/1000 Network Driver - 2.3.2-k
[ 1.060985] e1000e: Copyright(c) 1999 - 2013 Intel Corporation.
[ 1.068779] libphy: XEMACPS mii bus: probed
[ 1.073341] ------------- phy_id = 0x3625e62
[ 1.078112] xemacps e000b000.ps7-ethernet: pdev->id -1, baseaddr 0xe000b000, irq 54
[ 1.087072] ehci_hcd: USB 2.0 'Enhanced' Host Controller (EHCI) Driver
[ 1.093912] ehci-pci: EHCI PCI platform driver
[ 1.101155] zynq-dr e0002000.ps7-usb: Unable to init USB phy, missing?
[ 1.107952] usbcore: registered new interface driver usb-storage
[ 1.114850] mousedev: PS/2 mouse device common for all mice
[ 1.120975] i2c /dev entries driver
[ 1.127946] zynq-edac f8006000.ps7-ddrc: ecc not enabled
[ 1.133474] cpufreq_cpu0: failed to get cpu0 regulator: -19
[ 1.139426] Xilinx Zynq CpuIdle Driver started
[ 1.144261] sdhci: Secure Digital Host Controller Interface driver
[ 1.150384] sdhci: Copyright(c) Pierre Ossman
[ 1.154700] sdhci-pltfm: SDHCI platform and OF driver helper
[ 1.161601] mmc0: no vqmmc regulator found
[ 1.165614] mmc0: no vmmc regulator found
[ 1.208845] mmc0: SDHCI controller on e0100000.ps7-sdio [e0100000.ps7-sdio] using ADMA
[ 1.217539] usbcore: registered new interface driver usbhid
[ 1.223054] usbhid: USB HID core driver
[ 1.227806] nand: device found, Manufacturer ID: 0x2c, Chip ID: 0xda
[ 1.234107] nand: Micron MT29F2G08ABAEAWP
[ 1.238074] nand: 256MiB, SLC, page size: 2048, OOB size: 64
[ 1.244027] Bad block table found at page 131008, version 0x01
[ 1.250251] Bad block table found at page 130944, version 0x01
[ 1.256303] 3 ofpart partitions found on MTD device pl353-nand
[ 1.262080] Creating 3 MTD partitions on "pl353-nand":
[ 1.267174] 0x000000000000-0x000002000000 : "BOOT.bin-env-dts-kernel"
[ 1.275230] 0x000002000000-0x00000b000000 : "angstram-rootfs"
[ 1.282582] 0x00000b000000-0x000010000000 : "upgrade-rootfs"
[ 1.291630] TCP: cubic registered
[ 1.294869] NET: Registered protocol family 17
[ 1.299597] Registering SWP/SWPB emulation handler
[ 1.305497] regulator-dummy: disabling
[ 1.309875] UBI: attaching mtd1 to ubi0
[ 1.836565] UBI: scanning is finished
[ 1.848221] UBI: attached mtd1 (name "angstram-rootfs", size 144 MiB) to ubi0
[ 1.855302] UBI: PEB size: 131072 bytes (128 KiB), LEB size: 126976 bytes
[ 1.862063] UBI: min./max. I/O unit sizes: 2048/2048, sub-page size 2048
[ 1.868728] UBI: VID header offset: 2048 (aligned 2048), data offset: 4096
[ 1.875605] UBI: good PEBs: 1152, bad PEBs: 0, corrupted PEBs: 0
[ 1.881586] UBI: user volume: 1, internal volumes: 1, max. volumes count: 128
[ 1.888693] UBI: max/mean erase counter: 4/1, WL threshold: 4096, image sequence number: 1134783803
[ 1.897736] UBI: available PEBs: 0, total reserved PEBs: 1152, PEBs reserved for bad PEB handling: 40
[ 1.906953] UBI: background thread "ubi_bgt0d" started, PID 1080
[ 1.906959] drivers/rtc/hctosys.c: unable to open rtc device (rtc0)
[ 1.911038] ALSA device list:
[ 1.911042] No soundcards found.
[ 1.927420] UBIFS: background thread "ubifs_bgt0_0" started, PID 1082
[ 1.956473] UBIFS: recovery needed
[ 2.016970] UBIFS: recovery completed
[ 2.020709] UBIFS: mounted UBI device 0, volume 0, name "rootfs"
[ 2.026635] UBIFS: LEB size: 126976 bytes (124 KiB), min./max. I/O unit sizes: 2048 bytes/2048 bytes
[ 2.035771] UBIFS: FS size: 128626688 bytes (122 MiB, 1013 LEBs), journal size 9023488 bytes (8 MiB, 72 LEBs)
[ 2.045653] UBIFS: reserved for root: 0 bytes (0 KiB)
[ 2.050693] UBIFS: media format: w4/r0 (latest is w4/r0), UUID B079DD56-06BB-4E31-8F5E-A6604F480DB2, small LPT model
[ 2.061987] VFS: Mounted root (ubifs filesystem) on device 0:11.
[ 2.069184] devtmpfs: mounted
[ 2.072297] Freeing unused kernel memory: 204K (c06d2000 - c0705000)
[ 2.920928] random: dd urandom read with 0 bits of entropy available
[ 3.318860]
[ 3.318860] bcm54xx_config_init
[ 3.928853]
[ 3.928853] bcm54xx_config_init
[ 7.929682] xemacps e000b000.ps7-ethernet: Set clk to 124999998 Hz
[ 7.935787] xemacps e000b000.ps7-ethernet: link up (1000/FULL)
[ 22.563181] In axi fpga driver!
[ 22.566260] request_mem_region OK!
[ 22.569676] AXI fpga dev virtual address is 0xf01fe000
[ 22.574751] *base_vir_addr = 0x8c510
[ 22.590723] In fpga mem driver!
[ 22.593791] request_mem_region OK!
[ 22.597361] fpga mem virtual address is 0xf3000000
[ 23.408156]
[ 23.408156] bcm54xx_config_init
[ 24.038071]
[ 24.038071] bcm54xx_config_init
[ 28.038487] xemacps e000b000.ps7-ethernet: Set clk to 124999998 Hz
[ 28.044593] xemacps e000b000.ps7-ethernet: link up (1000/FULL)
This is XILINX board. Totalram: 1039794176
Detect 1GB control board of XILINX
DETECT HW version=0008c510
miner ID : 8118b4c610358854
Miner Type = S9
AsicType = 1387
real AsicNum = 63
use critical mode to search freq...
get PLUG ON=0x000000e0
Find hashboard on Chain[5]
Find hashboard on Chain[6]
Find hashboard on Chain[7]
set_reset_allhashboard = 0x0000ffff
Check chain[5] PIC fw version=0x03
Check chain[6] PIC fw version=0x03
Check chain[7] PIC fw version=0x03
chain[5]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[5] has freq in PIC and will jump over...
Chain[5] has core num in PIC
Chain[5] ASIC[15] has core num=5
Check chain[5] PIC fw version=0x03
chain[6]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[6] has freq in PIC and will jump over...
Chain[6] has core num in PIC
Chain[6] ASIC[17] has core num=8
Check chain[6] PIC fw version=0x03
chain[7]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[7] has freq in PIC and will jump over...
Chain[7] has core num in PIC
Chain[7] ASIC[8] has core num=13
Chain[7] ASIC[9] has core num=11
Chain[7] ASIC[13] has core num=11
Chain[7] ASIC[19] has core num=14
Chain[7] ASIC[30] has core num=6
Chain[7] ASIC[32] has core num=1
Chain[7] ASIC[42] has core num=2
Chain[7] ASIC[55] has core num=1
Chain[7] ASIC[57] has core num=2
Check chain[7] PIC fw version=0x03
get PIC voltage=108 on chain[5], value=880
get PIC voltage=74 on chain[6], value=900
get PIC voltage=108 on chain[7], value=880
set_reset_allhashboard = 0x00000000
chain[5] temp offset record: 62,0,0,0,0,0,35,28
chain[5] temp chip I2C addr=0x98
chain[5] has no middle temp, use special fix mode.
chain[6] temp offset record: 62,0,0,0,0,0,35,28
chain[6] temp chip I2C addr=0x98
chain[6] has no middle temp, use special fix mode.
chain[7] temp offset record: 62,0,0,0,0,0,35,28
chain[7] temp chip I2C addr=0x98
chain[7] has no middle temp, use special fix mode.
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
CRC error counter=0
set command mode to VIL
--- check asic number
After Get ASIC NUM CRC error counter=0
set_baud=0
The min freq=700
set real timeout 52, need sleep=379392
After TEST CRC error counter=0
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
search freq for 1 times, completed chain = 3, total chain num = 3
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
restart Miner chance num=2
waiting for receive_func to exit!
waiting for pic heart to exit!
bmminer not found= 1643 root 0:00 grep bmminer
bmminer not found, restart bmminer ...
This is user mode for mining
Detect 1GB control board of XILINX
Miner Type = S9
Miner compile time: Fri Nov 17 17:57:49 CST 2017 type: Antminer S9set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
set_reset_allhashboard = 0x0000ffff
miner ID : 8118b4c610358854
set_reset_allhashboard = 0x0000ffff
Checking fans!get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[5] speed=13440
get fan[2] speed=6120
get fan[5] speed=13440
get fan[2] speed=6120
get fan[5] speed=13440
chain[5]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J6] has backup chain_voltage=880
Chain[J6] test patten OK temp=-126
Check chain[5] PIC fw version=0x03
chain[6]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J7] has backup chain_voltage=900
Chain[J7] test patten OK temp=-120
Check chain[6] PIC fw version=0x03
chain[7]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J8] has backup chain_voltage=880
Chain[J8] test patten OK temp=-125
Check chain[7] PIC fw version=0x03
Chain[J6] orignal chain_voltage_pic=108 value=880
Chain[J7] orignal chain_voltage_pic=74 value=900
Chain[J8] orignal chain_voltage_pic=108 value=880
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
Chain[J6] has 63 asic
Chain[J7] has 63 asic
Chain[J8] has 63 asic
Chain[J6] has core num in PIC
