Last updated 2 years ago
Raising and managing DAO funds in an accountable way is best done with smart contracts but that requires Plutus engineering expertise.
A reusable module and SDK for bonding curves enable DApp developers to implement DAO treasury management and fair disbursements.
This is the total amount allocated to DAO Treasury Building Blocks.
DApp developers working on DAO tools need to move fast and test their market, iterating quickly on designs and approaches. These DAO DApps often require market mechanisms that help fund the DAO, manage the funds, and incentivise community activity. The best, most transparent, and accountable way of doing this is to use smart contracts to manage our collective funds (treasuries).
However, developing robust, scalable, modular and composable Plutus Smart Contracts requires formal analysis, design and engineering across many disciplines, including software engineering, finance, economics, and complexity science. Many DAO Tooling and DApp development teams lack these skills. Those that do have the skills are forced to direct resources away from working on their core projects.
The Smart Contracts will carry significant value and are the basis for building communities of trust. Communities need to know that the protocols managing their collective capital (financial, human, and social) are well-engineered and of high assurance. A single software bug can mean a community may lose wealth and trust.
Co-organising the Catalyst Eastern Townhall, an early Catalyst Community DAO prototype, we are painfully aware of the need to manage our funds in a transparent and accountable manner. Ideally, as engineers, we'd like smart-contract based management. At the moment however, there are no primitives we can use to build the tools we need.
Team & Experience
The team has experience in financial markets software engineering, cryptocurrency payments, tech start-ups, Data & Govtech, impact investing. We are also organising a legal-tech community and the Catalyst Eastern Townhall.
Robert O'Brien: Distributed Systems Software Engineer (Financial Systems) and Entrepreneur. Co-Founded three start-ups in Financial Data Analytics, International Trade Payments, and Impact Investing. Co-organises LegalHackers New Zealand and advises a Social Entrepreneurship Incubator. Co-Initiator of the Eastern Town Hall.
Andrew Walker: Distributed Systems Software Engineer, mainly in the financial sector in the City of London. Worked at Barclays Capital (credit risk) and LIFFE (derivatives exchange). Working on cryptocurrency payments infrastructure and also experienced with the hospitality sector.
Jack O'Brien: Developer Relation, Haskell Developer, Sound Engineer, Videographer. A graduate of Massey University CoCA in Commercial Music & Technology; Developing software and training material on applying blockchains, NFTs, DeFi in the creative sector.
Plutus (Cohort 1) and Atala Prism Pioneers (Cohort 1). Over the last thirty years, we've worked on highly concurrent distributed systems using C/C++ and functional languages OCaml, Erlang, Scala, and Haskell. The team (and our extended network) has experience in User Experience design, used formal methods, and developed high-performance systems in financial settings. We have experience in Blockchains and cryptocurrency projects.
Our Solution
A Bonding Curve Plutus Software Development Kit (SDK). We will design and engineer a module of baseline Smart Contracts for implementing Automated Market Makers (AMM) and more.
We will build an open-source, reusable module in Plutus utilising the Extended Unspent Transaction Output (EUTxO) architecture. It will be general enough for use in many applications and reliable enough to incorporate into complex Plutus designs. Layered over that will be a Software Developers Kit (SDK) to enable easy integration with DApps.
Bonding Curves[1] are one of the most useful and widely used components in DeFi and DAO Treasury Management. They are used in AMMs that underpin many of the Decentralised Exchanges (DEX), Loan, and Insurance protocols popular in DeFi. Their applicability extends beyond the limited scope of DeFi, including many different scenarios for Decentralised Autonomous Organization (DAO) governance, project funding, fractional ownership of NFTs etc.
A EUTXO Specific Architecture
The module and Smart Contract design will be engineered specifically for the EUTXO architecture of the Cardano Blockchain. The core design will utilise a batch auction mechanism to maximise throughput and prevent resource contention on the underlying reserve (liquidity pools). The design is based on the Treynor Dealer model[13]: A design that combines an order book (Dealer) as a periodic combinatorial auction with an AMM liquidity pool.
The combinatorial auction is not your typical English Auction! It is an off-chain optimisation algorithm designed to maximise welfare (a fair price for all participants). A single Plutus-Backend node can execute it or run as an Oracle Pool when more complex higher-throughput matching requirements are needed.
Bonding Curve parameters adjust the behaviour to suit specific periodic settlement windows (per-slot, epoch, or other), throughput requirements, shared reserve pool, and transaction matching using metadata. Future extensions include a simple bidding language for more complex matching scenarios found in DAO-2-DAO treasury management; Allowing a form of token-based if-then-that logic.
Please refer to our Catalyst Fund 2 Proposal for more details about Combinatorial Auctions and Oracle Pools[2], and our Catalyst Fund 5 proposal[3] for more details on Bonding Curves and their use.
To design and build the Bonding Curve module and SDK, we are using as a reference the Comos Bond Module[4]; leveraging the economic and system dynamics work already done by Blockscience[5], the Token Engineering[6] community, and Shruti Appiah[7]. As the project gets underway, we will welcome other interested contributors from the community to help build and maintain the project.
