Kaal claims by topic: smart-contracts

226 atomic, individually citable claims from the published work of Wulf A. Kaal tagged smart-contracts.

Complex smart contract arrangements involving several parties require a verifiable and unhackable system, which blockchain technology supplies. 2017
Smart contracting on the blockchain often makes legal contracting unnecessary because smart contracts emulate the logic of legal contract clauses. 2017
Smart contracting on blockchain platforms often makes legal contracting unnecessary, because smart contracts emulate the logic of legal contract clauses. 2017
Smart contracts face a legal enforceability risk: they may be attacked as void and unenforceable, because contract law rules on formation, interpretation, conditions and remedies were not written for coded agreements and require substantive adjustment. 2017
The DAO failed because of fundamental flaws in its own code, which allowed hackers to move one third of its funds to a subsidiary account, showing that governance built entirely on smart contracts inherits the defects of its code. 2017
Managers of funds that exist only as smart contracts in cyberspace, with no foreign or domestic domicile, cannot assume they are judgment proof; the more likely outcome is that they must comply with more regulations, not fewer, because every node location can trigger a jurisdiction. 2017
Complex smart contracts involving several parties can only work if they rest on a verifiable and unhackable system, which is what blockchain technology supplies. 2017
Smart contracting often makes legal contracting unnecessary, because smart contracts frequently emulate the logic of legal contract clauses. 2017
Larger European private fund advisers implement more conservative investment strategies, using blockchain technology predominantly to invest in and secure crypto assets. 2017
Because American funds lean on smart contracting, they have a better opportunity to launch disruptive blockchain implementations, but they may also experience a higher rate of failure from greater exposure to technological risk. 2017
American fund advisers use the smart contracting features of blockchain more frequently than European advisers, in order to build more advanced and innovative crypto businesses and business structures. 2017
Smart contracting often makes legal contracting unnecessary because smart contracts emulate the logic of legal contract clauses. 2017
Even where a smart contract reflects the underlying bargain between the parties, lawyers may argue that smart contracts are void and unenforceable under the law. 2017
Equality is a natural byproduct of the blockchain-driven evolution of the crypto economy, because the trust enhancing consensus model, smart contracting in anonymous networks, and DAOs together allow a more equal society to evolve. 2017
If the jurisdictional means necessary for conflict resolution mechanisms covering Ethereum blockchain based smart contracting are absent, consumers will mistrust the new technology, and that mistrust can undermine the evolution of the blockchain based crypto economy. 2017
Uniform Law Commission style registration of virtual currency businesses may give courts more information about registered businesses, but jurisdiction over the parties to a smart contract remains largely elusive because smart contracting is distributed and global. 2017
Proving personal jurisdiction over smart contracting parties by physical presence, domicile or place of business, consent, or minimum contacts becomes impossible, because none of these elements are known of the parties to a smart contract. 2017
Not all smart contracts are fully anonymous and untouchable by traditional jurisdictional means, because contracts with a physical performance element, such as peer to peer transportation, do not automatically anonymize the parties. 2017
Breach of a smart contract is arguably not even possible, because the contract simply will not execute if a parameter is not fulfilled. 2017
Because smart contracts are coded for computer programming rather than for a human observer, courts may not be able to hypothesize a reasonable human's interpretation of a given smart contract. 2017
To institute traditional remedies where a smart contract transaction disadvantages one of the parties, courts would have to change the blockchain, and that is computationally and practically impossible. 2017
Because courts cannot effectuate resolutions to disputes arising from blockchain based smart contracts, blockchain based resolution mechanisms are the only possible recourse for smart contract disputes. 2017
Coding regulatory conditions into smart contracts lowers regulators' cost of supervision and enforcement while substantially increasing their oversight, because a smart contract cannot execute unless all regulatory conditions and parameters are fully complied with. 2017
The benefits of coding existing law into smart contracts are only temporary, because as smart contracting evolves over time fewer smart contracting solutions will have a real world equivalent. 2017
Without strong external pressure from existing regulatory structures and a distributed jurisdiction responsive to that pressure, the anonymity of smart contracting will ultimately undermine the coding of existing legal rules into smart contracts. 2017
