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  • Bitcoin Wins in Court

    On July 25, Miami-Dade Florida circuit judge Teresa Pooler dismissed money-laundering charges against Michell Espinoza, a local bitcoin seller. The decision is a welcome pause on the road to financial serfdom.

    It is a small setback for authorities who want to fight crime (victimless or otherwise) by criminalizing and tracking the “laundering” of the proceeds, and who unreasonably want to do the tracking by eliminating citizens’ financial privacy, that is, by unrestricted tracking of their subjects’ financial accounts and activities. The US Treasury’s Financial Crimes Enforcement Network (FinCEN) is today the headquarters of such efforts.

    As an Atlanta Fed primer reminds us, the authorities’ efforts are built upon the Banking Secrecy Act (BSA) of 1970. (A franker label would be the Banking Anti-Secrecy Act). The Act has been supplemented and amended many times by Congress, particularly by Title III of the USA PATRIOT Act of 2001, and expanded by diktats of the Federal Reserve and FinCEN. The laws and regulations on the books today have “established requirements for recordkeeping and reporting of specific transactions, including the identity of an individual engaged in the transaction by banks and other FIs [financial institutions].”

    These requirements are collectively known as Anti-Money-Laundering (AML) rules.

    In particular, banks and other financial institutions are required to obey “Customer Identification Program” (CIP) protocols (aka “know your customer”), which require them to verify and record identity documents for all customers, and to “flag suspicious customers’ accounts.” Banks and financial institutions must submit “Currency Transaction Reports” (CTRs) on any customers’ deposits, withdrawals, or transfers of $10,000 or more.

    To foreclose the possibility of people using unmonitored non-banks to make transfers, FinCEN today requires non-depository “money service businesses” (MSBs) – which FinCEN defines to include “money transmitters” like Western Union and issuers of prepaid cards like Visa – also to know their customers. Banks and MSBs must file “Suspicious Activity Reports (SARs)” on transactions above $5000 that may be associated with money-laundering or other criminal activity. Individuals must also file reports.

    Carrying $10,000 or more into or out of the US triggers a “Currency or Monetary Instrument Report” (CMIR).” Any US citizen who has $10,000 or more in foreign financial accounts, even if it never moves, must annually file “Foreign Bank and Financial Accounts Reports (FBARs).”

    In addition, state governments license money transmitters and impose various rules on their licensees.

    When most of these rules were enacted, before 2009, there were basically only three convenient (non-barter) conduits for making a large-value payment. If Smith wanted to transfer $10,000 to Jones, he could do so in person using cash, which would typically involve a large withdrawal followed by a large deposit, triggering CTRs. He could make the transfer remotely using deposit transfer through the banking system, triggering CTRs or SARs if suspicious. Or he could use a service like Western Union or Moneygram, again potentially triggering SARs.

    For the time being, the authorities had the field pretty well covered.

    The Bitcoin “Loophole”

    Now come Bitcoin and other cryptocurrencies. Cash is of course still a face-to-face option. But today if Smith wants to transfer $10,000 remotely to Jones, he need not go to a bank or Western Union office. He can accomplish the task by (a) purchasing $10,000 in Bitcoin, (b) transferring the BTC online to Jones, and (c) letting Jones sell them for dollars (or not).

    The authorities would of course like to plug this “loophole.” But the internet, unlike the interbank clearing system, is not a limited-access conduit whose users can be commandeered to track and report on its traffic. No financial institution is involved in a peer-to-peer bitcoin transfer. Granted, Smith will have a hard time purchasing $10,000 worth of Bitcoins without using a bank deposit transfer to pay for them, which pings the authorities, but in principle he could quietly buy them in person with cash.

    Accordingly, “attempting to fit the sale of Bitcoin into a statutory scheme regulating money services businesses is like fitting a square peg in a round hole.”

    In the recent legal case, it appears that this possibility for unmonitored transfers was noticed by Detective Ricardo Arias of the Miami Beach Police Department, who “became intrigued” and presumably alarmed upon learning about Bitcoin at a meeting with the US Secret Service’s Miami Electronic Crimes Task Force.

    Detective Arias and Special Agent Gregory Ponzi decided to investigate cash-for-Bitcoin sales in South Florida. (I take details about the case from Judge Pooler’s decision in State of Florida v. Michell Abner Espinoza (2016).) Arias and Ponzi went to localbitcoins.com to find a seller willing to make a cash sale face-to-face. Acting undercover, Arias contacted one Michell Espinoza, apparently chosen because his hours were flexible.

    Arias purchased $500 worth of Bitcoin at their first meeting in a Miami Beach coffee shop, and later purchased $1000 worth at a meeting in a Haagen-Daaz ice cream shop in Miami. Arias tried to make a third purchase for $30,000 in a hotel room where surveillance cameras had been set up, but Espinoza rightly suspected that the currency offered was counterfeit, and refused it.

    At that meeting, immediately after the failed purchase, Espinoza was arrested. He was charged with one count of unlawfully operating a money services business without a State of Florida license, and two counts of money laundering under Florida law.