Chain[J6] ASIC[15] has core num=5
Chain[J7] has core num in PIC
Chain[J7] ASIC[17] has core num=8
Chain[J8] has core num in PIC
Chain[J8] ASIC[8] has core num=13
Chain[J8] ASIC[9] has core num=11
Chain[J8] ASIC[13] has core num=11
Chain[J8] ASIC[19] has core num=14
Chain[J8] ASIC[30] has core num=6
Chain[J8] ASIC[32] has core num=1
Chain[J8] ASIC[42] has core num=2
Chain[J8] ASIC[55] has core num=1
Chain[J8] ASIC[57] has core num=2
miner total rate=13999GH/s fixed rate=13500GH/s
read PIC voltage=940 on chain[5]
Chain:5 chipnum=63
Chain[J6] voltage added=0.2V
Chain:5 temp offset=0
Chain:5 base freq=487
Asic[ 0]:618
Asic[ 1]:631 Asic[ 2]:681 Asic[ 3]:618 Asic[ 4]:631 Asic[ 5]:681 Asic[ 6]:618 Asic[ 7]:631 Asic[ 8]:675
Asic[ 9]:618 Asic[10]:631 Asic[11]:681 Asic[12]:631 Asic[13]:637 Asic[14]:606 Asic[15]:487 Asic[16]:637
Asic[17]:675 Asic[18]:618 Asic[19]:637 Asic[20]:675 Asic[21]:631 Asic[22]:650 Asic[23]:687 Asic[24]:631
Asic[25]:537 Asic[26]:687 Asic[27]:631 Asic[28]:587 Asic[29]:687 Asic[30]:612 Asic[31]:650 Asic[32]:687
Asic[33]:631 Asic[34]:650 Asic[35]:687 Asic[36]:631 Asic[37]:662 Asic[38]:693 Asic[39]:631 Asic[40]:662
Asic[41]:662 Asic[42]:543 Asic[43]:668 Asic[44]:693 Asic[45]:568 Asic[46]:675 Asic[47]:700 Asic[48]:631
Asic[49]:568 Asic[50]:700 Asic[51]:631 Asic[52]:625 Asic[53]:700 Asic[54]:631 Asic[55]:675 Asic[56]:662
Asic[57]:631 Asic[58]:662 Asic[59]:687 Asic[60]:631 Asic[61]:681 Asic[62]:700
Chain:5 max freq=700
Chain:5 min freq=487
read PIC voltage=940 on chain[6]
Chain:6 chipnum=63
Chain[J7] voltage added=0.1V
Chain:6 temp offset=0
Chain:6 base freq=687
Asic[ 0]:650
Asic[ 1]:650 Asic[ 2]:650 Asic[ 3]:650 Asic[ 4]:650 Asic[ 5]:650 Asic[ 6]:650 Asic[ 7]:650 Asic[ 8]:650
Asic[ 9]:650 Asic[10]:650 Asic[11]:650 Asic[12]:650 Asic[13]:650 Asic[14]:650 Asic[15]:650 Asic[16]:650
Asic[17]:650 Asic[18]:650 Asic[19]:650 Asic[20]:650 Asic[21]:650 Asic[22]:650 Asic[23]:650 Asic[24]:650
Asic[25]:650 Asic[26]:656 Asic[27]:656 Asic[28]:656 Asic[29]:656 Asic[30]:656 Asic[31]:656 Asic[32]:656
Asic[33]:656 Asic[34]:656 Asic[35]:656 Asic[36]:656 Asic[37]:656 Asic[38]:656 Asic[39]:656 Asic[40]:656
Asic[41]:656 Asic[42]:656 Asic[43]:656 Asic[44]:656 Asic[45]:656 Asic[46]:656 Asic[47]:656 Asic[48]:656
Asic[49]:656 Asic[50]:656 Asic[51]:656 Asic[52]:656 Asic[53]:656 Asic[54]:656 Asic[55]:656 Asic[56]:656
Asic[57]:656 Asic[58]:656 Asic[59]:656 Asic[60]:656 Asic[61]:656 Asic[62]:656
Chain:6 max freq=656
Chain:6 min freq=650
read PIC voltage=940 on chain[7]
Chain:7 chipnum=63
Chain[J8] voltage added=0.2V
Chain:7 temp offset=0
Chain:7 base freq=637
Asic[ 0]:656
Asic[ 1]:656 Asic[ 2]:656 Asic[ 3]:656 Asic[ 4]:656 Asic[ 5]:656 Asic[ 6]:656 Asic[ 7]:656 Asic[ 8]:637
Asic[ 9]:637 Asic[10]:656 Asic[11]:656 Asic[12]:656 Asic[13]:637 Asic[14]:656 Asic[15]:662 Asic[16]:662
Asic[17]:662 Asic[18]:662 Asic[19]:637 Asic[20]:662 Asic[21]:662 Asic[22]:662 Asic[23]:662 Asic[24]:662
Asic[25]:662 Asic[26]:662 Asic[27]:662 Asic[28]:662 Asic[29]:662 Asic[30]:637 Asic[31]:662 Asic[32]:662
Asic[33]:662 Asic[34]:662 Asic[35]:662 Asic[36]:662 Asic[37]:662 Asic[38]:662 Asic[39]:662 Asic[40]:662
Asic[41]:662 Asic[42]:650 Asic[43]:662 Asic[44]:662 Asic[45]:662 Asic[46]:662 Asic[47]:662 Asic[48]:662
Asic[49]:662 Asic[50]:662 Asic[51]:662 Asic[52]:662 Asic[53]:662 Asic[54]:662 Asic[55]:650 Asic[56]:662
Asic[57]:650 Asic[58]:662 Asic[59]:662 Asic[60]:662 Asic[61]:662 Asic[62]:662
Chain:7 max freq=662
Chain:7 min freq=637
Miner fix freq ...
read PIC voltage=940 on chain[5]
Chain:5 chipnum=63
Chain[J6] voltage added=0.2V
Chain:5 temp offset=0
Chain:5 base freq=487
Asic[ 0]:618
Asic[ 1]:631 Asic[ 2]:650 Asic[ 3]:618 Asic[ 4]:631 Asic[ 5]:656 Asic[ 6]:618 Asic[ 7]:631 Asic[ 8]:656
Asic[ 9]:618 Asic[10]:631 Asic[11]:656 Asic[12]:631 Asic[13]:637 Asic[14]:606 Asic[15]:487 Asic[16]:637
Asic[17]:656 Asic[18]:618 Asic[19]:637 Asic[20]:656 Asic[21]:631 Asic[22]:650 Asic[23]:656 Asic[24]:631
Asic[25]:537 Asic[26]:656 Asic[27]:631 Asic[28]:587 Asic[29]:656 Asic[30]:612 Asic[31]:650 Asic[32]:656
Asic[33]:631 Asic[34]:650 Asic[35]:656 Asic[36]:631 Asic[37]:656 Asic[38]:656 Asic[39]:631 Asic[40]:656
Asic[41]:656 Asic[42]:543 Asic[43]:656 Asic[44]:656 Asic[45]:568 Asic[46]:656 Asic[47]:656 Asic[48]:631
Asic[49]:568 Asic[50]:656 Asic[51]:631 Asic[52]:625 Asic[53]:656 Asic[54]:631 Asic[55]:656 Asic[56]:656
Asic[57]:631 Asic[58]:656 Asic[59]:656 Asic[60]:631 Asic[61]:656 Asic[62]:656
Chain:5 max freq=656
Chain:5 min freq=487
read PIC voltage=940 on chain[6]
Chain:6 chipnum=63
Chain[J7] voltage added=0.1V
Chain:6 temp offset=0
Chain:6 base freq=687
Asic[ 0]:631
Asic[ 1]:631 Asic[ 2]:631 Asic[ 3]:631 Asic[ 4]:631 Asic[ 5]:631 Asic[ 6]:631 Asic[ 7]:631 Asic[ 8]:631
Asic[ 9]:631 Asic[10]:631 Asic[11]:631 Asic[12]:631 Asic[13]:631 Asic[14]:631 Asic[15]:631 Asic[16]:631
Asic[17]:631 Asic[18]:631 Asic[19]:631 Asic[20]:631 Asic[21]:631 Asic[22]:631 Asic[23]:631 Asic[24]:631
Asic[25]:631 Asic[26]:631 Asic[27]:631 Asic[28]:631 Asic[29]:631 Asic[30]:631 Asic[31]:631 Asic[32]:631
Asic[33]:631 Asic[34]:631 Asic[35]:637 Asic[36]:637 Asic[37]:637 Asic[38]:637 Asic[39]:637 Asic[40]:637
Asic[41]:637 Asic[42]:637 Asic[43]:637 Asic[44]:637 Asic[45]:637 Asic[46]:637 Asic[47]:637 Asic[48]:637
Asic[49]:637 Asic[50]:637 Asic[51]:637 Asic[52]:637 Asic[53]:637 Asic[54]:637 Asic[55]:637 Asic[56]:637
Asic[57]:637 Asic[58]:637 Asic[59]:637 Asic[60]:637 Asic[61]:637 Asic[62]:637
Chain:6 max freq=637
Chain:6 min freq=631
read PIC voltage=940 on chain[7]
Chain:7 chipnum=63
Chain[J8] voltage added=0.2V
Chain:7 temp offset=0
Chain:7 base freq=637
Asic[ 0]:637
Asic[ 1]:637 Asic[ 2]:637 Asic[ 3]:637 Asic[ 4]:637 Asic[ 5]:637 Asic[ 6]:637 Asic[ 7]:637 Asic[ 8]:637
Asic[ 9]:637 Asic[10]:637 Asic[11]:637 Asic[12]:637 Asic[13]:637 Asic[14]:637 Asic[15]:637 Asic[16]:637
Asic[17]:637 Asic[18]:637 Asic[19]:637 Asic[20]:637 Asic[21]:637 Asic[22]:637 Asic[23]:637 Asic[24]:637
Asic[25]:637 Asic[26]:637 Asic[27]:637 Asic[28]:637 Asic[29]:637 Asic[30]:637 Asic[31]:637 Asic[32]:637
Asic[33]:637 Asic[34]:637 Asic[35]:637 Asic[36]:637 Asic[37]:637 Asic[38]:637 Asic[39]:637 Asic[40]:637
Asic[41]:637 Asic[42]:637 Asic[43]:637 Asic[44]:637 Asic[45]:637 Asic[46]:637 Asic[47]:637 Asic[48]:637
Asic[49]:643 Asic[50]:643 Asic[51]:643 Asic[52]:643 Asic[53]:643 Asic[54]:643 Asic[55]:643 Asic[56]:643
Asic[57]:643 Asic[58]:643 Asic[59]:643 Asic[60]:643 Asic[61]:643 Asic[62]:643
Chain:7 max freq=643
Chain:7 min freq=637
max freq = 656
set baud=1
Chain[J6] PIC temp offset=62,0,0,0,0,0,35,28
chain[5] temp chip I2C addr=0x98
chain[5] has no middle temp, use special fix mode.
Chain[J6] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[5] chip[244] local:26 remote:27 offset:29
Chain[J6] chip[244] get middle temp offset=29 typeID=55
Chain[J7] PIC temp offset=62,0,0,0,0,0,35,28
chain[6] temp chip I2C addr=0x98
chain[6] has no middle temp, use special fix mode.
Chain[J7] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[6] chip[244] local:26 remote:27 offset:29
Chain[J7] chip[244] get middle temp offset=29 typeID=55
Chain[J8] PIC temp offset=62,0,0,0,0,0,35,28
chain[7] temp chip I2C addr=0x98
chain[7] has no middle temp, use special fix mode.
Chain[J8] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[7] chip[244] local:26 remote:28 offset:28
Chain[J8] chip[244] get middle temp offset=28 typeID=55
miner rate=13501 voltage limit=900 on chain[5]
get PIC voltage=880 on chain[5], check: must be < 900
miner rate=13501 voltage limit=900 on chain[6]
get PIC voltage=900 on chain[6], check: must be < 900
miner rate=13501 voltage limit=900 on chain[7]
get PIC voltage=880 on chain[7], check: must be < 900
Chain[J6] set working voltage=880 [108]
Chain[J7] set working voltage=900 [74]
Chain[J8] set working voltage=880 [108]
do heat board 8xPatten for 1 times
start send works on chain[5]
start send works on chain[6]
start send works on chain[7]
get send work num :57456 on Chain[5]
get send work num :57456 on Chain[6]
get send work num :57456 on Chain[7]
wait recv nonce on chain[5]
wait recv nonce on chain[6]
wait recv nonce on chain[7]
get nonces on chain[5]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=912 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=912 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=912
