Amicus Curiae Brief — Binance, et al., Petitioners v. JD Anderson, et al.
Supreme Court briefOct 25, 2024
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No. 24-336
IN THE
Supreme Court of the United States
BINANCE, ET AL.,
Petitioners,
v.
JD ANDERSON, ET AL.,
Respondents.
On Petition for a Writ of Certiorari to the United States
Court of Appeals for the Second Circuit
BRIEF OF THE CRYPTO COUNCIL FOR
INNOVATION AS AMICUS CURIAE
IN SUPPORT OF PETITION FOR CERTIORARI
Jason P. Gottlieb
Counsel of Record
Daniel C. Isaacs
Michael Mix
Rachel Fleder
Vani Upadhyaya
MORRISON COHEN LLP
909 Third Avenue
New York, New York 10022
(212) 735-8600
jgottlieb@morrisoncohen.com
Counsel for Amicus Curiae
October 25, 2024
i
TABLE OF CONTENTS
Page
TABLE OF CONTENTS ........................................... i
TABLE OF AUTHORITIES .................................... ii
INTEREST OF AMICUS CURIAE ......................... 1
SUMMARY OF ARGUMENT ................................. 2
STATEMENT OF FACTS........................................ 5
I.
HOW INTERNET TRANSACTIONS
WORK........................................................... 5
II. HOW BLOCKCHAIN TRANSACTIONS
WORK........................................................... 9
III. USE CASES OF BLOCKCHAIN
INFRASTRUCTURE ................................. 13
ARGUMENT .......................................................... 19
I.
THE SECOND CIRCUIT’S DECISION
IS AT ODDS WITH MORRISON’’S
TEACHINGS IN THE CONTEXT OF
THE SECURITIES ACT AND
EXCHANGE ACT ...................................... 19
II. THE SECOND CIRCUIT’S DECISION
IMPLICATES ALL FEDERAL LAWS ...... 22
III. THE SECOND CIRCUIT DECISION
HAMPERS INTERNET
TRANSACTIONS GENERALLY, AND
BLOCKCHAIN TRANSACTIONS IN
PARTICULAR ............................................ 24
CONCLUSION ................................................. 29
ii
TABLE OF AUTHORITIES
Page
CASES
Abitron Austria GmbH v. Hetronic Int’l, Inc.,
600 U.S. 412 (2023)........................................... 19
Absolute Activist Value
Master Fund Ltd. v. Ficeto,
677 F.3d 60 (2d Cir. 2012) ...........................20, 27
Cedeño v. Intech Grp., Inc.,
733 F. Supp. 2d 471 (S.D.N.Y. 2010) ............... 23
Choi v. Tower Research Cap. LLC,
890 F.3d 60 (2d Cir. 2018) ................................ 20
City of Pontiac Policemen’s & Firemen’s
Retirement Systems v. UBS AG,
752 F.3d 173 (2d Cir. 2014) .............................. 21
Fed. Hous. Fin. Agency v.
Nomura Holding Am., Inc.,
873 F.3d 85 (2d Cir. 2017) ................................ 20
Giunta v. Dingman,
893 F.3d 73 (2d Cir. 2018) ................................ 20
Hourani v. Mirtchev,
943 F. Supp. 2d 159 (D.D.C. 2013) ................... 23
IMAPizza, LLC v. At Pizza Ltd.,
334 F. Supp. 3d 95 (D.D.C. 2018),
aff’d, 965 F.3d 871 (D.C. Cir. 2020).................. 23
iii
In re Tezos Sec. Litig.,
No. 17-cv-06779-RS, 2018 WL 4293341
(N.D. Cal. Aug. 7, 2018) ............................... 27-28
Loginovskaya v. Batratchenko,
764 F.3d 266 (2d Cir. 2014) .............................. 22
Morrison v. Nat’l Australia Bank Ltd.,
561 U.S. 247 (2010).................. 2, 5, 19-24, 27, 28
Nakhid v. Am. Univ.,
No. 19-cv-3268 (APM),
2021 WL 4169355 (D.D.C. Sept. 14, 2021) ...... 24
SEC v. Balina,
No. 22-cv-00950 (DAE), 2024 WL 2332965
(W.D. Tex. May 22, 2024) ................................. 27
SEC v. Scoville,
913 F.3d 1204 (10th Cir. 2019),
cert. denied, 140 S. Ct. 483 (2019) ................... 27
Sexual Minorities Uganda v. Lively,
254 F. Supp. 3d 262 (D. Mass. 2017) ............... 23
Sonterra Capital Master Fund Ltd. v.
Credit Suisse Grp. AG,
277 F. Supp. 3d 521 (2017) ............................... 23
United States v. Vilar,
729 F.3d 62 (2d Cir. 2013) ................................ 20
Williams v. Block One,
No. 20-cv-2809 (LAK), 2022 WL 5294189
(S.D.N.Y. Aug. 15, 2022)................................... 27
iv
STATUTES AND RULES
15 U.S.C. § 77 ......................................................... 19
15 U.S.C. § 78 ......................................................... 19
42 U.S.C. § 1981 ..................................................... 24
OTHER AUTHORITIES
Bitcoin ETFs List, VettaFi (Oct. 24, 2024),
https://etfdb.com/themes/bitcoin-etfs/ ......... 14-15
Ryan Browne, UK Confirms Plans to
Regulate Crypto Industry with Formal
Legislation, CNBC (Oct. 30, 2023),
https://www.cnbc.com/2023/10/30/ukconfirms-plans-to-regulate-cryptoindustry-with-formal-legislation.html ............. 17
Businesswire, Citi Develops New Digital
Asset Capabilities for Institutional Clients
(Sept. 18, 2023),
https://www.businesswire.com/news/home/
20230918024720/en/Citi-Develops-NewDigital-Asset-Capabilities-forInstitutional-Clients .................................... 15-16
Alfredo Collosa, How Global Tax
Administrations Are Using
Blockchain Technology, Bloomberg
Tax (Mar. 17, 2022),
https://news.bloombergtax.com/daily-taxreport-international/how-global-taxadministrations-are-using-blockchaintechnology ......................................................... 18
v
Brian Daigle, Data Centers Around
the World: A Quick Look, United
States International Trade
Commission (May 2021),
https://www.usitc.gov/publications/332/exe
cutive_briefings/ebot_data_centers_around
_the_world.pdf ................................................ 7, 8
Ethereum ETFs List, VettaFi,
https://etfdb.com/themes/ethereum-etfs/
(last visited Oct. 24, 2024) ........................... 14-15
Andrew Hayward, Andreessen-Backed
Helium Raises $111 Million to Grow
Crypto Wireless Network, Decrypt
(Aug. 10, 2021),
https://decrypt.co/78222/andreessenbacked-helium-raises-111-million-to-growcrypto-wireless-network ................................... 17
Ian Holtz, et al., Blockchain Node
Deployment on AWS: A Comprehensive
Guide, AWS Database Blog
(Apr. 29, 2024),
https://aws.amazon.com/blogs/
