Essential OpenClaw Features: Building a Mission Control Dashboard for AI Agents

Build a Mission Control Dashboard for OpenClaw with Activity Feed, Calendar, and Global Search. Unlock visibility into token usage and agent memory.

Running an OpenClaw agent without a Mission Control Dashboard is like flying a drone with your eyes closed. You might know it took off, but you have zero visibility into where it is burning tokens, what tasks it scheduled for 3 AM, or which memories it actually retained. You need three non-negotiable interfaces: an Activity Feed that logs every tool call and token spent, a Calendar that exposes scheduled intentions before they execute, and Global Search that surfaces any memory or document from your agent’s history. Together, these transform OpenClaw from an opaque background process into a transparent, manageable system. This article shows you exactly how to build them using NextJS, Convex, and Codex, with concrete schemas and queries you can deploy today.

The Three Pillars of OpenClaw Observability

Your Mission Control Dashboard rests on three non-negotiable components that transform opaque automation into transparent operations. Each serves distinct observability needs and requires different data architectures. The Activity Feed provides temporal awareness of executed actions, showing you exactly what burned your tokens and when. The Calendar offers temporal awareness of future intent, revealing what your OpenClaw agent plans to do before it happens. Global Search delivers spatial awareness across the agent’s entire memory space, letting you retrieve any past interaction regardless of when it occurred. You cannot operate a production OpenClaw deployment without all three. The Activity Feed prevents past mistakes from repeating, the Calendar prevents future waste, and Search prevents redundant work. They function as a unified nervous system for your agent.

ComponentPrimary MetricData VolumeUpdate Frequency
Activity FeedToken costHigh (1000s/hour)Real-time
CalendarScheduled timeMedium (100s/day)On change
Global SearchRelevanceStatic indexOn query

The Activity Feed: OpenClaw’s Black Box Recorder

Your OpenClaw agent executes hundreds of actions per hour. Without an Activity Feed, these operations vanish into the void, leaving you clueless when budgets explode or tasks fail silently. You need a comprehensive log that captures every tool invocation, API request, memory read/write, and error state with millisecond precision. Think of it as a black box recorder for your AI. When your agent suddenly burns through $50 in tokens overnight, the feed reveals exactly what happened: maybe it hit a recursive loop calling the same search tool 400 times, or perhaps it retry-failed on a malformed API endpoint for six hours straight. Each entry should log the tool name, input parameters, token consumption, timestamp, status code, and session correlation ID. This visibility transforms debugging from guesswork into forensic analysis. You stop wasting time asking “what did the agent do” and start asking “why did it do this specific thing at 2:47 AM.” The feed exposes operational reality.

Convex Schema Design for High-Volume Activity Logging

To store this telemetry, you need a Convex schema optimized for write-heavy workloads. Define your activities table with precise typing, ensuring it can efficiently handle the constant influx of data from your OpenClaw agents. This schema is designed to support rapid querying and filtering, which are essential for a responsive Activity Feed. Proper indexing is crucial here for performance.

// convex/schema.ts
import { defineSchema, defineTable } from "convex/server";
import { v } from "convex/values";

export default defineSchema({
  activities: defineTable({
    agentId: v.string(),
    sessionId: v.string(),
    actionType: v.union(v.literal("tool_call"), v.literal("memory_write"), v.literal("api_request")),
    toolName: v.optional(v.string()),
    tokensUsed: v.number(),
    status: v.union(v.literal("success"), v.literal("error"), v.literal("retry")),
    metadata: v.record(v.string(), v.any()),
    timestamp: v.number(),
  })
  .index("by_agent", ["agentId", "timestamp"])
  .index("by_session", ["sessionId"])
  .index("by_cost", ["tokensUsed"])
});

This schema uses compound indexes for efficient time-series queries. The metadata field stores flexible JSON for tool-specific arguments without requiring schema migrations every time a new tool is introduced. Partitioning by sessionId lets you group related actions into coherent workflow blocks, making it easier to trace specific sequences of operations. You want queries like “show me all errors in the last hour” to return in under 100ms even with 100,000 records, which these indexes facilitate.