The first of the two core requirements the authors set for distributed jurisdiction is that the anonymity of blockchain based smart contracting be maintained as the technology evolves. 2017
Problems with smart contracts are inevitable because of subjectivity in human relationships, bounded rationality of coders and contracting parties, incomplete foresight, incomplete information, and opportunistic behavior. 2017
Because Ethereum's decentralized platform incorporating smart contracts lets developers build applications directly on its blockchain, the majority of developers chose to write smart contracts on the Ethereum Virtual Machine rather than create their own blockchain technology, giving ICOs a uniform protocol. 2017
ICO promoters should make significant and ongoing disclosures on vesting and lockup periods and should never manipulate the smart contract to change ICO sales rules mid-course during the offering. 2017
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
Smart contract arrangements involving several parties and greater complexity require the verifiable and unhackable system that blockchain technology supplies. 2017
Smart contracting on a blockchain often makes conventional legal contracting unnecessary, because smart contracts emulate the logic of legal contract clauses. 2017
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
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
Because the legal origin of smart contracting is unsettled, lawyers may argue that smart contracts are void and unenforceable under the law even where the smart contract accurately reflects the parties' underlying agreement. 2017
Contract law rules on formation, interpretation, conditions, and remedies require substantive adjustment before smart contracts can be accommodated. 2017
Fundamental flaws in the DAO's code let hackers move one third of its total funds to a subsidiary account, and that hack together with further technological limitations destroyed the DAO initiative. 2017
Because a series of smart contracts granted DAO token holders voting rights, the blockchain based smart contracts performed the function of articles of association or corporate bylaws, in an organization that had no directors, managers, or employees. 2017
Advising on blockchain contracts requires that law students and lawyers become familiar with the technology and learn at least basic coding as it pertains to Ethereum smart contracts. 2017
Future lawyers will have to distinguish blockchain based contracting from traditional legal contracting and advise clients on the optimal allocation between the two. 2017
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
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
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
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
For decentralized dispute resolution to deliver certainty of outcomes, the arbiter's power to disburse the assets of a contract, once triggered, must be preeminent over the parties. 2018
Validation experts could evolve from humans into smart contracts, which would allow validation itself to become automated. 2018
ICO promoters can alter the smart contract to change the sales rules mid-course during the ICO. 2018
A smart contract is computer program code that enables the verification, execution and enforcement of specific terms and conditions of a contractual arrangement. 2018
Smart contract use scales with device connectivity: the more devices are connected to each other, the more smart contracts will be used to execute and enforce legal transactions, and they are already disrupting traditional legal assumptions, doctrines and concepts. 2018
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
In a digital world trust can be embedded directly in software code, and recent interest in smart contracts suggests this will be a significant growth area in the near future. 2018
Smart contracts cannot by themselves carry human business interactions, because those interactions require flexibility in interpreting intent that is at odds with the merciless mathematical logic of smart contract code. 2018
A pure code is law smart contract between anonymous parties creates a zero sum scenario in which each party is incentivized to deliver only the minimum that satisfies the rigid self executing terms, so this type of business ultimately degenerates. 2018
Putting the counterparties' reputation at stake reverses smart contracting's degeneration, because the opportunity to earn new valuable reputation tokens makes members act in ways that improve the platform over the long term rather than exploit short term arbitrage. 2018
A smart contract is a computer program code or protocol that automates the verification, execution, and enforcement of specific terms and conditions of a contractual arrangement. 2018
Smart contracts will become more prevalent as the Internet of Things grows, because the more devices are connected to each other, the more smart contracts will be used to execute and enforce legal transactions. 2018
In a truly decentralized system where code is law, any mistake such as a stolen or lost password or a programming bug is permanent and irrevocable, because there is no authority able to reverse it. 2018
There is great regulatory uncertainty around blockchain and smart contracts, especially in financial services, and legal frameworks globally will have to change to adapt to the growing use of the technology. 2018
