Kaal claims by topic: blockchain

235 atomic, individually citable claims from the published work of Wulf A. Kaal tagged blockchain.

  1. Private fund advisers' increasing use of blockchain technology, artificial intelligence, and big data is a distinct source of downward pressure on the traditional 2/20 fee structure that commentators have not examined. 2017
  2. The majority of private fund advisers that deploy blockchain technology, artificial intelligence, and big data in their operations or strategy charge their investors lower fees, even though not all blockchain enabled funds charge per transaction fees. 2017
  3. Using a hand coded dataset of 98 private investment fund advisers that use blockchain technology in their strategy or internal operations, the article shows that advisers using the new technology are able to charge overall lower fees. 2017
  4. As the use of blockchain technology grows in the private investment fund industry, pressure on the traditional fee structure is likely to continue to grow, even though the proportion of fund strategies applying such technologies remains small. 2017
  5. The author stipulates that a blockchain is a shared digital ledger or database that maintains a continuously growing list of transactions among participating parties regarding digital assets, described as blocks. 2017
  6. The decentralized, fully distributed nature of the blockchain makes it practically impossible to reverse, alter, or erase information recorded in it. 2017
  7. Cryptographic hashing makes blockchain manipulation immediately detectable because the hash incorporates all previous transactions, so that even a single digit change produces a different hash value. 2017
  8. Complex smart contract arrangements involving several parties require a verifiable and unhackable system, which blockchain technology supplies. 2017
  9. The current legal and administrative processes that support private equity are time consuming, expensive, lack transparency, and involve lengthy, duplicative, and fragmented investment and administrative processes. 2017
  10. A blockchain program for private equity administration allows all involved parties in an equity deal to look at a single compiled version of the transaction and all other data relating to the deal, replacing the reconciliation of multiple document copies. 2017
  11. Blockchain technology enables managers to charge per transaction fees, which undermines the existing 2/20 fee model, because it facilitates seamless and efficient calculation of management fees per transaction. 2017
  12. The combination of increased transparency, reduced costs, and competitive performance enabled by blockchain use may confer a competitive advantage that continues to exert pressure on fees charged by competitor funds. 2017
  13. Survey responses from blockchain using private investment fund advisers show that their fee structure deviates from the traditional 2/20 model, with responding managers reporting alternative fee structures that benefited their clients. 2017
  14. The rise of blockchain applications in private investment funds can exacerbate the industry's already changing fee structure. 2017
  15. Business, administrative and legal services that consist of keeping ledgers, such as notary and registry services, legal motions practice, and title companies, are likely to be among the first services eliminated by blockchain adoption. 2017
  16. As of the publication of this article, a review of published court opinions showed that no court had reviewed, assessed, or scrutinized the uses and applications of blockchain technology. 2017
  17. Anecdotal evidence suggests that the majority of private fund advisers who use blockchain, artificial intelligence, and big data in their operations or strategy charge substantially lower fees than advisers who do not use these technologies. 2017
  18. Private fund adoption of blockchain began in 2012, coinciding with the broader public debate over blockchain solutions, and took the form of managers setting up separate new fund entities that used the technology. 2017
  19. The absence of regulatory recognition of blockchain technology is itself a source of harm: it creates significant uncertainty for the blockchain community and undermines the evolution of the crypto economy. 2017
  20. Regulatory uncertainty around blockchain has three specific sources: insufficient or non existent regulatory guidance, the absence of court decisions, and uncertainty over which jurisdiction applies. 2017
  21. Regulatory uncertainty in this transitional era actively frustrates blockchain innovation rather than supplying the secure framework in which blockchain applications could flourish. 2017
  22. Regulators cannot draft specific blockchain regulation because the risks, opportunities, and concrete outcomes of blockchain in reshaping financial markets are unpredictable. 2017
  23. Jurisdiction over the public blockchain does not exist within the present doctrinal infrastructure for jurisdiction, and in practice the blockchain cannot be regulated or governed because it is decentralized and autonomous. 2017
  24. Traditional jurisdictional tests fail for blockchain because the concepts of location and presence do not apply: the blockchain has no location, physical or electronic, and no single node holds the entire chain. 2017
  25. As of publication, no American or European court had recognized blockchain technology or scrutinized its applications, leaving it unclear how courts will treat the technology. 2017
  26. ESMA judged a regulatory response to blockchain premature because technological innovation was still evolving and blockchain's practical applications were still rather limited. 2017
