Flying Car eVTOL Industry Chain Panorama Analysis Report

1. Industry Overview

eVTOL, short for Electric Vertical Take-off and Landing aircraft, is one of the most important tracks in the low-altitude economy, combining both manufacturing and operational service attributes. With vertical take-off, electrification, intelligence, and low noise as its key features, it is becoming an important technology carrier for urban air mobility, low-altitude logistics, emergency rescue, and low-altitude tourism.

1.1 Definition and Core Features

Definition of eVTOL	Electric Vertical Take-off and Landing aircraft
Take-off and Landing Mode	No traditional runway required; capable of vertical operations in constrained spaces
Energy Form	Mainly pure electric today, with possible future extensions to hybrid and hydrogen routes
Intelligent Feature	Deep integration of flight control, avionics, navigation, and communication systems, gradually moving toward autonomous flight

Vertical take-off and landing: breaks away from runway dependence and ground traffic constraints, suitable for urban and complex-terrain scenarios.
Electrification: lowers operating cost and aligns with low-carbon development trends.
Intelligence: reduces human error and lowers operational barriers through automated flight capability.
Low noise: better suited to urban short-distance transport and tourism applications.

1.2 Policy Drivers and Market Background

Time	Policy or Event	Significance
2021	The National Comprehensive Three-Dimensional Transportation Network Plan Outline first introduced the concept of the low-altitude economy	The low-altitude economy entered the national strategic agenda
2023	The Central Economic Work Conference listed the low-altitude economy as a strategic emerging industry	The industry's strategic status was further elevated
2024	The Government Work Report explicitly called for building new growth engines for the low-altitude economy	Policy support began shifting from direction to implementation
2024	The Interim Regulations on the Flight Management of Unmanned Aircraft came into effect	Rules for airspace use and flight management became clearer

By 2025, more than 800 enterprises or institutions worldwide had entered eVTOL R&D. China, accounting for more than half of the activity, has become one of the most intensive industrial innovation regions in the world, with competition shifting from concept validation to certification, production ramp-up, and commercial verification.

Industry View

The eVTOL race is no longer just a contest among aircraft OEMs. It has become a system-level industrial competition spanning batteries, motors and motor control, flight control and avionics, composite structures, navigation and communication, certification systems, take-off and landing infrastructure, and operating networks. The players most likely to scale first are those that can build a closed loop across supply chain, certification, and scenario deployment at the same time.

2. Panorama of the Industry Chain

The eVTOL industry chain can be broadly divided into three layers: upstream core components, midstream aircraft design and manufacturing, and downstream operations and infrastructure. The upstream sets the performance ceiling and cost structure, the midstream determines product form and certification progress, and the downstream determines the pace and scale of commercialization.

Overview of the eVTOL Industry Chain
Downstream: Operations and Infrastructure
Logistics delivery / low-altitude tourism / emergency rescue / urban transport / vertiports and charging-swap networks
Midstream: Aircraft Manufacturers
EHang / Autoflight / Aerofugia / XPENG AEROHT / TCab Tech / Volant and others
Upstream: Core Components
Battery systems / motors and motor control / flight control and avionics / composite structures / communication and navigation

2.1 Single-Aircraft Cost Breakdown

Cost Item	Share	Description
Propulsion system (motors)	40%	One of the largest cost items, directly affecting take-off and cruise efficiency
Structure and interior parts	25%	High carbon-fiber composite share with strict lightweight requirements
Avionics and flight control	20%	High barriers in software, redundancy architecture, and certification
Energy system (batteries)	10%	Must balance high energy density with high-rate discharge capability
Assembly and integration	5%	Influences manufacturing consistency and future cost-reduction potential

2.2 Core Value-Chain Logic

The upstream sets performance limits: battery energy density, composite weight, and motor power density directly constrain range and payload.
The midstream sets the commercialization window: certification, aircraft architecture, and mass-production capability determine whether a company can move beyond the demonstration stage.
The downstream sets scaling speed: vertiports, low-altitude communications, and air-traffic management determine how deeply scenarios can open up.
The cost curve depends on coordination: cost reduction does not come from a single breakthrough, but from materials, manufacturing, certification, and scale working together.

