NATURE’S ALLOSTASIS

Energy-dependent use of alternative routes to effective function

Living systems often have more than one way of achieving an essential functional outcome.

The Basic Idea

When a preferred biological route is impaired, a living system may be able to recruit an alternative route.

A useful analogy is a freeway system. If the usual route is blocked, another route may still reach the destination. The alternative may be slower, longer or less efficient, but it can preserve function.

In biology, alternative routes are selected through distributed sensing, feedback and adaptive responses rather than conscious choice.

A Working Definition

Nature’s Allostasis is the energy-dependent capacity of a living system to detect functional impairment and engage alternative routes that restore or sustain effective function.

Why Energy Matters

An alternative route may require more energy than the preferred route.

If sufficient usable energy is available, the alternative route may sustain function while repair or adaptation proceeds. If energy is insufficient, the fallback route may fail even though it remains biologically available.

This is why additional life-force energy may sometimes have disproportionately large effects in a system that is close to regaining functional control.

Tipping Thresholds

The model does not require an Enerceutical to perform all of the restorative work.

A relatively small increase in available energy may lower or extend the energetic threshold at which the system’s existing allostatic capacity becomes effective again.

IMPAIRED SYSTEM → ADDITIONAL AVAILABLE ENERGY → ALLOSTATIC ROUTES BECOME EFFECTIVE → SYSTEM PERFORMS RESTORATIVE WORK → PROGRESSIVE RESTORATION

From Cells to Ecosystems

Nature’s Allostasis can be considered at several levels of biological organization.

A cell can alter pathways to preserve function. An organism can redistribute resources and recruit compensatory responses. An ecosystem can shift interactions among organisms and environmental processes.

These systems are not equivalent, but each can contain feedback, competing processes and multiple routes to a functional state.

Enerceuticals and Allostasis

Enerceuticals are being investigated as means of increasing access to or utilization of available energy.

The central proposition is therefore:

An Enerceutical does not necessarily need to perform all the restorative work. It may only need to change the energetic conditions sufficiently for Nature’s own allostatic processes to become effective.

LINK TEXT: Enerceuticals™ — Materials, Devices & Processes

Applications

This framework is relevant to questions in human health, animal health, plant biology and restoration of impaired ecosystems.

LINK TEXT: Human Health

LINK TEXT: Plants and Agriculture

LINK TEXT: Environmental Restoration

Research Question

Can a relatively small energetic intervention lower the threshold sufficiently for an impaired living system’s own restorative processes to become effective again?

This question can be tested without requiring prior acceptance of the KELEA mechanism.