  27. Distributed networks disintermediate: because validation is distributed, a centralized validating entity such as a central bank or clearing house is not necessary to record and validate transactions. 2017
  28. Private investment funds entered the blockchain sector earlier than other financial players, yet because of legacy systems in private fund infrastructure the proportion of funds investing in blockchain is still small. 2017
  29. Blockchain technology delivers anonymous and secure transactional guarantees through democratized trust and disintermediation, and its anti-discrimination features allow minorities and disenfranchised communities to benefit from the technology. 2017
  30. Because network nodes verify and validate chain transactions before execution under a distributed consensus model, recording a fraudulent transaction on the blockchain is extremely rare. 2017
  31. Because each new block's hash value is generated from all previous transactions, the smallest change to the blockchain produces a different hash value, which makes any form of manipulation immediately detectable. 2017
  32. Judging by the legal issues that arose around sharing platforms, blockchain-enabled sharing services will likely not be accepted quickly or without resistance from incumbents challenged by new ways of delivering a service or product. 2017
  33. The authors stipulate distributed jurisdiction as a regulatory alternative in which conflict resolution for blockchain transactions is supplied by governance solutions inherent in the blockchain technology itself rather than by external legal authorities. 2017
  34. Even if every user and supporter of the blockchain and their locations were known, it would still not be possible to exercise jurisdiction in the traditional meaning of the word, because the system operates largely autonomously. 2017
  35. Because the challenges crypto transactions pose to the existing legal and jurisdictional infrastructure are severe, including good governance in crypto transactions requires instituting governance solutions inherent in the blockchain technology itself. 2017
  36. Anonymity survives the blockchain's permanent public record because a new private key can be created for each transaction, so although public key addresses are stored eternally, each transaction allows an entirely new cryptographically secured private identity. 2017
  37. Real world court decisions on smart contract disputes, even where attainable, may not carry the same legitimacy and authority for the parties as intra-blockchain dispute resolution mechanisms. 2017
  38. Governing the creation and use of a blockchain may be the only practical way of exercising any form of traditional jurisdiction over blockchain technology. 2017
  39. The second core requirement of distributed jurisdiction is governance from within the blockchain technology itself, which is what allows the problems inherent in blockchain based smart contracts to be effectively addressed. 2017
  40. Law schools that invest early in artificial intelligence, machine learning, and blockchain will gain a comparative advantage over peer schools irrespective of ranking, because demand for lawyers trained in those technologies is likely to spike once law firm adoption crosses a threshold. 2017
  41. The counseling, deal making, matchmaking, gatekeeping, and enforcement roles historically performed by lawyers are increasingly performed by technology, and blockchain technology and smart contracting will accelerate that substitution. 2017
  42. Because a public blockchain is genuinely public and immutable, it increases transparency while simultaneously and significantly reducing transaction costs. 2017
  43. Intermediaries, lawyers among them, are replaced by code, connectivity, crowd, and collaboration. 2017
  44. It is the completely decentralized network connectivity of the blockchain via the Internet, more than the use of digital signatures to establish party identity and authenticity, that provides the strongest protection against fraud. 2017
  45. Blockchain's distributed consensus model permits node verification of transactions without compromising the privacy of the parties, which makes it arguably safer than a traditional model requiring third party intermediary validation. 2017
  46. Smart contract arrangements involving several parties and greater complexity require the verifiable and unhackable system that blockchain technology supplies. 2017
  47. Smart contracting on a blockchain often makes conventional legal contracting unnecessary, because smart contracts emulate the logic of legal contract clauses. 2017
  48. Increased connectivity enabled by blockchain technology, combined with increased decentralization, allows the removal of intermediaries including lawyers, financial intermediaries, and platform companies. 2017
  49. Venture capital investment in blockchain startups has grown exponentially since 2012, which the authors read as an indicator of the technology's commercial maturity. 2017
  50. Once blockchain technology gains wider acceptance and its applications reach consumers, existing legal processes and structures will likely be among the first processes to become redundant. 2017
  51. Leveraging the big data collected through Legal Tech solutions and blockchain applications in combination with machine learning produces more creative and faster tools, which in turn generates a surge of innovative platforms that disrupt the legal industry. 2017
  52. The world of blockchain and smart contracting has clearly not reached maturity, which is the first of several technological and legal limitations facing blockchain and smart contracts. 2017
  53. Contrary to the widespread belief among legal professionals that code can only handle very simple transactions, blockchain enabled smart contracts generally do not require legal involvement across the spectrum of transactions. 2017