3. Detailed Review of the Upstream Chain

The upstream is the most technically certain and long-term valuable part of the eVTOL chain. It is centered on batteries, motors and motor control, flight control and avionics, lightweight materials, and communication and navigation systems. Compared with OEMs, upstream suppliers are more likely to benefit earlier from model expansion and import substitution.

3.1 Battery Systems

Parameter	Automotive Battery	eVTOL Requirement
Energy density	180-250 Wh/kg	At least 400 Wh/kg, with a long-term target of 1000 Wh/kg
Discharge rate	About 1C	Above 5C to support high instant power for vertical take-off and landing
Cycle life	2000-3000 cycles	Above 1000 cycles while still maintaining safety redundancy
Safety standard	Automotive grade	Aviation grade, facing stricter verification such as DO-311A

Aviation-grade batteries are not just about higher energy density. They also need to balance discharge rate, thermal runaway suppression, pack-level redundancy, and airworthiness testing, which is why both explicit prices and hidden R&D costs are much higher than those of EV power batteries.

3.2 Battery Supplier Landscape

Company	Technology Route	Partner Customers	Status
CATL	Condensed batteries	Autoflight	Already in mass supply
SEnergy	Solid-state lithium-metal batteries	EHang	First global onboard application
EVE Energy	Ternary / LFP	XPENG AEROHT	Nominated development
Farasis Energy	Semi-solid-state batteries	TCab Tech, XPENG AEROHT	Exclusive supply layout
Gotion High-Tech	Semi-solid-state	EHang	Under certification progress

3.3 Motors and Motor Control Systems

Technical Requirement	Description	Representative Companies
High power density	Delivering more thrust with lower weight	Wolong Electric Drive, Tianjin Songzheng
High-reliability redundancy	Multi-channel safety redundancy designed for certification architecture	Inbol, Blue Ocean Huateng
Wide speed-control range	Supports vertical take-off, cruise, and transition conditions	Jing-Jin Electric and others
High-temperature and vibration resistance	Fits complex aviation-grade environments and long-duration operation	International suppliers such as Safran and Honeywell also participate

Permanent magnet synchronous motors remain the mainstream choice. Their strengths in power density, speed-control range, and torque output make them more suitable for eVTOL, while also placing higher demands on SiC devices, motor-control software, and thermal management.

3.4 Flight Control, Avionics, and Material Systems

Segment	Key Requirement	Representative Companies
Flight control systems	DO-178C software certification and high-reliability redundancy design	AVIC Avionics, Boundary AI Control, MMC UAV-related players
Avionics and fly-by-wire	Integrated navigation, perception, execution, and monitoring	Bosch, Continental, and other cross-sector players
Carbon-fiber composites	About 100-400kg per aircraft, accounting for more than 90% of material cost	Zhongfu Shenying, Sinofibers, Guangwei Composites
Metal and resin systems	Titanium alloys, aluminum alloys, and high-performance resins support structural parts together	Baoti, Nanshan Aluminum, Huibo New Material and others

Upstream Conclusion

Across the eVTOL industry, upstream components are the most likely to translate into orders and scaled returns first. Regardless of how aircraft architectures diverge, batteries, composites, electric propulsion, flight control, and communication-navigation systems are bottom-layer common capabilities with strong platform value.

4. Midstream Chain: Aircraft Manufacturers

Midstream OEMs must solve aircraft architecture, flight performance, and system safety, while also facing three simultaneous challenges: certification, mass manufacturing, and commercial delivery. The global competitive focus has already shifted from "who can fly first" to "who can build a closed-loop operation first."