The DAO showed that a corporate-type organization can operate with no physical address, no directors, no managers and no employees, with its governance structure built entirely from software, code and smart contracts running on Ethereum. 2018
In a DAO, blockchain-based smart contracts granting token holders voting rights perform the function that articles of association or bylaws perform in a conventional corporation. 2018
Inexpensive open source smart contracts eliminate a major motivation for creating a firm under Coase's transaction cost theory, because they enable trustworthy transactions of any size with minimal transaction cost and high transaction security. 2019
Barzel's rationale for the firm, the added efficiency of a centralized production monitoring agency, becomes largely irrelevant under efficient smart contracting, because the smart contract performs the production monitoring function and largely removes agents. 2019
The notion that smart contract agency relationships run exactly as coded with no possibility of agent opportunism is less likely to hold in complex agency relationships, so a decentralized human backstop to code becomes necessary as those relationships grow more complex. 2019
The cost of translating coded contractual intent into natural language has the potential to become overwhelming for the existing centralized legal infrastructure, because coded intent may be unclear and natural language intent often cannot be used for interpretation. 2019
The SEC's reasoning against the Bitcoin ETF does not transfer to blockchain based private investment funds such as those built on Melonport, because such funds trade a diverse array of cryptocurrencies and reach a much more limited and accredited audience, which curtails investor risk. 2019
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
Smart contracts enabled by blockchain technology allow comprehensive, near error free, and zero transaction and agency cost coordination of agency relationships. 2019
Agency relationships embedded in smart contracts run exactly as coded, without any possibility of opportunistic behavior by the agent, and all contractual terms are public and fully transparent. 2019
Once an optimization proponent has made a deal with the DAO, the deal is recorded in the blockchain and the proponent must deliver on the proposal or the contract is cancelled, which enforces performance without a supervisor. 2019
As agency relationships become more complex, a backstop for human behavior becomes necessary, and the claim that smart contract agency relationships run exactly as coded with no possibility of agent opportunism is less likely to hold in complex agency relationships. 2019
Without a decentralized human backstop to code, the immutability of the blockchain and its cryptographic security systems may not be able to create truly transactional guarantees and trust between principals and agents. 2019
People will not enter into long term smart contracts without a stable currency to refer to, since no renter and landlord will gamble future wealth on a lease that may halve or double in value in any given month. 2019
Legacy insurers will not underwrite smart contracts that sit outside the traditional legal framework, and even if they eventually enter the DApp market their actuarial risk assessment methods may be only partially compatible with rapidly evolving decentralized products. 2019
Smart contracts enable anonymous parties to engage in decentralized commerce because automated contracting self-executes and self-regulates according to mathematical strictures, removing the need for agency and intermediaries almost entirely. 2019
Smart contracts remove centralized guarantors and self-regulate, with the consequence that only limited legal recourse is available if execution of the contract terms goes wrong. 2019
Smart contracts fail to accommodate human business interaction because code does not follow the same logic on similar terms as natural human language, so the flexibility in interpreting intent that human dealings require cannot be ensured. 2019
Smart contracts undermine the parties' ability to continue collaborating when unanticipated eventualities arise, because in most cases of unfulfilled parameters the contract will simply cancel out rather than allow partial performance. 2019
The flexibility that human business requires will unlikely ever be attained in existing decentralized protocols unless a decentralized verification system is built into decentralized commerce. 2019
Decentralized reputation verification is the backstop for smart contracting: it makes mathematically rigid smart contracts more adjustable for business needs and validates smart contract templates, which raises counterparty trust and removes the need for costly back-testing. 2019
People will not enter into long term smart contracts without a stable currency to refer to, because the current level of cryptocurrency volatility does not lend itself to consumption. 2019
Most legacy insurance companies will not consider underwriting a smart contract that is not subject to the traditional legal framework, which leaves sophisticated smart contracts without the insurance they require. 2019