  54. Although blockchain technology itself offers unprecedented data and privacy protection, storing blockchain data across a global network of nodes often will not comply with the consumer protection rules, directives, and guidelines of particular jurisdictions. 2017
  55. The legal disputes already generated by sharing platforms indicate that future blockchain enabled sharing services will not be accepted quickly or without resistance from incumbents whose service or product delivery is challenged. 2017
  56. Future lawyers will have to distinguish blockchain based contracting from traditional legal contracting and advise clients on the optimal allocation between the two. 2017
  57. For the parts of dealmaking and other legal tasks that cannot be placed on a blockchain, the role of non blockchainable agents of trust may expand, and blockchain driven disintermediation of law may itself create additional legal tasks requiring human lawyers. 2017
  58. Blockchain's structural characteristic as a decentralized model for financial transactions disintermediates and disrupts the existing financial infrastructure, so private funds that adopt it first directly accelerate that disintermediation. 2017
  59. Blockchain technology enables managers to charge per-transaction fees, which undermines the existing 2 and 20 fee model, because it allows fully automated allocation of the correct fee to each executed trade without manual reconciliation or settlement. 2017
  60. Blockchain-based smart contracts in digital marketplaces are the technology most likely to extend and lead the decentralization of the relationship between businesses and their counterparties. 2017
  61. Critics who dismiss artificial intelligence on boards as science fiction not worth engaging are wrong: AI on boards is a real prospect, and technologies such as blockchain-based smart contracts will both disrupt corporate governance and supply solutions to it. 2017
  62. Fundamental flaws in the DAO's code allowed hackers to move one third of contributed funds to a subsidiary account, ending that initiative, but the flaws were in the implementation and do not defeat the DAO vision, which developers continue to rebuild. 2017
  63. In a decentralized autonomous organization a series of smart contracts grants token holders voting rights, so the blockchain-based smart contract performs the function that articles of incorporation or bylaws perform in a conventional company. 2017
  64. The architecture is built for a hostile open environment containing malicious anonymous actors, and the authors concede it works even better in a centralized system with identified participants where the blockchain and its inefficiencies are unnecessary. 2018
  65. To date no blockchain coherently and comprehensively combines scale, security, and decentralization, the three objectives of the blockchain trilemma, although continued experimentation with consensus algorithms can help overcome it over time. 2018
  66. The protocol architecture together with its incentive structure is what produces enhanced 51 percent attack resistance, which the author claims exceeds prior reputation verification attempts in both decentralized and centralized networks. 2018
  67. The FCA has acknowledged that distributed ledger technology has unique aspects capable of working around current regulations. 2018
  68. Because blockchain network nodes verify, validate and audit transactions both before and after execution, the model is safer than a traditional one in which transactions can only be accomplished through third party intermediaries such as a bank, judiciary or notary. 2018
  69. Cryptographic hashing makes tampering with blockchain records extremely difficult because even a minuscule change produces a different hash value, rendering manipulation instantly and readily detectable. 2018
  70. Blockchain replaces intermediaries, bureaucracy and old fashioned procedures with the four Cs of code, connectivity, crowd and collaboration, which increases openness and speed while significantly reducing costs. 2018
  71. A smart contract is computer program code that enables the verification, execution and enforcement of specific terms and conditions of a contractual arrangement. 2018
  72. A decentralized autonomous organization is merely computer code with no directors, managers or employees, its governance structure built with software, code and smart contracts running on a public decentralized blockchain platform. 2018
  73. DAOs will eventually overtake any organization that lacks their incentives and efficiencies, and because DAOs are cheap and straightforward to clone this will potentially lead to more competition. 2018
  74. Existing blockchains and DAOs still lack genuine decentralization, and there are currently no true DAOs: Bitcoin's proof of work protocol has produced mining pools because of economies of scale and unbalanced reward structures. 2018
  75. Anonymity in blockchain organizations makes them prone to Sybil attacks and 51 percent attacks, and anonymity combined with autonomy has led to many hacks. 2018
  76. In a truly decentralized system any mistake, such as a stolen or lost password or a programming bug, is permanent and irrevocable. 2018
  77. A reputation verification platform matters because trust created through an eternal reputational record would be open to review and driven by proper incentives. 2018
  78. The real design challenge for consensus protocols is to find a proof of stake protocol that offers both trust and security without unintentionally creating just another centralized validation system. 2018