4.1 Global and China Market Snapshot

Indicator	Global	China
2024 market size	About USD 14.08 billion	About RMB 3.2 billion
2025 outlook	Sales expected at about 270 aircraft	Market size expected to exceed RMB 5.75 billion
Growth profile	High growth maintained from 2020 to 2025	Compound growth above 150% from 2021 to 2024
Stage profile	On the eve of commercialization, with certification and demonstration operations advancing in parallel	Leading in demonstration operations and policy momentum

4.2 Comparison of Major OEMs

Company	Representative Model	Technology Route	Key Strength
EHang	EH216-S	Multirotor	Global commercialization front-runner with a strong four-certificate advantage
Autoflight	V2000CG / V2000EM	Compound wing	Freight-first strategy with leading progress in ton-class certification
Aerofugia	AE200	Tilt-rotor	Leading transition-flight testing with strong shareholder backing
XPENG AEROHT	Land Aircraft Carrier	Split-body compound wing	Highly differentiated land-air integrated route
TCab Tech	E20	Tilt-rotor	Strong overseas orders and fast international expansion

4.3 Comparison of Technology Routes

Technology Route	Advantages	Weaknesses	Applicable Scenarios
Multirotor	Relatively simple structure with high safety redundancy	Shorter range and lower efficiency	Short-range sightseeing and low-altitude logistics
Compound wing	Balances range and safety	Higher structural deadweight and integration difficulty	Intercity commuting and freight
Tilt-rotor	High cruise speed and long range	Higher technical and certification complexity	Airport transfer and intercity travel
Split-body	Clear land-air synergy concept	Complex structure and longer validation cycle	Exploration of the personal user market

4.4 Midstream Competitive Focus

The first focus is certification: the speed of TC, PC, AC, and OC advancement determines who enters the market first.
The second focus is manufacturing scale: process consistency, supply-chain assurance, and manufacturing cost determine whether a prototype can become a product.
The third focus is application scenarios: B-end and G-end scenarios are more likely to generate cash flow first, while the consumer market still depends on better infrastructure and regulation.

5. Downstream Chain: Application Scenarios and Infrastructure

The downstream determines the real depth of eVTOL commercialization. More than simple product delivery, large-scale low-altitude operations depend on the interaction among vertiports, airspace management, communication-navigation networks, and high-frequency application demand.

Key Application Scenarios
Logistics delivery
Emergency mountain delivery / instant delivery / high-time-sensitivity logistics
Low-altitude tourism
Scenic sightseeing / urban aerial tours / short-distance bay and river crossing experiences
Emergency rescue
Medical response / disaster rescue / maritime search and rescue / firefighting
Urban transport and industrial use
Air taxi / airport shuttle / inspection and mapping / agricultural protection

5.1 Analysis of Key Scenarios

Scenario	Core Value	Typical Indicator
Logistics delivery	Improves delivery efficiency and covers remote areas	Efficiency can improve by 300%, and remote delivery can shorten from days to hours
Low-altitude tourism	Enhances scenic and urban sightseeing experience	Typical per-person consumption is about RMB 500-2000
Emergency rescue	Shortens arrival time and improves mission response rate	In medical scenarios, it can be about 3 times faster than traditional approaches
Urban transport	Relieves ground congestion and expands three-dimensional mobility	Suitable for airport transfer and short-distance intercity commuting

5.2 Infrastructure and Operating System

Component	Function	Primary Builder
Smart vertiports	Take-off and landing, parking, maintenance, and dispatch	Local urban investment and transport investment platforms, plus operators
Charging and battery-swap networks	Support high-frequency operations and rapid replenishment	Infrastructure operators and energy companies
5G-A / 6G communication networks	Low-altitude coverage and integrated sensing-communication	The three major telecom operators
Air management and intelligent low-altitude networks	Flight dispatch, traffic management, positioning, and surveillance	CETC and related research institutions

Downstream Deployment Logic

In the short term, the most feasible scenarios are B-end and G-end applications such as logistics delivery, scenic tourism, and emergency rescue, because routes are clearer, supervision is more controllable, and the payer is more explicit. Urban air mobility still requires further improvements in airspace rules, vertiport availability, public acceptance, and operating regulations, so its large-scale rollout is likely to come later.