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
freq[00]=618 freq[01]=631 freq[02]=650 freq[03]=618 freq[04]=631 freq[05]=656 freq[06]=618 freq[07]=631
freq[08]=656 freq[09]=618 freq[10]=631 freq[11]=656 freq[12]=631 freq[13]=637 freq[14]=606 freq[15]=487
freq[16]=637 freq[17]=656 freq[18]=618 freq[19]=637 freq[20]=656 freq[21]=631 freq[22]=650 freq[23]=656
freq[24]=631 freq[25]=537 freq[26]=656 freq[27]=631 freq[28]=587 freq[29]=656 freq[30]=612 freq[31]=650
freq[32]=656 freq[33]=631 freq[34]=650 freq[35]=656 freq[36]=631 freq[37]=656 freq[38]=656 freq[39]=631
freq[40]=656 freq[41]=656 freq[42]=543 freq[43]=656 freq[44]=656 freq[45]=568 freq[46]=656 freq[47]=656
freq[48]=631 freq[49]=568 freq[50]=656 freq[51]=631 freq[52]=625 freq[53]=656 freq[54]=631 freq[55]=656
freq[56]=656 freq[57]=631 freq[58]=656 freq[59]=656 freq[60]=631 freq[61]=656 freq[62]=656
total valid nonce number:57456
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:25912
last_nonce_num:14370
get nonces on chain[6]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=912 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=912 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=912
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
freq[00]=631 freq[01]=631 freq[02]=631 freq[03]=631 freq[04]=631 freq[05]=631 freq[06]=631 freq[07]=631
freq[08]=631 freq[09]=631 freq[10]=631 freq[11]=631 freq[12]=631 freq[13]=631 freq[14]=631 freq[15]=631
freq[16]=631 freq[17]=631 freq[18]=631 freq[19]=631 freq[20]=631 freq[21]=631 freq[22]=631 freq[23]=631
freq[24]=631 freq[25]=631 freq[26]=631 freq[27]=631 freq[28]=631 freq[29]=631 freq[30]=631 freq[31]=631
freq[32]=631 freq[33]=631 freq[34]=631 freq[35]=637 freq[36]=637 freq[37]=637 freq[38]=637 freq[39]=637
freq[40]=637 freq[41]=637 freq[42]=637 freq[43]=637 freq[44]=637 freq[45]=637 freq[46]=637 freq[47]=637
freq[48]=637 freq[49]=637 freq[50]=637 freq[51]=637 freq[52]=637 freq[53]=637 freq[54]=637 freq[55]=637
freq[56]=637 freq[57]=637 freq[58]=637 freq[59]=637 freq[60]=637 freq[61]=637 freq[62]=637
total valid nonce number:57456
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:25987
last_nonce_num:14368
get nonces on chain[7]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=907 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=909 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=911
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
asic[08]=907
core[049]=7 core[053]=5 core[056]=7
asic[19]=909
core[064]=7 core[112]=6
asic[55]=911
core[007]=7
freq[00]=637 freq[01]=637 freq[02]=637 freq[03]=637 freq[04]=637 freq[05]=637 freq[06]=637 freq[07]=637
freq[08]=637 freq[09]=637 freq[10]=637 freq[11]=637 freq[12]=637 freq[13]=637 freq[14]=637 freq[15]=637
freq[16]=637 freq[17]=637 freq[18]=637 freq[19]=637 freq[20]=637 freq[21]=637 freq[22]=637 freq[23]=637
freq[24]=637 freq[25]=637 freq[26]=637 freq[27]=637 freq[28]=637 freq[29]=637 freq[30]=637 freq[31]=637
freq[32]=637 freq[33]=637 freq[34]=637 freq[35]=637 freq[36]=637 freq[37]=637 freq[38]=637 freq[39]=637
freq[40]=637 freq[41]=637 freq[42]=637 freq[43]=637 freq[44]=637 freq[45]=637 freq[46]=637 freq[47]=637
freq[48]=637 freq[49]=643 freq[50]=643 freq[51]=643 freq[52]=643 freq[53]=643 freq[54]=643 freq[55]=643
freq[56]=643 freq[57]=643 freq[58]=643 freq[59]=643 freq[60]=643 freq[61]=643 freq[62]=643
total valid nonce number:57447
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:26183
last_nonce_num:35748
chain[5]: All chip cores are opened OK!
Test Patten on chain[5]: OK!
chain[6]: All chip cores are opened OK!
Test Patten on chain[6]: OK!
chain[7]: All chip cores are opened OK!
Test Patten on chain[7]: OK!
setStartTimePoint total_tv_start_sys=217 total_tv_end_sys=218
restartNum = 2 , auto-reinit enabled...
do read_temp_func once...
do check_asic_reg 0x08
get RT hashrate from Chain[5]: (asic index start from 1-63)
Asic[01]=72.5110 Asic[02]=68.6020 Asic[03]=74.4230 Asic[04]=74.6750 Asic[05]=71.4540 Asic[06]=77.5610 Asic[07]=74.7760 Asic[08]=74.3900
Asic[09]=77.7790 Asic[10]=76.7220 Asic[11]=73.8020 Asic[12]=68.5850 Asic[13]=76.1680 Asic[14]=72.4770 Asic[15]=73.0470 Asic[16]=57.8810
Asic[17]=74.4740 Asic[18]=76.4530 Asic[19]=67.8800 Asic[20]=70.1280 Asic[21]=73.7520 Asic[22]=74.6580 Asic[23]=73.6850 Asic[24]=78.5170
Asic[25]=73.6850 Asic[26]=63.6860 Asic[27]=80.9660 Asic[28]=73.9200 Asic[29]=68.9870 Asic[30]=75.6310 Asic[31]=74.9770 Asic[32]=69.4570
Asic[33]=74.6580 Asic[34]=79.8930 Asic[35]=76.6710 Asic[36]=74.3730 Asic[37]=66.6050 Asic[38]=76.7380 Asic[39]=71.4540 Asic[40]=69.3060
Asic[41]=72.5610 Asic[42]=73.8530 Asic[43]=58.9210 Asic[44]=75.3800 Asic[45]=73.1310 Asic[46]=68.4000 Asic[47]=77.6780 Asic[48]=73.1150
Asic[49]=69.2890 Asic[50]=62.8130 Asic[51]=74.2720 Asic[52]=73.1480 Asic[53]=67.4440 Asic[54]=72.4940 Asic[55]=68.1990 Asic[56]=72.4100
Asic[57]=75.3460 Asic[58]=66.1350 Asic[59]=72.9800 Asic[60]=78.1480 Asic[61]=72.3260 Asic[62]=72.5610 Asic[63]=77.7950
get RT hashrate from Chain[6]: (asic index start from 1-63)
Asic[01]=67.6620 Asic[02]=75.9840 Asic[03]=70.3300 Asic[04]=75.5640 Asic[05]=62.8470 Asic[06]=70.2790 Asic[07]=74.5240 Asic[08]=72.9130
Asic[09]=70.6320 Asic[10]=72.5610 Asic[11]=73.9370 Asic[12]=77.3420 Asic[13]=72.4440 Asic[14]=68.8030 Asic[15]=73.0810 Asic[16]=73.8360
Asic[17]=73.5510 Asic[18]=73.9700 Asic[19]=71.0340 Asic[20]=71.1680 Asic[21]=72.1580 Asic[22]=78.8190 Asic[23]=71.9230 Asic[24]=69.4570
Asic[25]=67.7630 Asic[26]=71.7220 Asic[27]=76.4030 Asic[28]=71.1180 Asic[29]=68.7360 Asic[30]=69.7090 Asic[31]=77.5610 Asic[32]=70.1790
Asic[33]=67.9140 Asic[34]=72.3930 Asic[35]=64.5920 Asic[36]=72.1920 Asic[37]=74.6080 Asic[38]=75.4470 Asic[39]=73.8700 Asic[40]=73.9370
Asic[41]=66.2860 Asic[42]=79.4230 Asic[43]=75.8160 Asic[44]=68.6350 Asic[45]=74.7920 Asic[46]=70.7990 Asic[47]=71.2360 Asic[48]=73.8700
Asic[49]=66.5380 Asic[50]=70.6150 Asic[51]=72.6280 Asic[52]=75.7490 Asic[53]=71.8400 Asic[54]=76.5370 Asic[55]=73.5340 Asic[56]=69.2390
Asic[57]=75.1280 Asic[58]=74.3230 Asic[59]=73.4330 Asic[60]=72.3430 Asic[61]=77.6780 Asic[62]=82.4600 Asic[63]=69.5240
get RT hashrate from Chain[7]: (asic index start from 1-63)
Asic[01]=73.5510 Asic[02]=75.9160 Asic[03]=80.1110 Asic[04]=76.9900 Asic[05]=76.1510 Asic[06]=73.5170 Asic[07]=74.9940 Asic[08]=73.1150
Asic[09]=70.6650 Asic[10]=70.6990 Asic[11]=72.4770 Asic[12]=70.1450 Asic[13]=74.3060 Asic[14]=71.8060 Asic[15]=74.7420 Asic[16]=75.6650
Asic[17]=76.8220 Asic[18]=69.5240 Asic[19]=72.0910 Asic[20]=75.2620 Asic[21]=72.0240 Asic[22]=73.2660 Asic[23]=76.2690 Asic[24]=69.9440
Asic[25]=67.7290 Asic[26]=71.7050 Asic[27]=74.6250 Asic[28]=78.2320 Asic[29]=69.8430 Asic[30]=68.4670 Asic[31]=71.5210 Asic[32]=68.9540
Asic[33]=74.6250 Asic[34]=71.8730 Asic[35]=74.4400 Asic[36]=74.8760 Asic[37]=73.9030 Asic[38]=72.9300 Asic[39]=69.6250 Asic[40]=74.9430
Asic[41]=72.7620 Asic[42]=69.4910 Asic[43]=67.4270 Asic[44]=71.4870 Asic[45]=74.4570 Asic[46]=66.6550 Asic[47]=67.5450 Asic[48]=75.4800
Asic[49]=72.2590 Asic[50]=72.9300 Asic[51]=75.6820 Asic[52]=71.9070 Asic[53]=67.9640 Asic[54]=67.8470 Asic[55]=74.3900 Asic[56]=71.0010
Asic[57]=75.8490 Asic[58]=74.9270 Asic[59]=72.3930 Asic[60]=74.3730 Asic[61]=75.5310 Asic[62]=73.8190 Asic[63]=72.4440
Check Chain[J6] ASIC RT error: (asic index start from 1-63)
Check Chain[J7] ASIC RT error: (asic index start from 1-63)
Check Chain[J8] ASIC RT error: (asic index start from 1-63)
Done check_asic_reg
do read temp on Chain[5]
Chain[5] Chip[62] TempTypeID=55 middle offset=29
Chain[5] Chip[62] local Temp=60
Chain[5] Chip[62] middle Temp=70
Special fix Chain[5] Chip[62] middle Temp = 75
Done read temp on Chain[5]
do read temp on Chain[6]
Chain[6] Chip[62] TempTypeID=55 middle offset=29
Chain[6] Chip[62] local Temp=60
Chain[6] Chip[62] middle Temp=72
Special fix Chain[6] Chip[62] middle Temp = 75
Done read temp on Chain[6]
do read temp on Chain[7]
Chain[7] Chip[62] TempTypeID=55 middle offset=28
Chain[7] Chip[62] local Temp=62
Chain[7] Chip[62] middle Temp=72
Special fix Chain[7] Chip[62] middle Temp = 77
Done read temp on Chain[7]
set FAN speed according to: temp_highest=62 temp_top1[PWM_T]=62 temp_top1[TEMP_POS_LOCAL]=62 temp_change=0 fix_fan_steps=0
FAN PWM: 74
read_temp_func Done!
CRC error counter=0
submitted by Timsierramist to BitcoinMining [link] [comments]

