Temporal Compute

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Expert Rating 3.3
Jonathan Edwards
Project Owner

Temporal Compute

Expert Rating

3.3

Overview

Our company, Temporal Computing, proposes to enhance the performance and scalability of the Hyperon framework by integrating cutting-edge temporal computing technologies with specialized hardware. Temporal computing offers an alternative to traditional and quantum computing by representing input data as a "passage of time" rather than traditional binary. This method allows for processing efficiencies and energy savings by utilizing simpler memory manipulation devices. Our vision is to leverage these advantages to provide a significant speed increase and power reduction in AGI computations.

RFP Guidelines

AGI related hardware

Complete & Awarded
  • Type SingularityNET RFP
  • Total RFP Funding $80,000 USD
  • Proposals 5
  • Awarded Projects 1
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SingularityNET
Oct. 4, 2024

This RFP seeks to explore and evaluate innovative hardware paradigms, ranging from small-scale IoT devices to large, decentralized systems, to optimize AGI workloads in the OpenCog Hyperon framework and handle advanced processes such as cognitive synergy and hyperdimensional computing. The focus is on assessing hardware paradigms and emerging architectures (e.g. neuromorphic processors, associative processors such as TensTorrent’s APU, etc). The goal is to enhance computational efficiency, scalability, and cognitive synergy in AGI systems. Part of this should involve interacting with the Hyperon team who've built the existing and in-development MeTTa interpreters.

Proposal Description

Company Name (if applicable)

Temporal Computing LTD (uk)

Project details

Our company, Temporal Computing, proposes to enhance the performance and scalability of the Hyperon framework by integrating cutting-edge temporal computing technologies with specialized hardware. Temporal computing offers an alternative to traditional and quantum computing by representing input data as a "passage of time" rather than traditional binary. This method allows for processing efficiencies and energy savings by utilizing simpler memory manipulation devices. Our vision is to leverage these advantages to provide a significant speed increase (100x) and power reduction (100x) in AGI computations.

Temporal computing has several advantages over quantum computing, including easier development, higher parallelization capacity, and low resource requirements. Key problems identified include deep learning, flow optimization in graphs, and cryptographic systems.

Our approach includes both electrical and non-silicon implementations, with a focus on proving the viability of temporal computing in various domains. The project targets improvements in low power and high-performance compute, aiming to capture a significant share of the neuromorphic computing market and demonstrate "supremacy" in valuable areas like AI systems.

A variety of papers, patents, and reports have documented our work to date, with a focus on developing a licensable portfolio and unlocking future investment. The plan includes milestones for both software and hardware development, aiming to build a general temporal computer that can solve a wide range of problems.

Project Objectives:

1.Evaluate MeTTa, MeTTa compilers, and Hyperon technologies to identify opportunities for the integration of temporal technology.

2.Implement this technology and benchmark against known systems.

  1. Start the process of turning this into an open source Neural Processing platform

Scope:

We propose a comprehensive approach that includes:

1. Codebase rethinking and compiler optimization to take advantage of temporal computing insights.

2. Integration of temporal IP into the Hyperon/PRIMUS stack.

3. Research and development of POC hardware solutions for key AGI components, focusing on deep learning with the potential to extend to cryptographic systems.

Key Deliverables:

  1. A comprehensive analysis of the current state of art hardware for the respective computational requirements.
  2. Recommendations for integrating temporal hardware into the Hyperon/PRIMUS stack.
  3. Proof-of-concept prototypes and testbeds for key AGI components.

Methodology:

Our approach involves the following stages:

  1. Literature review and analysis of existing works on MeTTa, MeTTa compilers, Hyperon technologies, and temporal computing.
  2. Stakeholder engagement with industry experts to identify priority areas for improvement.
  3. Technical KPI assessments to determine feasibility and scalability.
  4. Research and development of specialized hardware solutions.

Timeline:

  • Phase 1 (0-1 months): Literature review, stakeholder engagement, and technical KPI assessments.
  • Phase 2 (1-2 months): Development of temporary computing insights and recommendations for integrating specialized hardware into the Hyperon/PRIMUS stack.
  • Phase 3 (2-6 months): Research and development of specialized hardware solutions and construction of a demonstrator.

Budget:

Our estimated budget for this project is $80000, which will be allocated as follows:

  • Personnel and overheads: 60000
  • Equipment and infrastructure: 10000
  • Research and development: 10000

Conclusion:

Temporal Computing is confident that our approach will significantly enhance the performance and scalability of the Hyperon framework. We believe that our proposed solutions will capture a significant share of the neuromorphic computing market and demonstrate "supremacy" in valuable areas like autonomous systems.

Contact Information:

For more information, please visit our website at https://temporal.computer/ or contact us at Jonny@temporalcomputing.com.