  79. Internet based platform businesses and distributed ledger technology businesses have not reached their full potential, and the core factor holding them back is worldwide decreasing trust in the internet together with under developed trust in decentralized technology solutions. 2018
  80. Digitized and automated trust is not a stable substitute for institutional trust, because it is experiencing crises of its own that undermine the proliferation of value enhancing internet based platform businesses and distributed ledger technology businesses. 2018
  81. Sockpuppet accounts grow their reputation value much faster than honest users can in a Web of Trust, because sockpuppets validate each other, and the system is therefore flawed and should not be used where fungible currency is at stake. 2018
  82. No single, fixed, entirely algorithmic policing solution can completely prevent independent nodes in a distributed system from gaming block production to advantage some parties over others. Any consensus protocol that relies on a permanently fixed rule set will therefore be gamed as conditions change. 2018
  83. Any blockchain whose soft forks are decided through private communication between famous token holding whales is ultimately less secure than legacy centralized systems, which at least address centralized security risks deliberately. 2018
  84. A malicious party using Sybil accounts cannot be prevented from cloning the structure of a successful proof of stake blockchain at far lower cost than cloning a proof of work chain, leaving a new user unable to distinguish the truly decentralized chain from a clone that has manufactured even more tokens. The authors answer that this is resolved off chain, by a trusted user interface, as with cloned web pages. 2018
  85. The paper's central claims are that digital technologies have already disrupted centralized corporate organizations by enabling platforms, that this disruption will continue as blockchain based technologies proliferate, and that regulators must attend to these changes. 2018
  86. Blockchain extends what the Internet did for information: it makes it possible to transfer and exchange value and assets without traditional centralized intermediaries, by storing information in a decentralized, accessible and secure online environment. 2018
  87. It is the decentralized character of the blockchain, that is the distribution of the ledger to countless nodes in peer-to-peer networks, rather than any other feature, that makes the technology potentially disruptive. 2018
  88. The only condition for hosting a copy of the blockchain and participating in the network is a smartphone or Internet connection, which is why the technology can extend financial inclusion to those traditionally excluded from financial services. 2018
  89. Peer-to-peer transactions are possible because a distributed consensus model has network nodes verify, validate and audit transactions before and after execution, and this is often safer than routing transactions through a single trusted third-party intermediary. 2018
  90. Network connectivity is what makes blockchain records practically immutable, because it allows multiple identical copies of the ledger to exist simultaneously across the network. 2018
  91. Cryptographic hashing makes tampering detectable because even a minuscule change to the blockchain produces a different hash value, which other participants can observe instantly. 2018
  92. Blockchain technology creates an independent and transparent platform for establishing truth and building trust, replacing intermediaries, bureaucracy and old procedures with what the authors call the four Cs of code, connectivity, crowd, and collaboration. 2018
  93. Anonymity in blockchain organizations makes them prone to Sybil attacks and 51 percent attacks, and anonymity combined with autonomy has already produced hacks. 2018
  94. Adoption of blockchain is costly and technically difficult because the technology is continually evolving and integrating blockchain databases with existing systems raises many technical challenges, such as interfacing a payment ledger with a vehicle's control software. 2018
  95. Personal happiness, freedom and expression can thrive better in a decentralized world only on the condition that the decentralized world provides a secure environment, which is why blockchain platforms attract people. 2018
  96. Fundamental flaws in the DAO's code allowed hackers to transfer one third of the total contributed funds to a subsidiary account, and this together with other technological limitations ended the initiative, but the authors argue it did not end the underlying vision of decentralized autonomous organization. 2018
  97. Because blockchain guarantees prevent any participant from circumventing the coded set of governance rules, a lower level of oversight and monitoring of agents is needed, which changes the cost structure of the principal agent relationship. 2019
  98. Forking a chain is an insufficient governance mechanism, and even attempts to create socially optimal chain forking rules cannot suffice as a substitute for evolutionary blockchain governance protocols. 2019
  99. Without evolutionary governance upgrades to blockchain protocols, the cost reduction that blockchain brings to the agency relationship cannot be maintained. 2019
  100. Traditional limited liability entities can only partially benefit from blockchain based governance, because the dynamic regulatory features it offers are partially incompatible with the rule based legal environment those entities must comply with. 2019
  101. If a community cannot agree after a hard fork on which chain is the true chain, the result can be two blockchains competing in perpetuity, and the only viable remedy is abandoning one branch, which causes some miners to lose re-allocated transactions. 2019
