Centralized infrastructures impede large-scale, AI-based, privacy-sensitive computational physics in drug and materials discovery, leaving a gap for innovation in industries like pharmaceuticals.
A protocol to facilitate major industry, academic, and scientific adoption of Cardano-based protocols for AI-assisted, privacy-sensitive physics computations in material and drug discovery
This is the total amount allocated to Hetzerk: A protocol for Decentralized Materials (Therapeutics at first) Discovery to bridge Large Industries, like Pharmaceuticals, to newer and better blockchain technologies leveraging Nunet.
There are no other proposers.
We are developing on Nunet, a decentralized protocol that leverages Cardano for decentralized computation from which we develop our products on.
Our intention is to progressively transition the majority of our project's deliverables to open-source. This will be done after we have cemented considerable industry and academic partnerships to maintain our competitive position. However, we must consider the necessity of retaining certain proprietary aspects, particularly those related to collaborations with industries and Intellectual Property rights. This is crucial when dealing with the development stages of therapeutics and materials, and specifically when proprietary rights over discovered molecules or materials are involved. These might be represented in unique smart contracts on the Cardano blockchain or in specific Cardano blockchain-based applications developed for our industrial partners. We will approach these proprietary components with a balance between openness and strategic protection of our discoveries.
9 - Build resilient infrastructure, promote inclusive and sustainable industrialization and foster innovation. Enhance scientific research, upgrade the technological capabilities of industrial sectors in all countries
We are continuing the creation of our decentralized protocol for physics simulations and inference used for discovery of therapeutics, drugs, and other industry relevent materials (even Quantum materials) using Machine learning while leveraging Nunet for decentralized computational resources. We aim to make our protocol open ended such that enhanced physics simulations can leverage knowledge from Deep Learning [1], to neuro-symbolic AI [2], quantum chemistry [4], cognitive architectures[5], etc. Additionally, we are building a tokemonics system to incentive computation, data, algorithm development, mining, and community rewards for collaborations and support from individual community members, academics, and even corporations. One of our driving principles is the coupling of advancements in artificial intelligence to advancements in functional near-term technologies.
Our solutions will be useful in markets like Biotechnology, Artificial Intelligence, Chemical Synthesis, and many more. These are quickly growing markets, and would be absolutely amazing for the health of the cardano ecosystem to bridge the market demand home. Take for instance just the Biotechnology market; it is expected to surpass 1.5 Trillion by 2030 and growing at nearly ten percent per year [6].
We're aiming to engineer a substantial shift in the way we compute with Nunet. Essentially, we're building a computational environment designed for smooth integration of multi-scale simulations. This system will use both theoretical and AI-driven algorithms, developed from various data sources. The idea is to improve knowledge extraction and incorporate cognitive principles, establishing a highly interconnected computational network within the physical sciences.
The goal is to match and eventually exceed the capabilities of current High-Performance Computing (HPC) infrastructures. In an ideal scenario, once Nunet is fully developed and backed by a substantial ecosystem, we anticipate the ability to simulate molecular systems faster than most leading supercomputers today.
All of our code will be developed with parallel processing in mind, targeting multi-virtual node CPUs and GPUs. By integrating AI into our approach, we aim to overcome many traditional limitations encountered in high-level computations. Our method promises not only to optimize resource usage, but also to reduce the time required to reach solutions, providing a unique, powerful toolset for innovation in the sciences. We hope these tech-focused details provide a compelling reason to cast your vote in our favor.
Find more information in our LitePaper: https://www.hetzerk.com/litepaper
References:
[1] https://pubs.acs.org/doi/10.1021/acs.accounts.0c00472
[2] https://arxiv.org/abs/2006.11287
[3] https://pubs.acs.org/doi/10.1021/acscentsci.0c01236
[4] http://quantum-machine.org/gdml/
[5] https://arxiv.org/abs/1410.5401
Our proposed solution aims to directly address key areas of the challenge, specifically focusing on computational services and smart contract automation for industrial and research entities.
From an industrial viewpoint, our computational protocol enables users to exchange tokens for precise computational modeling of specific systems or private/public algorithms curated by a wide variety of entities, which may include individuals, research labs, corporations, or community contributors. For the Cardano community, this proposal envisages a reward system, remunerating contributions in areas such as data provision, computational resources, algorithmic development, mining, and technological innovation.