6. Analysis of Key Technical Nodes

The essence of eVTOL commercialization is that multiple high-barrier technical and regulatory conditions must be met together. The most important constraints today are certification, battery energy density, range and cost, rapid charging, and overall safety-redundancy architecture.

6.1 Airworthiness Certification System

Certificate	Full Name	Purpose	Difficulty
TC	Type Certificate	Proves the design is safe and feasible	Highest
PC	Production Certificate	Proves production consistency	High
AC	Airworthiness Certificate	Proves an individual aircraft is airworthy	Medium-high
OC	Operation Certificate	Proves commercial operation is compliant	High

The certification system is the real pass to eVTOL commercialization. China has a clear advantage in regulatory review efficiency, which is one of the main reasons Chinese OEMs are more likely to enter the demonstration-operation stage earlier.

6.2 Core Technical Bottlenecks

Bottleneck	Current Level	Target Direction	Breakthrough Path
Battery energy density	About 350-480 Wh/kg	1000 Wh/kg	Evolution of solid-state and semi-solid-state technologies
Range	120-300km	Above 500km	Joint weight reduction through batteries and lightweight structures
Charging time	30-60 minutes	10-15 minutes	Fast-charging technology and thermal-management optimization
Single-aircraft cost	RMB 2.39 million to RMB 18 million	Cut to less than half of current levels	Scale manufacturing and supply-chain cost reduction

6.3 Cost-Reduction Path

Coordination with the new-energy industry chain: batteries, e-drives, and controls can directly benefit from the maturity of the EV supply chain.
Import substitution: higher localization rates in carbon fiber, flight control, avionics, and navigation systems will continue to compress cost.
Scale effect: production consistency and automated assembly will drive rapid declines in unit manufacturing cost.
Standards improvement: unified certification standards and infrastructure specifications can reduce trial-and-error and certification expenses.

7. Comparison of Domestic and International Competition

Global eVTOL competition is shifting from an early-mover advantage held by Europe and the United States to a more comprehensive competition shaped by China’s complete supply chain and certification efficiency. The differences among regions are no longer just about technical routes, but also about certification speed, supply-chain resilience, and scenario operation capability.

7.1 Global Competitive Landscape

Dimension	China	United States	Europe
Representative companies	EHang, Autoflight, Aerofugia, XPENG AEROHT	Joby, Archer, and others	Volocopter, Lilium, and others
Certification efficiency	About 3-4 years	About 5-6 years	About 6-7 years
Technology routes	Multirotor, compound wing, and tilt-rotor coexist	Mainly tilt-rotor	Multirotor and tilt-rotor coexist
Commercialization progress	Already exploring normalized operations	Still advancing	Some companies are under pressure
Supply-chain advantage	Strong in batteries, carbon fiber, and manufacturing	Some links depend on external supply	Relatively less complete supply-chain structure

7.2 China’s Advantages and Gaps

Direction	Current Position	Next Focus
Certification efficiency	CAAC efficiency is globally leading	Continue improving general airworthiness standards
Supply-chain completeness	Strong in power batteries and composite materials	Continue improving localization of high-end avionics
Manufacturing cost	Mature industrial support and a solid basis for cost reduction	Accelerate large-scale production validation
Application scenarios	Rich demonstration scenarios and active policy pilots	Expand urban transport and commercial operations
Key gaps	High-end chips and tilt mechanisms are still accumulating experience	Strengthen validation systems and training systems

8. Development Trends of the Industry Chain

Over the next five to ten years, eVTOL is likely to follow a progressive path: dense certification rollouts, early scaling in B-end and G-end scenarios, gradual commercialization of passenger transport, and a longer-term opening of the consumer market. Technology and commercialization will not move in perfect sync, but the roles of each link in the chain will become increasingly clear.