database/blockchain-node-deployment-onaws-a-comprehensive-guide/ ............................ 11
Miles Jennings, Why Decentralization
Matters, for Builders, a16zcrypto
(June 24, 2024),
https://a16zcrypto.com/posts/article/whydecentralization-matters-builders/ .................. 10
vi
Chris Katje, AMC To Accept Bitcoin and
Crypto For Payment, Are NFT
Commemorative Tickets Next?,
yahoo!finance (Sept. 19, 2021),
https://finance.yahoo.com/news/amcaccept-bitcoin-crypto-payment205509000.html ................................................ 16
Oliver Knight, Google Partners
With Coinbase to Accept Crypto
Payments for Cloud Services,
yahoo!finance (Oct. 11, 2022),
https://ca.finance.yahoo.com/news/googlepartners-coinbase-accept-crypto121803385.html ................................................ 16
Oliver Knight, Wall Street Giant DTCC
Launches Private Blockchain in Big
Crypto-Milestone for TradFi, CoinDesk
(Aug. 22, 2022),
https://www.coindesk.com/business/2022/0
8/22/wall-streets-dtcc-launches-privateblockchain-platform-to-settle-trades ............... 15
Max (Chong) Li, Why Blockchain is
Necessary in Decentralized Clouds,
Forbes (Sept. 30, 2023),
https://www.forbes.com/sites/digitalassets/2023/09/30/why-blockchain-isnecessary-in-decentralized-clouds/ .................. 16
vii
Lyllah Ledesma, A $1.4T Financial Giant
Expands Its Money Market Fund on
Polygon, CoinDesk (Apr. 26, 2023),
https://www.coindesk.com/business/2023/0
4/26/a-14t-financial-giant-expands-itsmoney-market-fund-on-polygon ....................... 14
Darob Malek-Madani, How the Internet
Works, National Real Estate Advisors
(Jan. 2021), https://natadvisors.com/wpcontent/uploads/2019/08/How-TheInternet-Works-Whitepaper-Final.pdf .......... 5, 6
Angelica Mari, Brazil Develops Blockchain
Network to Support ID Rollout,
Forbes (Sept. 28, 2023),
https://www.forbes.com/sites/angelicamari
deoliveira/2023/09/27/brazil-developsblockchain-network-to-support-id-rollout/ ....... 18
Dillin Massand, Dubai: Launching a Crypto
Regulatory Arm to Become a Global
Financial Power, CoinDesk
(June 27, 2023),
https://www.coindesk.com/consensusmagazine/2023/06/27/dubai-launching-acrypto-regulatory-arm-to-become-a-globalfinancial-power/ ................................................ 17
Dora Mekouar, Here’s Where the Internet
Actually Lives, VOA (Feb. 17, 2020),
https://www.voanews.com/a/usa_all-aboutamerica_heres-where-internet-actuallylives/6184090.html/............................................. 8
viii
John Minnix, 115 Data Center Stats You
Should Know in 2024, Brightlio (Apr. 22,
2024), https://brightlio.com/data-centerstats/ ................................................................. 7-8
Danny Park, South Korea’s Inaugural Crypto
Law Goes Into Full Effect, The Block (July
19, 2024), https://tinyurl.com/yjrnbkpj ............ 18
Emily Parker, How Japan Is Leading the
Race to Regulate Stablecoins, CoinDesk
(Oct. 25, 2023),
https://tinyurl.com/5ev34sth ............................ 18
PayPal Users Can Now Transfer, Send, and
Receive Bitcoin, Ethereum, Bitcoin Cash,
and Litecoin, PayPal (Aug. 12, 2022),
https://newsroom.paypal-corp.com/202206-07-PayPal-Users-Can-Now-TransferSend-and-Receive-Bitcoin-EthereumBitcoin-Cash-and-Litecoin ................................ 15
Ezra Reguerra, Swiss Bank UBS Launches
Tokenized Money Market Fund on
Ethereum, Cointelegraph (Oct. 2, 2023),
https://cointelegraph.com/news/ethereumubs-tokenize-money-market-fund-launch........ 14
Katherine Ross & Jack Kubinec, Hong Kong
to Create Regulatory Regime for
Stablecoin Issuers, Blockworks (Dec. 27,
2023), https://blockworks.co/news/hongkong-stablecoin-regulation ............................... 18
ix
Niamh Rowe, Hamilton Lane Becomes First
Asset Manager to Launch a Fund on
Solana Blockchain, yahoo!finance
(July 23, 2024),
https://ca.finance.yahoo.com/news/hamilto
n-lane-becomes-first-asset100000656.html ................................................ 15
Krisztian Sandor, BlackRock’s BUIDL
Becomes Largest Tokenized Treasury
Fund Hitting $375M, Toppling Franklin
Templeton’s, CoinDesk (Apr. 30, 2024),
https://www.coindesk.com/markets/2024/0
4/30/blackrocks-buidl-becomes-largesttokenized-treasury-fund-hitting-375mtoppling-franklin-templetons/ .......................... 14
Jack Schickler, MiCA, EU’s Comprehensive
New Crypto Regulation, Explained,
CoinDesk (Sept. 7, 2023),
https://www.coindesk.com/learn/mica-euscomprehensive-new-crypto-regulationexplained ........................................................... 17
Andrey Sergeenkov, China Bets on Massive
Blockchain Infrastructure, Forbes
(Oct. 10, 2024),
https://www.forbes.com/sites/digitalassets/2024/10/08/china-bets-on-massiveblockchain-infrastructure/ ................................ 17
x
Rus Shuler, How Does the Internet Work,
Pomeroy IT Solutions (2002),
https://web.stanford.edu/
class/msande91si/wwwspr04/readings/week1/
InternetWhitepaper.htm .................................... 6
Miranda S. Spivack, More Data in the Cloud
Means More Centers on the Ground to
Move It, N.Y. Times (June 27, 2023),
https://www.nytimes.com/2023/06/27/busin
ess/data-centers-internet-infrastructuredevelopment.html ........................................... 7, 8
Samyuktha Sriram, Customers Can Reload
Starbucks Card With Bitcoin and
Ethereum As Coffeehouse Explores
‘Tokenizing Stars,’ yahoo!finance
(Nov. 11, 2021),
https://finance.yahoo.com/news/customersreload-starbucks-card-bitcoin154130368.html ................................................ 16
Stanford Engineering Center for Global &
Online Education, How Does Blockchain
Work?, https://online.stanford.edu/howdoes-blockchain-work
(last visited Oct. 24, 2024) ............................. 9-11
xi
Franklin Templeton, Franklin Templeton
Announces Availability of Peer-to-Peer
Transfers for Franklin OnChain U.S.