Antminer S9 not hashing?

Good morning folks,
I have an Antminer S9 that has performed flawlessly. After I moved it to a better location, I noticed that it no longer seems to be working. The green light is flashing, but it doesn't seem to be hashing to my pool (Nicehash).
I'm fairly new to Bitcoining mining and can't make sense of some of the information on my status screen. Before I jump into Bitmain support, I was wondering if anyone could clue me in as to what the problem might be.
https://s15.postimg.cc/i0n5qsyoInked_Capture_LI.jpg
I'll post my Kernal Log here.
Thank you in advance!!!
KERNAL LOG: [ 0.000000] Booting Linux on physical CPU 0x0
[ 0.000000] Linux version 3.14.0-xilinx-ge8a2f71-dirty ([email protected]) (gcc version 4.8.3 20140320 (prerelease) (Sourcery CodeBench Lite 2014.05-23) ) #82 SMP PREEMPT Tue May 16 19:49:53 CST 2017
[ 0.000000] CPU: ARMv7 Processor [413fc090] revision 0 (ARMv7), cr=18c5387d
[ 0.000000] CPU: PIPT / VIPT nonaliasing data cache, VIPT aliasing instruction cache
[ 0.000000] Machine model: Xilinx Zynq
[ 0.000000] cma: CMA: reserved 128 MiB at 27800000
[ 0.000000] Memory policy: Data cache writealloc
[ 0.000000] On node 0 totalpages: 258048
[ 0.000000] free_area_init_node: node 0, pgdat c0740a40, node_mem_map e6fd8000
[ 0.000000] Normal zone: 1520 pages used for memmap
[ 0.000000] Normal zone: 0 pages reserved
[ 0.000000] Normal zone: 194560 pages, LIFO batch:31
[ 0.000000] HighMem zone: 496 pages used for memmap
[ 0.000000] HighMem zone: 63488 pages, LIFO batch:15
[ 0.000000] PERCPU: Embedded 8 pages/cpu @e6fc0000 s9088 r8192 d15488 u32768
[ 0.000000] pcpu-alloc: s9088 r8192 d15488 u32768 alloc=8*4096
[ 0.000000] pcpu-alloc: [0] 0 [0] 1
[ 0.000000] Built 1 zonelists in Zone order, mobility grouping on. Total pages: 256528
[ 0.000000] Kernel command line: noinitrd mem=1008M console=ttyPS0,115200 root=ubi0:rootfs ubi.mtd=1 rootfstype=ubifs rw rootwait
[ 0.000000] PID hash table entries: 4096 (order: 2, 16384 bytes)
[ 0.000000] Dentry cache hash table entries: 131072 (order: 7, 524288 bytes)
[ 0.000000] Inode-cache hash table entries: 65536 (order: 6, 262144 bytes)
[ 0.000000] Memory: 884148K/1032192K available (5032K kernel code, 283K rwdata, 1916K rodata, 204K init, 258K bss, 148044K reserved, 253952K highmem)
[ 0.000000] Virtual kernel memory layout:
[ 0.000000] vector : 0xffff0000 - 0xffff1000 ( 4 kB)
[ 0.000000] fixmap : 0xfff00000 - 0xfffe0000 ( 896 kB)
[ 0.000000] vmalloc : 0xf0000000 - 0xff000000 ( 240 MB)
[ 0.000000] lowmem : 0xc0000000 - 0xef800000 ( 760 MB)
[ 0.000000] pkmap : 0xbfe00000 - 0xc0000000 ( 2 MB)
[ 0.000000] modules : 0xbf000000 - 0xbfe00000 ( 14 MB)
[ 0.000000] .text : 0xc0008000 - 0xc06d1374 (6949 kB)
[ 0.000000] .init : 0xc06d2000 - 0xc0705380 ( 205 kB)
[ 0.000000] .data : 0xc0706000 - 0xc074cf78 ( 284 kB)
[ 0.000000] .bss : 0xc074cf84 - 0xc078d9fc ( 259 kB)
[ 0.000000] Preemptible hierarchical RCU implementation.
[ 0.000000] Dump stacks of tasks blocking RCU-preempt GP.
[ 0.000000] RCU restricting CPUs from NR_CPUS=4 to nr_cpu_ids=2.
[ 0.000000] RCU: Adjusting geometry for rcu_fanout_leaf=16, nr_cpu_ids=2
[ 0.000000] NR_IRQS:16 nr_irqs:16 16
[ 0.000000] ps7-slcr mapped to f0004000
[ 0.000000] zynq_clock_init: clkc starts at f0004100
[ 0.000000] Zynq clock init
[ 0.000015] sched_clock: 64 bits at 333MHz, resolution 3ns, wraps every 3298534883328ns
[ 0.000308] ps7-ttc #0 at f0006000, irq=43
[ 0.000618] Console: colour dummy device 80x30
[ 0.000658] Calibrating delay loop... 1325.46 BogoMIPS (lpj=6627328)
[ 0.040207] pid_max: default: 32768 minimum: 301
[ 0.040436] Mount-cache hash table entries: 2048 (order: 1, 8192 bytes)
[ 0.040459] Mountpoint-cache hash table entries: 2048 (order: 1, 8192 bytes)
[ 0.042612] CPU: Testing write buffer coherency: ok
[ 0.042974] CPU0: thread -1, cpu 0, socket 0, mpidr 80000000
[ 0.043036] Setting up static identity map for 0x4c4b00 - 0x4c4b58
[ 0.043263] L310 cache controller enabled
[ 0.043282] l2x0: 8 ways, CACHE_ID 0x410000c8, AUX_CTRL 0x72760000, Cache size: 512 kB
[ 0.121037] CPU1: Booted secondary processor
[ 0.210227] CPU1: thread -1, cpu 1, socket 0, mpidr 80000001
[ 0.210357] Brought up 2 CPUs
[ 0.210376] SMP: Total of 2 processors activated.
[ 0.210385] CPU: All CPU(s) started in SVC mode.
[ 0.211051] devtmpfs: initialized
[ 0.213481] VFP support v0.3: implementor 41 architecture 3 part 30 variant 9 rev 4
[ 0.214724] regulator-dummy: no parameters
[ 0.223736] NET: Registered protocol family 16
[ 0.226067] DMA: preallocated 256 KiB pool for atomic coherent allocations
[ 0.228361] cpuidle: using governor ladder
[ 0.228374] cpuidle: using governor menu
[ 0.235908] syscon f8000000.ps7-slcr: regmap [mem 0xf8000000-0xf8000fff] registered
[ 0.237440] hw-breakpoint: found 5 (+1 reserved) breakpoint and 1 watchpoint registers.
[ 0.237453] hw-breakpoint: maximum watchpoint size is 4 bytes.
[ 0.237572] zynq-ocm f800c000.ps7-ocmc: ZYNQ OCM pool: 256 KiB @ 0xf0080000
[ 0.259435] bio: create slab at 0
[ 0.261172] vgaarb: loaded
[ 0.261915] SCSI subsystem initialized
[ 0.262814] usbcore: registered new interface driver usbfs
[ 0.262985] usbcore: registered new interface driver hub
[ 0.263217] usbcore: registered new device driver usb
[ 0.263743] media: Linux media interface: v0.10
[ 0.263902] Linux video capture interface: v2.00
[ 0.264150] pps_core: LinuxPPS API ver. 1 registered
[ 0.264162] pps_core: Software ver. 5.3.6 - Copyright 2005-2007 Rodolfo Giometti <[[email protected]](mailto:[email protected])>
[ 0.264286] PTP clock support registered
[ 0.264656] EDAC MC: Ver: 3.0.0
[ 0.265719] Advanced Linux Sound Architecture Driver Initialized.
[ 0.268708] DMA-API: preallocated 4096 debug entries
[ 0.268724] DMA-API: debugging enabled by kernel config
[ 0.268820] Switched to clocksource arm_global_timer
[ 0.289596] NET: Registered protocol family 2
[ 0.290280] TCP established hash table entries: 8192 (order: 3, 32768 bytes)
[ 0.290375] TCP bind hash table entries: 8192 (order: 4, 65536 bytes)
[ 0.290535] TCP: Hash tables configured (established 8192 bind 8192)
[ 0.290612] TCP: reno registered
[ 0.290633] UDP hash table entries: 512 (order: 2, 16384 bytes)
[ 0.290689] UDP-Lite hash table entries: 512 (order: 2, 16384 bytes)
[ 0.290971] NET: Registered protocol family 1
[ 0.291346] RPC: Registered named UNIX socket transport module.
[ 0.291359] RPC: Registered udp transport module.
[ 0.291368] RPC: Registered tcp transport module.
[ 0.291376] RPC: Registered tcp NFSv4.1 backchannel transport module.
[ 0.291391] PCI: CLS 0 bytes, default 64
[ 0.291857] hw perfevents: enabled with ARMv7 Cortex-A9 PMU driver, 7 counters available
[ 0.293945] futex hash table entries: 512 (order: 3, 32768 bytes)
[ 0.295408] bounce pool size: 64 pages
[ 0.296323] jffs2: version 2.2. (NAND) © 2001-2006 Red Hat, Inc.
[ 0.296525] msgmni has been set to 1486
[ 0.297330] io scheduler noop registered
[ 0.297343] io scheduler deadline registered
[ 0.297385] io scheduler cfq registered (default)
[ 0.308358] dma-pl330 f8003000.ps7-dma: Loaded driver for PL330 DMAC-2364208
[ 0.308380] dma-pl330 f8003000.ps7-dma: DBUFF-128x8bytes Num_Chans-8 Num_Peri-4 Num_Events-16
[ 0.434378] e0001000.serial: ttyPS0 at MMIO 0xe0001000 (irq = 82, base_baud = 3124999) is a xuartps
[ 1.006815] console [ttyPS0] enabled
[ 1.011106] xdevcfg f8007000.ps7-dev-cfg: ioremap 0xf8007000 to f0068000
[ 1.018731] [drm] Initialized drm 1.1.0 20060810
[ 1.036029] brd: module loaded
[ 1.045494] loop: module loaded
[ 1.055163] e1000e: Intel(R) PRO/1000 Network Driver - 2.3.2-k
[ 1.060985] e1000e: Copyright(c) 1999 - 2013 Intel Corporation.
[ 1.068779] libphy: XEMACPS mii bus: probed
[ 1.073341] ------------- phy_id = 0x3625e62
[ 1.078112] xemacps e000b000.ps7-ethernet: pdev->id -1, baseaddr 0xe000b000, irq 54
[ 1.087072] ehci_hcd: USB 2.0 'Enhanced' Host Controller (EHCI) Driver
[ 1.093912] ehci-pci: EHCI PCI platform driver
[ 1.101155] zynq-dr e0002000.ps7-usb: Unable to init USB phy, missing?
[ 1.107952] usbcore: registered new interface driver usb-storage
[ 1.114850] mousedev: PS/2 mouse device common for all mice
[ 1.120975] i2c /dev entries driver
[ 1.127946] zynq-edac f8006000.ps7-ddrc: ecc not enabled
[ 1.133474] cpufreq_cpu0: failed to get cpu0 regulator: -19
[ 1.139426] Xilinx Zynq CpuIdle Driver started
[ 1.144261] sdhci: Secure Digital Host Controller Interface driver
[ 1.150384] sdhci: Copyright(c) Pierre Ossman
[ 1.154700] sdhci-pltfm: SDHCI platform and OF driver helper
[ 1.161601] mmc0: no vqmmc regulator found
[ 1.165614] mmc0: no vmmc regulator found
[ 1.208845] mmc0: SDHCI controller on e0100000.ps7-sdio [e0100000.ps7-sdio] using ADMA
[ 1.217539] usbcore: registered new interface driver usbhid
[ 1.223054] usbhid: USB HID core driver
[ 1.227806] nand: device found, Manufacturer ID: 0x2c, Chip ID: 0xda
[ 1.234107] nand: Micron MT29F2G08ABAEAWP
[ 1.238074] nand: 256MiB, SLC, page size: 2048, OOB size: 64
[ 1.244027] Bad block table found at page 131008, version 0x01
[ 1.250251] Bad block table found at page 130944, version 0x01
[ 1.256303] 3 ofpart partitions found on MTD device pl353-nand
[ 1.262080] Creating 3 MTD partitions on "pl353-nand":
[ 1.267174] 0x000000000000-0x000002000000 : "BOOT.bin-env-dts-kernel"
[ 1.275230] 0x000002000000-0x00000b000000 : "angstram-rootfs"
[ 1.282582] 0x00000b000000-0x000010000000 : "upgrade-rootfs"
[ 1.291630] TCP: cubic registered
[ 1.294869] NET: Registered protocol family 17
[ 1.299597] Registering SWP/SWPB emulation handler
[ 1.305497] regulator-dummy: disabling
[ 1.309875] UBI: attaching mtd1 to ubi0
[ 1.836565] UBI: scanning is finished
[ 1.848221] UBI: attached mtd1 (name "angstram-rootfs", size 144 MiB) to ubi0
[ 1.855302] UBI: PEB size: 131072 bytes (128 KiB), LEB size: 126976 bytes
[ 1.862063] UBI: min./max. I/O unit sizes: 2048/2048, sub-page size 2048
[ 1.868728] UBI: VID header offset: 2048 (aligned 2048), data offset: 4096
[ 1.875605] UBI: good PEBs: 1152, bad PEBs: 0, corrupted PEBs: 0
[ 1.881586] UBI: user volume: 1, internal volumes: 1, max. volumes count: 128
[ 1.888693] UBI: max/mean erase counter: 4/1, WL threshold: 4096, image sequence number: 1134783803
[ 1.897736] UBI: available PEBs: 0, total reserved PEBs: 1152, PEBs reserved for bad PEB handling: 40
[ 1.906953] UBI: background thread "ubi_bgt0d" started, PID 1080
[ 1.906959] drivers/rtc/hctosys.c: unable to open rtc device (rtc0)
[ 1.911038] ALSA device list:
[ 1.911042] No soundcards found.
[ 1.927420] UBIFS: background thread "ubifs_bgt0_0" started, PID 1082
[ 1.956473] UBIFS: recovery needed
[ 2.016970] UBIFS: recovery completed
[ 2.020709] UBIFS: mounted UBI device 0, volume 0, name "rootfs"
[ 2.026635] UBIFS: LEB size: 126976 bytes (124 KiB), min./max. I/O unit sizes: 2048 bytes/2048 bytes
[ 2.035771] UBIFS: FS size: 128626688 bytes (122 MiB, 1013 LEBs), journal size 9023488 bytes (8 MiB, 72 LEBs)
[ 2.045653] UBIFS: reserved for root: 0 bytes (0 KiB)
[ 2.050693] UBIFS: media format: w4/r0 (latest is w4/r0), UUID B079DD56-06BB-4E31-8F5E-A6604F480DB2, small LPT model
[ 2.061987] VFS: Mounted root (ubifs filesystem) on device 0:11.