Human business interactions require a flexibility that is at odds with the merciless mathematical logic of smart contracts, so smart contracting cannot ensure the flexible interpretation of intent that human interaction requires. 2019
Smart contracts undermine counterparties' ability to continue collaborating when unanticipated eventualities arise, because in most cases of unfulfilled parameters the smart contract will simply cancel out rather than allow partial performance. 2019
The flexibility that human business requires will unlikely ever be attained in existing decentralized protocols unless a decentralized verification system is built into decentralized commerce. 2019
Decentralized reputation verification systems make mathematically rigid smart contracts more adjustable for the needs of business by serving as the backstop for smart contracting. 2019
Smart contracts make decentralized commerce between anonymous parties possible because they provide automated contracting that self executes and self regulates according to mathematical strictures. 2019
Smart contracts are evolving quickly, and that evolution will allow most business logic to be encoded in smart contracts over time. 2019
Smart contracts benefit business by simplifying and automating transactions, removing transaction costs, and creating certainty for counterparties, and they are inexpensive to run on a blockchain. 2019
Automation in smart contracting reduces negotiation between counterparties to near minimal levels and removes almost all of the transaction costs typically associated with contracting. 2019
The inherent mathematical logic of computerized code in smart contracts can clarify the parties' intent optimally, which increases certainty, creates efficiency, and thereby incentivizes commerce. 2019
Because the smart contract removes centralized guarantors and self regulates, only limited legal recourse remains available when execution of the contract terms goes wrong. 2019
Despite their benefits, smart contracts are subject to significant limitations because human business interactions require a flexibility that is at odds with the merciless mathematical logic of smart contracts. 2019
Smart contracting cannot ensure the flexibility in interpreting intent that human interaction requires, because smart contract code does not follow the same logic on similar terms as natural human language. 2019
Smart contracts undermine the ability of counterparties to continue collaborating when unanticipated eventualities arise, because in most cases of unfulfilled parameters the smart contract will simply cancel out. 2019
Human business interaction typically requires the possibility that each party may fulfill only a portion of an intended collaboration, a partial performance option that mathematically rigid smart contracts do not accommodate. 2019
The flexibility that human business requires will unlikely ever be attained in existing decentralized protocols unless a decentralized verification system is built into decentralized commerce. 2019
Although smart contracting in decentralized systems is perceived as creating trust through preordained coded coordination without agency problems, decentralized commerce is equally afflicted with trust issues. 2019
Trust between counterparties in decentralized systems can only limitedly be assured by smart contracts, because the contract cannot verify the underlying qualities or future conduct of the parties. 2019
Counterparty trust in the programmed parameters of a smart contract is more justified in simpler contracts, and specifically where the smart contract template has a history of successful executions. 2019
In more complex smart contracts the counterparties cannot fully know whether the contract will do what it was programmed to do, or whether it will contain bugs or follow a logic the parties did not anticipate. 2019
Even small and simple smart contracts often contain bugs that trigger unforeseeable consequences, so contract simplicity is not by itself a guarantee of correct execution. 2019
Decentralized reputation verification systems enable mathematically rigid smart contracts to become more adjustable to the needs of business, with reputation verification serving as the backstop for smart contracting. 2019
The rigorous code is law standard associated with smart contracting can be upheld while still gaining flexibility, because reputation verification operates at the level of smart contract template verification rather than altering contract execution. 2019
Validated smart contract templates increase trust for counterparties and remove the need for costly back testing and experimentation with smart contract templates. 2019
The required review of counterparty history is possible through a platform that creates reputation for both parties and for the smart contract itself, so reputation must attach to code as well as to persons. 2019
Smart contracts face a legal origin problem: lawyers may argue that they are void and unenforceable, and contract law rules on formation, interpretation, conditions and remedies require substantive adjustment before smart contracts fit within it. 2019
The legal limitations on smart contracts are slowly disappearing through state legislation, as shown by Arizona's 2017 law making smart contracts fully enforceable and Delaware's parallel Blockchain Initiative proposals. 2019