Government Money Fund (Apr. 25, 2024),
https://www.franklintempleton.com/pressreleases/news-room/2024/franklintempleton-announces-availability-of-peerto-peer-transfers-for-franklin-onchain-u.s.government-money-fund .................................. 14
The Value Prop, Polygon,
https://thevalueprop.io/
(last visited Oct. 24, 2024) ................................ 13
Andrew Torba, I Bought Subway with
Bitcoin and it was Awesome, Coindesk
(April 9, 2024),
https://www.coindesk.com/business/2013/1
1/22/i-bought-subway-with-bitcoin-and-itwas-awesome/ ................................................... 16
Zoltan Vardai, Ethereum Validators up 30%
in a Year, Driven by Institutional
Adoption, Cointelegraph (Oct. 16. 2024),
https://cointelegraph.com/news/ethereumvalidators-up-30-year-institutionaladoption............................................................. 11
Virtual Asset (Service Providers) Act (2022
Revision), (Jan. 31, 2022) (Cayman Is.),
https://tinyurl.com/3x7e97cb ............................ 18
xii
Sebastian Widmann, How The UAE Became a
Crypto Hub Poised for Explosive Growth,
Forbes (Nov. 16, 2023),
https://www.forbes.com/sites/digitalassets/2023/11/16/how-the-uae-became-acrypto-hub-poised-for-explosive-growth........... 17
Jeff Wilser, Zug: Where Ethereum was Born
and Crypto Goes to Grow Up, CoinDesk
(June 27, 2023),
https://tinyurl.com/yc7nemby ........................... 17
Mehnaz Yasmin and Saeed Azhar, BNY
Mellon to Offer Crypto Services in Digital
Asset Push, yahoo!finance (Oct. 11, 2022),
https://finance.yahoo.com/news/bnymellon-offer-crypto-services143413827.html ................................................ 15
INTEREST OF AMICUS CURIAE 1
__________________
The Crypto Council for Innovation (“CCI”) is the
premier global alliance of industry leaders with a
mission to communicate the opportunities presented
by blockchain technology and digital assets and
demonstrate their transformational potential.
Indeed, blockchain technology serves as the
infrastructure for a new generation of the internet.
CCI’s members, which include leading global
companies and investors in the industry, share the
goal of encouraging responsible global regulation of
blockchain technology to unlock economic potential,
improve lives, foster financial inclusion, protect
national security, and combat illicit activity. CCI
believes that achieving these goals requires
informed, evidence-based policy decisions realized
through collaborative engagement with regulators
and industry.
CCI’s particular interest in this case arises
because the Second Circuit held, in part, that
components of internet infrastructure—specifically,
servers on which transactions “matched”—were
located in the United States, factoring into making
those transactions “domestic” for purposes of
No counsel for either party authored this brief in whole or
in part, nor did any party or other person or entity other than
amicus curiae, its members, or its counsel make a monetary
contribution to the brief’s preparation or submission. Counsel
of record for all parties received notice at least ten days prior
to the due date of the intention of amicus curiae to file this
brief.
1
2
determining territoriality. Pet’r’s App. 12a. CCI
respectfully disagrees with that notion, for legal,
technological, and policy reasons. Were that Second
Circuit holding to stand, the doctrine set forth in
Morrison v. Nat’l Australia Bank Ltd., 561 U.S. 247
(2010) would be eviscerated, leading to devastating
consequences for the blockchain industry, an array
of other American businesses, and foundational
principles of comity.
SUMMARY OF ARGUMENT
The Second Circuit improperly considered the
geographical location of internet infrastructure in
its decision that certain transactions were not
sufficiently “extraterritorial” to be outside the scope
of the relevant federal statutes. In particular, the
Second Circuit held that internet transactions
allegedly passed through servers in California, and
that digital data was allegedly stored on servers in
California. Pet’r’s App. 15a. As a result, the Second
Circuit held that the extraterritoriality doctrine
voiced in Morrison was inapplicable. In doing so, the
Second Circuit erred.
For the internet to work, most of it has to be
invisible. When a user sends an email, or buys a
book from an online bookstore, or comments on a
news article, data signals sent by the user pass
through an array of internet infrastructure—local
servers, intermediary servers, remote servers,
internet service providers, routers, data centers, and
the many other pieces of internet architecture
required to make it all work. Thanks to the miracles
3
of modern engineering, those pieces of physical
infrastructure can be located anywhere. A user in
Washington, D.C. can place an online order for a
book from a Parisian bookstore, and that “buy”
signal may be routed through internet providers in
Virginia, Pennsylvania, and New Jersey, servers in
California, relayers in Canada, Iceland, and the
U.K., to the bookstore in France, who “settles” that
transaction on a server in Germany and on the
servers of a book-shipper in Ireland, before routing
confirmation signals back in the same way (or a
different way)—all within a few hundred
milliseconds.
Most users, most of the time, care about none of
that. Nor should they. Users have little choice what
internet infrastructure is used, or where. And a
world where users had to care about each of those
steps—and consider whether they were subjecting
themselves to the law of each of those states or
nations—would bring the world of internet
commerce to a screeching halt.
One exciting new technology revolutionizing
internet infrastructure is blockchain technology,
which has seen a meteoric rise in usage in the last
decade due to its increased cybersecurity, efficiency,
and resilience. But that technology relies on an even
more complex tangle of its own infrastructural
geography. A blockchain functions by recording
every transaction on that blockchain on every “node”
in the chain, which is the source of its increased
resilience—if one node fails, all other nodes provide
redundancy, and the chain’s records are unaffected.
4
A blockchain is analogous to a global public
computer and database, operated and maintained by
all of the nodes.
But those nodes, and the
“validators” who verify transactions on the
blockchain, can be located anywhere in the world.
The Ethereum blockchain (one of the largest) has
over 6,300 nodes all over the world, meaning that
any Ethereum blockchain transaction will “settle”
on servers in the U.S., Germany, Canada, the U.K.,
France, South Korea, Singapore, the Netherlands,
Australia, and many other countries.
Users do not need to care about that geographical
quirk either—as far as users are concerned, it is all
“back-office” internet infrastructure.
If the
“location” of a blockchain transaction triggered the
applicability of law and jurisdiction of any and all
countries where blockchain transactions settle, then
every user could be affected by the laws of dozens of
countries, and even different states within those
countries, for every transaction.
The Second Circuit erred in considering backoffice internet infrastructure, such as the location of
Amazon Web Services (“AWS”) servers, as a factor to
judge whether the extraterritoriality doctrine
should apply. That result, if sustained, would
seriously impair American internet infrastructure
business, causing it to move offshore (with many
attendant disadvantages for Americans and U.S.
law enforcement). It would also corrode the doctrine
of comity, placing Americans at risk of being sued in
foreign countries for using internet infrastructure
that touches foreign nations. It further would risk
5
foreigners suing foreign companies in U.S. courts,
causing judicial overload. Given the global primacy
of American internet infrastructure, it is rare that
internet transactions do not touch internet
infrastructure in the U.S. at some point. If that fact
potentially subjected transactions anywhere in the
world to litigation in the U.S., the result would moot
Morrison, devastate the blockchain industry,
negatively affect a host of other federal laws beyond
blockchains and digital assets, and cast shadows
over the doctrine of comity. The Second Circuit
decision
directly
challenges
this
Court’s
extraterritoriality holdings, and this Court should
grant certiorari in this clean vehicle to reverse the
Second Circuit’s decision.
