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AdminIsidore (talk | contribs) Created page with "'''Agentic Maneuverability (AM)''' is a protocol for decision-making in an AI ecosystem. Its primary function is to determine the "virtuousness" of deploying a specific AI agent for a specific task, given the current state of the system's available resources. The score is the output of a calculation that treats the agent, the task, and the system as components in a single physical system, grounding abstract software requests in the concrete realities of computational su..." |
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'''Agentic Maneuverability (AM)''' is a protocol for | The '''Agentic Maneuverability (AM) Score''' is a protocol for cognitive resource allocation within [[AetherOS]]. Its primary function is to determine the "virtuousness" of deploying a specific AI agent for a specific task, given the real-time state of the system's available resources. | ||
The score is the output of a calculation that treats the agent, the task, and the system as components in a single physical system | The score is the output of a calculation that treats the agent, the task, and the system not as abstract software entities, but as components in a single cyber-physical system. It grounds abstract computational requests in the concrete realities of supply and demand, drawing direct inspiration from the principles of [[Energy–maneuverability theory|Energy-Maneuverability Theory]]. | ||
== Core Philosophy: The Battlecruiser and the F-16 == | |||
The AM Score is not a measure of whether a model is "good" or "bad." It is a measure of '''appropriateness'''. A battlecruiser is not a failed F-16; it is a different class of vessel with a different set of capabilities and resource requirements. | |||
The AM protocol is designed to prevent the misuse of agents by ensuring the system only commits to actions that are '''virtuous'''. A virtuous action is one where the capabilities of the agent are well-matched to the demands of the task, and the capacity of the system is sufficient to support the effort without compromising its own integrity. | |||
== The OODA Loop Framework == | == The OODA Loop Framework == | ||
The AM Score protocol is | The AM Score protocol is a direct implementation of the '''[[OODA Loop]]''', a strategic framework for rational decision-making in dynamic environments. | ||
* '''Observe''': The system gathers real-time data on | * '''Observe''': The system gathers real-time data on three components: | ||
* '''Orient''': The system applies the Universal Agentic Maneuverability Equation to synthesize the observed data into a single, coherent metric: the Task Load. | ** The '''[[System Maneuverability Score]]''' (Y): The available computational and energy capacity of the host system. | ||
* '''Decide''': The final Virtuousness Score (System Maneuverability / Task Load) provides the basis for a clear, threshold-based decision. | ** The '''Agent''' (Z): The intrinsic characteristics of the selected AI model, drawn from the [[Agentic Maneuverability Almanac]]. | ||
** The '''Task''' (X): The projected demands of the proposed mission, drawn from a registry of task profiles. | |||
* '''Orient''': The system applies the Universal Agentic Maneuverability Equation to synthesize the observed data into a single, coherent metric: the '''Task Load'''. This orients the system by providing a unified understanding of the mission's cost. | |||
* '''Decide''': The final '''Virtuousness Score''' (System Maneuverability / Task Load) provides the basis for a clear, threshold-based decision. | |||
* '''Act''': A user or automated system acts on the decision, proceeding with the mission only if the action is deemed virtuous (i.e., the score is sufficiently high). | * '''Act''': A user or automated system acts on the decision, proceeding with the mission only if the action is deemed virtuous (i.e., the score is sufficiently high). | ||
== Technical Description == | == Technical Description == | ||
The core of the protocol is the '''Universal AM Equation''', which calculates a projected '''Task Load'''—a | The core of the protocol is the '''Universal AM Equation''', which calculates a projected '''Task Load'''—a dimensionless quantity representing the holistic stress a given mission will place on the system. | ||
=== Equation v2 === | === Equation v2 === | ||
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Where: | Where: | ||
* '''P''' is the size of the agent's underlying model in '''billions of parameters'''. | * '''P''' is the size of the agent's underlying model in '''billions of parameters'''. This represents the agent's "cognitive mass" or inertia. | ||
* '''W_p''' is the '''Parameter Weight''', a tunable constant that scales the influence of model size. | * '''W_p''' is the '''Parameter Weight''', a tunable constant of the ecosystem that scales the influence of model size. | ||
* '''T_o''' is the '''Expected Output Tokens''', representing the anticipated | * '''T_o''' is the '''Expected Output Tokens''', representing the anticipated volume of cognitive work required by the task. | ||
* '''W_t''' is the '''Token Weight''', a constant scaling the cost of generating | * '''W_t''' is the '''Token Weight''', a constant scaling the cost of generating each unit of output. | ||
* '''F_c''' is the '''Cognitive Load Factor''', a multiplier derived from a qualitative assessment of the task's | * '''F_c''' is the '''Cognitive Load Factor''', a multiplier derived from a qualitative assessment of the task's intrinsic difficulty (e.g., "low", "medium", "high"). | ||
* '''V_c''' is the agent's '''Cognitive Velocity''', measured in tokens per second (tps) on a baseline hardware profile. This represents the agent's raw processing speed. | * '''V_c''' is the agent's '''Cognitive Velocity''', measured in tokens per second (tps) on a baseline hardware profile. This represents the agent's raw processing speed or "thrust." | ||
* '''D_v''' is the '''Velocity Dampener''', a constant that prevents division by zero and smooths the impact of velocity. | * '''D_v''' is the '''Velocity Dampener''', a constant that prevents division by zero and smooths the impact of velocity. | ||
The final '''Virtuousness Score''' is then calculated | The final '''Virtuousness Score''' is then calculated by comparing the system's capacity to the projected load: | ||
<math> | <math> | ||
\text{Virtuousness} = \frac{\text{System Maneuverability}}{\text{Task Load}} | \text{Virtuousness} = \frac{\text{System Maneuverability}}{\text{Task Load}} | ||
</math> | </math> | ||
A score '''greater than 1.0''' indicates a virtuous action, meaning the system has ample capacity to handle the load. A score '''less than 1.0''' indicates the action will stress the system, consuming more resources than are sustainably available. | A score '''greater than 1.0''' indicates a virtuous action, meaning the system has ample capacity to handle the load efficiently. A score '''less than 1.0''' indicates the action will stress the system, consuming more resources than are sustainably available and potentially leading to degraded performance or instability. | ||
{{AM_Navigation}} |