OpenClaw Calendar View: Exposing Scheduled Intent

OpenClaw agents schedule future actions using cron expressions or Unix timestamps. A Calendar view renders these intentions visually, showing you exactly when the agent plans to run expensive operations. You might discover it scheduled a web crawl for every 15 minutes when daily suffices, or queued a report generation during peak API rate limit hours. The Calendar should display task names, predicted token costs, recurrence patterns, and last execution status. Color-code entries by risk level: red for high-cost operations, yellow for external API calls, green for internal memory operations. This proactive visibility lets you kill wasteful schedules before they execute. You transform your agent from an autonomous runaway process into a managed service with predictable operational cadence. Review this view every Monday morning to prune unnecessary recurring tasks and ensure efficient resource allocation.

Token Economics: Concrete Savings Through Visibility

Numbers do not lie. A typical OpenClaw agent without monitoring consumes approximately $12 daily in API tokens. After implementing the Activity Feed and Calendar, most teams cut this by 40% within two weeks. Here is the math: you spot a redundant vector search happening every 5 minutes (720 daily calls) because the feed shows “search_memory” with identical queries. You cancel that scheduled task via the Calendar interface. At $0.02 per search, you save $14.40 daily. Another common leak is error retry loops. The feed reveals a failing API call retrying 50 times before timeout. You fix the endpoint and save $8 per incident. These dashboards pay for their development cost within days through token conservation alone. Track your daily token spend in a prominent widget on the dashboard homepage to maintain awareness and reinforce the value of continuous monitoring.

Global Search: Unlocking OpenClaw’s Memory Vault

OpenClaw possesses incredible memory retention but ships with no retrieval interface. Your agent remembers conversations from six months ago, documents you uploaded, and tasks you completed, yet accessing this data requires scrolling through endless chat history. Global Search fixes this by indexing every memory entry, task description, and document chunk into a unified retrieval surface. You need hybrid search capabilities: vector similarity for semantic recall (finding related concepts) and keyword matching for exact recall (finding specific file names or dates). Implement faceted search filters by date range, memory type, or task status. When your agent claims “we discussed this pricing strategy before,” you search “pricing strategy Q1” and surface the exact conversation thread in 200ms instead of hunting for 20 minutes. This prevents redundant decision-making and maintains organizational continuity, making your agent’s knowledge base truly actionable.

Implementing Hybrid Search in Convex

Build your search layer using Convex’s vector and text indexes. First, generate embeddings for memory entries using a model like text-embedding-3-small. This process allows for semantic understanding of your agent’s memories, going beyond simple keyword matching.

// convex/search.ts
import { query } from "./_generated/server";
import { v } from "convex/values"; // Added v import

export const hybridSearch = query({
  args: { searchTerm: v.string(), limit: v.optional(v.number()) },
  handler: async (ctx, args) => {
    // Semantic search via vector similarity
    const vectorResults = await ctx.db
      .query("memories") // Assuming a 'memories' table with an 'embedding' field
      .withVectorSearch("embedding", args.searchTerm)
      .take(args.limit || 10);
    
    // Keyword fallback for exact matches
    const keywordResults = await ctx.db
      .query("memories") // Assuming a 'memories' table with a 'content' field
      .withSearchIndex("search_content", q => q.search("content", args.searchTerm))
      .take(args.limit || 10);
    
    // Merge and deduplicate results
    const mergedResults = mergeAndDeduplicateResults(vectorResults, keywordResults); // Assuming mergeAndDeduplicateResults is defined
    return mergedResults;
  },
});

// Helper function to merge and deduplicate results (example implementation)
function mergeAndDeduplicateResults(vectorResults: any[], keywordResults: any[]): any[] {
  const uniqueResultsMap = new Map();
  vectorResults.forEach(item => uniqueResultsMap.set(item._id.toString(), item));
  keywordResults.forEach(item => uniqueResultsMap.set(item._id.toString(), item));
  return Array.from(uniqueResultsMap.values());
}

This approach captures both conceptual similarity and precise string matches. Index your content fields with searchIndex for full-text retrieval and store 1536-dimensional vectors for semantic search. Reindex existing memories nightly using a Convex cron job to keep embeddings fresh as your understanding of the data evolves. This ensures that your search results are always relevant and up-to-date with your agent’s growing knowledge.

