RedwoodAI is the digital root structure for RedwoodAdaptive, an energy and environmental consultancy with deep domain knowledge in complex adaptive systems (CAS) such as technological and nature based carbon cycles and management solutions
Redwood forests, carbon cycles and neural networks
Redwood forests are exceptional carbon sinks, storing vast amounts of carbon in their massive trunks, root systems, and soils over their extraordinarily long lifespans. Carbon cycles in natural ecosystems demonstrate higher efficiencies, vastly improved cyclical flows, and an inherent and organic resilience compared to the linear, energy-intensive technological carbon cycles of existing fossil fuel power plants. Bridging these gaps with genAI models that mimic nature based systems can boost the overall resilience of carbon management strategies in the energy, power, and industrial sectors. By leveraging the analytical scope and velocity of neural networks, technology based carbon management systems can become much more adaptive and effective in reducing emissions through improved overall system performance. A complex adaptive systems (CAS) architecture built on a composite AI platform that features techno-economic planning, emissions reduction simulations, process optimization, and nature based storage solutions can make significant contributions to a reduced carbon footprint and more manageable carbon budgets for project planners and investors.
.jpg)
Complex adaptive systems (CAS) foundation models
CAS require coherence under change via conditional action and anticipation through lever points where small amounts of input produce large directed change. CAS building blocks are organized around core competencies that function in diverse, dynamic patterns that create progressive adaptations through new niches and interactions. Agents that participate in cyclic flows cause the system to retain resources which can be exploited for new niches by new kinds of agents. The parts of CAS that exploit these possibilities will thrive, and parts that fail to do so will lose their resources to those that do. AI neural networks create expanded competitive advantages through deep adaptive capacity acquisition via strengthened core competencies based on a portfolio of new skills and system services. Enhanced competencies can identify various niche opportunities for new technological carbon cycle strategies based on existing energy resources and infrastructure. As the CAS changes, it refers to itself and its established identity which then creates a more reliable and resilient technology and asset base that is better integrated with our planet's natural carbon cycle.
GenAI Adaptive Innovation Portal (GAIP)
The GenAI Adaptive Innovation Portal (GAIP) is designed to stimulate knowledge discovery and shared cognition for the processes involved in natural and technological carbon cycles. The GAIP is designed to create synergies among innovations in AI, high performance computing (HPC) and next generation energy technologies for accelerated time-to-value (TTV). The GAIP relies on a complex adaptive systems (CAS) architecture for improving key system attributes like adaptive capacity, resilience, emergent productive output, and risk avoidance/management. The greatest potential gains are achieved through causal reciprocal exchange between self-determined agents in self-organized networks. The GAIP is designed for new niche activation in the AI, HPC and cleantech sectors and includes synergistic CAS planning. The GAIP innovation ecosystem includes AI, data and compute resources from US DOE national labs, private sector service providers, and research universities.