A fund constituted purely through smart contracts on the Ethereum blockchain may have no domicile, foreign or domestic, which makes jurisdiction over blockchain transactions a genuine problem for the funds that use the technology. 2019
The cost of legal services traditionally creates an unfair advantage in the law based on wealth, an inequity that blockchain based smart contract programs for streamlined alternative dispute resolution are designed to address. 2020
The immutability of blockchain ledgers is itself a vulnerability, because once a DAO is in operation its essential construction is very difficult to alter should a bug in the code appear. 2020
Under current securities laws, DAOs governed solely by smart contracts are restricted in their ability to pool assets and generate profit, because those laws limit their ability to fund ecosystem development and deploy capital efficiently. 2020
ICO sale terms are not fixed at launch: promoters can alter the smart contract to change the sales rules mid course during an offering, a risk factor for retail investors that has no analogue in a registered offering. 2020
Under current securities laws, DAOs governed solely by smart contracts are restricted in pooling assets and generating profit, because those laws limit their ability to fund ecosystem development and deploy capital efficiently. 2021
Because a series of smart contracts grants DAO token holders voting rights, those smart contracts take the place of articles of association or bylaws and of the entire precedent system that a jurisdiction based legal structure would otherwise supply by default. 2021
Weighted keys are preferable to NFTs for reputation accounting because the smart contract itself holds the weights and each smart contract may require a different weight for the same key. 2021
Protocol centralization, meaning rigid and immediately enforced rules such as those executed by smart contracts, leads to instability unless it is implemented wisely. 2021
To achieve stability a DAO must institute a dynamic governance system that includes clear and accessible processes both for amending the rules and for appealing the automated conclusions reached by smart contracts. 2021
However rules are formalized in a realistic setting, there exist strategies that follow the rules yet subvert the intentions of the framers, so legal strategies will always be available that profit an individual adversary at the expense of the group. 2021
Despite its alluring simplicity, the Code is Law credo taken as an absolute is not an efficient solution for business, because unintended consequences of contracts arise in almost every business arrangement. 2021
For mutually beneficial long-term cooperation to thrive, contracts must be reviewable on the assumption of good faith from both parties when unintended consequences arise. 2021
A Code is Law assumption remains necessary for machine-scale commerce, because the multiplicity of options in a dynamically changing market demands instantaneous legal enforcement without waiting for a centralized human response. 2021
Automating exclusion of cheaters through smart contracts makes punishment credible and removes the infinite regress of traditional enforcement, where members would have to police those who failed to police those who failed to police cheaters. 2021
Contrary to the common engineering view that automated processes remove regulation, the purpose of smart contracts is to deliver much more fine grained regulation and more control, not less. 2021
Ethereum is Turing complete in theory but cannot practically match even a cheap smartphone, because everything stored on the blockchain must be stored redundantly on thousands of nodes forever, so decentralized smart contract computation is necessarily primitive compared with centralized Web 2.0 services. 2021
Decentralized autonomous organizations epitomize organizational decentralization because the first DAO, built purely on code and smart contracts with no incorporation, physical address, or headquarters, entirely removed all traditional control mechanisms employed by principals in agency relationships. 2021
As code proliferates as law, the democratic legitimacy of coded legal arrangements is increasingly called into question, because private actors have assumed governance tasks traditionally belonging to democratically elected sovereign states and may circumvent democratically legitimized governments. 2021
A decentralized human backstop to code is a core and often overlooked infrastructure requirement, because without it the immutability of the blockchain and its cryptographic security may not create genuine transactional guarantees or trust between principals and agents in the integrity of their contractual relationship. 2021
Applying Web3 technology to chit funds replaces the foremen and their commission with smart contracts, which eliminates the risk that a foreman absconds with the fund. 2021
A decentralized network needs a constitution that separates powers into a legislative system which updates the constitution, an executive system which enforces it, and a judicial system which resolves the disputes that inevitably arise. 2021
When currency is the entire proximal goal of a transaction, all participants naturally behave as selfishly as possible and exploit any opportunity for individual profit at the group's expense, which makes cash profit a bad immediate incentive for both business and government. 2021
