Global Autonomous & Future Mobility Tyres Market
Global Autonomous & Future Mobility Tyres Market Overview
The Global Autonomous & Future Mobility Tyres Market is all about tyres built for self-driving cars, robotaxis, autonomous shuttles, delivery bots, and next-gen electric rides . These tyres go beyond grip and toughness—they’re made for nonstop use, super low noise, and even help sensors work better. Plus, they’re designed for predictive maintenance and digital connectivity, so they can “talk” to the vehicle and warn about wear or issues . As autonomous mobility grows, these smart tyres become a key part of the whole system.
Tyres are no longer just rubber—they’re turning into smart, data-generating parts of a vehicle’s brain . As cars shift from human drivers to software control, tyres need to keep up with longer operating hours and super-precise sensor systems. They have to deliver consistent performance, predictable wear, and real-time health updates to keep everything running smoothly . It’s like the tyre’s got a voice now, telling the car when it’s tired or needs attention.
The Global Autonomous & Future Mobility Tyres Market includes tyres supplied to autonomous vehicle OEMs, robotaxi manufacturers, smart city mobility platforms, and fleet operators, as well as replacement tyres for high-utilization autonomous fleets. With autonomous mobility increasingly tied to electric powertrains, these tyres are also optimized for higher vehicle weight, lower rolling resistance, and ultra-low acoustic output.
According to the Phoenix Demand Forecast Engine, the Global Autonomous & Future Mobility Tyres Market size is estimated at USD 24.6 billion in 2025 and is projected to reach USD 61.8 billion by 2033, expanding at a CAGR of ~12.2% during the forecast period (2026–2033).
North America leads early adoption due to robotaxi pilots and autonomous freight trials, while Asia-Pacific represents the largest long-term growth opportunity, driven by smart cities, autonomous delivery fleets, and government-backed mobility innovation.
Key Drivers of Global Autonomous & Future Mobility Tyres Market Growth
Rapid Deployment of Autonomous Fleets
Robotaxis, shuttles, and delivery bots run 24/7, so their tyres wear out super fast . That nonstop grind fuels huge replacement demand, driving steady market growth.
Shift Toward Electric & Software-Defined Vehicles
Autonomous platforms are predominantly electric, requiring tyres with low rolling resistance, high load-bearing capacity, and reduced vibration.
Need for Predictable & Data-Driven Maintenance
Fleet operators want tyres that predict wear, so they can fix issues before breakdowns . This cuts downtime, boosts uptime, and keeps fleets rolling smooth . It’s a smart move driving market growth.
Smart City & Urban Mobility Programs
Government investments in autonomous public transport, campus mobility, and last-mile delivery accelerate tyre demand.
Noise Reduction & Passenger Comfort Requirements
Without engine noise, tyre noise becomes dominant—driving adoption of acoustic and vibration-dampening tyre technologies.
Global Autonomous & Future Mobility Tyres Market Segmentation
1. By Mobility Type
1.1 Autonomous Passenger Vehicles (Largest Segment)
1.1.1 Robotaxis
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Urban robotaxi fleets
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Inter-city autonomous taxi services
1.1.2 Privately Owned Autonomous Cars
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Premium autonomous passenger cars
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Mass-market autonomous vehicles
1.2 Autonomous Commercial Vehicles
1.2.1 Autonomous Delivery Vans
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Last-mile delivery vans
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Mid-mile logistics vans
1.2.2 Autonomous Trucks
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Autonomous regional haul trucks
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Autonomous long-haul freight trucks
1.3 Shared & On-Demand Autonomous Mobility
1.3.1 Ride-Hailing Autonomous Fleets
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App-based shared autonomous cars
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Subscription-based autonomous mobility
1.3.2 Autonomous Shuttles & Pods
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Urban public transport shuttles
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Campus & industrial park pods
2. By Tyre Construction & Design
2.1 Radial Tyres (Largest Segment)
2.1.1 Steel-Belted Radial Tyres
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Single steel-belt radial tyres
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Multi-layer steel-belt radial tyres
2.1.2 Fabric-Belted Radial Tyres
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Polyester fabric radial tyres
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Nylon fabric radial tyres
2.2 Airless & Non-Pneumatic Tyres (Fastest-Growing Segment)
2.2.1 Polymer Lattice Tyres
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Thermoplastic lattice tyres
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Elastomer-based lattice tyres
2.2.2 Composite Airless Tyres
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Fiber-reinforced composite tyres
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Hybrid polymer-composite tyres
2.3 Solid Tyres
2.3.1 Industrial Solid Tyres
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Warehouse autonomous robots
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Factory AGVs
2.3.2 Low-Speed Autonomous Platform Tyres
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Sidewalk delivery robots
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Indoor mobility platforms
3. By Autonomy Level
3.1 Level 2–3 (ADAS-Enabled Vehicles)
3.1.1 Passenger Vehicles
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ADAS-equipped sedans
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ADAS-equipped SUVs
3.1.2 Commercial Vehicles
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Semi-autonomous delivery vans