  102. Traditional jurisdictional principles cannot directly apply to blockchain technology because the blockchain is merely a collection of agreed upon calculations by decentralized computer systems, and no particular node holds the entire blockchain. 2019
  103. On chain governance is a necessity for most public blockchains because all existing blockchains need to calibrate soft forks for protocol upgrades. 2019
  104. When multiple firms trade the same securities in legacy systems, each maintains its own ledger, and that duplication is itself the source of increased operational risk and cost. 2019
  105. Blockchain reduces counterparty credit risk through a specific mechanism: a single shared ledger compresses the settlement cycle so that cash or securities are verifiably in the account within seconds of the trade, leaving almost no window for counterparty default. 2019
  106. Running an alternative trading system on a blockchain cures the ATS system's traditional price discovery latency, because every trade is posted to a public ledger that everyone can access. 2019
  107. Delaware's 2017 amendment to the Delaware General Corporation Law recognizing distributed electronic networks or databases as a valid means of creating and maintaining corporate records, including the stock ledger, is the leading state law accommodation of blockchain. 2019
  108. Private blockchains are the rational transitional vehicle for cautious enterprises, because they let firms experiment at relatively low cost and be better positioned when mass adoption occurs, while allowing the corporation to screen access to transaction records. 2019
  109. As a foundational technology, blockchain technology builds the infrastructure for decentralized networked governance, which over time creates an environment in which the internal and external monitoring mechanisms previously necessitated by agency problems in corporate governance can be removed. 2019
  110. Blockchain technology produces a substantial increase in the efficiency of the agency relationship and lowers agency costs by orders of magnitude. 2019
  111. Blockchain is not a disruptive technology but a foundational technology, and its transformational impact therefore takes decades rather than years. 2019
  112. Blockchain use cases involve interdependent structures, so development of any one area alone cannot succeed without the simultaneous existence of multiple additional support structures. 2019
  113. Applying blockchain to corporate governance requires the relevant authorities, who most likely understand the governance use case but not the technology, to reach consensus on how and when to implement it. 2019
  114. Supervisory tasks traditionally performed by principals to control their agents can be delegated to decentralized computer networks that are reliable, secure, immutable, and independent of fallible human input and discretionary human goodwill. 2019
  115. Blockchain provides an alternative governance mechanism that eliminates agency costs, meaning the principal's cost of supervising agents, by creating trust in the contractual relationship between principal and agent. 2019
  116. The immutability of the blockchain and its cryptographic security systems provide transactional guarantees that create trust between principals and agents in the integrity of their contractual relationship, and ensure that no participant can circumvent the rules embedded in blockchain code. 2019
  117. A blockchain guarantee means that a contract between principal and agent executes only if and when all contract parameters have been fulfilled by both parties and verified by a majority of miners or nodes in the system. 2019
  118. Because governance guarantees are embedded in code, there is no need in the blockchain infrastructure for the principal to institute oversight and monitoring, and the associated agency costs disappear. 2019
  119. It is decentralized network connectivity via the Internet, rather than blockchain's use of digital signatures, that provides the most protection against fraud, because multiple copies of the blockchain are available to all participants across the distributed network. 2019
  120. The distributed consensus model, in which network nodes verify and validate transactions before execution, makes it extremely rare for a fraudulent transaction to be recorded in the blockchain, and it does so without compromising the privacy of the parties. 2019
  121. Cryptographic hashes increase blockchain security and remove the trust barriers in agency relationships that otherwise require monitoring of agents and generate agency costs. 2019
  122. The removal of checks and balances, agent monitoring, audit requirements, disclosure regimes, market pressure, and executive compensation schemes produces a qualitative shift in efficiency in the agency relationship and in corporate governance overall. 2019
  123. The core issues that afflict centralized governance solutions, including information asymmetries, censorship, opportunism of agents, breaches of fiduciary duties, and fraud, can only be truly removed if and when a truly decentralized public blockchain emerges that is scalable and fully secure. 2019
  124. The basis of coded blockchain guarantees will itself evolve and require protocol upgrades, and without evolutionary governance upgrades the cost reduction achieved for the agency relationship cannot be maintained. 2019
  125. Because blockchain is a foundational technology, blockchain-based governance solutions for agency problems depend on the creation of infrastructure components that have not yet been conceptualized in the decentralized technology evolution. 2019
  126. The ICO share of total blockchain startup fundraising collapsed from about 80% to roughly 35% by August 2018, recovered only marginally to 40% to 50% through February 2019, and then fell to 20% in March 2019. 2019