Rigid code is law smart contracts over fungible currency are built to guarantee irreversible, unreviewable, self executing outcomes, which is a poor match for business because business ventures very rarely proceed exactly as imagined at the outset. 2021
Rigid code is law contracts must become extremely complex to cover the eventualities of real business situations, and bugs or hacks can never be certainly precluded in any programmable contract. 2021
Code is law smart contracts deliver a genuine leap in efficiency and clarity through digital self execution, but their supposed self regulation will always ultimately fall short, which is why an appeals capacity is necessary in any business deal. 2021
To preserve the efficiency of a self executing code is law smart contract, the appeals process must be built into the code itself, with triggers either party can engage that freeze the encumbered assets and transfer partial powers of disbursement to a third party arbiter. 2021
Prototypes exist for only two of the eight required institutions, decentralized currency in Bitcoin and distributed computation for smart contracts in Ethereum, and most of the rest are still missing. 2021
The executive policing functions of business and government should be automated through smart contracts in order to prevent corruption. 2021
News services acting as oracles and information repositories must themselves be decentralized if the decentralized economy is to have a trustworthy information layer. 2021
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
The killer app for the decentralized economy is the DAO, a company governed autonomously by smart contracts and organized without any single permanent governing authority or concentrated ownership, whose existence would justify the other decentralized overhead tools. 2021
The re entrancy programming bug was not the 2016 DAO's most serious problem; the system would eventually have failed more spectacularly because it was designed poorly on other levels. 2021
The hope of most Web3 engineers that overhead institutions can be automated away until they vanish is largely misplaced, because business contracts are not getting simpler as technology becomes more sophisticated. 2021
Delays in legacy code reviews, which can be exacerbated by digital asset market conditions, can impact development and may require complete rewriting of contracts because the underlying protocol may have upgraded core libraries during the review. 2021
DAOs are truly global borderless entities that coordinate agency relationships and limit liabilities via smart contracts, which is what positions them to address the identified flaws in the charitable giving process. 2021
Just as centralized institutions rely on the vetting of candidates by other centralized institutions, the CHARITYxDAO may serve as a decentralized oracle for philanthropic endeavors. 2021
Matched or treasury assets are held in the smart contract and released only if the candidate shows satisfactory evidence of expected distribution, and once upvoted the assets are distributed via milestone votes that each require evidence of fulfilled donative intent. 2021
The autonomous element of a DAO comes from its governance system being programmed through smart contracts, which makes a DAO ultimately democratic rather than relying on a benevolent dictator to correct course during black swan events. 2021
Best efforts underwriting in the DAOIC is implemented as a smart contract accountability system: a member's capital commitment is encumbered as a deposit and released to the token opportunity only after the reputation staking pool decides, and funding occurs only on a majority upvote. 2021
The DAOIC pools no assets: the smart contract releases each member's deposit directly to the project after validation pool approval, and returns on purchases are likewise not pooled but paid pro rata to members in proportion to their reputation token holdings. 2021
Any reliance by a DAO on a centralized feature creates a centralized point of failure that threatens the survival of the organization and renders the system technically centralized despite its decentralized appearance. 2021
A DAO that relies on a centralized oracle will eventually be exploited, because the people controlling the oracle will become aware of their power over automated contract triggers and, given the competitive nature of capitalism, are right to take advantage of it. 2021
A robust decentralized oracle finds better information because averaging across a crowd is typically better for complex situations, being less subject to the prejudices of individuals who hold more limited information, so overestimates and underestimates offset each other. 2021
An oracle DAO must filter its network so that the average member is correct at least slightly more often than incorrect; once that filter holds, larger and more decentralized networks converge on the truth more quickly and more certainly. 2021
In the SchellingCoin approach to oracle design, members stake reputation tokens on their answer to the question a DApp is asking and are rewarded according to how close they came to the resulting median value, which functions as the game theoretic Schelling point. 2021