3.2 Level 4 Autonomous Vehicles (Largest Segment)
3.2.1 Autonomous Passenger Platforms
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Robotaxis
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Autonomous shared shuttles
3.2.2 Autonomous Commercial Platforms
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Driverless delivery vehicles
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Autonomous logistics vehicles
3.3 Level 5 Fully Autonomous Vehicles
3.3.1 Universal Autonomous Platforms
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Fully driverless passenger vehicles
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Fully autonomous freight platforms
4. By Tyre Technology
4.1 Low Rolling Resistance Tyres
4.1.1 EV-Optimized Compound Tyres
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Energy-efficient tread compounds
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Lightweight structural designs
4.2 Smart & Connected Tyres (Core Segment)
4.2.1 Sensor-Embedded Tyres
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Pressure monitoring sensors
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Temperature & load sensors
4.2.2 Connected Tyre Systems
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Vehicle-to-Tyre (V2T) communication
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Cloud-based tyre analytics platforms
4.3 Noise & Vibration Suppression Tyres
4.3.1 Acoustic Comfort Tyres
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Acoustic foam-lined tyres
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Resonance-canceling tyre designs
4.3.2 Ride Comfort Optimized Tyres
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Low-vibration tread patterns
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Soft-compound comfort tyres
4.4 Self-Healing & Maintenance-Free Tyres
4.4.1 Self-Sealing Tyres
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Sealant-based puncture protection
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Gel-infused tread technologies
4.4.2 Puncture-Resistant Tyres
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Reinforced sidewall tyres
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Multi-layer protective carcass tyres
5. By Sales Channel
5.1 OEM (Original Equipment Manufacturer)
5.1.1 Autonomous Passenger Vehicle OEMs
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Robotaxi manufacturers
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Autonomous car OEMs
5.1.2 Autonomous Commercial Vehicle OEMs
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Autonomous truck OEMs
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Autonomous delivery vehicle OEMs
5.2 Fleet & Mobility Operators (Largest Segment)
5.2.1 Autonomous Mobility Fleet Operators
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Robotaxi service providers
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Shared autonomous shuttle operators
5.2.2 Tyre-as-a-Service (TaaS) Models
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Subscription-based tyre supply
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Usage-based tyre replacement contracts
5.3 Aftermarket / Replacement
5.3.1 Authorized Autonomous Tyre Dealers
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OEM-certified tyre distributors
5.3.2 Independent Replacement Channels
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Multi-brand tyre retailers
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Specialized autonomous vehicle service centers
6. By Geography
6.1 North America
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U.S.
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Canada
6.2 Asia-Pacific (Largest Growth Potential)
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China
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Japan
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South Korea
6.3 Europe
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Germany
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France
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U.K.
Regional Insights of Global Autonomous & Future Mobility Tyres Market
North America
Leads in early commercialization, driven by robotaxi pilots, autonomous trucking corridors, and advanced fleet analytics adoption.
Asia-Pacific
The largest long-term market, supported by smart city deployments, autonomous delivery robots, and strong government backing in China, Japan, and South Korea.
Europe
Growth driven by safety regulations, sustainability mandates, and integration of autonomous shuttles in public transport systems.
Leading Companies in the Global Autonomous & Future Mobility Tyres Market
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Goodyear Tire & Rubber Company
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Continental AG
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Pirelli & C. S.p.A.
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Hankook Tire
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Yokohama Rubber Company
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Toyo Tires
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Sumitomo Rubber Industries
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Specialized autonomous tyre startups
Michelin is the largest company in the Global Autonomous & Future Mobility Tyres Market
Why the Autonomous & Future Mobility Tyres Market Is Critical
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Tyres become data interfaces, not just consumables
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Direct impact on autonomous safety and sensor accuracy
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Enables 24/7 fleet uptime and predictable maintenance
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Essential for robotaxis, smart cities, and autonomous logistics
Strategic Intelligence & Phoenix AI-Backed Insights
Phoenix Demand Forecast Engine
Models autonomous vehicle parc growth, fleet utilization rates, and smart city mobility deployment.
