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Agentic Loop Architectural Workbench Cytoscape v3.28.1

Topology State Machine
Agent Cognitive Core (Thought / Plan)
Tool Invocation & Actuators
Memory Buffer & Vector Store
Evaluator & Reflection Guard
Context Limit 8,000 tok
Max Loop Iterations 5 steps
Tool Error Rate 10%
Reflection Threshold 0.80
Active Phase INIT Ready to execute
Tokens Consumed 0 0% context used
Cumulative Latency 0 ms 0 tool calls
Reflection Passes 0 Step 0 / 5
Execution Trace & Reasoning Log
IDLE

Understanding Agentic Loops and Topology State Machines

How does an agentic loop coordinate reasoning, external tool execution, and reflective state transitions?

Agentic loops interleave cognitive reasoning traces with external actions, allowing large language models to inspect environmental feedback before deciding the subsequent step. In this simulator, each step processes a structured phase (such as planning, tool invocation, or evaluation), updates running token consumption, and accumulates simulated latency. The Cytoscape-rendered graph highlights active state transitions and targeted nodes as execution progresses toward completion or error handling.

This workbench operates entirely in browser memory using deterministic, hardcoded scenario steps. It does not invoke live LLM inference APIs, execute real shell commands, or dynamically evaluate natural-language critique models. Slider adjustments modify illustrative telemetry limits and error injection flags rather than changing real-time network latency or neural model weights.

Try a worked example

Select the 'Step Loop' button on the default 'ReAct + Reflection Loop' preset. The active phase transitions from INIT to STEP 1, highlighting the agent core node and web search path while rendering the first trace card (920 tokens, 320 ms latency, 1 tool call). Clicking 'Step Loop' again advances to Step 2, updating cumulative metrics to 2,060 tokens and 770 ms latency across two tool calls.

Synergizing Reasoning and Acting (ReAct)

The ReAct paradigm enables language models to interleave reasoning traces ('Thought') with execution calls ('Action') and external feedback ('Observation'). By explicitly logging its reasoning prior to taking an action, an agent tracks operational plans and interprets external observations from APIs or retrieval tools. ReAct: Synergizing Reasoning and Acting in Language Models

In question-answering and decision-making environments, interleaving thought steps with structured tool calls mitigates hallucination and reduces error propagation compared to isolated chain-of-thought prompting alone. ReAct: Synergizing Reasoning and Acting in Language Models

Graph Topology and State Visualization

The interactive graph canvas visualizes the state machine using Cytoscape.js, an open-source graph theory and visualization library in JavaScript that supports directed graph layouts, dynamic class toggling, and interactive viewport operations. Cytoscape.js: Graph Theory Library for Visualisation and Analysis

During execution, node styling and edge highlighting reflect the active operational state, dynamically switching classes between normal, active, and error states as defined in the layout configuration. Cytoscape.js: Graph Theory Library for Visualisation and Analysis

Sources and further reading

Preset traces accrue counters without executing agents

Read the explanation

The default ReAct preset contains four stored steps. Step Loop reads the next fixture, adds its token and latency values and renders a trace card. Token counters sum nine hundred twenty, eleven hundred forty, eight hundred eighty and nine hundred to three thousand eight hundred forty. After the first two steps, the counter is two thousand sixty. These are fixture counters, not measured model usage; no real search, SEC extraction or calculator service executes. The configured context window is eight thousand. Three thousand eight hundred forty divided by eight thousand produces forty eight percent, capped at one hundred for the display. Latency sums three hundred twenty, four hundred fifty, fifty and one hundred eighty to one thousand milliseconds. Three steps have an active tool label, so the call counter reaches three. Neither latency nor tokens are observed from an actual tool run. Scores zero point six five and zero point seven two are below zero point eight, but the executable step method never branches on that threshold. It advances the index even on an injected or random failure. Error injection substitutes an HTTP five hundred message while still adding the same fixture tokens and latency; the claimed fallback retry is text only. Completion follows fixture exhaustion or the iteration limit. This source-grounded simulation does not establish financial facts, real reflection recovery, or live agent execution.

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