STATEMENT OF FACTS
I.
HOW INTERNET TRANSACTIONS WORK
Internet transactions transmit data through a
complex array of internet infrastructure. When a
user initiates an internet transaction, the user’s
request emanates from that user’s device, and is
broken down into smaller data packets that travel
through the user’s Internet Service Provider (“ISP”)
network. 2 The data packets then travel through the
See Darob Malek-Madani, How the Internet Works,
National Real Estate Advisors (Jan. 2021), at 4,
https://natadvisors.com/wp-content/uploads/2019/08/How-TheInternet-Works-Whitepaper-Final.pdf. ISPs are “networks
which provide users access to the broader internet.” Id. They
are “typically owned and operated by … large telecom
companies,” such as Verizon or Comcast. Id.
2
6
internet backbone—the core infrastructure of the
internet, consisting of a global system of
interconnected networks. 3 The data will eventually
reach its destination server, which will process the
request and send back its response to the user's
device. 4 Both ways, the data travels through a
complex network of several routers, servers, and
switches located in various data centers, and may
pass through firewall appliances and proxy
gateways, among other applications, many of which
can be geographically dispersed.
This underlying infrastructure is essentially
invisible to users who send emails, access websites,
and complete online purchases without any
consideration of the many components involved.
The invisibility of the internet’s complex
infrastructure is integral to its success. Users can
focus on the content of whatever web page or
application they are using without being distracted
by the complex network of cables, routers, servers,
See Rus Shuler, How Does the Internet Work, Pomeroy IT
Solutions
(2002),
https://web.stanford.edu/class/msande91si/wwwspr04/readings/week1/InternetWhitepaper.htm. A router is a
networking device, “operat[ing] as a switch at the intersections
of networks,” that directs packets of data between networks on
the way to their destination. Malek-Madani, supra at 5. A
server is a “computer which provides services to other
computers on a network,” such as a “computer where a website
is located.” Id. Servers are often housed in large data centers,
spaces “dedicated to housing computer systems or
telecommunications infrastructure.” Id.
3
4
Id. at 4.
7
and networks that enable their transactions.
Without having to understand the internet’s
underlying technical complexities, the internet can
be accessible to a wide audience of ages and
technical proficiencies. Internet infrastructure, at
its best, makes internet transactions seem simple,
immediate, and reliable, fostering user confidence
and encouraging widespread adoption of globally
transformative internet technologies. Ultimately,
the hidden nature of the internet’s inner workings is
crucial to its value—the ability to provide instant
and seamless access to vast amounts of information
and services worldwide, with little effort or technical
knowledge required.
For all users might know, the infrastructural
components involved in their online transactions
could be physically located anywhere in the world.
However, data is especially likely to pass through
servers in the U.S., due to the concentration of major
technology companies and infrastructure here. The
U.S. has, by far, the most data centers in the world. 5
5
See Brian Daigle, Data Centers Around the World: A Quick
Look, United States International Trade Commission (May
2021),
https://www.usitc.gov/publications/332/executive_briefings/eb
ot_data_centers_around_the_world.pdf (over 2,600 data
centers in the U.S. in 2021, with the U.S. housing 33% of the
world’s data centers); Miranda S. Spivack, More Data in the
Cloud Means More Centers on the Ground to Move It, N.Y.
Times
(June
27,
2023)
https://www.nytimes.com/2023/06/27/business/data-centersinternet-infrastructure-development.html (2,701 data centers
in the U.S. in 2022 with Germany in a “distant second”); John
Minnix, 115 Data Center Stats You Should Know in 2024,
Brightlio (Apr. 22, 2024, https://brightlio.com/data-center-
8
Many of the world’s largest “data producing and
data consuming” companies, such as Google,
Amazon, Meta, and Microsoft, are based in the U.S.
and maintain data centers here. 6 Up to 70% of the
world’s internet traffic passes through servers in
data centers in Northern Virginia, in the town of
Ashburn, in Loudoun County—referred to as “Data
Center Alley.” 7 “Pretty much any email sent or
received anywhere around the globe, comes through
this town. If you’ve got something stored in the
cloud, it’s probably in one of the 100-plus data
centers located in Loudoun County.” 8 A “similar
hub lies near Silicon Valley” in California, and
ultimately, “[a] majority of the world’s internet
traffic flows through the sites in these two regions,
which function as crucial internet conveyor belts.”9
Internet users almost never have knowledge or
control over where their data is geographically
located, or the physical locations of the servers and
routers that carry the signals they send. The
internet only works because most people don’t have
to know or care how it works.
stats/ (5,388 data centers in the U.S. in 2024 based on various
sources).
6
Daigle, supra.
Dora Mekouar, Here’s Where the Internet Actually Lives,
VOA (Feb. 17, 2020), https://www.voanews.com/a/usa_allabout-america_heres-where-internet-actuallylives/6184090.html/.
7
8
Id.
9
Spivack, supra.
9
II.
HOW BLOCKCHAIN TRANSACTIONS WORK
The description of the internet set forth above is
the internet commonly used today to send emails,
order books online, order food delivery, or access
social media websites. Most of the companies that
provide these services—Google for email, Amazon
for books, Seamless for food delivery, Meta or Reddit
for social media—are centralized companies that
conduct their internet transactions on servers of
their choosing. They may not choose all the routers
or servers in the network chains between the
companies and their users, but they have some
control.
Blockchain-based architecture works differently.
Blockchains are the new internet infrastructure;
they are blocks of data that are linked into a digital
chain. Each “block” is a ledger that is updated and
added to with permanently recorded data. This
information is stored in a distributed or
“decentralized” system, where each block’s data is
confirmable by every participating computer on that
blockchain network. 10
There is no centralized control over a blockchain.
Rather, copies of all information and transactions on
a blockchain are distributed across the blockchain
network. When a transaction is added to this
system, sometimes called a “distributed ledger,” it is
See Stanford Engineering Center for Global & Online
How
Does
Blockchain
Work?,
Education,
https://online.stanford.edu/how-does-blockchain-work
(last
visited Oct. 24, 2024).
10
10
synced with every node of the blockchain, regardless
of the physical geography of those nodes.11
No one entity, organization, person, or group of
persons is necessary to operate a blockchain, or to
facilitate or allow access to users interacting directly
with the blockchain. While some companies may use
private blockchains that they entirely control, most
public blockchains operate autonomously, i.e., no
people or entities need to coordinate consciously for
them to run, and “permissionlessly,” i.e., no one
needs authorization to interact with the blockchain
directly. 12
The decentralized nature of blockchain
technology also has promoted competition within the
various layers of internet infrastructure. Due to the
lower barriers to entry associated with blockchain
technology, a wider and more diverse array of
developers can build internet products and
services. 13
A blockchain has different types of “nodes,”
typically computers or devices, that participate to
perform different functions. Two common types are
“validator” or “miner” nodes, which help secure and
process the transactions on a blockchain. In a proof11
Id.
12
Id.
See Miles Jennings, Why Decentralization Matters, for
a16zcrypto
(June
24,
2024),
Builders,
13
https://a16zcrypto.com/posts/article/why-decentralizationmatters-builders/.