Autonomous Tyre Intelligence Model
Analyzes sensor integration, predictive maintenance adoption, and tyre-as-a-service penetration.
Raw Material & Technology Sensitivity Model
Tracks impact of advanced polymers, composites, and digital integration on tyre cost structures.
Automated Porter’s Five Forces (Concise)
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Buyer Power: High — fleet operators negotiate long-term contracts
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Supplier Power: Moderate — advanced materials and sensors
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Threat of New Entrants: Low — high R&D and OEM certification barriers
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Threat of Substitutes: Low — tyres remain mission-critical
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Competitive Rivalry: High — innovation-led competition
Market Forecast Snapshot (2025–2033)
| Metric | Value |
|---|---|
| 2025 Market Size | USD 24.6 Billion |
| 2033 Market Size | USD 61.8 Billion |
| CAGR (2026–2033) | ~12.2% |
| Largest Region | Asia-Pacific |
| Fastest-Growing Segment | Airless & smart connected tyres |
| Key Trend | Data-driven, predictive & autonomous-ready tyres |
Final Takeaway of Global Autonomous & Future Mobility Tyres Market
The Global Autonomous & Future Mobility Tyres Market represents a structural shift in the tyre industry—from replacement-driven sales to technology-led, fleet-integrated mobility solutions. As autonomous vehicles scale globally, tyres will evolve into intelligent platforms that deliver durability, efficiency, comfort, and real-time data.
Manufacturers that invest in smart tyres, airless designs, predictive analytics, and fleet service models will define leadership in this next-generation mobility market through 2033 and beyond.
1. Executive Summary
1.1 Global Autonomous & Future Mobility Tyres Market Snapshot
1.2 Key Growth Drivers, Restraints & Market Risks
1.3 High-Growth Autonomous Mobility Platforms & Tyre Technologies
1.4 OEM, Fleet Operator & Tyre-as-a-Service Demand Snapshot
1.5 Competitive Landscape Snapshot
1.6 Strategic Implications & Investment Outlook
2. Introduction & Study Framework
2.1 Study Objectives
2.2 Market Definition & Scope – Autonomous & Future Mobility Tyres
2.3 Autonomous Tyre Classification & Functional Scope
2.4 OEM vs Fleet vs Aftermarket (Replacement) Definition
2.5 Currency, Pricing & Unit Considerations
2.6 Timeframe & Forecast Assumptions
2.7 Study Limitations
3. Research Methodology
3.1 Secondary Research
3.2 Primary Research
3.3 Market Size Estimation Methodology
3.4 Bottom-Up & Top-Down Validation
3.5 Data Triangulation & Key Assumptions
4. Market Dynamics
4.1 Drivers
4.1.1 Rapid Deployment of Autonomous Vehicle Fleets
4.1.2 Shift Toward Electric & Software-Defined Mobility Platforms
4.1.3 High Utilization Rates & Accelerated Tyre Replacement Cycles
4.1.4 Demand for Predictive, Data-Driven Fleet Maintenance
4.1.5 Noise Reduction & Passenger Comfort Requirements
4.1.6 Smart City & Government-Backed Autonomous Mobility Programs
4.2 Restraints
4.2.1 High Cost of Smart, Sensor-Embedded & Airless Tyres
4.2.2 Complex OEM & Fleet Qualification Cycles
4.2.3 Limited Large-Scale Commercialization of Level 5 Autonomy
4.3 Opportunities
4.3.1 Growth of Robotaxi & Autonomous Shuttle Services
4.3.2 Expansion of Tyre-as-a-Service (TaaS) Business Models
4.3.3 Adoption of Airless & Maintenance-Free Tyre Technologies
4.3.4 Integration of Tyres into Vehicle Data & AI Ecosystems
4.4 Challenges
4.4.1 Balancing Durability, Noise, Load & Rolling Resistance
4.4.2 Sensor Reliability & Real-Time Data Accuracy
