automotive-uam-evtol

Designs eVTOL airspace integration, vehicle architecture, battery systems, and certification programs.

7|2|Updated May 19, 2026
One-click install
npx skills add https://github.com/pangzhenying2025/hermes-automotive-skills --skill automotive-uam-evtol-pangzhenying2025
Or copy as Structured Prompt for Agent▼
Please help me install this Agent Skill.
Skill: automotive-uam-evtol
Source: https://github.com/pangzhenying2025/hermes-automotive-skills/tree/main/skills/automotive-uam-evtol
Command: npx skills add https://github.com/pangzhenying2025/hermes-automotive-skills --skill automotive-uam-evtol-pangzhenying2025

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve? Engineering teams developing eVTOL aircraft and urban air mobility operations face fragmented guidance across UTM integration, vehicle architecture, battery systems, and certification. This Skill consolidates domain expertise and applicable standards (ASTM F3548, DO-178C, DO-311A, EASA SC-VTOL, FAA powered-lift) into actionable engineering instructions. ## Core Features & Use Cases - UTM Airspace Integration: Implements strategic deconfliction, conformance monitoring, tactical deconfliction, and USS-to-USS/USS-to-ATC data exchange per ASTM F3548. - eVTOL Vehicle Architecture: Guides configuration trade studies (lift-plus-cruise vs. vectored-thrust), propulsion sizing, avionics architecture, and thermal management with concrete mass and power budgets. - Battery Systems Engineering: Covers cell chemistry selection, pack architecture, fault-tolerant BMS design, fast-charging profiles, and thermal runaway safety per DO-311A. - Certification Planning: Structures EASA SC-VTOL and FAA powered-lift type certification programs, means of compliance development, flight test phases, and safety assessments (FHA, FTA, CMA). - Use Case: When designing a UTM service supplier interface for an eVTOL fleet, use this Skill to define the four-layer UTM architecture, communication datalinks, latency requirements, and contingency procedures. ## Quick Start Ask the agent to design a UTM strategic deconfliction workflow for eVTOL operations in controlled airspace including conformance monitoring tolerances.

Frequently Asked Questions about automotive-uam-evtol

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

FAQPage Schema
How do I integrate eVTOL operations into existing airspace using UTM?▼

Implement a four-layer UTM architecture: network identification via ASTM F3411 remote ID, strategic deconfliction through USS operation plan submission, conformance monitoring with 100m horizontal and 30m vertical tolerances, and tactical deconfliction with DAA advisories within 60 seconds of predicted loss of separation.

What battery chemistry is best for eVTOL aircraft?▼

NMC 811 cells offer the best current balance with 260-280 Wh/kg energy density and 5-8C discharge capability for hover power demands. LFP suits short-range shuttles where thermal stability and cycle life outweigh the mass penalty.

What is the difference between EASA SC-VTOL and FAA powered-lift certification?▼

EASA certifies eVTOL under SC-VTOL-01 special condition supplemented by CS-23, typically taking 4-6 years. FAA uses the powered-lift category under 14 CFR Part 21 with issue papers for novel features, typically taking 5-7 years.

How many motors does an eVTOL need for safe redundancy?▼

A minimum of 6 motors is required for hexacopter configurations to tolerate dual motor failure, and 8 or more for critical operations. Every flight-critical system needs at least dual-redundant paths with dissimilar redundancy where possible.

What are the limitations of strategic deconfliction in UTM?▼

Strategic deconfliction alone cannot handle real-time conflicts, so tactical deconfliction with onboard DAA is required when separation is at risk. It also depends on reliable datalinks, with 4G/5G primary and satellite backup for coverage gaps.