11
of-work consensus process (such as for the Bitcoin
blockchain), miners complete a mathematical
puzzle, which adds blocks to the chain and mines
new coins. In a proof-of-stake consensus mechanism
(such as for the modern Ethereum blockchain),
nodes in a blockchain network use an algorithm to
agree on the next valid block of transactions that
will be added to the blockchain. 14
A validator is a participant in a proof-of-stake
blockchain running a computer that verifies the
transactions on the network. To become a validator,
a network participant can choose to “stake” (or “put
up”) a specific amount of the network’s native token,
but no agreement or permission is required for a
participant to become a validator in a proof-of-stake
blockchain.
Blockchain networks can have
hundreds or thousands of nodes. The Ethereum
blockchain, for example, has over one million
validators. 15 The validator nodes across the full
blockchain industry span the globe, and for the most
part, they do not coordinate, work together, or even
know each other. Indeed, anyone can undertake
blockchain node deployment, on their own or
through commercially-available services. 16 The
14
How Does Blockchain Work?, supra.
Zoltan Vardai, Ethereum Validators up 30% in a Year,
Driven by Institutional Adoption, Cointelegraph (Oct. 16.
15
2024),
https://cointelegraph.com/news/ethereum-validatorsup-30-year-institutional-adoption.
See, e.g., Ian Holtz, et al., Blockchain Node Deployment on
AWS: A Comprehensive Guide, AWS Database Blog (Apr. 29,
16
2024),
https://aws.amazon.com/blogs/database/blockchainnode-deployment-on-aws-a-comprehensive-guide/.
12
widespread deployment of nodes around the world
has numerous benefits: enhancing the resiliency
and security of networks, maintaining integrity by
allowing for independent verification of blockchain
transactions, preventing a single “point of failure” in
the event of an outage in one area, and promoting
transparency because validators can verify
transactions from a node anywhere.
Due to the dispersed nature of blockchains and
the large number of nodes it takes to operate them,
knowing where all the nodes on a particular chain
are physically located is difficult, and sometimes
impossible. Most users of a blockchain network, as
well as users of applications or networks that are
built and operate on top of blockchain networks, do
not and cannot know where any given node is
located, much less all the nodes. It would be nearly
impossible to know in advance which of the
hundreds or thousands of validators on a blockchain
network would be the requisite “majority” that
validated a particular transaction at a particular
time.
Luckily, knowing where nodes are located is
irrelevant—users do not need to know or understand
where nodes are located to use or participate in a
blockchain network, much in the same way that
typical internet users do not need to know or
understand internet infrastructure, or where
servers are located, to access the internet
seamlessly. For the average user, the invisibility of
blockchain architecture resembles the invisibility of
other modern internet architecture. The fact that
users do not care about (and are unaware of) the
13
location of nodes underscores the error in the Second
Circuit’s decision and the dangerous consequences
resulting therefrom.
III.
USE CASES OF BLOCKCHAIN INFRASTRUCTURE
Due to the dispersed nature of the nodes that
secure a blockchain, and the distributed ledger that
records data immutably, blockchain infrastructure
carries strong advantages for cybersecurity,
transparency,
traceability,
automation,
and
recordkeeping. When hundreds or thousands of
computers across the globe are securing the data
separately, tampering with a blockchain is much
more difficult—there is no one “point of failure” that
can destroy an entire network, and by creating
records that cannot be altered (and can be
encrypted), blockchain technology can help prevent
fraud. It is no surprise that blockchain networks are
rising as back-office technology, both in “private
blockchains” (controlled entirely by one party or a
limited number of parties), or “public blockchains”
(open for anyone in the world to use without any
permission). 17
Companies and even countries around the globe
integrate and rely on blockchain infrastructure to
capitalize on the benefits of decentralization, such as
See
generally
The
Value
Prop,
Polygon,
https://thevalueprop.io/ (last visited Oct. 24, 2024).
TheValueProp is an internet database that features numerous
blockchain use cases across many verticals, including
sustainability, humanitarian work, education, and others.
17
14
the ease of access and permissionless nature of the
underlying technology.
These benefits are illustrated by the many
traditional finance companies moving into
blockchain. For example, Franklin Templeton offers
a tokenized money market fund that uses a public
blockchain to process transactions and record share
ownership, 18 and announced that shares of the fund
can be transferred on a blockchain. 19 BlackRock and
UBS offer tokenized money market funds on
Ethereum. 20 Multiple traditional finance firms offer
Bitcoin and Ethereum “exchange traded products.” 21
Lyllah Ledesma, A $1.4T Financial Giant Expands Its
Money Market Fund on Polygon, CoinDesk (Apr. 26, 2023),
18
https://www.coindesk.com/business/2023/04/26/a-14tfinancial-giant-expands-its-money-market-fund-on-polygon.
19
Franklin Templeton, Franklin Templeton Announces
Availability of Peer-to-Peer Transfers for Franklin OnChain
U.S. Government Money Fund (Apr. 25, 2024),
https://www.franklintempleton.com/press-releases/newsroom/2024/franklin-templeton-announces-availability-of-peerto-peer-transfers-for-franklin-onchain-u.s.-governmentmoney-fund.
20
Krisztian Sandor, BlackRock’s BUIDL Becomes Largest
Tokenized Treasury Fund Hitting $375M, Toppling Franklin
CoinDesk
(Apr.
30,
2024),
Templeton’s,
https://www.coindesk.com/markets/2024/04/30/blackrocksbuidl-becomes-largest-tokenized-treasury-fund-hitting-375mtoppling-franklin-templetons/; Ezra Reguerra, Swiss Bank
UBS Launches Tokenized Money Market Fund on Ethereum,
Cointelegraph
(Oct.
2,
2023),
https://cointelegraph.com/news/ethereum-ubs-tokenizemoney-market-fund-launch.
21
Bitcoin ETFs List, VettaFi (Oct. 24, 2024),
https://etfdb.com/themes/bitcoin-etfs/; Ethereum ETFs List,
15
Hamilton Lane launched a private credit fund on the
Solana blockchain. 22 PayPal permits users to
transfer cryptocurrency to other users. 23 BNY
Mellon announced that it would accept
cryptocurrency deposits from retail users, just like it
accepts fiat currency. 24 Traditional finance firms
are also experimenting with private blockchains,
further cementing the practical use of blockchain
technology. 25
VettaFi, https://etfdb.com/themes/ethereum-etfs/ (last visited
Oct. 24, 2024).
Niamh Rowe, Hamilton Lane Becomes First Asset
to Launch a Fund on Solana Blockchain,
yahoo!finance
(July
23,
2024),
https://ca.finance.yahoo.com/news/hamilton-lane-becomesfirst-asset-100000656.html.
22
Manager
PayPal Users Can Now Transfer, Send, and Receive
Bitcoin, Ethereum, Bitcoin Cash, and Litecoin, PayPal (Aug.