8.1 Short-Term Trends

Airworthiness certifications are expected to land intensively in 2025-2027.
B-end and G-end scenarios will scale first, with tourism and logistics showing stronger certainty.
Localization of core components will continue to accelerate.
Vertiports and low-altitude communication networks will enter a faster construction stage.

8.2 Mid-Term Trends

Passenger services such as airport transfer and intercity commuting will gradually commercialize.
Solid-state battery mass production will continue to push energy density upward.
Seat-kilometer operating cost will keep falling, making business models more replicable.
Industry concentration will rise and the leading players’ barriers will deepen.

8.3 Long-Term Trends

The personal commuting market may become a new growth driver.
Urban three-dimensional mobility networks will integrate deeply with ground transportation.
Hydrogen and hybrid routes may complement long-range demand.
The trillion-level low-altitude economy will evolve from manufacturing-led growth to a balance between manufacturing and operations.

Industry Map Snapshot
OEM clustering
Guangdong: EHang, XPENG AEROHT, GAC High-Domain
Shanghai: Autoflight, TCab Tech, Yufeng Future
Sichuan: Aerofugia
Jiangsu: Volant, EVTol-related players
Supply-chain clustering
Yangtze River Delta: carbon fiber and structural materials
Pearl River Delta: batteries and aircraft manufacturing
Bohai Rim: avionics and system-level supporting industries

9. Investment Opportunities and Risk Analysis

From an investment perspective, eVTOL is a staged realization story. The short term is about certainty in upstream components, the mid term is about certified OEMs, and the long term is about operations and infrastructure. The key is to understand the order in which value is realized and risk is exposed across the chain.

9.1 Major Investment Opportunities

Segment	Investment Logic	Representative Direction
Upstream battery systems	High technical barriers and dual drivers from localization and performance upgrades	CATL, SEnergy, and others
Carbon-fiber composites	Clear lightweighting demand with strong demand elasticity	Zhongfu Shenying, Guangwei Composites, and others
Motors and motor control	Supporting value released alongside aircraft volume growth	Wolong Electric Drive, Inbol, and others
Aircraft manufacturing	High elasticity after certification and order conversion	EHang, Autoflight, Aerofugia, and others
Infrastructure and operations	Strongly policy-driven with large long-term room	Vertiports, intelligent low-altitude networks, scenario operators

9.2 Major Risk Factors

Risk Type	Specific Issue	Key Focus
Policy risk	Airspace opening and local support may fall short of expectations	Track policy pace continuously
Technical risk	Battery, flight control, or tilt-mechanism breakthroughs may be slower than expected	Prioritize leading technology players
Commercialization risk	Demand cultivation may take longer and order conversion may lag	Prefer B-end and G-end scenarios with clearer certainty
Certification risk	Long certification cycles and heavy capital consumption	Focus on certified or near-certified companies
Safety risk	Flight incidents may affect industry confidence	Track safety records and system capabilities

10. Conclusion and Outlook

Overall, China’s eVTOL industry has moved from concept validation into an industry-coordination stage. Upstream core components continue to strengthen the performance and cost foundation, midstream OEMs compete around certification and production scaling, and downstream operations and infrastructure will determine whether a true city-level and region-level low-altitude transportation network can eventually take shape.

In the short term, the focus should remain on upstream segments such as batteries, composites, electric drive, and flight control, where certainty is strongest.
In the mid term, attention should shift to the commercial rollout of OEMs that have obtained or are about to obtain airworthiness certification.
In the long term, intelligent low-altitude networks, vertiport infrastructure, and operating services may become platform-level assets in the trillion-scale low-altitude economy.
With advantages in certification efficiency, supply-chain support, and scenario pilots, China is well positioned to remain a leading force in the global eVTOL industry.

This page is organized from public industry materials and is suitable as a special-topic reading entry for low-altitude economy research, flying car industry analysis, eVTOL supply-chain review, and market trend observation.

Content basis: organized from the report Flying Car eVTOL Industry Chain Panorama Analysis