    Bitcoin vs Money Laundering Rules

    Judge Pooler threw out all three charges. Evaluating her arguments as a monetary economist, I find that some are insightful, while others are beside the point or confused. On the charge that Espinoza illegally operated an unlicensed money services business, she correctly noted that Bitcoin is not widely accepted in exchange for goods and thus “has a long way to go before it is the equivalent of money.”

    Accordingly, “attempting to fit the sale of Bitcoin into a statutory scheme regulating money services businesses is like fitting a square peg in a round hole.” However she also offered less compelling reasons for concluding that Bitcoin is not money, namely that it is not “backed by anything” and is “certainly not tangible wealth and cannot be hidden under a mattress like cash and gold bars.” Federal Reserve notes are money without being backed by anything, and bank deposits are money despite being intangible. Gold bars are today not money (commonly accepted as a medium of exchange).

    Judge Pooler further correctly noted that Espinoza did not receive currency for the purpose of transmitting it (or its value) to any third party on his customer’s behalf, as Western Union does. He received cash only as a seller of Bitcoin. Nor, she held, does Bitcoin fall into any of the categories under Florida’s statutory definition of a “payment instrument,” so Espinoza was not operating a money services business as defined by the statute.

    Bitcoin is indeed not a payment instrument as defined by the statue because it is not a fixed sum of “monetary value” in dollars like the categories of instruments that are listed by the statute. It is an asset with a floating dollar price, like a share of stock.

    If even casual individual Bitcoin sellers like Espinoza must also register as MSBs, that will spell the end to legal local Bitcoin-for-cash trades.

    Here Judge Pooler accepted a key defense argument (basically, “the defendant was not transmitting money, but only selling a good for money”) that was rejected by Judge Collyer in U.S. v. E-Gold (2008). In the e-gold system, Smith could purchase and readily transfer to Jones claims to units of gold held at e-gold’s warehouse. Federal officials successfully busted e-gold for “transmitting money” without the proper licenses.

    Judge Collyer accepted the prosecution’s argument that selling gold to Smith, providing a vehicle for him to transfer it to Jones, and buying it back from Jones is tantamount to transmitting money from Smith to Jones. Of course the Espinoza case is different in that Espinoza did not provide a vehicle for transmitting Bitcoin to a third party, nor did he buy Bitcoin from any third party.

    On the charge of money laundering, Judge Pooler found that there was no evidence that Espinoza acted with the intent to promote illicit activity or disguise its proceeds. Further, Florida law is too vague to know whether it applies to Bitcoin transactions.

    Thus: “This court is unwilling to punish a man for selling his property to another, when his actions fall under a statute that is so vaguely written that even legal professionals have difficulty finding a singular meaning.”

    I expect that FinCEN will now want to work with the State of Florida, and other states, to rewrite their statutory definitions of money services businesses and money laundering to reinforce their 2013 directive according to which Bitcoin exchanges must register as MSBs and so submit to “know your customer” and “file reports on your customer” rules. If even casual individual Bitcoin sellers like Espinoza must also register as MSBs, that will spell the end to legal local Bitcoin-for-cash trades.

    Source: Bitcoin Wins in Court | Foundation for Economic Education


  • Unlocking The Secrets Of Cryptocurrency: An Interview With Etheruem Co-Creator Taylor Gerring

    Previously reserved for those living on the fringes of computing culture, digital currencies are quickly gaining popularity. You’ve probably heard of Bitcoin, but have no idea what it is. Simply put, it’s digital money that is completely secure and doesn’t use traditional banking to determine it’s value. It is known commonly as a cryptocurrency.

    In 2009 Bitcoin became the first popular cryptocurrency. While bitcoin is commonly attributed to the mysterious Satoshi Nakamoto, no one really knows who he is. Since 2009, many alternative cryptocurrencies have been created. Now we have Ethereum, Bitcoin, Gridcoin, Mastercoin, Auroracoin, Titcoin, among others. While these may sound like street names of drugs, these other cryptocurrencies are frequently called altcoins.

    Source: Unlocking The Secrets Of Cryptocurrency: An Interview With Etheruem Co-Creator Taylor Gerring


  • The Strongest Supercomputer on Earth Still Needs Your Laptop to Cure Cancer

    A group of California computer scientists has built a tool for analyzing climate change, mapping clean water access, and formulating strategies to eradicate malaria, cancer, and AIDS, all using a system they can rightfully claim to be the most powerful computer network on the planet. And here’s what they want to talk about: How paltry the whole thing is. The Berkeley Open Infrastructure for Network Computing may be rocking 157 petaFLOPS (and counting), but it isn’t nearly as muscular as scientists thought it would be when the idea of volunteer computing emerged in the mid-‘90s.

    When it became clear in the early aughts that projects like BOINC and IBM’sWorld Community Grid could leverage middleware use of the spare computing power on huge numbers of PCs to solve massively parallel problems (think:scanning astronomical data to find extraterrestrial life) by running simulations, the consensus among researchers was that the future of data-driven investigation had arrived. In a sense, it had. The technology remains awe-inspiring, but it still isn’t self-sufficient. In order to grow, BOINC needed to generate enthusiasm, to sign people up, to make studies of pulsars and peptides feel like a movement. That never happened.