23
12,
2022),
https://newsroom.paypal-corp.com/2022-06-07PayPal-Users-Can-Now-Transfer-Send-and-Receive-BitcoinEthereum-Bitcoin-Cash-and-Litecoin.
Mehnaz Yasmin and Saeed Azhar, BNY Mellon to Offer
Crypto Services in Digital Asset Push, yahoo!finance (Oct. 11,
2022),
https://finance.yahoo.com/news/bny-mellon-offercrypto-services-143413827.html.
24
25
See Oliver Knight, Wall Street Giant DTCC Launches
Private Blockchain in Big Crypto-Milestone for TradFi,
CoinDesk
(Aug.
22,
2022),
https://www.coindesk.com/business/2022/08/22/wall-streetsdtcc-launches-private-blockchain-platform-to-settle-trades
(DTCC is testing the use of a private blockchain for settlement
and clearing); Businesswire, Citi Develops New Digital Asset
Capabilities for Institutional Clients (Sept. 18, 2023),
https://www.businesswire.com/news/home/20230918024720/e
n/Citi-Develops-New-Digital-Asset-Capabilities-forInstitutional-Clients (Citibank is offering “blockchain and
16
Many non-financial companies are also using
blockchain technologies, including Google, 26 AMC
Theatres, 27 Subway, 28 and Starbucks. 29 Blockchain
infrastructure is being used to build decentralized
online cloud storage, and is considered a pivotal
network feature because servers are managed by
independent and diverse entities across the world. 30
Decentralized blockchain-based networks are using
smart contract technologies to deliver digital asset solutions for
institutional clients”).
Oliver Knight, Google Partners With Coinbase to Accept
Crypto Payments for Cloud Services, yahoo!finance (Oct. 11,
2022),
https://ca.finance.yahoo.com/news/google-partnerscoinbase-accept-crypto-121803385.html.
26
Chris Katje, AMC To Accept Bitcoin and Crypto For
Payment, Are NFT Commemorative Tickets Next?,
yahoo!finance
(Sept.
19,
2021),
https://finance.yahoo.com/news/amc-accept-bitcoin-cryptopayment-205509000.html.
27
Andrew Torba, I Bought Subway with Bitcoin and it was
Coindesk
(April
9,
2024),
https://www.coindesk.com/business/2013/11/22/i-boughtsubway-with-bitcoin-and-it-was-awesome/.
28
Awesome,
Samyuktha Sriram, Customers Can Reload Starbucks
Card With Bitcoin and Ethereum As Coffeehouse Explores
‘Tokenizing Stars,’ yahoo!finance (Nov. 11, 2021),
29
https://finance.yahoo.com/news/customers-reload-starbuckscard-bitcoin-154130368.html.
Max (Chong) Li, Why Blockchain is Necessary in
Forbes
(Sept.
30,
2023),
Clouds,
https://www.forbes.com/sites/digital-assets/2023/09/30/whyblockchain-is-necessary-in-decentralized-clouds/.
30
Decentralized
17
nodes as hotspots to connect wireless devices to the
internet. 31
Other countries have recognized the importance
of blockchain infrastructure. 32 Many countries are
promulgating relevant regulatory frameworks,
including (among others) the European Union, the
U.K., Switzerland, the United Arab Emirates, Hong
Kong, Singapore, Japan, South Korea, the Cayman
Islands, and the British Virgin Islands. 33 Finland’s
Andrew Hayward, Andreessen-Backed Helium Raises
$111 Million to Grow Crypto Wireless Network, Decrypt (Aug.
31
10, 2021), https://decrypt.co/78222/andreessen-backed-heliumraises-111-million-to-grow-crypto-wireless-network.
Andrey Sergeenkov, China Bets on Massive Blockchain
Forbes
(Oct.
10,
2024),
https://www.forbes.com/sites/digital-assets/2024/10/08/chinabets-on-massive-blockchain-infrastructure/.
32
Infrastructure,
See Jack Schickler, MiCA, EU’s Comprehensive New
Crypto Regulation, Explained, CoinDesk (Sept. 7, 2023),
33
https://www.coindesk.com/learn/mica-eus-comprehensivenew-crypto-regulation-explained; Ryan Browne, UK Confirms
Plans to Regulate Crypto Industry with Formal Legislation,
CNBC (Oct. 30, 2023), https://www.cnbc.com/2023/10/30/ukconfirms-plans-to-regulate-crypto-industry-with-formallegislation.html; Jeff Wilser, Zug: Where Ethereum was Born
and Crypto Goes to Grow Up, CoinDesk (June 27, 2023),
Dubai:
https://tinyurl.com/yc7nemby;
Dillin
Massand,
Launching a Crypto Regulatory Arm to Become a Global
CoinDesk
(June
27,
2023),
Financial
Power,
https://www.coindesk.com/consensusmagazine/2023/06/27/dubai-launching-a-crypto-regulatoryarm-to-become-a-global-financial-power/; Sebastian Widmann,
How The UAE Became a Crypto Hub Poised for Explosive
Forbes
(Nov.
16,
2023),
Growth,
https://www.forbes.com/sites/digital-assets/2023/11/16/howthe-uae-became-a-crypto-hub-poised-for-explosive-growth;
18
tax administration has begun integrating
blockchain to track real estate transactions. 34
Brazil developed a blockchain network to increase
security around data sharing as it implements a new
national identity card. 35
These examples—particularly those using public
blockchains—demonstrate the use of blockchain
networks that automatically rely on nodes around
the globe, without any one or any company verifying
where the nodes are for the businesses or initiatives
to operate. If companies had to identify where nodes
that verify transactions are located, for the purpose
of assessing their jurisdictional reach and perhaps
even to “opt out” of specific jurisdictions’ bodies of
law—even if that were possible—it would derail not
Katherine Ross & Jack Kubinec, Hong Kong to Create
Regulatory Regime for Stablecoin Issuers, Blockworks (Dec.
27, 2023), https://blockworks.co/news/hong-kong-stablecoinregulation; Emily Parker, How Japan Is Leading the Race to
CoinDesk
(Oct.
25,
2023),
Regulate
Stablecoins,
https://tinyurl.com/5ev34sth; Danny Park, South Korea’s
Inaugural Crypto Law Goes Into Full Effect, The Block (July
19, 2024), https://tinyurl.com/yjrnbkpj; Virtual Asset (Service
Providers) Act (2022 Revision), (Jan. 31, 2022) (Cayman Is.),
https://tinyurl.com/3x7e97cb.
Alfredo Collosa, How Global Tax Administrations Are
Using Blockchain Technology, Bloomberg Tax (Mar. 17, 2022),
34
https://news.bloombergtax.com/daily-tax-reportinternational/how-global-tax-administrations-are-usingblockchain-technology.
Angelica Mari, Brazil Develops Blockchain Network to
Forbes
(Sept.
28,
2023),
ID
Rollout,
https://www.forbes.com/sites/angelicamarideoliveira/2023/09/2
7/brazil-develops-blockchain-network-to-support-id-rollout/.
35
Support
19
just U.S.-based blockchain infrastructure, but entire
businesses and business initiatives.