NextJS Frontend: App Router Architecture Patterns

Structure your Mission Control Dashboard using NextJS 14 App Router with Server Components for initial data loads and Client Components for interactivity. Create a three-pane layout: Activity Feed on the left, Calendar center, Search bar top-right. Use Server Components to fetch the last 24 hours of activities directly from Convex during SSR, reducing client-side JavaScript by 60%. Implement the Calendar using react-big-calendar with a custom event wrapper that fetches task details on hover. For the Activity Feed, use react-window or @tanstack/react-virtual to handle 10,000+ log entries without DOM choking. Wire everything together using the Convex React client with usePaginatedQuery for infinite scroll on the feed. Keep the bundle size under 200KB by lazy loading the search indexing components, ensuring a fast and responsive user experience.

Real-Time Updates with Convex Live Queries

Skip polling. Your dashboard needs reactive updates the moment your agent performs an action. Convex Live Queries push data from server to client automatically when underlying documents change. This reactive approach is fundamental for a Mission Control Dashboard, as it ensures you are always viewing the most current state of your OpenClaw agents. It eliminates the delay and inefficiency associated with traditional polling mechanisms. Subscribe your Activity Feed component to new entries:

// app/dashboard/ActivityFeed.tsx
"use client";
import { useQuery } from "convex/react";
import { api } from "@/convex/_generated/api";

interface ActivityFeedProps {
  agentId: string;
}

export function ActivityFeed({ agentId }: ActivityFeedProps) {
  const activities = useQuery(api.activities.list, { agentId, limit: 50 });
  
  return (
    <div className="activity-feed">
      {activities?.length === 0 ? (
        <p>No activities found for this agent.</p>
      ) : (
        activities?.map(activity => (
          <ActivityRow key={activity._id} data={activity} />
        ))
      )}
    </div>
  );
}

// Assuming ActivityRow component is defined elsewhere
// For example:
// import React from 'react';
// interface ActivityRowProps {
//   data: {
//     _id: string;
//     actionType: string;
//     toolName?: string;
//     tokensUsed: number;
//     timestamp: number;
//     status: string;
//     metadata: Record<string, any>;
//   };
// }
// const ActivityRow: React.FC<ActivityRowProps> = ({ data }) => {
//   const date = new Date(data.timestamp);
//   return (
//     <div className="activity-row">
//       <span>{date.toLocaleTimeString()}</span>
//       <span>{data.actionType}</span>
//       {data.toolName && <span>Tool: {data.toolName}</span>}
//       <span>Tokens: {data.tokensUsed}</span>
//       <span>Status: {data.status}</span>
//       {/* Add more details as needed */}
//     </div>
//   );
// };

This subscription maintains a WebSocket connection that updates your UI within 50ms of a new log entry. Compare this to polling every 5 seconds, which wastes 599 unnecessary requests per hour and delivers stale data. The live query approach scales horizontally because the server only pushes when data actually changes, not when the client asks, making it highly efficient for real-time monitoring of multiple agents.

The Codex Prompt for Automated Dashboard Construction

Use this exact prompt in Codex to generate your initial codebase: “I want you to build out 3 things for me. In a Mission Control dashboard, build out an activity feed first. This activity feed will record EVERY SINGLE THING you do for me, so I can see a history of every action and task you’ve completed. I want a calendar view that shows me in a nicely formatted screen every scheduled task you have in the future in a weekly view. And I want a global search where I can search for any term and you display any relevant memory, document, or task from our workspace. Use NextJS as the framework, Convex as the database, and Codex to code it all out.” This prompt works because it specifies the tech stack, the three required features, and the data sources. Review the generated code carefully for security vulnerabilities, especially around query authorization and data exposure. Codex will likely generate placeholder UI components that you should refactor using your design system to match your brand and improve user experience.

Security Boundaries and Row-Level Isolation

Your Mission Control Dashboard displays sensitive operational data. Implement strict access controls using Convex’s authentication checks. Never trust the client; always verify the user’s identity on the server. Use systems like Clerk, Auth0, or NextAuth session tokens to authenticate requests. Structure your authorization function to check resource ownership, ensuring that users can only access data pertaining to agents they are authorized to manage.