4.4.3 Scaling Smart Tyres Across Mixed Autonomy Levels
5. Technology & Innovation Analysis
5.1 Smart & Sensor-Embedded Tyre Architectures
5.2 Airless & Non-Pneumatic Tyre Engineering
5.3 Low Rolling Resistance & EV-Optimized Compounds
5.4 Noise & Vibration Suppression Technologies
5.5 Predictive Maintenance & Tyre Health Analytics
5.6 Advanced Polymers, Composites & Structural Materials
5.7 Future Autonomous Tyre Technology Roadmap
6. Regulatory, Safety & Standards Framework
6.1 Global Tyre Safety & Performance Standards
6.2 Autonomous Vehicle Safety & Compliance Requirements
6.3 Noise, Energy Efficiency & Sustainability Regulations
6.4 Smart Mobility, Data & Sensor Compliance Standards
6.5 Regional Regulatory Comparison
7. Value Chain & Ecosystem Analysis
7.1 Advanced Materials, Sensors & Polymer Supply Chain
7.2 Autonomous Tyre Manufacturing & R&D Ecosystem
7.3 Autonomous OEM & Platform Partnerships
7.4 Fleet Operators, Smart Cities & Mobility Platforms
7.5 Aftermarket, Service Models & Tyre-as-a-Service Ecosystem
8. Pricing & Cost Structure Analysis
8.1 Average Autonomous Tyre Pricing by Mobility Platform
8.2 Cost Structure & Advanced Technology Inputs
8.3 OEM vs Fleet Contract Pricing Dynamics
8.4 Total Cost of Ownership (TCO) & Lifecycle Economics
9. Future Outlook & Market Forecast
9.1 Market Forecast by Region (2026–2033)
9.2 Market Forecast by Mobility Type
9.3 Market Forecast by Tyre Construction
9.4 Market Forecast by Tyre Technology
9.5 Market Forecast by Sales Channel
9.6 Scenario Analysis (Optimistic, Base, Conservative)
10. Strategic Recommendations
10.1 Product & Technology Portfolio Strategy
10.2 OEM, Fleet & Smart City Partnership Strategy
10.3 Smart, Airless & Predictive Tyre Development Roadmap
10.4 Pricing, Contracting & Lifecycle Optimization
10.5 Sustainability, Circularity & Long-Life Tyre Strategy
11. Global Autonomous & Future Mobility Tyres Market Analysis
11.1 Global Market Size (USD Billion), 2018–2033
11.2 Market Volume (Million Units), 2018–2033
11.3 Market Share Analysis, 2025
11.4 Market Growth Rate (CAGR), 2026–2033
11.5 OEM vs Fleet vs Aftermarket Revenue Split
11.6 Conventional vs Smart & Airless Tyre Revenue Mix
12. Market Segmentation by Mobility Type (USD Billion), 2018–2033
12.1 Autonomous Passenger Vehicles
12.2 Autonomous Commercial Vehicles
12.3 Shared & On-Demand Autonomous Mobility
13. Market Segmentation by Tyre Construction & Design (USD Billion), 2018–2033
13.1 Radial Tyres
13.2 Airless & Non-Pneumatic Tyres
13.3 Solid Tyres
14. Market Segmentation by Autonomy Level (USD Billion), 2018–2033
14.1 Level 2–3 (ADAS-Enabled Vehicles)
14.2 Level 4 Autonomous Vehicles
14.3 Level 5 Fully Autonomous Vehicles
15. Market Segmentation by Tyre Technology (USD Billion), 2018–2033
15.1 Low Rolling Resistance Tyres
15.2 Smart & Connected Tyres
15.3 Noise & Vibration Suppression Tyres
15.4 Self-Healing & Maintenance-Free Tyres
16. Market Segmentation by Sales Channel (USD Billion), 2018–2033
16.1 OEM (Autonomous Vehicle Manufacturers)
16.2 Fleet & Mobility Operators
16.3 Aftermarket / Replacement
17. Market Segmentation by Region
17.1 North America
17.2 Asia-Pacific
17.3 Europe
17.4 Latin America
17.5 Middle East & Africa
18. Competitive Landscape – Global
18.1 Global Market Share Analysis
18.2 Competitive Positioning Matrix
18.3 Product & Technology Benchmarking
18.4 Pricing & Contract Models Analysis
18.5 Recent Developments & Strategic Initiatives
19. Company Profiles
Michelin
Bridgestone Corporation
Goodyear Tire & Rubber Company
Continental AG
Pirelli & C. S.p.A.
Hankook Tire
Yokohama Rubber Company
Toyo Tires
Sumitomo Rubber Industries
Specialized Autonomous Tyre Startups