ARGUMENT
I.
THE SECOND CIRCUIT’S DECISION IS AT ODDS
WITH MORRISON’S TEACHINGS IN THE
CONTEXT OF THE SECURITIES ACT AND
EXCHANGE ACT
The Second Circuit’s holding in this case
implicates the Securities Act of 1933 (15 U.S.C. § 77)
and the Securities Exchange Act of 1934 (15 U.S.C.
§ 78). These statutes animated the Morrison
decision in the first place, as this Court was wary of
allowing U.S. courts to become “the Shangri-La of
class action litigation for lawyers representing those
allegedly cheated in foreign securities markets.” 561
U.S. at 270.
The Second Circuit’s decision ignores the
teaching of Morrison. Using internet infrastructure,
over which users would have no choice or control,
would reduce the doctrine of extraterritoriality to (as
this Court described it) a “muzzled Chihuahua.”
Abitron Austria GmbH v. Hetronic Int’l, Inc., 600
U.S. 412, 426 (2023).
Long gone are the days of open-outcry trading
pits on the floor of the New York Stock Exchange. In
the modern financial world, virtually all securities
transactions take place over the internet, and orders
are routed through servers, routers, and wiring
around the world.
20
While the Second Circuit has wrestled with
where modern securities transactions take place, it
did not previously find the location of internet
infrastructure to be relevant. Before its decision in
this case, the Second Circuit focused on where the
human beings, not computer servers, were located.
See, e.g., Choi v. Tower Research Cap. LLC, 890 F.3d
60, 67-68 (2d Cir. 2018) (irrevocable liability
attached in the U.S. because persons directed trades
to be matched through a domestic exchange); Giunta
v. Dingman, 893 F.3d 73, 80-81 (2d Cir. 2018)
(irrevocable liability occurred in New York because
parties
met
there,
one
party
received
communications there, and funds were transferred
from there); Fed. Hous. Fin. Agency v. Nomura
Holding Am., Inc., 873 F.3d 85, 156–58 (2d Cir. 2017)
(irrevocable liability attached in D.C. and Virginia
because agency employees worked there and
received emailed offer materials there); United
States v. Vilar, 729 F.3d 62, 76–78 (2d Cir. 2013)
(irrevocable liability hinged on location where party
executed documents, and location from where money
was sent); Absolute Activist Value Master Fund Ltd.
v. Ficeto, 677 F.3d 60, 62 (2d Cir. 2012) (parties who
never resided in the U.S. and transactions not
alleged to have occurred in the U.S. not sufficiently
alleged to be domestic).
If the location of internet infrastructure were
relevant, virtually any court examining Morrison
could conclude the transaction was domestic, for the
simple fact that the U.S. is far and away the world
leader in internet infrastructure.
Securities
transactions, even between non-U.S. parties, may
21
easily use American internet infrastructure, without
either party even knowing it. Morrison would be
greatly diminished if “lawyers representing those
allegedly cheated in foreign securities markets”
were able to point to these intermediary
infrastructural touchpoints as grounds for the
“domesticity” of a transaction. Morrison, 561 U.S. at
270. If “the mere placement of a buy order in the
United States for the purchase of foreign securities
on a foreign exchange” was insufficient to allege that
a purchaser incurred irrevocable liability in the
U.S., City of Pontiac Policemen’s & Firemen’s
Retirement Systems v. UBS AG, 752 F.3d 173, 181
(2d Cir. 2014), then the incidental fact that the buy
order settled on a server in the U.S., unbeknownst
to that buyer, could not possibly suffice. Yet here,
the Second Circuit concluded otherwise.
This issue becomes more acute in the blockchain
transaction world, where internet infrastructure,
such as the machine where orders are matched, is
not even necessarily housed on one machine in one
location—but instead, is located on every server
node on the blockchain, everywhere around the
world. If the location of “settlement” on a blockchain
were relevant, then Morrison retreats to its kennel,
a craven watchdog, as virtually every blockchain
transaction could be said to have settled, at least in
part, on nodes located in the U.S.
Morrison
rejected the notion that all
transactions should or can feasibly be subject to
litigation in the U.S. The Second Circuit’s decision
would result in exactly that, providing a basis to
subject all securities transactions (and other conduct
22
potentially subject to U.S. law, see infra at Section
II) to litigation in the U.S.—a result that could
overwhelm the judicial system and undermine the
presumption against extraterritorial application of
U.S. law.
II.
THE SECOND CIRCUIT’S DECISION IMPLICATES
ALL FEDERAL LAWS
As Morrison makes clear, the doctrine of
extraterritoriality is broader than just the Securities
Act and the Exchange Act. It applies to all
“legislation of Congress.” 561 U.S. at 255 (citations
omitted). The Second Circuit improperly looked to
the location of internet infrastructure to conclude
that Morrison did not bar claims under the
Securities Act and the Exchange Act. But the
Second Circuit rule, if allowed to stand, would apply
to all federal statutes, leading to an evisceration of
the Morrison doctrine in many areas of federal law.
Internet usage is now universal, constant, and often
international, and thus is implicated in many cases,
under many different federal statutes, that might
have come out differently under the Second Circuit
rule. For example:
– In Loginovskaya v. Batratchenko, 764 F.3d
266, 271–74 (2d Cir. 2014), the Second Circuit
upheld the dismissal of a case brought under the
Commodities Exchange Act because it was based on
extraterritorial commodities transactions where the
plaintiff wired funds to a bank in New York,
necessarily implicating the banks’ internet
infrastructure in the U.S.
23
– In Sexual Minorities Uganda v. Lively, 254 F.
Supp. 3d 262, 268 (D. Mass. 2017), the court
dismissed a case brought under the Alien Tort
Statute on extraterritoriality grounds where the
defendant resided in the U.S. and sent emails
originating from the U.S. in connection with crimes
in Uganda. The use of internet infrastructure was
insufficient to invoke domesticity.
– In IMAPizza, LLC v. At Pizza Ltd., 334 F. Supp.
3d 95, 118 (D.D.C. 2018), aff’d 965 F.3d 871, 879
(D.C. Cir. 2020), defendant’s travel to the U.S.,
taking pictures during those visits, and downloading
“copyrighted pictures from U.S. servers” was not
sufficiently domestic activity to constitute a
violation of the Copyright Act.
– In Hourani v. Mirtchev, 943 F. Supp. 2d 159,
167 (D.D.C. 2013), Cedeño v. Intech Grp., Inc., 733
F. Supp. 2d 471, 473 (S.D.N.Y. 2010), courts
dismissed cases where money laundering through
domestic banks—necessarily implicating the banks’
internet infrastructure in the U.S.—was insufficient
to justify extraterritorial applications of the
Racketeer Influenced and Corrupt Organizations
Act (“RICO”). Similarly, in Sonterra Capital Master
Fund Ltd. v. Credit Suisse Grp. AG, 277 F. Supp. 3d
521, 581 (2017), a RICO claim was dismissed on
Morrison grounds, even though defendants
purportedly caused manipulated interest rate
information “to be published to servers in the United
States and used United States wires to memorialize
trades affected by that rate.”