Open Source Licensing

Custom

Links and references

For more information our website is https://temporal.computer/

Proposal Video

Not Avaliable Yet

Check back later during the Feedback & Selection period for the RFP that is proposal is applied to.

  • Total Milestones

    4

  • Total Budget

    $79,999 USD

  • Last Updated

    27 Nov 2024

Milestone 1 - Literature Review and Stakeholder Engagement 1 mth

Description

Milestone description: Conduct literature review on MeTTa MeTTa compilers Hyperon technologies temporal computing and the potential synergies. Run workshop with the Hyperon team who've built the existing and in-development MeTTa interpreters. Engage with industry experts to identify priority areas for improvement. Identify key challenges and opportunities for integration.

Deliverables

* Key Deliverable: + Comprehensive analysis of current state of art hardware for respective computational requirements. This will be an academic document of around 10-15 pages with around 100 references. Work has already started on the temporal computing aspect in collaboration with the University of York. We seek to augment and support this in the content and thinking

Budget

$15,000 USD

Milestone 2 - Development of Temporal Comp. Insights 1-2 mths

Description

Develop and refine temporal computing insights and algorithms. We already have a start on this process as we have the building blocks for some of the key matrix operations. We will extend these to align with this project brief by integrating temporal IP with existing Hyperon idealogies.

Deliverables

+ Recommendations for integrating temporal technology into the Hyperon/PRIMUS stack most likely building on out advanced algorithms for linear algebra. The main thrust of this work will be integration of the temporal ideology with that of Hyperon.

Budget

$15,000 USD

Milestone 3 - Development of Specialized Hardware (2-6 mth)

Description

* Milestones description: + Design and develop POC hardware solutions for key AGI components. Because of time pressures this will likely utilise extending processes (open source verilog design) and IP that have been successfully deployed in temporal computing the business. + Conduct rigorous testing and validation of hardware prototypes. This can be done through simulation using cycle accurate simulators such as verilator. + Refine and iterate the design based on feedback from stakeholders. We will engage with other Hyperon/Primus users to establish next steps in moving the POC to solve a beachhead technical challenge.

Deliverables

* Key Deliverable: + Construction of a demonstrator prototype showcasing the potential of temporal computing in AGI applications. + Proof-of-concept hardware solutions for a key aspect deep learning and cryptographic, most likely linear algebra.

Budget

$44,999 USD

Milestone 4 - Final Key Deliverable - Debrief and Nextsteps

Description

Run a presentation / final stage workshop on the key findings, opportunities and deliverables with a cross section of the appropriate stakeholders (initially agreed at engagement but could add other parties as appropriate) covering the staged deliverables and the next steps we recommend for optimal ROIs extraction.

Deliverables

Report and recommendations document - workshop day via video conference.

Budget

$5,000 USD

Join the Discussion (0)

Expert Ratings

Reviews & Ratings

Group Expert Rating (Final)

Overall

3.3

  • Compliance with RFP requirements 3.3
  • Solution details and team expertise 4.0
  • Value for money 4.3

Topics of this response were of great interest to the judges. Strongly encouraging participation in future rounds, perhaps along the lines of this proposed work.

  • Expert Review 1

    Overall

    4.0

    • Compliance with RFP requirements 4.0
    • Solution details and team expertise 3.0
    • Value for money 0.0
    Overall an acceptable proposal that mostly follows RFP goals.

    Accept! Proposal outlines the problem and generally follows RFP goals and objectives. I like that the team wants to spend time reviewing the codebase of MeTTa compilers and other PRIMUS components to identify the pain points and suggest the improvements for proposed architecture. The downside I am not sure at all that temporal compute technologies will work well with PRIMUS and how much code will need to be changed.

  • Expert Review 2

    Overall

    3.0

    • Compliance with RFP requirements 3.0
    • Solution details and team expertise 5.0
    • Value for money 0.0
    This is super interesting and maybe we should fund it some other way, but it doesn't exactly match this RFP...

    I like this proposal, and I would like to see it funded. Maybe we can create a followup RFP that this fits into? But this RFP is really for putting together a super careful in depth review of the AGI hardware space, rather than for taking one particular approach to hardware and fleshing out its application to Hyperon in great detail. Related to this, I also am not sure really whether temporal computing speeds up the operations that are most critical to speed up for Hyperon in particular. For Hyperon the biggest bottleneck is access to the memory graph according to complex patterns, which is not obviously super sped up by temporal computing (though maybe it is). I can more easily see how ActPC and ActPC-Geom stuff (reinforcement learning ish stuff) would be massively sped up this way actually....

  • Expert Review 3

    Overall

    3.0

    • Compliance with RFP requirements 3.0
    • Solution details and team expertise 5.0
    • Value for money 0.0

    Very interesting conceptual idea for compute, but not particularly focused on speeding up the sorts of graph pattern matching calculations we are interested in. It seems temporal computing could mostly speed up addition and multiplication calculations.

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