  127. During the ICO boom years the venture capital market in the decentralized technology sector ground to a halt, and the later demise of the ICO market reversed the trend back toward venture funding. 2019
  128. The low transaction throughput of public blockchains is a core limitation that holds back more advanced distributed applications, which is why decentralized commerce in 2019 remains relegated to cryptocurrency trading and basic smart contracting. 2019
  129. Without a core use case other than the store of value provided by Bitcoin, decentralization technology is less likely to proliferate; banking, money transmission, and triple entry accounting are natural but insufficient as universal use cases for public blockchains. 2019
  130. Because governance guarantees are embedded in blockchain code, there is no need for a principal to institute oversight and monitoring, which eliminates the associated agency costs. 2019
  131. It is the completely decentralized network connectivity via the internet, not blockchain's digital signatures, that provides the greatest protection against fraud, because connectivity puts multiple copies of the chain in the hands of all participants. 2019
  132. The low transaction throughput of public blockchains is a core limitation that holds back more advanced distributed applications. 2019
  133. The data mining that produces scarcity in existing blockchains also slows creation, so high speed transactions cannot be achieved for the foreseeable future without a different consensus design. 2019
  134. Without a core use case beyond Bitcoin's store of value function, decentralization technology is less likely to proliferate. 2019
  135. Until blockchain technology arrived with Bitcoin in 2009, decentralized reputation systems rested on the roughly twenty five year old and corruptible concept of the Web of Trust. 2019
  136. Decentralized commerce is the global exchange of financial instruments, goods and services conducted through decentralized and emerging technologies, a stipulated definition the paper relies on throughout. 2019
  137. Until blockchain technology was introduced via bitcoin in 2009, decentralized reputation systems mostly relied on the old and corruptible concept of the Web of Trust. 2019
  138. The underwriting use case is broader than traditional insurance: almost any blockchain transaction that does not consist purely of an exchange of digital tokens may require or benefit from underwriting. 2019
  139. Blockchain adoption by private investment funds followed a staged path: minimal use from 2000 to 2012, then experimentation through separate new fund entities beginning in 2012, and from 2015 the creation of blockchain substructures inside existing funds. 2019
  140. High levels of investor activity in the blockchain sector are a reliable indicator of the commercial maturity of blockchain technology. 2019
  141. Business, administrative, and legal processes that depend on legal intermediaries may become redundant as blockchain technology advances and is accepted, with ledger keeping services such as notary and registry services, motions practice, and title companies among the first to disappear. 2019
  142. The 2018 ICO boom exposed a core limitation of blockchain technology: ICOs sold investors decentralized infrastructure products on the assumption that a baseline infrastructure already existed, and that assumption proved false. 2019
  143. Blockchain-enabled sharing services are unlikely to be accepted quickly or without resistance, because incumbents challenged by new ways of delivering a service or product will resist, as the existing legal disputes over sharing platforms demonstrate. 2019
  144. The absence of regulatory recognition of blockchain technology is not merely an inconvenience: it hinders implementation of the technology across industries and undermines the conversion of infrastructure to blockchain. 2019
  145. The Northern Trust and IBM blockchain removes a specific inefficiency in private equity deal practice by letting all involved parties in a deal look at a single compiled version of the transaction and all data relating to it, rather than reconciling multiple copies of the deal documents. 2019
  146. Blockchain-based funds can invert the traditional secrecy of hedge funds: the LendingRobot ledger discloses detailed holdings and supplies a hash code signature evidencing that the data is tamper proof. 2019
  147. Managers of funds that exist entirely in cyberspace cannot assume they are judgment proof; the practical consequence of operating across a global node network is exposure to more regulation, not less. 2019
  148. Legacy systems at private investment funds and banks are more expensive, more error prone, and slower than emerging blockchain technologies, a gap illustrated by the $1.7 trillion in processing fees banks charged in 2014. 2019
  149. Because blockchain is transparent, verifiable, self-authenticating and self-enforcing, transactions can settle instantaneously at near zero cost, and it is this combination plus technology-driven democratized trust that drove the financial industry's large blockchain investments out of fear of obsolescence. 2019
  150. ICO funding collapsed as a share of blockchain startup fundraising, falling from 80% to around 35% by August 2018, recovering only marginally to 40% to 50% between September 2018 and February 2019, and dropping to 20% in March 2019. 2019
  151. Recording every fund transaction together with its associated documentation on a blockchain cuts the significant costs of human oversight in recording, organizing and maintaining investment fund data and records. 2019
