Tivon™
Decoupled Power Integrity (DPI)
A new class of intelligent firm-power infrastructure powered by Tivon Thermal Energy Storage
Firm Power for the AI-era grid
Generation stays steady. Load moves freely. Volatility is absorbed internally.
DECOUPLED POWER INTEGRITY (DPI) is Tivon Energy’s power-infrastructure architecture for separating generation behavior from AI-driven load volatility through integrated thermal energy storage and coordinated plant-level controls.
Tivon is developing a new class of intelligent firm-power infrastructure designed to separate generation behavior from AI-driven load volatility and renewable intermittency through Tivon’s patented Thermal Energy Storage architecture. Built from mature industrial subsystems, Tivon integrates proven equipment into a coordinated system designed to behave differently than conventional generation.
In Tivon’s reference configuration, DPI is designed to support 24-hour firm-power delivery through embedded long-duration thermal energy storage.
DPI is designed to address volatility across milliseconds-to-minutes operating envelopes, combining fast electrical controls with controlled thermal-energy absorption.
DPI is designed to keep turbine output substantially stable during short-duration load movement, reducing forced-ramping exposure by shifting volatility into controlled thermal absorption.
DPI is not a replacement for grid-level balancing or reliability services; it is designed to reduce plant-level volatility exposure by absorbing selected load movement within the power architecture.
What Is DPI?
Decoupled Power Integrity (DPI) is a power infrastructure architecture that physically separates generation behavior from demand variability at the system level.
Instead of forcing turbines, batteries, peakers, or grid infrastructure to chase every load movement, DPI places a controllable thermal-energy buffer between generation and load. Generation can remain substantially stable, load can remain responsive, and short-duration volatility can be absorbed inside the infrastructure itself.
Why DPI Exists
AI data centers can create rapid, repetitive, bidirectional load swings, including severe operating cases in the 10–75% range. Legacy power systems cannot follow that volatility without ramping turbines, cycling batteries, curtailing generation, or adding balancing cost.
DPI exists because modern load increasingly behaves differently than the legacy grid infrastructure that serves it. Tivon defines an architecture intended to separate firm generation from volatility.
AI data centers, renewable-heavy grids, and industrial electrification are creating load and supply patterns that conventional power systems were not principally designed to manage.
Legacy systems often must ramp turbines, cycle batteries, curtail renewables, or start peakers to respond to volatility. DPI changes the architecture by placing a controllable energy buffer between generation and load.
How Decoupled Power Integrity Works
Watch how Tivon separates generation behavior from AI-driven load volatility by redirecting surplus power into thermal storage instead of forcing generation assets to chase every load movement.
The DPI Mechanism
By combining patent-protected architecture with established industrial equipment, known heat-transfer physics, and conventional steam-cycle principles, Tivon is designed to maintain substantially stable generation while absorbing real-time demand variability inside the storage system itself.
Power Integrity for AI Workloads
AI clusters do not behave like conventional IT loads. GPU workloads can shift rapidly between compute-heavy and communication-heavy phases, creating repetitive power movement that legacy infrastructure was not designed to follow.
Tivon’s DPI architecture is designed to absorb that volatility at the infrastructure layer, helping preserve a flatter, more predictable power envelope for AI operations.
Proven Components. New System Behavior.
Tivon retires execution risk by integrating TRL-9 industrial subsystems, including commercially deployed thermal storage, electric heating, heat exchange, and conventional steam-cycle generation technologies.
Tivon does not seek technical and commercial advantage through experimental materials, unproven chemistry, or new physics. The system is built from mature industrial subsystems, including molten nitrate salt thermal storage, electric resistance heating, thermosyphon heat exchange, and conventional steam-cycle generation. The architecture relies on established thermodynamic principles and operates within conventional first-law and second-law energy-conversion limits. Its engineering foundation draws from proven industrial practice, including concentrated solar power, grid-scale thermal energy storage, process heat systems, and conventional steam-cycle power generation.
The result is the defining paradox of Tivon:
Tivon’s differentiation is not component-level novelty. It is system-level integration. By coupling proven subsystems into a new operating architecture, Tivon creates a firm-power platform designed to preserve stable generation behavior while absorbing rapid load volatility through integrated thermal energy storage.
Economic Advantage
Tivon converts volatility from a cost driver into a storage input. Instead of forcing generators, batteries, or the grid to chase every load movement, DPI redirects volatility into thermal storage absorption.
The result is a power architecture designed to support lower delivered cost, higher availability, reduced O&M exposure, no mid-life battery replacement requirement for the DPI storage layer, and reduced exposure to fuel-price volatility.
Designed for High-Value Firm Power Markets
DPI is designed for underwritable, infrastructure-scale deployment in markets that require firm power, high availability, and operational stability under variable demand.
Instead of forcing the power asset to chase the load, Tivon is designed to absorb volatility inside the thermal storage architecture, preserving asset integrity, reducing operating stress, and supporting long-duration firm power delivery.
DPI for Hyperscalers
Absorb AI load volatility without forcing generation to chase every transient.
DPI for Utilities
Convert renewable generation into firm, dispatchable capacity.
DPI for Investors
A fuel-independent, long-life infrastructure asset designed for contracted revenue.
DPI for EPCs and Engineers
Built from established industrial subsystems and integrated into a novel power architecture.
Tivon Defines Decoupled Power Integrity
DPI is a new architecture for power systems where generation can remain substantially stable, load can remain responsive, and volatility can be absorbed inside the infrastructure itself.
For high-duty-cycle markets such as AI infrastructure, the key question is not simply the lowest nameplate storage cost. The key question is which architecture can deliver repeatedly available firm power at duration while keeping the asset in revenue service.
Tivon is designed to absorb volatility internally.
Continue to the DPI Framework
To see how Tivon separates generation behavior from AI-driven load volatility, explore the Decoupled Power Integrity framework.