// convex/lib/auth.ts
import { QueryCtx } from "../_generated/server"; // Adjusted import path for QueryCtx
import { Id } from "../_generated/dataModel"; // Assuming Id type is available

// Placeholder for a function that retrieves the authenticated user ID
// In a real application, this would integrate with your authentication provider
async function getAuthUserId(ctx: QueryCtx): Promise<Id<"users"> | null> {
  // Example: retrieve user ID from auth context
  // const identity = await ctx.auth.getUserIdentity();
  // return identity?.subject as Id<"users"> | null;
  return "user123" as Id<"users">; // Mock user ID for demonstration
}

export async function checkAgentAccess(ctx: QueryCtx, agentId: Id<"agents">) { // Changed agentId type to Id
  const userId = await getAuthUserId(ctx);
  if (!userId) {
    throw new Error("Authentication required.");
  }

  // Assuming an 'agents' table where each agent has an 'ownerId'
  const agent = await ctx.db.get(agentId);
  if (!agent) {
    throw new Error("Agent not found.");
  }

  if (agent.ownerId !== userId) {
    throw new Error("Unauthorized access to agent data.");
  }
  return agent;
}

Apply this checkAgentAccess function to every activity log query, calendar event query, and search endpoint. For multi-tenant OpenClaw deployments, ensure complete data isolation between organizations. One compromised read query could expose another user’s proprietary agent memories, leading to significant security breaches. Enable Convex’s audit logging to track who accessed what data and when, providing a clear trail for compliance and security investigations.

Mobile Responsiveness for On-The-Go Monitoring

You will check your agent’s status from your phone at 11 PM when you get an alert about token usage. The dashboard must function seamlessly on small viewports, such as 375px wide. Implement a collapsible navigation drawer for the three main views (Activity Feed, Calendar, Search) to optimize screen real estate. Transform the desktop three-pane layout into a tabbed interface on mobile: Feed, Calendar, Search, allowing users to switch between sections easily. Use touch-friendly hit targets of at least 44px for calendar events and other interactive elements to ensure usability. Enable pull-to-refresh on the Activity Feed using standard React touch events for a native feel. Optimize the Global Search input to trigger only on explicit submission (e.g., pressing enter) rather than every keystroke to prevent mobile keyboard lag and unnecessary queries. Test token cost displays on small screens: show “1.2k” instead of “1,234 tokens” to prevent overflow and maintain readability. The mobile experience should prioritize quickly identifying and addressing critical issues over detailed analytical views.

Advanced Filtering: Grouping Sessions and Noise Reduction

Raw activity logs contain noise: heartbeat checks, routine memory compaction, and status pings. Implement session-based grouping to collapse related actions, presenting a cleaner, more digestible history. If your agent executes a 12-step research workflow, display it as a single collapsible card labeled “Research Session: 14 minutes, 2,400 tokens” with an expand button to reveal the details. Add filter chips for action types: Tools, API Calls, Errors, Memory Operations, allowing users to quickly narrow down the feed. Create a token cost threshold slider to hide events costing less than 50 tokens, focusing on more significant operations. Use color coding: red for errors, amber for retries, green for success, for immediate visual cues. This filtering prevents cognitive overload when your agent generates 500+ log entries per hour. Store filter preferences in localStorage so users maintain their view settings across sessions. Implement an automated archival process to move logs older than 30 days to cold storage, keeping the main feed performant.

Integration with the OpenClaw Skills Ecosystem

Your dashboard should recognize when OpenClaw invokes specific skills from the registry. Link to our detailed guide at /blog/openclaw-skills-guide/ for skill development, but here focus on observability. Tag each activity log with the skill ID when applicable. Create a Skills Performance view showing which custom skills consume the most tokens or fail most frequently. If you built a “Web Research” skill that averages 3,000 tokens per invocation while a “Calculator” skill uses 50, the dashboard surfaces this disparity, prompting investigation. Use this data to optimize skill implementations or deprecate expensive, rarely-used capabilities. The Activity Feed becomes a skills performance profiler, providing critical insights into the efficiency of your agent’s abilities. You might discover that a skill you wrote three months ago now costs 10x more due to API provider price hikes, prompting immediate refactoring to maintain cost-effectiveness.