[ 2.069184] devtmpfs: mounted
[ 2.072297] Freeing unused kernel memory: 204K (c06d2000 - c0705000)
[ 2.920928] random: dd urandom read with 0 bits of entropy available
[ 3.318860]
[ 3.318860] bcm54xx_config_init
[ 3.928853]
[ 3.928853] bcm54xx_config_init
[ 7.929682] xemacps e000b000.ps7-ethernet: Set clk to 124999998 Hz
[ 7.935787] xemacps e000b000.ps7-ethernet: link up (1000/FULL)
[ 22.563181] In axi fpga driver!
[ 22.566260] request_mem_region OK!
[ 22.569676] AXI fpga dev virtual address is 0xf01fe000
[ 22.574751] *base_vir_addr = 0x8c510
[ 22.590723] In fpga mem driver!
[ 22.593791] request_mem_region OK!
[ 22.597361] fpga mem virtual address is 0xf3000000
[ 23.408156]
[ 23.408156] bcm54xx_config_init
[ 24.038071]
[ 24.038071] bcm54xx_config_init
[ 28.038487] xemacps e000b000.ps7-ethernet: Set clk to 124999998 Hz
[ 28.044593] xemacps e000b000.ps7-ethernet: link up (1000/FULL)
This is XILINX board. Totalram: 1039794176
Detect 1GB control board of XILINX
DETECT HW version=0008c510
miner ID : 8118b4c610358854
Miner Type = S9
AsicType = 1387
real AsicNum = 63
use critical mode to search freq...
get PLUG ON=0x000000e0
Find hashboard on Chain[5]
Find hashboard on Chain[6]
Find hashboard on Chain[7]
set_reset_allhashboard = 0x0000ffff
Check chain[5] PIC fw version=0x03
Check chain[6] PIC fw version=0x03
Check chain[7] PIC fw version=0x03
chain[5]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[5] has freq in PIC and will jump over...
Chain[5] has core num in PIC
Chain[5] ASIC[15] has core num=5
Check chain[5] PIC fw version=0x03
chain[6]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[6] has freq in PIC and will jump over...
Chain[6] has core num in PIC
Chain[6] ASIC[17] has core num=8
Check chain[6] PIC fw version=0x03
chain[7]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
has freq in PIC, will disable freq setting.
chain[7] has freq in PIC and will jump over...
Chain[7] has core num in PIC
Chain[7] ASIC[8] has core num=13
Chain[7] ASIC[9] has core num=11
Chain[7] ASIC[13] has core num=11
Chain[7] ASIC[19] has core num=14
Chain[7] ASIC[30] has core num=6
Chain[7] ASIC[32] has core num=1
Chain[7] ASIC[42] has core num=2
Chain[7] ASIC[55] has core num=1
Chain[7] ASIC[57] has core num=2
Check chain[7] PIC fw version=0x03
get PIC voltage=108 on chain[5], value=880
get PIC voltage=74 on chain[6], value=900
get PIC voltage=108 on chain[7], value=880
set_reset_allhashboard = 0x00000000
chain[5] temp offset record: 62,0,0,0,0,0,35,28
chain[5] temp chip I2C addr=0x98
chain[5] has no middle temp, use special fix mode.
chain[6] temp offset record: 62,0,0,0,0,0,35,28
chain[6] temp chip I2C addr=0x98
chain[6] has no middle temp, use special fix mode.
chain[7] temp offset record: 62,0,0,0,0,0,35,28
chain[7] temp chip I2C addr=0x98
chain[7] has no middle temp, use special fix mode.
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
CRC error counter=0
set command mode to VIL
--- check asic number
After Get ASIC NUM CRC error counter=0
set_baud=0
The min freq=700
set real timeout 52, need sleep=379392
After TEST CRC error counter=0
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
search freq for 1 times, completed chain = 3, total chain num = 3
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
restart Miner chance num=2
waiting for receive_func to exit!
waiting for pic heart to exit!
bmminer not found= 1643 root 0:00 grep bmminer
bmminer not found, restart bmminer ...
This is user mode for mining
Detect 1GB control board of XILINX
Miner Type = S9
Miner compile time: Fri Nov 17 17:57:49 CST 2017 type: Antminer S9set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
set_reset_allhashboard = 0x0000ffff
miner ID : 8118b4c610358854
set_reset_allhashboard = 0x0000ffff
Checking fans!get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[2] speed=6120
get fan[5] speed=13440
get fan[2] speed=6120
get fan[5] speed=13440
get fan[2] speed=6120
get fan[5] speed=13440
chain[5]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J6] has backup chain_voltage=880
Chain[J6] test patten OK temp=-126
Check chain[5] PIC fw version=0x03
chain[6]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J7] has backup chain_voltage=900
Chain[J7] test patten OK temp=-120
Check chain[6] PIC fw version=0x03
chain[7]: [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255] [63:255]
Chain[J8] has backup chain_voltage=880
Chain[J8] test patten OK temp=-125
Check chain[7] PIC fw version=0x03
Chain[J6] orignal chain_voltage_pic=108 value=880
Chain[J7] orignal chain_voltage_pic=74 value=900
Chain[J8] orignal chain_voltage_pic=108 value=880
set_reset_allhashboard = 0x0000ffff
set_reset_allhashboard = 0x00000000
Chain[J6] has 63 asic
Chain[J7] has 63 asic
Chain[J8] has 63 asic
Chain[J6] has core num in PIC
Chain[J6] ASIC[15] has core num=5
Chain[J7] has core num in PIC
Chain[J7] ASIC[17] has core num=8
Chain[J8] has core num in PIC
Chain[J8] ASIC[8] has core num=13
Chain[J8] ASIC[9] has core num=11
Chain[J8] ASIC[13] has core num=11
Chain[J8] ASIC[19] has core num=14
Chain[J8] ASIC[30] has core num=6
Chain[J8] ASIC[32] has core num=1
Chain[J8] ASIC[42] has core num=2
Chain[J8] ASIC[55] has core num=1
Chain[J8] ASIC[57] has core num=2
miner total rate=13999GH/s fixed rate=13500GH/s
read PIC voltage=940 on chain[5]
Chain:5 chipnum=63
Chain[J6] voltage added=0.2V
Chain:5 temp offset=0
Chain:5 base freq=487
Asic[ 0]:618
Asic[ 1]:631 Asic[ 2]:681 Asic[ 3]:618 Asic[ 4]:631 Asic[ 5]:681 Asic[ 6]:618 Asic[ 7]:631 Asic[ 8]:675
Asic[ 9]:618 Asic[10]:631 Asic[11]:681 Asic[12]:631 Asic[13]:637 Asic[14]:606 Asic[15]:487 Asic[16]:637
Asic[17]:675 Asic[18]:618 Asic[19]:637 Asic[20]:675 Asic[21]:631 Asic[22]:650 Asic[23]:687 Asic[24]:631
Asic[25]:537 Asic[26]:687 Asic[27]:631 Asic[28]:587 Asic[29]:687 Asic[30]:612 Asic[31]:650 Asic[32]:687
Asic[33]:631 Asic[34]:650 Asic[35]:687 Asic[36]:631 Asic[37]:662 Asic[38]:693 Asic[39]:631 Asic[40]:662
Asic[41]:662 Asic[42]:543 Asic[43]:668 Asic[44]:693 Asic[45]:568 Asic[46]:675 Asic[47]:700 Asic[48]:631
Asic[49]:568 Asic[50]:700 Asic[51]:631 Asic[52]:625 Asic[53]:700 Asic[54]:631 Asic[55]:675 Asic[56]:662
Asic[57]:631 Asic[58]:662 Asic[59]:687 Asic[60]:631 Asic[61]:681 Asic[62]:700
Chain:5 max freq=700
Chain:5 min freq=487
read PIC voltage=940 on chain[6]
Chain:6 chipnum=63
Chain[J7] voltage added=0.1V
Chain:6 temp offset=0
Chain:6 base freq=687
Asic[ 0]:650
Asic[ 1]:650 Asic[ 2]:650 Asic[ 3]:650 Asic[ 4]:650 Asic[ 5]:650 Asic[ 6]:650 Asic[ 7]:650 Asic[ 8]:650
Asic[ 9]:650 Asic[10]:650 Asic[11]:650 Asic[12]:650 Asic[13]:650 Asic[14]:650 Asic[15]:650 Asic[16]:650
Asic[17]:650 Asic[18]:650 Asic[19]:650 Asic[20]:650 Asic[21]:650 Asic[22]:650 Asic[23]:650 Asic[24]:650
Asic[25]:650 Asic[26]:656 Asic[27]:656 Asic[28]:656 Asic[29]:656 Asic[30]:656 Asic[31]:656 Asic[32]:656
Asic[33]:656 Asic[34]:656 Asic[35]:656 Asic[36]:656 Asic[37]:656 Asic[38]:656 Asic[39]:656 Asic[40]:656
Asic[41]:656 Asic[42]:656 Asic[43]:656 Asic[44]:656 Asic[45]:656 Asic[46]:656 Asic[47]:656 Asic[48]:656
Asic[49]:656 Asic[50]:656 Asic[51]:656 Asic[52]:656 Asic[53]:656 Asic[54]:656 Asic[55]:656 Asic[56]:656
Asic[57]:656 Asic[58]:656 Asic[59]:656 Asic[60]:656 Asic[61]:656 Asic[62]:656
Chain:6 max freq=656
Chain:6 min freq=650
read PIC voltage=940 on chain[7]
Chain:7 chipnum=63
Chain[J8] voltage added=0.2V
Chain:7 temp offset=0
Chain:7 base freq=637
Asic[ 0]:656
Asic[ 1]:656 Asic[ 2]:656 Asic[ 3]:656 Asic[ 4]:656 Asic[ 5]:656 Asic[ 6]:656 Asic[ 7]:656 Asic[ 8]:637
Asic[ 9]:637 Asic[10]:656 Asic[11]:656 Asic[12]:656 Asic[13]:637 Asic[14]:656 Asic[15]:662 Asic[16]:662
Asic[17]:662 Asic[18]:662 Asic[19]:637 Asic[20]:662 Asic[21]:662 Asic[22]:662 Asic[23]:662 Asic[24]:662
Asic[25]:662 Asic[26]:662 Asic[27]:662 Asic[28]:662 Asic[29]:662 Asic[30]:637 Asic[31]:662 Asic[32]:662
Asic[33]:662 Asic[34]:662 Asic[35]:662 Asic[36]:662 Asic[37]:662 Asic[38]:662 Asic[39]:662 Asic[40]:662
Asic[41]:662 Asic[42]:650 Asic[43]:662 Asic[44]:662 Asic[45]:662 Asic[46]:662 Asic[47]:662 Asic[48]:662
Asic[49]:662 Asic[50]:662 Asic[51]:662 Asic[52]:662 Asic[53]:662 Asic[54]:662 Asic[55]:650 Asic[56]:662
Asic[57]:650 Asic[58]:662 Asic[59]:662 Asic[60]:662 Asic[61]:662 Asic[62]:662
Chain:7 max freq=662
Chain:7 min freq=637
Miner fix freq ...
read PIC voltage=940 on chain[5]
Chain:5 chipnum=63
Chain[J6] voltage added=0.2V
Chain:5 temp offset=0
Chain:5 base freq=487
Asic[ 0]:618
Asic[ 1]:631 Asic[ 2]:650 Asic[ 3]:618 Asic[ 4]:631 Asic[ 5]:656 Asic[ 6]:618 Asic[ 7]:631 Asic[ 8]:656
Asic[ 9]:618 Asic[10]:631 Asic[11]:656 Asic[12]:631 Asic[13]:637 Asic[14]:606 Asic[15]:487 Asic[16]:637
Asic[17]:656 Asic[18]:618 Asic[19]:637 Asic[20]:656 Asic[21]:631 Asic[22]:650 Asic[23]:656 Asic[24]:631
Asic[25]:537 Asic[26]:656 Asic[27]:631 Asic[28]:587 Asic[29]:656 Asic[30]:612 Asic[31]:650 Asic[32]:656
Asic[33]:631 Asic[34]:650 Asic[35]:656 Asic[36]:631 Asic[37]:656 Asic[38]:656 Asic[39]:631 Asic[40]:656
Asic[41]:656 Asic[42]:543 Asic[43]:656 Asic[44]:656 Asic[45]:568 Asic[46]:656 Asic[47]:656 Asic[48]:631
Asic[49]:568 Asic[50]:656 Asic[51]:631 Asic[52]:625 Asic[53]:656 Asic[54]:631 Asic[55]:656 Asic[56]:656
Asic[57]:631 Asic[58]:656 Asic[59]:656 Asic[60]:631 Asic[61]:656 Asic[62]:656
Chain:5 max freq=656
Chain:5 min freq=487
read PIC voltage=940 on chain[6]
Chain:6 chipnum=63
Chain[J7] voltage added=0.1V
Chain:6 temp offset=0
Chain:6 base freq=687
Asic[ 0]:631
Asic[ 1]:631 Asic[ 2]:631 Asic[ 3]:631 Asic[ 4]:631 Asic[ 5]:631 Asic[ 6]:631 Asic[ 7]:631 Asic[ 8]:631
Asic[ 9]:631 Asic[10]:631 Asic[11]:631 Asic[12]:631 Asic[13]:631 Asic[14]:631 Asic[15]:631 Asic[16]:631
Asic[17]:631 Asic[18]:631 Asic[19]:631 Asic[20]:631 Asic[21]:631 Asic[22]:631 Asic[23]:631 Asic[24]:631
Asic[25]:631 Asic[26]:631 Asic[27]:631 Asic[28]:631 Asic[29]:631 Asic[30]:631 Asic[31]:631 Asic[32]:631
Asic[33]:631 Asic[34]:631 Asic[35]:637 Asic[36]:637 Asic[37]:637 Asic[38]:637 Asic[39]:637 Asic[40]:637
Asic[41]:637 Asic[42]:637 Asic[43]:637 Asic[44]:637 Asic[45]:637 Asic[46]:637 Asic[47]:637 Asic[48]:637
Asic[49]:637 Asic[50]:637 Asic[51]:637 Asic[52]:637 Asic[53]:637 Asic[54]:637 Asic[55]:637 Asic[56]:637
Asic[57]:637 Asic[58]:637 Asic[59]:637 Asic[60]:637 Asic[61]:637 Asic[62]:637
Chain:6 max freq=637
Chain:6 min freq=631
read PIC voltage=940 on chain[7]
Chain:7 chipnum=63
Chain[J8] voltage added=0.2V
Chain:7 temp offset=0
Chain:7 base freq=637
Asic[ 0]:637
Asic[ 1]:637 Asic[ 2]:637 Asic[ 3]:637 Asic[ 4]:637 Asic[ 5]:637 Asic[ 6]:637 Asic[ 7]:637 Asic[ 8]:637
Asic[ 9]:637 Asic[10]:637 Asic[11]:637 Asic[12]:637 Asic[13]:637 Asic[14]:637 Asic[15]:637 Asic[16]:637
Asic[17]:637 Asic[18]:637 Asic[19]:637 Asic[20]:637 Asic[21]:637 Asic[22]:637 Asic[23]:637 Asic[24]:637
Asic[25]:637 Asic[26]:637 Asic[27]:637 Asic[28]:637 Asic[29]:637 Asic[30]:637 Asic[31]:637 Asic[32]:637
Asic[33]:637 Asic[34]:637 Asic[35]:637 Asic[36]:637 Asic[37]:637 Asic[38]:637 Asic[39]:637 Asic[40]:637
Asic[41]:637 Asic[42]:637 Asic[43]:637 Asic[44]:637 Asic[45]:637 Asic[46]:637 Asic[47]:637 Asic[48]:637
Asic[49]:643 Asic[50]:643 Asic[51]:643 Asic[52]:643 Asic[53]:643 Asic[54]:643 Asic[55]:643 Asic[56]:643