Impact on Challenge Metrics
Bonding Curve building blocks make DAO treasury management, governance, and financing tools easier to construct. Many aspects of project funding, team accounting and compensation systems will also benefit. There is no need to keep reinventing the same components. Bonding curves underlie our work with Risk-Adjusted Bonding Curves [14], a novel governance mechanism matching many DAO operational needs.
The bonding-curve module aims to be an essential toolkit for software developers that don't want to dive into learning Haskell, EUTXO, PlutusTx or the Plutus Application Backend. An essential toolkit for technology start-ups that don't have the skills in complexity-science and engineering talent to develop excellent economic protocols.
By focusing on baseline primitives and engineering for reuse across the Cardano Ecosystem, we can make it faster to deploy reliable DAO-focused DApps. DApp developers can easily integrate and interoperate modular Smart Contract mechanisms that we develop, giving customers confidence that their wealth is secure and value streams are fair.
Key Performance Indicators
Key Metric: Project Velocity[8], defined as a combination of base activity metrics of commits pulled from Github.
Activity Metrics: captured as project activity in Github and cadence of deliverables and engineering milestones achieved.
Community Metrics: engagement behaviours are broken down into four categories [9] to measure how our work spreads and is used in the Cardano ecosystem. These metrics derive mostly from Github.
What Success Looks Like
Our proposal will contribute to Cardano's developer ecosystem a module of bonding curve primitives explicitly designed for the EUTXO architecture. They are intended for integration into other higher-level protocols and DApps.
After One Month:
After Three Months:
After Six Months:
After Twelve Months:
The project will evolve with the extension of bonding curves to bonding surfaces (see Balancer[11]) and incorporate a bidding language. We are committing to ensuring long-term support that will be managed and funded by a DAO (using bonding curves to fund and govern it!).
Licensing
All our source code will be licensed under a free and open-source (OSI) licence, e.g. MIT, and contributions must be contributed patent-free. Contributors will be required to agree to a Contributor Covenant[12].
Published content will be licensed under the Creative Attribution-Noncommercial-ShareAlike International (CC BY-NC-SA) Licence v4.0. The specification will be published under a Creative Commons Attribution-NoDerivatives 4.0 International (CC BY-ND 4.0) licence.
Code, documentation, project activity and Jupyter notebooks will be made available on Github or similar service.
Budget Breakdown
The requested Fund 6 budget is for wages and expenses for six months of the project. We will deliver the initial bonding curve module code and related documentation. Further funds will be requested to continue the work beyond this period, either through Catalyst or direct funding of the yümi DAO.
Budget based on a pro-rata hourly rate spread over up to three team members. FTE hourly rate of USD$100 includes all overheads; Adjusted for experience, nature of work, and short term intermittent nature of project funding.
Affiliated proposals
The Bonding Curve module is informed by the bonding curve work used for the Retroactive Project Funding SDK (Fund6) [14]. The Risk-Adjusted Bonding curve consists of four or more bonding curves and demonstrates reuse and composition. The bonding curve module generalises the RABC work to make it more useful in other contexts.
The technology will also help build tools needed to implement the Distributed Autonomous Accelerator[16] and potentially enable rapid funding mechanisms[15] in Catalyst itself.
References
[1] Bonding Curves: https://medium.com/giveth/deep-dive-augmented-bonding-curves-3f1f7c1fa751
[2] A Smart Market Toolkit for Cardano. https://cardano.ideascale.com/a/dtd/A-Smart-Market-prototype-for-NFTs/323408-48088
[3] AMM for Continuous Financing: https://cardano.ideascale.com/a/dtd/AMM-for-Continuous-Financing/350654-48088
[4] Comos Bond Module: https://github.com/ixoworld/bonds
[5] Blockscience cadCAD: https://cadcad.org/
[6] Token Engineering Community: https://tecommons.org/
[7] Shruti Appiah: https://iohk.io/en/team/shruti-appiah
[8] Project Velocity: https://chaoss.community/metric-project-velocity/
[9] Community Metrics: https://communityroundtable.com/best-practices/thecrs-work-out-loud-framework/
[10] Bigrapher: http://www.dcs.gla.ac.uk/~michele/bigrapher.html
[11] Bonding Surfaces: https://medium.com/balancer-protocol/bonding-surfaces-balancer-protocol-ff6d3d05d577
[12] Contributor Covernant: https://www.contributor-covenant.org/
[13] Treynor Dealer model: https://en.wikipedia.org/wiki/Treynor_dealer_model
[14] Retroactive Project Funding SDK: https://cardano.ideascale.com/a/dtd/Retroactive-Project-Funding-SDK/369011-48088
[15] Catalyst Rapid Funding Mechanism Challenge: https://cardano.ideascale.com/a/campaign-home/26236
[16] Distributed Autonomous Accelerator: https://cardano.ideascale.com/a/dtd/Distributed-Autonomous-Accelerator/382562-48088
NB: Monthly reporting was deprecated from January 2024 and replaced fully by the Milestones Program framework. Learn more here
Financial markets software engineering, cryptocurrency payments, start-ups, data & Govtech, impact investing. Organise legal-tech community.