ritual-dapp-block-time

Estimate blockchain block times for Ritual dApp TTL and scheduling.

62|56|Updated Apr 24, 2026
One-click install
npx skills add https://github.com/ritual-foundation/ritual-dapp-skills --skill ritual-dapp-block-time
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: ritual-dapp-block-time
Source: https://github.com/ritual-foundation/ritual-dapp-skills/tree/main/skills/ritual-dapp-block-time
Command: npx skills add https://github.com/ritual-foundation/ritual-dapp-skills --skill ritual-dapp-block-time

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Block-time estimation and block-to-time conversion guidance for Ritual dApps, enabling deterministic planning of TTLs, lock durations, and scheduler windows.

Core Features & Use Cases

  • Baseline block-time estimation based on recent chain data.
  • Block-to-time conversions for TTLs, lock durations, and polling windows.
  • Use Case: Apply measured block times to budget and schedule on-chain operations with confidence.

Quick Start

Measure the target chain's block time and apply it to compute TTLs, lock durations, and scheduler intervals.

Frequently Asked Questions about ritual-dapp-block-time

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I convert blockchain block times to seconds for scheduling on-chain operations?

Converting block times to seconds for on-chain operations requires measuring the target chain's block time and applying it to compute TTLs, lock durations, and scheduler intervals. This allows deterministic planning of time-based parameters across deployment targets.

What is block-time estimation and when do I need it for Ritual dApps?

Block-time estimation is the process of measuring recent chain data to establish a baseline block time. You need it for Ritual dApps when planning lock durations, polling windows, and scheduler frequencies to ensure deterministic timing for on-chain operations.

How do I calculate TTL and polling windows using observed block times?

To calculate TTL and polling windows, first measure the target chain's observed block time, then use block-to-time conversion to translate block counts into seconds. This structured workflow ensures accurate timing parameter adjustments for your dApp.

Does block-time estimation work for scheduling across multiple deployment targets?

Yes, block-time estimation applies to scheduling across various deployment targets. By measuring each target chain's specific block time, you can adjust timing parameters like TTLs, lock durations, and scheduler frequencies accordingly for accurate on-chain operations.

Why do my scheduler intervals and lock durations mismatch on-chain execution timing?

Scheduler intervals and lock durations mismatch when block-to-time conversions use inaccurate baseline block times. Estimating block times from recent chain data and applying structured conversions ensures your TTLs and polling windows align with actual on-chain execution.

What's the best way to budget and schedule on-chain operations using block times?

The best way to budget on-chain operations is measuring the target chain's block time and applying measured block times to compute TTLs, lock durations, and scheduler intervals. This provides confidence in deterministic planning across deployment targets.