Asic[57]:643 Asic[58]:643 Asic[59]:643 Asic[60]:643 Asic[61]:643 Asic[62]:643
Chain:7 max freq=643
Chain:7 min freq=637
max freq = 656
set baud=1
Chain[J6] PIC temp offset=62,0,0,0,0,0,35,28
chain[5] temp chip I2C addr=0x98
chain[5] has no middle temp, use special fix mode.
Chain[J6] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[5] chip[244] local:26 remote:27 offset:29
Chain[J6] chip[244] get middle temp offset=29 typeID=55
Chain[J7] PIC temp offset=62,0,0,0,0,0,35,28
chain[6] temp chip I2C addr=0x98
chain[6] has no middle temp, use special fix mode.
Chain[J7] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[6] chip[244] local:26 remote:27 offset:29
Chain[J7] chip[244] get middle temp offset=29 typeID=55
Chain[J8] PIC temp offset=62,0,0,0,0,0,35,28
chain[7] temp chip I2C addr=0x98
chain[7] has no middle temp, use special fix mode.
Chain[J8] chip[244] use PIC middle temp offset=0 typeID=55
New offset Chain[7] chip[244] local:26 remote:28 offset:28
Chain[J8] chip[244] get middle temp offset=28 typeID=55
miner rate=13501 voltage limit=900 on chain[5]
get PIC voltage=880 on chain[5], check: must be < 900
miner rate=13501 voltage limit=900 on chain[6]
get PIC voltage=900 on chain[6], check: must be < 900
miner rate=13501 voltage limit=900 on chain[7]
get PIC voltage=880 on chain[7], check: must be < 900
Chain[J6] set working voltage=880 [108]
Chain[J7] set working voltage=900 [74]
Chain[J8] set working voltage=880 [108]
do heat board 8xPatten for 1 times
start send works on chain[5]
start send works on chain[6]
start send works on chain[7]
get send work num :57456 on Chain[5]
get send work num :57456 on Chain[6]
get send work num :57456 on Chain[7]
wait recv nonce on chain[5]
wait recv nonce on chain[6]
wait recv nonce on chain[7]
get nonces on chain[5]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=912 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=912 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=912
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
freq[00]=618 freq[01]=631 freq[02]=650 freq[03]=618 freq[04]=631 freq[05]=656 freq[06]=618 freq[07]=631
freq[08]=656 freq[09]=618 freq[10]=631 freq[11]=656 freq[12]=631 freq[13]=637 freq[14]=606 freq[15]=487
freq[16]=637 freq[17]=656 freq[18]=618 freq[19]=637 freq[20]=656 freq[21]=631 freq[22]=650 freq[23]=656
freq[24]=631 freq[25]=537 freq[26]=656 freq[27]=631 freq[28]=587 freq[29]=656 freq[30]=612 freq[31]=650
freq[32]=656 freq[33]=631 freq[34]=650 freq[35]=656 freq[36]=631 freq[37]=656 freq[38]=656 freq[39]=631
freq[40]=656 freq[41]=656 freq[42]=543 freq[43]=656 freq[44]=656 freq[45]=568 freq[46]=656 freq[47]=656
freq[48]=631 freq[49]=568 freq[50]=656 freq[51]=631 freq[52]=625 freq[53]=656 freq[54]=631 freq[55]=656
freq[56]=656 freq[57]=631 freq[58]=656 freq[59]=656 freq[60]=631 freq[61]=656 freq[62]=656
total valid nonce number:57456
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:25912
last_nonce_num:14370
get nonces on chain[6]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=912 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=912 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=912
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
freq[00]=631 freq[01]=631 freq[02]=631 freq[03]=631 freq[04]=631 freq[05]=631 freq[06]=631 freq[07]=631
freq[08]=631 freq[09]=631 freq[10]=631 freq[11]=631 freq[12]=631 freq[13]=631 freq[14]=631 freq[15]=631
freq[16]=631 freq[17]=631 freq[18]=631 freq[19]=631 freq[20]=631 freq[21]=631 freq[22]=631 freq[23]=631
freq[24]=631 freq[25]=631 freq[26]=631 freq[27]=631 freq[28]=631 freq[29]=631 freq[30]=631 freq[31]=631
freq[32]=631 freq[33]=631 freq[34]=631 freq[35]=637 freq[36]=637 freq[37]=637 freq[38]=637 freq[39]=637
freq[40]=637 freq[41]=637 freq[42]=637 freq[43]=637 freq[44]=637 freq[45]=637 freq[46]=637 freq[47]=637
freq[48]=637 freq[49]=637 freq[50]=637 freq[51]=637 freq[52]=637 freq[53]=637 freq[54]=637 freq[55]=637
freq[56]=637 freq[57]=637 freq[58]=637 freq[59]=637 freq[60]=637 freq[61]=637 freq[62]=637
total valid nonce number:57456
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:25987
last_nonce_num:14368
get nonces on chain[7]
require nonce number:912
require validnonce number:57456
asic[00]=912 asic[01]=912 asic[02]=912 asic[03]=912 asic[04]=912 asic[05]=912 asic[06]=912 asic[07]=912
asic[08]=907 asic[09]=912 asic[10]=912 asic[11]=912 asic[12]=912 asic[13]=912 asic[14]=912 asic[15]=912
asic[16]=912 asic[17]=912 asic[18]=912 asic[19]=909 asic[20]=912 asic[21]=912 asic[22]=912 asic[23]=912
asic[24]=912 asic[25]=912 asic[26]=912 asic[27]=912 asic[28]=912 asic[29]=912 asic[30]=912 asic[31]=912
asic[32]=912 asic[33]=912 asic[34]=912 asic[35]=912 asic[36]=912 asic[37]=912 asic[38]=912 asic[39]=912
asic[40]=912 asic[41]=912 asic[42]=912 asic[43]=912 asic[44]=912 asic[45]=912 asic[46]=912 asic[47]=912
asic[48]=912 asic[49]=912 asic[50]=912 asic[51]=912 asic[52]=912 asic[53]=912 asic[54]=912 asic[55]=911
asic[56]=912 asic[57]=912 asic[58]=912 asic[59]=912 asic[60]=912 asic[61]=912 asic[62]=912
Below ASIC's core didn't receive all the nonce, they should receive 8 nonce each!
asic[08]=907
core[049]=7 core[053]=5 core[056]=7
asic[19]=909
core[064]=7 core[112]=6
asic[55]=911
core[007]=7
freq[00]=637 freq[01]=637 freq[02]=637 freq[03]=637 freq[04]=637 freq[05]=637 freq[06]=637 freq[07]=637
freq[08]=637 freq[09]=637 freq[10]=637 freq[11]=637 freq[12]=637 freq[13]=637 freq[14]=637 freq[15]=637
freq[16]=637 freq[17]=637 freq[18]=637 freq[19]=637 freq[20]=637 freq[21]=637 freq[22]=637 freq[23]=637
freq[24]=637 freq[25]=637 freq[26]=637 freq[27]=637 freq[28]=637 freq[29]=637 freq[30]=637 freq[31]=637
freq[32]=637 freq[33]=637 freq[34]=637 freq[35]=637 freq[36]=637 freq[37]=637 freq[38]=637 freq[39]=637
freq[40]=637 freq[41]=637 freq[42]=637 freq[43]=637 freq[44]=637 freq[45]=637 freq[46]=637 freq[47]=637
freq[48]=637 freq[49]=643 freq[50]=643 freq[51]=643 freq[52]=643 freq[53]=643 freq[54]=643 freq[55]=643
freq[56]=643 freq[57]=643 freq[58]=643 freq[59]=643 freq[60]=643 freq[61]=643 freq[62]=643
total valid nonce number:57447
total send work number:57456
require valid nonce number:57456
repeated_nonce_num:0
err_nonce_num:26183
last_nonce_num:35748
chain[5]: All chip cores are opened OK!
Test Patten on chain[5]: OK!
chain[6]: All chip cores are opened OK!
Test Patten on chain[6]: OK!
chain[7]: All chip cores are opened OK!
Test Patten on chain[7]: OK!
setStartTimePoint total_tv_start_sys=217 total_tv_end_sys=218
restartNum = 2 , auto-reinit enabled...
do read_temp_func once...
do check_asic_reg 0x08
get RT hashrate from Chain[5]: (asic index start from 1-63)
Asic[01]=72.5110 Asic[02]=68.6020 Asic[03]=74.4230 Asic[04]=74.6750 Asic[05]=71.4540 Asic[06]=77.5610 Asic[07]=74.7760 Asic[08]=74.3900
Asic[09]=77.7790 Asic[10]=76.7220 Asic[11]=73.8020 Asic[12]=68.5850 Asic[13]=76.1680 Asic[14]=72.4770 Asic[15]=73.0470 Asic[16]=57.8810
Asic[17]=74.4740 Asic[18]=76.4530 Asic[19]=67.8800 Asic[20]=70.1280 Asic[21]=73.7520 Asic[22]=74.6580 Asic[23]=73.6850 Asic[24]=78.5170
Asic[25]=73.6850 Asic[26]=63.6860 Asic[27]=80.9660 Asic[28]=73.9200 Asic[29]=68.9870 Asic[30]=75.6310 Asic[31]=74.9770 Asic[32]=69.4570
Asic[33]=74.6580 Asic[34]=79.8930 Asic[35]=76.6710 Asic[36]=74.3730 Asic[37]=66.6050 Asic[38]=76.7380 Asic[39]=71.4540 Asic[40]=69.3060
Asic[41]=72.5610 Asic[42]=73.8530 Asic[43]=58.9210 Asic[44]=75.3800 Asic[45]=73.1310 Asic[46]=68.4000 Asic[47]=77.6780 Asic[48]=73.1150
Asic[49]=69.2890 Asic[50]=62.8130 Asic[51]=74.2720 Asic[52]=73.1480 Asic[53]=67.4440 Asic[54]=72.4940 Asic[55]=68.1990 Asic[56]=72.4100
Asic[57]=75.3460 Asic[58]=66.1350 Asic[59]=72.9800 Asic[60]=78.1480 Asic[61]=72.3260 Asic[62]=72.5610 Asic[63]=77.7950
get RT hashrate from Chain[6]: (asic index start from 1-63)
Asic[01]=67.6620 Asic[02]=75.9840 Asic[03]=70.3300 Asic[04]=75.5640 Asic[05]=62.8470 Asic[06]=70.2790 Asic[07]=74.5240 Asic[08]=72.9130
Asic[09]=70.6320 Asic[10]=72.5610 Asic[11]=73.9370 Asic[12]=77.3420 Asic[13]=72.4440 Asic[14]=68.8030 Asic[15]=73.0810 Asic[16]=73.8360
Asic[17]=73.5510 Asic[18]=73.9700 Asic[19]=71.0340 Asic[20]=71.1680 Asic[21]=72.1580 Asic[22]=78.8190 Asic[23]=71.9230 Asic[24]=69.4570
Asic[25]=67.7630 Asic[26]=71.7220 Asic[27]=76.4030 Asic[28]=71.1180 Asic[29]=68.7360 Asic[30]=69.7090 Asic[31]=77.5610 Asic[32]=70.1790
Asic[33]=67.9140 Asic[34]=72.3930 Asic[35]=64.5920 Asic[36]=72.1920 Asic[37]=74.6080 Asic[38]=75.4470 Asic[39]=73.8700 Asic[40]=73.9370
Asic[41]=66.2860 Asic[42]=79.4230 Asic[43]=75.8160 Asic[44]=68.6350 Asic[45]=74.7920 Asic[46]=70.7990 Asic[47]=71.2360 Asic[48]=73.8700
Asic[49]=66.5380 Asic[50]=70.6150 Asic[51]=72.6280 Asic[52]=75.7490 Asic[53]=71.8400 Asic[54]=76.5370 Asic[55]=73.5340 Asic[56]=69.2390
Asic[57]=75.1280 Asic[58]=74.3230 Asic[59]=73.4330 Asic[60]=72.3430 Asic[61]=77.6780 Asic[62]=82.4600 Asic[63]=69.5240
get RT hashrate from Chain[7]: (asic index start from 1-63)
Asic[01]=73.5510 Asic[02]=75.9160 Asic[03]=80.1110 Asic[04]=76.9900 Asic[05]=76.1510 Asic[06]=73.5170 Asic[07]=74.9940 Asic[08]=73.1150
Asic[09]=70.6650 Asic[10]=70.6990 Asic[11]=72.4770 Asic[12]=70.1450 Asic[13]=74.3060 Asic[14]=71.8060 Asic[15]=74.7420 Asic[16]=75.6650
Asic[17]=76.8220 Asic[18]=69.5240 Asic[19]=72.0910 Asic[20]=75.2620 Asic[21]=72.0240 Asic[22]=73.2660 Asic[23]=76.2690 Asic[24]=69.9440
Asic[25]=67.7290 Asic[26]=71.7050 Asic[27]=74.6250 Asic[28]=78.2320 Asic[29]=69.8430 Asic[30]=68.4670 Asic[31]=71.5210 Asic[32]=68.9540
Asic[33]=74.6250 Asic[34]=71.8730 Asic[35]=74.4400 Asic[36]=74.8760 Asic[37]=73.9030 Asic[38]=72.9300 Asic[39]=69.6250 Asic[40]=74.9430
Asic[41]=72.7620 Asic[42]=69.4910 Asic[43]=67.4270 Asic[44]=71.4870 Asic[45]=74.4570 Asic[46]=66.6550 Asic[47]=67.5450 Asic[48]=75.4800
Asic[49]=72.2590 Asic[50]=72.9300 Asic[51]=75.6820 Asic[52]=71.9070 Asic[53]=67.9640 Asic[54]=67.8470 Asic[55]=74.3900 Asic[56]=71.0010
Asic[57]=75.8490 Asic[58]=74.9270 Asic[59]=72.3930 Asic[60]=74.3730 Asic[61]=75.5310 Asic[62]=73.8190 Asic[63]=72.4440
Check Chain[J6] ASIC RT error: (asic index start from 1-63)
Check Chain[J7] ASIC RT error: (asic index start from 1-63)
Check Chain[J8] ASIC RT error: (asic index start from 1-63)
Done check_asic_reg
do read temp on Chain[5]
Chain[5] Chip[62] TempTypeID=55 middle offset=29
Chain[5] Chip[62] local Temp=60
Chain[5] Chip[62] middle Temp=70
Special fix Chain[5] Chip[62] middle Temp = 75
Done read temp on Chain[5]
do read temp on Chain[6]
Chain[6] Chip[62] TempTypeID=55 middle offset=29
Chain[6] Chip[62] local Temp=60
Chain[6] Chip[62] middle Temp=72
Special fix Chain[6] Chip[62] middle Temp = 75
Done read temp on Chain[6]
do read temp on Chain[7]
Chain[7] Chip[62] TempTypeID=55 middle offset=28
Chain[7] Chip[62] local Temp=62
Chain[7] Chip[62] middle Temp=72
Special fix Chain[7] Chip[62] middle Temp = 77
Done read temp on Chain[7]
set FAN speed according to: temp_highest=62 temp_top1[PWM_T]=62 temp_top1[TEMP_POS_LOCAL]=62 temp_change=0 fix_fan_steps=0
FAN PWM: 74
read_temp_func Done!
CRC error counter=0
submitted by Timsierramist to BITMAIN [link] [comments]