The protocols governing how a particular oracle question is answered should be set by the subject matter experts themselves rather than by a static centralized hierarchy, because the experts know best how their own system can be gamed and how to prevent that gaming to protect their hard earned reputation. 2021
Robust decentralized oracles do not yet exist despite well funded proposals, because decentralized oracles are themselves DAOs and therefore inherit the same missing incentive structure, governance processes, and history that all DAOs suffer from. 2021
A decentralized oracle is not secure until it has significant momentum and history, and it is not even truly decentralized until it has a large network of active members. 2021
Until decentralized oracle protocols are secure and robustly enacted, projects should rely on centralized oracles while keeping the network's monetary value below the level at which the centralized newsfeed would gain an incentive to manipulate the data. 2021
Oracle DAOs and decentralized finance DAOs face a bootstrapping deadlock because each relies on the other for its very existence, a chicken and egg problem the authors address by having participants prove their worth in a development period before they can charge other DAOs fees. 2021
Self-executing, self-regulating smart contracts between anonymous parties in an open system create a near perfect zero-sum situation unless the DAO also includes reputation. 2021
Automating insurance away with smart contracts risks a race to the bottom, because foregoing insurance is more efficient in the short term for an individual, yet the resulting rare unprotected tragedies can chill the entire system. 2021
Insider knowledge of contract internals is itself an attack surface: at Snowdog DAO an insider who knew a challenge key embedded in the DAO contract backran the anticipated buyback and sold tokens ahead of it. 2022
Smart contracts that govern fungible currency exchanges are engineered for irreversible, unreviewable, programmed self execution, and that design makes the business structure of web3 more rigid. 2022
Code is law fails as a complete business ordering because business ventures very rarely proceed exactly as written in smart contract code: real business relationships are far messier and more multivalent than a series of smart contracts can predict. 2022
Effective business dealing requires that counterparties have confidence a fair resolution will occur when transactions do not develop as planned, which purely self executing code cannot supply. 2022
Effective human-centric DAO governance is the remedy for rigid smart contract rules that undermine business activities requiring more flexibility in web3 and the metaverse. 2022
Redemption contracts, the traditional price commitment device for privately issued money, lack credibility, whereas pre programmed smart contracts deliver an enforceable and secure quantity commitment instead. 2022
DAO governance over token launch wallets can assure that no single individual exercises rights over the token launch wallet and becomes a single point of failure or abuse. 2022
Technology platforms can make launch abuses less likely by mandating fair auctions in which tokens are released only in tranches, offering a limited number of tokens for a limited number of days, which makes rug pulls overall less likely. 2022
Blockchains cannot access off-chain data, and resolving this by using centralized oracles nullifies the advantages of decentralized systems while creating major security risks such as bribing and intimidation. 2023
Where a founder retains access to the smart contract behind the governance token, as with 3OH DAO, an internal attack by that founder would be remarkably easy. 2023
Chainlink's white-list response to the 2020 gas fee attack was only a temporary fix: had the attack impacted 50 percent of Chainlink node operators, the price feed would not have updated until enough nodes returned. 2023
When decentralization at the Layer 1 level is compromised, the autonomy of the smart contracts deployed on that chain is compromised by affiliation, so smart contracts are corruptible in the current design and cannot reliably serve as neutral instruments of ethical AI governance. 2024
Smart contracts can automate compliance with regulatory requirements and ethical guidelines: for example, a smart contract can enforce privacy law directly by controlling an AI system's access to personal data according to predefined rules. 2024
The smart contract industry is still projected to grow to several billion dollars over the next decade even though security audit costs and exploit losses are substantial, so vulnerability costs slow but do not halt industry growth. 2024
Losses from smart contract vulnerabilities are large and growing, with 2021 losses alone estimated at 680 million dollars and cumulative global losses estimated at over 6 billion dollars. 2024
Bug bounty programs fail at their own premise because the hackers they pay to demonstrate exploitability frequently sell or exploit the bugs they find instead of disclosing them. 2024
Smart contracts, as self executing contracts with terms written directly into code, remove the need for intermediaries, which lowers costs and raises trust among participants. 2024
In insurance, smart contracts that automate verification and settlement reduce administrative costs and increase both the speed and the accuracy of claims processing. 2024