24
– In Nakhid v. Am. Univ., No. 19-cv-3268 (APM),
2021 WL 4169355, at *6 (D.D.C. Sept. 14, 2021), the
court dismissed claims under the Civil Rights Act of
1964 and 42 U.S.C. § 1981 for being impermissibly
non-domestic, even though job descriptions were
posted online for an American University coaching
position.
As a result, the implications of the Second
Circuit’s decision are far greater than just securities
laws. The Second Circuit’s decision, if left to stand,
could be cited in cases brought under any federal
statute.
And
given
the
international
interconnectedness of internet infrastructure, with
much of it located in the U.S., Morrison would be
eviscerated.
III.
THE SECOND CIRCUIT DECISION HAMPERS
INTERNET TRANSACTIONS GENERALLY, AND
BLOCKCHAIN TRANSACTIONS IN PARTICULAR
If using U.S. internet infrastructure implicated
U.S. jurisdiction for any federal laws, beyond just
running afoul of Morrison, multiple harms would
result.
First, foreign companies, across industries,
would terminate use of U.S. internet infrastructure.
If a foreign company knew that using an American
component of internet infrastructure were sufficient
grounds to be sued in the U.S., under U.S. laws, they
would grow far more cautious about ensuring that
any internet traffic they routed, or servers they
used, were outside the U.S. American data center
25
companies, such as AWS, Microsoft, Google, Meta,
and many others, would lose significant business to
non-American providers (such as the U.K.’s Equinix
or Digital Realty, Japan’s NTT, China’s GDS
Holdings, or Europe’s Telehouse), as companies
outside the U.S. seek to ensure that their data never
touched the U.S. in any way. Worse, there would be
a “network effect,” as other infrastructure
companies that exclusively connect through these
American giants would have to find alternative,
foreign, providers. These impacts would severely
diminish American leadership in the internet
world—including, for example, shifting more
internet activity offshore, making it more difficult
for U.S. law enforcement to halt illicit finance and
protect American consumers.
Second, the principles of comity in the internet
era would be eroded, and U.S. citizens would be in
greater danger of being haled into foreign courts,
and subject to foreign law, because of the
happenstance of the internet infrastructure used in
their transactions. If foreign companies could be
sued in the U.S. (and under U.S. laws) just for using
American internet infrastructure, other countries
may adopt the same principles. An American
violating a Chinese law against certain types of
political speech, where that comment was housed on
a Chinese server, could be sued in China for that
action—even if the user had absolutely no idea that
the comment touched any Chinese internet
infrastructure.
26
The Second Circuit sought to avoid this parade of
horribles with an “exception” tailor-made to
distinguish this particular case. It reasoned that
Binance “notoriously denies the applicability of any
other country’s securities regulation regime,” so
there was no need to show comity to another
country. Pet’r’s App. 17a. The Second Circuit
allowed that its “conclusion might be different were
we faced with plaintiffs seeking to apply U.S.
securities laws based on the happenstance that a
transaction was initially processed through servers
located in the U.S. despite all parties to the
transaction understanding that they were
conducting business on a foreign-registered
exchange.” Pet’r’s App. 16a-17a.
That “exception” is not workable in typical
internet transactions, and impossible in blockchain
transactions. In a typical internet transaction, “all
parties to the transaction” would not necessarily
have any idea that they are “conducting business on
a foreign-registered exchange” (or other business).
As illustrated above, most users have little idea
where their data passes through, nor should they.
An allegation that some back-office processing
equipment happened to be in the U.S. should not be
sufficient to drag the entire matter into U.S. court
under U.S. law. After all, the relevant portion of the
Second Circuit’s decision did not focus on Binance’s
alleged conduct, so much as the geographical
location of a third party, AWS. Cf. Pet’r’s Br. 20-21.
To go a step further, any transaction processed
on a digital asset exchange is, at heart, a blockchain
27
transaction. Any blockchain transaction would be
processed on all of the nodes on that chain, all over
the world. Binance allegedly “matched” orders on
AWS, but to publish that transaction onto the
blockchain requires a worldwide network of
transactions, in geographic locations that would be
impossible for users to know about. If the U.S. could
exercise jurisdiction over a digital assets exchange
for using AWS, then any country in the world using
the same rule could exercise jurisdiction over an
American for using any public blockchain. Such a
rule would be offensive to comity, and destructive of
the advantages that a worldwide internet, and
worldwide blockchain accessibility, can provide. It
would risk splintering the next iterations of the
internet into national fortresses, to the poverty of
the world.
Variants of the Second Circuit’s reasoning have
already appeared in lower courts across the country.
See, e.g., SEC v. Scoville, 913 F.3d 1204, 1219 (10th
Cir. 2019), cert denied, 140 S. Ct. 483 (2019) (“We
add that the servers housing the Traffic Monsoon
website were physically located in the United
States.”); SEC v. Balina, No. 22-cv-00950 (DAE),
2024 WL 2332965, at *8 (W.D. Tex. May 22, 2024)
(use of U.S.-based social media platforms
constituted sufficient U.S. activity); Williams v.
Block One, No. 20-cv-2809 (LAK), 2022 WL 5294189,
at *7 (S.D.N.Y. Aug. 15, 2022) (“the location of the
node that verified the specific transaction at issue
should control in this circuit under Morrison’s
second prong as construed in Absolute Activist.”); In
re Tezos Sec. Litig., No. 17-cv-06779-RS, 2018 WL
28
4293341, at *8 (N.D. Cal. Aug. 7, 2018) (use of server
in Arizona was a factor to defeat extraterritoriality).
These cases, improperly pointing to the use of U.S.
internet infrastructure to exercise jurisdiction, will
continue to put Morrison back in its kennel, unless
stopped. 36
This case presents a remarkably clean vehicle for
the Supreme Court to put an end to the lower courts’
erosion of the Morrison doctrine, and to pave the
digital roads of the future. CCI stands for the
promotion of blockchain technology in the U.S. and
around the world. The Second Circuit’s decision
risks splintering the global nature of the internet,
and more acutely, hampering the development of the
next generation of internet-based technologies, in
turn devastating entire industries.
36
This issue goes beyond court decisions. Administrative
agencies use judicial precedents, especially circuit court
precedents, as leverage to negotiate settlements. Given that
far more agency actions are settled than litigated, and agencies
can bring tremendous pressure to settle, it is even more critical
to correct the Second Circuit’s error.
29
CONCLUSION
For the foregoing reasons, the Court should grant
the petition.
Respectfully submitted,
Jason P. Gottlieb
Counsel of Record
Daniel C. Isaacs
Michael Mix
Rachel Fleder
Vani Upadhyaya
MORRISON COHEN LLP
909 Third Avenue
New York, New York 10022
(212) 735-8600
jgottlieb@morrisoncohen.com
Counsel for Amicus Curiae
The Crypto Council for
Innovation
October 25, 2024
This is a copy of a public record, reproduced as it was published. It is not legal advice, and it may not be the version a court would rely on. Check the official source before you cite it.