Cybtc Review: Bitmain Antminer S15-28TH/s

Cybtc Review: Bitmain Antminer S15-28TH/s
Bitmain is a technology company specializing in high-speed, low-power custom chip design and development, successfully designed and produced a variety of ASIC custom chips and integrated systems. Bitmain was founded in 2013. In the same year, it launched the first generation bitcoin mining machine of the ant mining machine series - Antminer S1. After more than five years of development, the antminer series bitcoin mining machine passed S1, S2, S3, S4 Iterations of multiple models of S5, S7 and S9, the latest bitcoin mining models are S15 and T15, which will be sold on November 8, 2018.

The Antminer S15 adopts a new 7nm chip process. The official evaluation of the S15 is durable, energy saving. Emphasizing the characteristics of "high performance, more durable, and more power saving". From the officially announced parameters, the Antminer S15 is built in. Standard and low-power mining modes. The officially announced parameters have a unit-to-power ratio of 57J/T in standard mode, and the unit-to-power ratio of low-power mode has reached 50J/T. Compared to the products in the current market, in terms of Bitcoin miners, this unit power consumption ratio has set a new record.

Antminer S15 official parameters,

https://preview.redd.it/9fgwfaqp6bd21.jpg?width=1015&format=pjpg&auto=webp&s=8239da7bcece1abb80f1fb56708e02fa111a150b

Recently, the Antminer S15 has sent to Cybtc for testing. Please see the third-party independent review by us.

I. Unpacking:

Because the Antminer S15 adopts a new all-in-one and parallel fan design, the packaging box has changed from the previous generations. The previous cuboid has changed into a square-like style. The packaging material is still packaged in an industrial carton, and the box is marked manufacturer information, logistics warehousing logo, mining machine specification model and strip identification code, outer box size: 486*388*265, weight about 8.7kg.

The interior of the two pieces of styrofoam is firmly packed in the box from the upper and lower sides to ensure the safety of the mining machine during transportation. There is also a gap around the pearl foam for easy access.

Take out the styrofoam on one side to see the main body of the mining machine. The mining machine is wrapped by an anti-electrostatic bag. Compared with the box, the mining machine looks very small and only takes up about half of the box space.

The Antminer S15 changed the style of single-tube with double cooling fans as S1-S9 models, and became a dual-fan parallel single-side air intake and adopted the integrated machine design of the mining machine + power supply. The whole machine size is 279*175*221mm, weight 7.13 kg.

https://preview.redd.it/k0xp89yy6bd21.jpg?width=640&format=pjpg&auto=webp&s=5504d958a4cc6fdb1c01783b777e60483ea7ef9a

The Antminer S15 is small and neat, the air inlet side and the mining machine interface side are on the same side, the fan is removed from the air outlet side, and a honeycomb-shaped baffle is used.

https://preview.redd.it/ex187jf27bd21.jpg?width=640&format=pjpg&auto=webp&s=e8210c514e186dae075d9b986f7682a49141aa6a

The advantage of the all-in-one design is that the wire connection is reduced. The appearance of the mining machine is more compact, and the use and operation and maintenance are more convenient. The connection between the Antminer S15 mining machine and the power supply uses a clip-connected design, and the controller and the power board are still connected by flat signal cable.

https://preview.redd.it/85cz4u4c7bd21.jpg?width=640&format=pjpg&auto=webp&s=ab87c2f4c2943f0e9eb3dbbe2576f9d043add399

The nameplate of the mining machine body is marked with the model number, hash rate, and identification bar code. If the bottom part can increase the anti-slip mat, it is better to strengthen the stability of the mining machine when it is placed horizontally. The mining machine supports the erect and horizontal two ways. On the rack, the miner can choose the placement method according to the size of the mine rack.

https://preview.redd.it/wxavyize7bd21.jpg?width=640&format=pjpg&auto=webp&s=5ab2335eabb3b13731284f89805abcb131bfbda4

II. Antminer S15 installation:

The design of the Antminer S15 all-in-one machine reduces the link of the power line of the plugging and unloading machine. As long as it is placed in the rack, plug in the power cable and the network cable to complete the hardware installation.

Find the mine IP address. Antminer S15 mining machine is automatically assigned IP mode, you can enter the local router to view the IP address named "antMiner".

Or use the ant official mining machine management software BitmainMinerTool to scan the IP address of the current mining machine. You can also use the management software to set the mining pool address and worker name, update the firmware, etc. When the number of mining machines is large, you can also use the mining machine. IP report button to find the IP address of the mining machine.

To view the real-time status of a single mining machine, you need to enter the mining machine control page. First, enter the mining machine IP into the control page home page, and then enter the default user name and password (the default is root) to enter the mining machine control page.

The new mining machine needs to modify the name of the mining pool and miners, click on the “Miner Configuration” page to modify the main mining pool address and worker name, and modify the two alternate mining pool addresses and miners' names as needed. Antminer S15 has built-in standard and low-power mining modes, so you can easily select any mode mining on this page according to your needs. After each setting is completed, click “Save&Apply” to save the settings and apply.

After saving, the miner will restart the mining procedure. After about a few minutes of normal operation of the mining machine, you can enter the mining operation interface “Miner Status” to check the operation of the mining machine, including running time, hash rate, Chip status, operating frequency, PCB board and chip temperature, fan speed and other parameters information.

III. Review:

The Antminer S15 has standard mining mode and low power consumption mode. Therefore, we tested the two modes for 24 hours respectively. The test environment temperature is about 17 degrees, and the noise value is around 36 decibels.

https://preview.redd.it/2wzornwmabd21.jpg?width=640&format=pjpg&auto=webp&s=62e6e57755d70d526eeda4066a31b042473871a8

After the mining machine is turned on, the fan runs at full speed, the power consumption of the boot is about 25W and further increases slowly, and the noise level is up to 81.2 dB.

Standard mode test

Power consumption: The miner's chip is fully operational, and the control page power is 28T. The measured power consumption of the miner is 1610-1620W, which is in line with the officially announced 1596W ±7% level.

Noise: Due to the low ambient temperature, the number of fan rotations is basically stable at around 3120 rpm. The noise value of the operating environment is measured to be 76.5 decibels. The distance of the mine is 27.7 meters, and the noise level is properly controlled.

Temperature: Antminer S15 has a total of four mining boards. There are four temperature-sensing modules distributed on each calculation board. The chip temperature is at least 44 degrees and the highest is 78 degrees. Thanks to the Exposed Die package, the outlet temperature is about 42 degrees. The power outlet temperature is about 28 degrees.

https://preview.redd.it/h71plzf0bbd21.jpg?width=641&format=pjpg&auto=webp&s=588728e6a87b510d5cc65eb41a1ffe80d6435f17

Because the Antminer S15 adopts the one-piece design, We also test the contact temperature of the power supply and the mining machine's power board. It can be clearly seen that the temperature values ​​of each point are different.

https://preview.redd.it/4ghcl4i3bbd21.jpg?width=990&format=pjpg&auto=webp&s=a344917e4a3b529aef58127f5e5c8fdaa61c62fa

Hash rate: After 24 hours test in the btc.com mining pool, the average hash rate of the Antminer S15 in 24 hours was 28.56 TH/s. Thus calculate the unit energy efficiency ratio = 1620W / 28.56 ≈ 56.72W / T, and the official published data 57 J / T consistent.

Low power mode test

Power consumption: After checking the option behind “Low Power Mode” on the Antminer S15 Pool Settings page and saving the application, the miner can run in low power mode. After the power of the mining machine control page reaches 17T, the measured power consumption is up to 836.6W, and the running data meets the official data of 775W ±7% - 900W ±7%.

Noise: As the power and power consumption are reduced, the fan speed is basically stable at around 2400 rpm, the measured operating environment noise value is 77 decibels, and the distance measured by the mining machine is about 66 decibels at a distance of 2 meters. The noise level and the standard mode. At the same level.

Temperature: The four mining board chips have a minimum temperature of 25 degrees and a maximum of 62 degrees. The outlet temperature is about 30 degrees, which is slightly lower than the standard mode. The temperature of the power outlet is about 20 degrees.

https://preview.redd.it/r4f2ww96cbd21.jpg?width=641&format=pjpg&auto=webp&s=ae3051c74634ac9d98373d71e8fee3f542d455c5

Contact point temperature value between the power supply and mining machine mining board.
https://preview.redd.it/fskmubi8cbd21.jpg?width=990&format=pjpg&auto=webp&s=a1616d21af2b87bc0996f1ce388b3ab9983d33dd

Hash rate: After 24 hours of testing in the btc.com mine, the average 24-hour power was measured at 17.5TH/S. Thus calculate the unit energy efficiency ratio = 836.6W / 17.5 ≈ 47.8W / T, lower than the official published data 50 J / T.

IV. Summary:

Two built-in mining modes. The power consumption per unit of power in low-power mode is lower than 50W/T, which is better. The lower the power consumption ratio, the lower the price of the shutdown.
One machine design reduces the wire, beautiful and convenient.
Exposed Die package improves heat dissipation, increasing the number of chips per unit volume and reducing heat sinks, reducing overall weight.
The new AWP8 power supply is used, easy to assemble and disassemble.
The machine noise is lower and the temperature is lower than other mining machines.
The calculation power of the whole machine is stable and fluctuating.

Finally, exposed power connectors may cause problems if touch the iron on the shelf. Maybe it can have improvement.

The Antminer series mining machine has evolved from S1 to S15, and the computing power has evolved from S180's 180G/360W to S15's 28000G/1600W. This is not just a digital evolution, but also the ups and downs of the Bitcoin industry. The mining machine is upgrading. Bitcoin is advancing, leaving many stories in the chain, the currency circle and the mining ring than the ten-year journey of holding the currency. In the two-year life cycle of S9, S9's bitcoin mining machine market share is far ahead, and currently in the market background of the rising bitcoin computing power, the depressed bear market and more new mining machines, Whether the ant S15 can create a new benchmark for the bitcoin mining machine, time will give us the answer.

More miner and crypto reviews on: cybtc.org
Telegram:https://t.me/joinchat/LgPYnE1vPpXqYDVpPaQyxw
Discord:https://discord.gg/RfCZMNY

submitted by cybtc to BitcoinMining [link] [comments]

Block Collider: Fusing existing chains into a Multi-Chain, a dramatic evolution in Blockchain Interoperability