    View image on TwitterView image on Twitter

    I’ve been volunteer computing for BOINC since the late ‘90s, when I was an undergrad at the University of California-Berkeley. Since then I’ve installed the software on half a dozen new computers and tracked volunteer computing statistics as they have, depressingly, slumped. The attrition is easy to spot. The systems count millions of total volunteers, but the data make clear that only a few hundred thousand are actively returning results. And this for software that could run on machines numbering in the low billions globally. (If you want to join us, check out this 10-minute guide to getting started.)

    Public relations efforts around volunteer computing have been uniformly amateurish. The sum of the project’s recruiting is a page on BOINC’s website that you have to really study to understand. And it’s incredibly outdated, giving volunteers tips on how to write letters to computer magazines in countries around the world to boost exposure. “To get a magazine to write about BOINC,” it reads, “you need to convince them that there’s something new and exciting.” The site also urges volunteers to update the page when and if they reach out to media, so as not to duplicate efforts. As of this writing, the last such update was in September 2014.

    For an explanation, I reached out to Dr. David Anderson, BOINC’s project director, architect, and developer. He’s an adjunct computer science professor at the University of Houston and a research scientist at the University of California-Berkeley, and is the project director of SETI@home. His day jobs don’t allow for spending much time or funds pursuing volunteers to join in BOINC.

    “We (BOINC or, prior to that, SETI@home) have never advertised; we have no budget for doing so,” Anderson told me. Mass media coverage in the early days of volunteer computing about 15 years ago stirred some 2 million people to join the efforts, he says. “After that it was harder to get media coverage; outlets don’t like to run stories that are similar to previous stories. Even for something like the release of BOINC for Android, which I think is big, we were able to get only a smattering of coverage.”

    As media coverage of BOINC, World Community Grid, and distributed computing waned, so has public interest. Here are the trends in Google searches during the past decade.

    As media coverage of BOINC, World Community Grid, and distributed computing waned, so has public interest. Here are the trends in Google searches during the past decade.

    For researchers like me, the untapped potential here is absolutely staggering. One of the active projects I’ve been following is Harvard’s Clean Energy Project, which aims to identify next-gen solar cell materials. It uses World Community Grid’s power to evaluate, so far, 2.3 million compounds for possible use as solar cells. That number, while impressive, is a blip compared against the project’s ambitions. I emailed Dr. Alán Aspuru-Guzik, a chemistry professor who leads the project, to ask what a larger volunteer force would mean to him. Here’s what he replied:

    “My research group has huge hopes of understanding the entire molecular space, which is composed of 10^60 to 10^180 synthesizable molecules. So far, we have concentrated on the organic photovoltaics (‘plastic’ solar cells) area in collaboration with the World Community Grid. … If I were to have say a hundred times more volunteers, we could turn the project into the ‘Molecular Space Project’ and we could undertake a vast cataloguing of a sample of a diverse set of molecules in chemical space to search for molecules with extreme properties for a variety of applications that could range from energy to technology and even health.”

    In other words, we could be cracking open the secrets of every extant or possible molecule. Instead, we’re playing League of Legends and Angry Birds Transformers. And that criticism is actually reductively generous: We could be doing both.

    To understand how regrettable this state of affairs is, we need to make a rough estimate of how much more computing capacity the world has in 2015 than in 2000. A 2011 study by researchers at UCLA and in Barcelona found that between 1986 and 2007, that annual growth in computing power averaged 86 percent. If that pattern held during the past 15 years, the increase works out to more than a 10,000-fold leap. It’s a shame that all that raw power just sits around on your Galaxy S6 pinging your email server, or loiters on your Macbook waiting to download the latest iTunes update. Even with the tiny adoption rate, volunteer computing is accomplishing great feats: informing IPCC climate reports, the discovery of pulsars, the design of an artificial protein that triggers self-destruction of a certain class of cancer cells, and more than 150 scientific publications. BOINC’s volunteers together contribute greater computing power to researchers (for free) than would the world’s most powerful supercomputer — a rig that cost $390 million to build and which ain’t cheap to run.

    There are efforts afoot to make participating more attractive. One less altruistic reason you may want to join is the rising popularity, and value, of Gridcoin. It’s similar to Bitcoin, but its mining step is tied to BOINC research tasks that have real-world usefulness beyond the mere generation of cryptocurrency.

    But even its intrinsic benefits are gratifying. Anytime I get frustrated with the pace of progress on my own research (using algae to improve wastewater treatment while generating climate-friendly biofuels) I simply remember that I’m also doing my tiny part to find cures for cancer and to make cheaper solar panels. That usually brings a smile to my face — though not that anyone much notices, when I’m staring at some spreadsheet in a darkened lab.

    Source: The Strongest Supercomputer on Earth Still Needs Your Laptop to Cure Cancer | Inverse