  152. Most large private equity and hedge fund advisers have not yet even considered combining blockchain with big data and artificial intelligence, leaving first mover efficiency gains to smaller competitors. 2019
  153. The structural characteristic of blockchain as a decentralized model for financial transactions disintermediates and disrupts the existing financial infrastructure, so funds implementing it are spearheading radical change in financial markets rather than merely adopting a tool. 2019
  154. Continued evolution and blockchain integration in the private investment fund industry depends on regulatory guidance, which the author identifies as essential rather than optional. 2019
  155. Conducting commerce on public blockchains counteracts corruption because every transaction becomes publicly visible and traceable to both consumers and the government, removing the untraceability that corrupt dealing requires. 2019
  156. The interoperability deficit in cryptocurrency markets is partly intrinsic to blockchain technology itself, because the consensus mechanism that allows block propagation on one chain in some ways negates interoperability with other chains and their consensus. 2019
  157. The low transaction throughput of public blockchains is a core limitation holding back more advanced distributed applications and, with them, decentralized commerce. 2019
  158. Decentralization technology is unlikely to proliferate without a core use case beyond store of value; banking, money transmission, and triple entry accounting are natural use cases but fall short of being universal use cases for public blockchains. 2019
  159. Centralized coordination of behavior for the common good risks undermining individual effort, whereas blockchain technology's autonomous and anonymous decentralized coordination of individual action can deliver common good outcomes without suppressing individualism and its welfare enhancing effects. 2020
  160. Blockchain technology incentivizes direct transactions between creator and consumer, including compensation, which eliminates the need for intermediation. 2020
  161. Blockchain voting solutions require political will as well as technical capability, and incumbent governments may refuse to surrender control over the voting process, preferring private blockchains that preserve their control. 2020
  162. In a proprietary dataset of thirty three blockchain for good projects, the projects proliferated between 2013 and 2017 and peaked in 2017, and many of them did not launch successfully or perished over time. 2020
  163. Linking necessary data between governmental departments via blockchain could eradicate potential government corruption and increase the efficiency of the public sector. 2020
  164. The long-term benefit of blockchain technology for the common good of humanity depends on decentralized infrastructure development; blockchain for good projects can only realize their potential as that underlying infrastructure emerges. 2020
  165. The Bank of Canada's year long Jasper trial revealed a tradeoff rather than a solution: Ethereum would make the wholesale payment system more resilient but was costly and raised privacy issues, while Corda addressed cost and privacy but made the system less resilient, and the Bank concluded in May 2017 that blockchain was not mature enough to run a national interbank payment system. 2020
  166. Because a group sometimes genuinely has no consensus to be discovered, network forking is at times inevitable rather than a governance failure that better rules could prevent. 2021
  167. Bitcoin and Ethereum have no formal binding governance framework declaring how consensus protocols may be changed in the future, which the authors identify as a deep flaw that weakens the networks and will lead to instability. 2021
  168. A blockchain is immutable because any attempt to edit an old block changes the hash of that information and is immediately rejected by the network that follows the protocol. 2021
  169. Proof of stake carries an unresolved failure mode: if anyone devises a clever algorithm for hijacking the block producer selection process, the network would fail. 2021
  170. Blockchain transactions will always be expensive whether or not proof of stake is solved, because full participation requires downloading the entire transaction history to verify validity, an extreme redundancy that cannot be removed. 2021
  171. The more digital assets are held by their owners in self-custody, the less likely intermediation by custody service providers becomes, so self-custody is the key driver of decentralization in emerging blockchain networks. 2021
  172. The ICO share of blockchain startup fundraising collapsed from 80 percent to around 35 percent by August 2018, recovered only marginally to 40 to 50 percent between September 2018 and February 2019, and then fell to 20 percent in March 2019. 2021
  173. Applying decentralized technology to optimize a legacy system, for example using blockchain to improve the malfunctioning shareholder proxy voting process, perpetuates the outdated and malfunctioning centralized system rather than replacing it with a better performing decentralized one. 2021
  174. Decentralized legal infrastructure solutions were almost entirely missing in the early 2020s despite strong demand, because other prerequisite decentralized infrastructure products, notably a functional public blockchain, were still missing. 2021
  175. Decentralized networks depend on dynamic governance because evolving blockchain protocols require updates, and the practice of hardforking that remained prevalent in the early 2020s created significant economic loss for such blockchains. 2021
  176. DeFi's distinctive disruption is that it attempts to make financial transactions permissionless, completely open to anybody, and borderless, promising reduced transaction costs, broader financial inclusion, and open access across borders. 2021