SOURCE: SPECULATIVE RATIONALITY
BLOCK COLLIDER WEBSITE: https://www.blockcollider.org
A New Approach to Blockchain Interoperability (True Decentralisation)
Recommended Reading to assist in better informing this post:
A close look at the Blockchain space reveals a series of blockchain projects that operate largely in distinct silos. The reality is that blockchain technology is yet to realise widespread real-world adoption, however as we accelerate towards maturity a key infrastructure level requirement will be the ability for information to be transmitted in real time from blockchain to blockchain and even off-blockchain to old world systems. Anecdotally we need to look only as far as the internet to conceive the value that interconnectivity can generate.
“Bridging chains with a multichain is like building roads between buildings. Hypothetically, one could build a building that has everything, but in practice some buildings are built to work in, some are built to live in — as long as citizens want to be in multiple buildings at different points in time, roads are valuable. The crypto community as it exists demonstrates a wide variety of features across blockchains — some chains have quick block times, some chains have expressive smart contracts, some are purely deflationary and an excellent store of value. As long as users need features from more than one blockchain, bridging those chains with a multichain is needed.” – Block Collider Whitepaper (Source)
There are some well known projects that are trying to tackle interconnectivity between disparate chains. Of those known projects, only a few are focused on Interoperability as their core focus – some examples are Polkadot, Cosmos and Ark. A new project which as yet has remained under the radar (by design) has come out with a radically different solution to the issue of interconnectivity between chains: Block Collider.
“A mineable multi-chain protocol for stable coins, decentralized exchanges, and meta contracts.” – Block Collider
Let’s take a quick look at a few of the key interoperability projects within the space:
Comparison Table
For more detailed Table of comparison click here
The Multi-Chain: The Advent of Multi-chain Distributed Applications and Meta Contracts
Block Collider is the first true “multi-chain”, which at genesis will connect 6 chains – Bitcoin, Ethereum, Neo, Waves, Lisk and another chain that is yet to be named. Block Collider’s core ledger is the aggregate of all blocks on all member chains, giving rise to the term “multi-chain”. Block Collider’s blockchain is built by “weaving” together disparate chains using PoD* (Proof of Distance – a modified version of Nakamoto consensus), consuming blocks from each chain into a Block Collider block, recording in effect the state of each member chain.
The multi-chain not only facilitates value transfer between chains but more importantly allows these previously “siloed” projects to know the “state” of each other’s chains. Why is knowing the state of other chains so important? True interoperability is much more than just value transfer, it is the ability for different blockchains to work in parallel. This innovation opens the gates to something truly remarkable – multi-chain distributed applications and meta contracts (multi-chain smart contracts).
Example Diagram
The above diagram illustrates a simple example of a distributed multi-chain DAPP handling trust funds. This kind of application only scratches the surface of the true potential Block Collider brings to the blockchain ecosystem. The multi-chain functionality is not merely transferring data but proving data relative to another chain.
“…distributed application developers can modularly combine exotic features from blockchains across the ecosystem …. distributed application developers can build in the capability to load-balance work between chains” – Block Collider Whitepaper (Source)
As an aside there is an additional security benefit that results from Block Collider being a multi-chain, an aggregate of member chains. A miner attempting to use bad blocks would not only have to reverse the entire chain on Block Collider but also break the hash power of difficulty of the member chain.
*PoD – Proof Of Distance consensus mechanism is beyond the scope of this article. Please refer to Block Collider Whitepaper – Section 3.2 The Edit Distance Computational Challenge (pp 13) or Building a Blockchain Singularity with Proof of Distance by Patrick McConlogue (Co-founder of Block Collider).
True Decentralisation
“The Block Collider multichain is collaboratively created exclusively by decentralized peer-to-peer miners — with no centralized points of failure, oracles, or validators.” – Block Collider Whitepaper (Source)
One of the core tenets of Block Collider is to provide a platform that is very much in line with Blockchain’s vision of true decentralisation. Block Collider prides itself on the absence of validators in its consensus mechanism and its resistance to centralising elements.
Validators vs no validators
What is a validator? A validator in a blockchain is a “human element” or third party to whom the network cedes some degree of trust. A validator is incentivised by a network to confirm that an event/transaction has occurred on the network. This approach has been/will be adopted by many chains including interoperability chains like Cosmos, Polkadot and Ark who utilise Delegated-Proof-of-Stake (DPoS) or similar consensus models, where there are a set number of validators.
Block Collider does not require validators, it builds it’s blockchain with a mining algorithm (PoD), requiring proof of work to validate events on the blockchain. It in effect removes the requirement to place trust in a fallible party.
Centralisation of Power
A concern in any decentralised network is that power may accrue to a few. We see some commentators point to this occurrence in the Bitcoin network, where there is a centralisation of power around a few mining pools. Power in this context is the governance of the chain and the rewards for block validation. In this situation existing economic power is entrenched and can conceivably lead to the ongoing centralisation of consensus, governance and wealth. However, it is also worth noting one of the advantages that the Bitcoin platform has in comparison to its counterparts who have pursued PoS or DPoS is that it does not require the network to cede any additional trust to validators.
PoS or DPoS and their varying iterations aim to solve for some of the bottlenecks in current blockchain technology, however, these consensus mechanisms still contain elements that can give rise to centralisation. PoS requires that a node stake a sufficiently high bond in order to achieve the status of “validator” and thus PoS is still heavily weighted to those with economic power. DPoS has the added functionality of “democracy” by allowing delegates to vote for a trusted “validator”. Ideally the scenario is one of a democratic approach, however such a system may still lend itself towards centralisation as voting is typically weighted by share of network. Without going into an exhaustive discussion about various consensus methodologies, their strengths and shortcomings, we can nevertheless see that the use of validators presents some departure from trustless consensus without necessarily resolving the centralising effects of economic power.
Block Collider is a mineable chain like bitcoin and faces the same issue of centralisation of power from mining pools but has implemented certain conditions to alleviate the pressure towards centralisation. These include:
1) Splitting the mining of blocks and transactions (Refer Whitepaper Section 3 – Mining on the collider for technical details)
“… by allowing for competition in two spaces, there is reduced risk of centralization, since an actor would have to win the centralization game at both levels.” – Block Collider Whitepaper – Section 3.4
Transaction mining is open to anyone and does not require ASIC hardware to mine. This allows anyone on the network to have an economic incentive to participate in the network whilst achieving greater throughput and greater load distribution, reducing the strain on the network.
2) Emblems – Block Size Bonus (Refer Whitepaper Section 3 – Mining on the collider for technical details)
BC has a unique proposition to implement dynamic block sizes through the use of Emblems. In effect miners can “stake” Emblems which will allow them to expand the size of the block, thereby fitting more transactions into a single block for greater rewards. How does this alleviate pressure towards centralisation? We look to the Co-Founder Patrick McConlogue for answers:
“Block Collider implements game theory to the benefits of mining incentives beyond block/fee rewards. The Emblem bonuses for mining is sublinear (that is, there are diminishing returns for emblem ownership) which balances the economic incentive against centralisation (as the marginal utility of Emblems will be highest for those with fewer emblems).” – Patrick McConlogue
As an example, noting that all metrics are hypothetical, Sue has 10 Emblems and Mike has 100 Emblems. If the optimal number of Emblems required to achieve a desired block size was around 20 Emblems, staking beyond the 20 emblems does not significantly increase the block size. In effect, any additionally staked emblems has a diminishing value in comparison to the optimally staked 20 Emblems. So, in this example Sue’s block size could be “Standard block size + 5” and the optimal block size is “Standard block size + 7”. As staking has a diminishing bonus, Mike staking 100 Emblems would result in “Standard block size + 8”. This is to say those without large economic power can still compete on a near equal footing. In this way Block Collider aims to mitigate the pull of economic power towards centralisation.
What if Mike splits his 100 Emblems to utilise the optimal number of emblems to stake, to run multiple mining rigs concurrently? In this case 20 Emblems to 5 mining operations.
“A miner could absolutely split the Emblem rewards among mining rigs but in order to maximize the rewards from this he/she would have to be connected to the least number of identical peers that the original rig is connected to. In this way they must expand to other regions. This leads to less centralization regionally and increases the overall efficiency + speed of the network.” – Patrick McConlogue
In addition, Mike replicating 4 more instances of the original mining operation would require significant resources.
Interoperability Technology
Member Chain Conditions
One of the greatest breakthroughs that Block Collider has achieved is that it has a very low threshold to incorporate foreign blockchains into its multi-chain. In laymans terms there is no need for modification of member chains to participate in the network.
This is a significant development in the blockchain ecosystem as current and planned future interoperability solutions require some form of compatibility or change to the participating chains. To achieve compatibility Cosmos and Polkadot primarily require chains to be built on top of their infrastructure. Ark on the other hand requires direct changes to existing chains in the form of embedded code.
However, it should be noted though that Cosmos Polkadot, and Ark have alternate solutions to compatibility for existing chains who choose not to be modified. This can be achieved through intermediate zones, peg-zones, bridgechains, smart bridges and encoded listeners. If we are to borrow from the Polkadot whitepaper certain chains (Ethereum) are clearly easier to adapt into intermediate zones but others not so much (Bitcoin):
1) Ethereum – “Due to Ethereum’s Turing completeness, we expect there is ample opportunity for Polkadot and Ethereum to be interoperable with each other, at least within some easily deducible security bounds.” – (Polkadot Whitepaper – Source)
2) Bitcoin –* “…. As such we believe it not unrealistic to place a reasonably secure Bitcoin interoperability “virtual parachain” between the two networks, though nonetheless a substantial effort with an uncertain timeline and quite possibly requiring the cooperation of the stakeholders within that network.”* – (Polkadot Whitepaper – Source)
The breakthrough by Block Collider should not be understated, the multi-chain by providing a low threshold for member chains to interoperate without the need for validators provides crucial infrastructure for a trustless internet of blockchains.
Scalability and Shared Security for Member Chains
Through comparison of Cosmos and Polkadot, the question may arise does Block Collider provide scalability and shared security for member chains? The simple answer is no.
Block Collider does not provide scalability and shared security primarily because of its conditionless participation for member chains. Block Collider follows the philosophy of Doug McIlroy, the inventor of Unix pipes, “Write programs that do one thing and do it well. Write programs to work together.” In this sense scaling solutions are the responsibility of protocol level chains, interoperability is the responsibility of Block Collider.
Cosmos and Polkadot provide these solutions for member chains that “join” their networks and is a unique and commendable value proposition provided by their platforms. Although it should be noted that for existing chains, using the intermediate zones referenced earlier, does not provide the same scalability and shared security benefits as those built natively on the platforms. This is because the existing chain does not function atop the platform, rather they are bridged to the platform with links (bridgechains or pegzones) built by Polkadot or Cosmos.
Scalability – Size and Transaction Speed
Block Collider as a multi-chain is the aggregate of blocks from its member chains. What does this mean for scalability in terms of size & transaction speed?
Size of the Chain
A valid concern would be that Block Collider which is an aggregate of all blocks on all member chains can be quite space consuming. To combat this Block Collider’s PoD consensus mechanism primarily uses header states and Merkle proofs of other chains to store the chain on the Block Collider network. The headers are less than 1% of the size of the original chains’ block. So, one could imagine without any modifications, Block Collider could merge 100 chains and still only be the size of one Ethereum sized chain.
As Block Collider evolves, we can envision a day when 1000 plus chains are interoperable with Block Collider. So, what then? Block Collider is designed to tackle this growth in two ways, compression as far as possible and then through reverse chain pruning.
“To handle the first part [compression], we start with header states. After which we switch to a signature only model like that proposed in Mimblewimble (once the Block Collider hash rate is strong enough). Finally the pruning which will be the process of creating a second blockchain which mines backwards. In the second blockchain, “the work” is transactions that should be trimmed from the block. In this way it works like defragmenting your hard drive.”* – Patrick McConlogue
*Mimblewimble – an experimental blockchain network
Transaction Speed
Block Collider as the aggregate of blocks from member chains will always be slightly faster than the fastest member chain. This is due to Block Collider having a high block issuance rate that is based on blocks issued on member chains.
Image Example of Block Issuance
In the above example from the whitepaper we see that Bitcoin issues 2 blocks in a set time frame “x”, Ethereum issues 6 blocks and Waves issues 3 Blocks. The first Block Collider block is formed when the 3 chains issue their first block. It should be noted that block times vary across chains and as such member chains will issue blocks at different intervals. At each issuance from a member chain Block Collider will issue its own block containing the new set of blocks from the member chains. In this example 9 Block Collider blocks are issued in the time frame “x”. So the block issuance rate (block velocity) will always be higher than the fastest member chain.
Higher block velocity of course brings up the issue of throughput – the number of transactions per second. Mining has been designed with throughput being the primary mandate. The satisfaction of this mandate was one of the primary motivations for Block Collider splitting block mining and transaction mining into separate processes.
“Unlike other cryptocurrencies, the transactions and the blocks of the Collider blockchain can be mined separately. Transactions being pre-mined makes it easier for a miner to add a transaction to a block it has discovered, which balances the power that miners have in current systems.” – Block Collider
TECH COMPARISON // Multi-chain Protocols (The Internet of Blockchains)
LINK
Conclusion
Block Collider has come to the space with a radical solution to the “Internet of Blockchains”, connecting disparate chains whilst maintaining blockchain technology’s vision of being truly decentralised. The mainnet launch will include interoperability between 6 chains, BTC, ETH, NEO, Waves, Lisk and a yet to be named chain.
submitted by Lifeandthecosmos to CryptoCurrency [link] [comments]

Should I Choose PPS or PPLNS? - Antminer S9, Avalon 741 BITCOIN HASHRATE HITS A HIGH - BTC PRICE WILL FOLLOW SAYS MAX KEISER  7 Crypto’s Making Huge Moves Bitcoin Price Prediction by Experts (Long Term) Smart Money Buying Back Into Bitcoin: Bitcoin Mining At All Time Highs! Bill Gates On Bitcoin 50k Per Bitcoin - Best Bitcoin Trading Platform

PPS – Pay Per Share. Each submitted share is worth certain amount of BTC. Since finding a block requires shares on average, a PPS method with 0% fee would be 50 BTC divided by . It is risky for pool operators, hence the fee is highest. SMPPS – Shared Maximum Pay Per Share. Like Pay Per Share, but never pays more than the pool earns. Singapore Dollar conversion rate. Country: Singapore Exchange Rate: 1 SGD = 0.74 USD. According to a 2016 survey conducted by the Bank of International Settlements, the Singapore dollar came out as the 12th highest traded currency in the world. In 2012, the total currency in circulation was about $29.1 billion. Pool.Bitcoin has varieties of plans ranging from 12 months to a lifetime. The lifetime plans, however, works in a way that once your hash rate stops being profitable your mining will stop, You can customize the hash rate of all plans, starting at just 1 TH/s and ranging all the way up to 15,000 TH/s. The hash rate controlled by this pool is only around 1%. BitMinter used to be the major Bitcoin mining pool. However, its hash rate decreased to 1%. Kano CKPool has been in the industry for around 5 years and is responsible for about 3% of the total hash rate. F2Pool is a well-known mining pool which has near 25% of the network hash rate. It is ... Like Chinese pools control 81% of the network hash rate. There are many Bitcoin mining software like Easyminer, which lets you mine bitcoin. (Bitcoin Mining pool software). There are companies like HashFlare, which is into Bitcoin cloud mining and are legit Bitcoin mining sites 2020. Best Bitcoin Mining Pool in 2020

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Should I Choose PPS or PPLNS? - Antminer S9, Avalon 741

With the high accuracy of the model, should Bitcoin’s hash rate remain this high or continue to grow, the BTC price will eventually follow. In other trending Bitcoin News today: Bitcoin breaks major resistance and breaks up above $8,000. Plus: Potentially the world's biggest bitcoin mine is said to have signed up two top corporate customers, SBI Holdings and GMO. Follow ... 2018 for bitcoin wasn’t something we expected, but there is the reason why it happened what it happened. Bitcoin was in the bubble in 2017, it skyrocketed by 1,800% reaching its all time high ... Bitcoin will hit $10,000 by 2018 and $1 million 5-10 years Later Experts predict What is Bitcoin The Truth Behind Bitcoin Bill Gates Bitcoin to Hit from $10,000, to $100,000 & even $1 Million USD PPS(Pay Per Share) pays you a solid rate. This is calculated based on an average of the total number of shares that your miners contributed throughout the day, vs how many shares total that the ...

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