Rewards are primarily derived from the following processes: physics data (incorporating experimental data, simulation data, and theoretical data), computational resources and storage provision, algorithm advancements (including the creation of new algorithms, neural network training, performance enhancement of existing networks), mining operations, and broader technological development. Mining, in this context, refers to the ultimately automated procedure of executing specific computations proposed by community members or recommended by an AI agent. Anyone can participate in this process through staking or resource allocation. Furthermore, entities that contribute to the protocol's development through any of the aforementioned avenues, including mining, can gain rewards through a prearranged distribution of tokens paid by industrial users using smart contracts.
Our immediate objective within this proposal is to develop a minimum viable product (MVP) on the Cardano platform. This MVP aims to initiate collaborative efforts with the pharmaceutical and biotechnology sectors, with a longer-term ambition to serve as the decentralized cloud solution for AI-driven drug, therapeutic, and materials (batteries, quantum devices, LED, glass...) development.
Benefits to the Cardano Ecosystem:
In terms of quantifying the impact, we anticipate a significant increase in users and transaction volume within a realistic timeframe following project completion. Exact figures will be dependent on various factors such as outreach efforts and adoption rates among potential users. Given the unique value proposition of our platform, we expect a positive response from the scientific and research community.
A handful of markets we may be able to enter, and bring to Cardano, in the coming years are listed below:
Potential Target markets
References:
Our project aims to build a robust computational infrastructure on the Cardano network, in partnership with Nunet and SingularityNet. Our ultimate objective is to establish a productive cycle of development, deployment, rewards, and continuous enhancement in efficiency, thereby creating a platform for simulation-based solutions relevant to both academia and industry. These solutions could span from AI-assisted drug discovery to quantum mechanical simulations of biomolecules. Therefore, the success of our project will be measured based on a multi-faceted framework:
In terms of benefits to the Cardano ecosystem:
In both short and long-term perspectives, these metrics offer a comprehensive measure of our project's impact on Cardano's productivity and growth. Moreover, gathering user opinions and feedback would supplement these metrics, offering qualitative insight into our project's efficacy and areas of potential improvement.
Our dissemination strategy will be multi-pronged, ensuring maximum exposure for our project's results and outputs across different channels and stakeholders. This comprehensive plan includes the following components:
Regarding the utilization of project results in further research and development activities, we envision a broad range of possibilities that extend beyond the immediate scope of the project:
These potential avenues exemplify how the outcomes of our project could create a foundation for future growth and innovation, driving long-term value within the Cardano ecosystem and the broader blockchain industry.
Hetzerk has a comprehensive academic background, industry experience, and a successful history with related project catalyst proposals and collaborations with recognized entities within the Cardano ecosystem.
To elaborate:
Our project's central goals fall within the sphere of advanced computational protocol development and fostering meaningful industrial collaborations. We aim to develop a decentralized infrastructure on Cardano, working in partnership with Nunet and SingularityNet, to address the complex, computation-intensive challenges that both the academic and industrial sectors face.
Key Objectives:
Milestone 1: Initialization and Project Conceptualization
Main Tasks / Activities: Assembling the core project team, setting up communication channels, and drafting a comprehensive project blueprint after thorough brainstorming and understanding of Cardano's and Nunet's decentralized and computational landscape and our project's specific requirements.
Expected Delivery Time: (6-12 Weeks)
Success Criteria: Creation of a detailed project blueprint with clear steps and deliverables
Milestone 2: Integration and Testing of Computational Framework
Main Tasks / Activities: Integration of our computational framework as defined in the project blueprint, and testing the system's capacity to handle complex computational tasks and various algorithms.
Expected Delivery Time: (12 - 20 Weeks)
Success Criteria: Successful integration of the computational framework with the platform and demonstrated platform reliability against an array of computational tasks.
Milestone 3: Engagement Strategy with Industrial Partners
Main Tasks / Activities: Development of a comprehensive strategy to attract and engage with industrial entities, particularly from the pharmaceutical sector, focusing on the unique benefits and potential of our platform to cater to their computational needs.
Expected Delivery Time: (4-8 Weeks)
Success Criteria: Development of a robust industrial engagement strategy and preparation for implementation.
Milestone 4: Implementation of Industrial Engagement Strategy
Main Tasks / Activities: Implementing the industrial engagement strategy, establishing relationships with potential industrial partners, handling inquiries, showcasing the platform's capabilities, and working closely with partners to integrate their computational tasks on the platform.