  177. Decentralization requires its own infrastructure; the technologies of the internet era and its progeny alone may not suffice, and fully decentralized technologies require an enhanced decentralized network infrastructure. 2021
  178. A truly decentralized public blockchain must satisfy three simultaneous requirements: no points of centralization and corruption, full security at the level of proof of work, and transaction throughput above one hundred thousand transactions per second. 2021
  179. Without basic decentralized infrastructure products in place, on-chain governance of blockchains is not possible or is only limitedly possible, and the blockchain ecosystem may not be able to grow without a core decentralized infrastructure such as a functioning public blockchain to build on. 2021
  180. Blockchain transactions will always be expensive compared with other peer to peer transactions, because blockchain data must be stored eternally and redundantly on as many machines as possible to support decentralization. 2021
  181. Decentralized banking addresses blockchain scaling, because the linear structure of a blockchain means that doubling the number of participants and transactions halves its speed. 2021
  182. No major blockchain is entirely decentralized, because all of them lack binding, coded, anonymous peer to peer governance; on chain and off chain governance experiments to date fall short of that standard. 2021
  183. Recording every action on a blockchain does not by itself defeat corruption, because more information does not ensure more productive collaboration; members must additionally be motivated to behave correctly and to police corrupt behavior. 2021
  184. Digital information storage makes decentralization newly viable because every participant can hold the authoritative record of the organization's entire history, removing the need for a central authority over the record. 2021
  185. In peer to peer systems the redundant and eternal storage of the blockchain takes the place of the central bank. 2021
  186. Contrary to criticism that blockchains are designed to dodge regulation, the authors argue the actual goal of decentralized supply chain recording is effective, efficient, adaptive regulation that ultimately exceeds the current level of oversight. 2021
  187. Blockchain based guarantees remove agency costs because principals become less essential for monitoring agents, which addresses the inherent agency problems in modern finance and corporate governance. 2021
  188. An ideal DAO with open membership for anonymous members from any culture can maintain harmony only if its members share a transcendental value, work toward a common purpose even if that purpose is simply profit, and share fairly in the spoils of the work. 2021
  189. Bitcoin does not refute the thesis that money centralizes decentralized projects: hashing power has slowly become concentrated in mining pools until the majority of that power resides in the single country of China. 2021
  190. Almost every blockchain project the authors are aware of is suffering under the centralizing force of competition for equity control and profit, and such projects predictably move toward centralization when unconscious of these forces. 2021
  191. Distributed ledger technologies are particularly capable of increasing trust among charitable organizations, sponsors, and beneficiaries, because the technology enables real time tracking of the donation supply chain. 2021
  192. Decentralized voting solutions require political will as well as technology, and governments in existing representative democracies may refuse to surrender control over the voting process, preferring private blockchains to facilitate voting outcomes. 2021
  193. Because a decentralized system has a blockchain based quasi precedent nature with a human backstop, it enables built in checks and balances capable of supporting resistance even to apocalyptic takeovers of algorithmic systems that would remove human presence to optimize efficiency. 2021
  194. Blockchain based guarantees remove agency costs because principals are less required to institute oversight and monitoring of agents, which addresses inherent agency problems in modern finance and corporate governance. 2021
  195. Before blockchain technology and cryptographic security, a dictatorship was necessary for governing a large network because more sophisticated governance architectures such as democracies could not govern efficiently at that scale. 2021
  196. Every single reputational implementation the authors have audited in the blockchain DAO space carries the flaw of vulnerability to the sockpuppet attack on the Web of Trust model. 2021
  197. Contemporary blockchains cannot support the proposed architecture because the technology is too slow and expensive to poll members on every transaction, and the messages required for all nodes to register all votes on every action multiply into an unmanageable number. 2021
  198. The absence of clearly defined technology features for blockchain, distributed ledger, and associated terms propagates outward, producing knock-on definitional problems in other parts of the blockchain ecosystem. 2022
  199. No truly uniform definition of blockchain technology exists; commentators variously describe it as a giant distributed immutable spreadsheet for transactions or by enumerating central elements such as decentralization, immutability, and cryptographic verification. 2022
  200. The core distinguishing features of blockchain technology are only generically definitional: they characterize the technology as a class but supply no specific definitions usable for classification. 2022