In traditional federated learning environments the reliability of updates arriving from various nodes is hard to establish; web3 smart contracts and consensus mechanisms can automate that verification at the point of aggregation. 2024
Because annotating large datasets is labor intensive and expensive, smart contracts that reward community members with tokens for annotation are needed to sustain a steady flow of high quality labeled data for deep learning. 2024
Web3 systems provide inexpensive community based smart contract dispute resolution, and these mechanisms minimize legal cost while increasing both the certainty of outcomes and the protections available to stakeholders. 2024
Retroactive public goods funding via results oracles in DAO format fails at the governance layer: even where the core resource distribution concept works, the project remains exposed to decentralized governance attack vectors because the governance design lacks attack resistance. 2024
The smart contracts underlying the impact certificate marketplace prohibit and make technically impossible the extension of favors to individual donors, so unlike Impact 1.0 and 2.0 the highest pledging donor cannot obtain special considerations or better terms. 2024
Impact 3.0 can replace the political compromise and years of lobbying that Impact 2.0 standardization required with WEB3 precedent setting in weighted directed acyclical graphs, in which a smart contract itself becomes the standard. 2024
Encoding compliance and operational procedures in smart contracts removes discretionary human steps from execution, which minimizes human error and bias and raises the reliability and integrity of economic interactions. 2024
Compensation inside a DAO can be programmed to pay out automatically against predefined criteria such as task completion, performance metrics, or contribution, which cuts administrative overhead and makes distribution timely and consistent. 2024
Programmable tokens and smart contracts give quantum economics an experimental testbed, so contested phenomena such as preference reversal can be modeled with quantum decision theory and then empirically validated and refined rather than argued in the abstract. 2024
DeFi protocols automate financial transactions through smart contracts, cutting out intermediaries and increasing transparency, and those same features let quantum economics build models that are self executing and adaptable to real time data, overcoming implementation problems that defeat traditional economic models. 2024
The zero space structure of smart contracts produces a form of quantum transaction entanglement, in which transactions execute instantaneously and uniformly across the network regardless of the physical distance between the wallets involved. 2024
In blockchain transactions the signing function, performed by wallets holding cryptographic keys, is separate from execution, which occurs inside the smart contract, so tokens are never physically held in the same locality as the keys and the smart contract acts as the intermediary executing predefined rules. 2024
Because the blockchain is a distributed ledger existing simultaneously across all nodes, physical space is effectively eliminated within the network, and a triggered smart contract executes its code across the entire network instantaneously without regard to where wallets or keys are located. 2024
Smart contracts that release payment automatically once preset quality thresholds are met reduce human error, cut administrative overhead, and accelerate data-labeling cycles relative to intermediated payment processes. 2025
Infrastructure level permissioning neglects critical risks such as smart contract exploits, bugs, and permission conflicts, and proposes no real time enforcement across distributed nodes, which weakens its claim to bridge AI autonomy and accountability. 2025
Smart contract governance reduces the potential for human error and guarantees consistent application of governance protocols, features often lacking in purely AI driven supervision, although consensus delays may occur. 2025
LER should be built as a bifurcated architecture: voucher-based rewards for equities held in brokerage accounts, and programmable on-chain reward units for tokenized equities. 2025
For tokenized stocks, smart contracts can verify ownership and holding periods directly from blockchain ledgers and trigger voucher airdrops without intermediaries, which lowers operational costs and increases LER scalability. 2025
LER produces shareholder loyalty by using smart contracts to distribute consumptive utilities such as merchant vouchers or platform credits, so retention is encouraged without imposing any lock-up on the shareholder's liquidity. 2025
The fourth Howey prong fails because LER accrual is automated by smart contract and driven by the shareholder's own decision to keep holding, leaving the issuer's role ministerial rather than entrepreneurial. 2025
Smart contract delivered, time-based vouchers counter activist-induced price dips by giving shareholders a reason to hold through the trough, and they do so without the trading lock-ups that restrict liquidity. 2025
Smart contract exploits are a live failure channel for LER, capable of producing losses on the scale of DeFi incidents that have exceeded $1 billion annually and requiring insurance premiums of one to two percent of asset value. 2025