Expected Delivery Time: (8 -10 Weeks)
Success Criteria: Establishment of relationships with industrial partners, demonstrated use of the platform by industrial partners, and gathering feedback for improvements.
Milestone 5: Evaluation, Industry Guided Development, and Future Expansion Planning
Main Tasks / Activities: Collection and analysis of data from the system, documenting project experiences and lessons, assessing feedback from industrial partners, formation of specific goals for partner-driven expansion, based on the assessment and collected feedback to develop improvements our computational framework, and planning for future platform expansions and enhancements.
Expected Delivery Time: (6 - 10 Weeks)
Success Criteria: Comprehensive project documentation, feedback implementation, documentation of improvements, and a clear future development roadmap.
Milestone 1: Strategic Research and Project Conception for Industry Appeal
Deliverables: Comprehensive study identifying industry demands and preferences, evaluation of best AI methodologies to meet these needs, integration plan combining traditional and AI-driven methods for optimal results, and strategic blueprint for leveraging decentralized infrastructure to maintain competitive edge. This will be alongside the project timeline, resource distribution strategy, and risk management tactics.
Outcomes: A refined project roadmap incorporating cutting-edge AI and traditional methods, designed specifically with industry appeal in mind. Team members will have a clear understanding of how to utilize decentralized infrastructure to obtain and maintain a competitive advantage in our project execution.
Milestone 2: Development and Verification of Computational Framework Integration
Deliverables: A MVP platform merged with our computational algorithms, accompanied by a comprehensive report detailing the implementation process, technical challenges faced, and their problem-solving techniques.
Outcomes: A flexible platform capable of performing various computational tasks, enhancing our potential in both industrial applications and research fields. The successful integration and validation process will offer a stable base for future modifications and adjustments according to specific industrial needs, ensuring we stay relevant in our competitive market and research goals.
Milestone 3: Engagement Strategy with Industrial Partners
Deliverables: A detailed strategy outlining how we'll engage with industrial partners, specifically those in the pharmaceutical sector.
Outcomes: A roadmap for attracting and maintaining relationships with potential industrial partners, promoting the benefits and potential of our platform in their computational processes.
Milestone 4: Implementation of Industrial Engagement Strategy
Deliverables: Implemented engagement strategy, relationship establishment with potential industrial partners, a report summarizing the inquiries received, the demonstrations conducted, and the platform's use by industrial partners.
Outcomes: Strengthened relationships with industrial entities, adoption of the platform by industry partners, and valuable feedback to improve our platform and align it better with industrial needs.
Milestone 5: Evaluation and Future Expansion Planning
Deliverables: Analysis report of data collected from the platform, project experience documentation, a detailed feedback report from industrial partners, and a future expansion plan for the platform.
Outcomes: Comprehensive understanding of the project's progress, lessons learned, feedback-driven improvements in the platform, and a clear plan for future expansion and enhancement.
Milestone 1: Initialization and Project Conceptualization (6-12 Weeks)
Milestone 2: Development and Verification of Computational Framework Integration (12-20 Weeks)
Milestone 3: Formulation of Industrial Engagement Strategy (4-8 Weeks)
Milestone 4: Execution of Industrial Engagement Strategy (8 - 10 Weeks)
Milestone 5: Assessment, Re-developments and improvements with Industry expansion, and Future Expansion Strategy (6-10 Weeks)
With an investment of 310,000 ADA, this project proposes to bridge Cardano Dapps with significant players in the industrial sector like Roche or Novartis, companies valued in billions of dollars. The potential return on this modest investment could be tremendous, amplifying Cardano's impact and visibility in these industries. Furthermore, this initiative also intends to promote decentralized science projects, showcasing the capabilities of the Cardano and growing Nunet ecosystem in a new and exciting domain. The value for money here is represented not only in immediate outcomes but also in the long-term growth and recognition of Cardano.
Leading this project, we have Justin Diamond, a Doctoral Student in Machine Learning with a focus on Chemistry and Physics. He will handle development tasks and engage with industrial and academic players. Justin also brings his experience from working on the past Hetzerk projects funded through Project Catalyst in Fund8.
https://www.linkedin.com/in/justin-sidney-diamond-881798193/
Assisting him, Ryan Diamond a Financial Data Analyst will help with the financial aspects and collaborative efforts of the project and Floriane Le Floch, founding member of AI startup and Web3 consultant, acts as an advisor.
https://www.linkedin.com/in/floriane-le-floch/