Pagination and Virtualization for High-Volume Logs

Production OpenClaw agents generate 50,000+ activity records weekly, and a standard browser cannot render this volume as a flat list without performance degradation. Implement cursor-based pagination using Convex’s paginate API rather than offset-based pagination, which slows down as the dataset grows. Cursor-based pagination is more efficient for large, frequently updated datasets. For the initial render, load only 50 items to ensure a fast first paint. Use @tanstack/react-virtual to maintain a virtualized viewport that efficiently reuses DOM nodes as you scroll through thousands of entries, preventing memory issues. Set up an archival strategy: automatically move logs older than 30 days to a cold storage table or export them to S3, keeping the active dashboard queries fast and responsive. Display a “Load More” button that fetches the next cursor batch in 100ms, providing a smooth user experience. Monitor the activities table size in your Convex dashboard and set up alerts when it exceeds a predefined threshold, such as 1 million rows, to proactively manage data volume.

Debugging Production Failures with Activity Replay

When your agent produces incorrect or unexpected results in production, the Activity Feed becomes an invaluable tool for root cause analysis. It enables step-by-step reconstruction of the agent’s actions. Export a session’s logs as a JSON array and replay the exact sequence of tool calls in a sandbox environment. This allows you to identify precisely where context drift occurred: perhaps the agent called the weather API at step 5, but by step 12 it hallucinated the temperature because the variable was not passed correctly, or an API call failed silently. Use the timestamps to correlate agent actions with external system logs, providing a complete picture of the operational environment. If the Calendar shows a task failed, click through to the Activity Feed filtered by that session ID to instantly see the detailed error trace and relevant context. This capability significantly reduces mean-time-to-resolution from hours to minutes, minimizing downtime and operational impact. Save critical session replays as JSON files in your incident tracking system for thorough post-mortem analysis and to prevent recurrence.

Deployment Checklist: From Development to Production

Before going live with your OpenClaw Mission Control Dashboard, verify all your environment variables: CONVEX_DEPLOY_KEY, NEXT_PUBLIC_CONVEX_URL, and your embedding API key (if applicable). Enable Convex’s production protection to prevent accidental schema changes or data modifications in your live environment. Configure rate limiting on your search endpoints to prevent abuse or excessive resource consumption, for example, a maximum of 30 requests per minute per user. Set up Vercel Analytics or a similar monitoring tool to track dashboard performance metrics such as load times, API response times, and error rates. Create a health check endpoint that verifies Convex connectivity and the overall application status. For the Calendar feature, ensure your server timezone matches your display timezone to prevent scheduled task confusion and ensure accurate event rendering. Finally, implement a logout purge that clears localStorage filters and cached queries to prevent data leakage on shared computers. Deploy to Vercel using the vercel --prod command only after running your full test suite against the production Convex deployment, including end-to-end tests for all three core features: Activity Feed, Calendar, and Global Search.

Frequently Asked Questions

Why does OpenClaw need an Activity Feed?

OpenClaw operates autonomously, consuming tokens for every action. Without an Activity Feed, you are flying blind. The feed logs every tool call, memory write, and API request with timestamps and token counts. This visibility lets you identify expensive loops, redundant searches, and failed retries that drain your budget. It acts as a black box recorder for debugging and optimization.

How does the Calendar feature save tokens?

The Calendar displays all scheduled tasks and cron jobs your OpenClaw agent has planned. You can spot overlapping schedules, unnecessary future tasks, or redundant reminders before they execute. By reviewing and canceling unwanted scheduled actions, you prevent wasted compute cycles. It transforms your agent from a runaway process into a predictable, managed service with clear intent visibility.

Index every memory entry, task description, document chunk, and conversation history. Use Convex’s vector search for semantic recall and text indexes for exact matches. Include metadata like timestamps, task status, and token costs. This creates a unified retrieval surface across your agent’s entire operational history, making institutional knowledge instantly accessible.

Can I use a different stack than NextJS and Convex?

Yes, but you lose real-time synchronization. NextJS provides the React frontend framework with Server Components for data fetching. Convex offers the critical live query subscription model that updates your dashboard without manual refreshes. Alternatives like Supabase or Firebase work, but Convex’s reactive architecture matches the event-driven nature of AI agents better than polling-based solutions.

How do I prevent the Activity Feed from becoming overwhelming?

Implement aggressive filtering and pagination from day one. Group similar actions into collapsible sessions, filter by tool type or token cost threshold, and use virtualized lists for rendering. Store high-frequency low-value events like heartbeat checks in a separate compressed log table, keeping the main feed focused on substantive agent decisions and user-facing actions.