Technology & Innovation
Joby Aviation and Uber Integrate Blade Air Mobility Services
Joby Aviation acquires Blade and integrates its air services into Uber app to advance urban air mobility with eVTOL technology by 2026.
Joby Aviation, Uber, and Blade: Integrating Urban Air Mobility into the Rideshare Mainstream
The urban air mobility (UAM) industry is at a pivotal crossroads. On September 10, 2025, Joby Aviation announced it would bring Blade’s helicopter and seaplane services to the Uber app, following its $125 million acquisition of Blade’s passenger business. This move marks a convergence of three major players: Joby Aviation, a leader in electric vertical takeoff and landing (eVTOL) aircraft; Uber, the world’s largest rideshare platform; and Blade, a well-established name in urban air mobility. The partnership aims to accelerate the adoption of air mobility in cities by leveraging Uber’s massive user base, Blade’s operational expertise, and Joby’s advanced eVTOL technology.
This development is significant for several reasons. It signals the maturation of the eVTOL sector, demonstrates the value of strategic partnerships, and sets the stage for the eventual integration of quiet, zero-emission electric aircraft into everyday transportation. As the UAM market is projected to expand rapidly in the coming decade, this collaboration may serve as a blueprint for how traditional transportation and cutting-edge aviation can merge to reshape urban mobility.
Background: The Evolution of the Joby, Uber, and Blade Partnership
The roots of this integration trace back to 2019, when Joby Aviation and Uber first partnered to explore the potential of aerial ridesharing. Their relationship deepened in December 2020 when Uber invested $75 million in Joby, and Joby acquired Uber’s Elevate division. Uber Elevate, founded in 2016, played a foundational role in shaping the aerial ridesharing market by uniting regulators, city planners, and technology firms around a common vision for urban flight.
Joby’s acquisition of Uber Elevate granted it access to valuable software tools for demand simulation, market selection, and multi-modal trip planning. In turn, both firms agreed to integrate their services into each other’s apps, laying the groundwork for seamless transitions between ground and air travel. This early partnership demonstrated strategic foresight, positioning both companies to benefit from the convergence of ridesharing and advanced air mobility.
In August 2025, Joby announced its acquisition of Blade’s passenger business for up to $125 million. Blade, known for its robust network of Helicopters and seaplane routes in New York and Europe, carried over 50,000 passengers in 2024. The deal included 12 urban terminals, key airport connections, and the retention of Blade’s leadership under CEO Rob Wiesenthal. The acquisition provided Joby with instant access to established infrastructure and a loyal customer base in high-demand markets.
The Role of Strategic Investment
Toyota Motor Corporation’s $250 million investment in Joby in 2025 further strengthened the company’s position. Beyond capital, Toyota brought Manufacturing expertise to help Joby scale production efficiently. This collaboration is already streamlining Joby’s manufacturing processes and optimizing aircraft design, crucial for meeting anticipated demand from Uber and Blade’s combined customer base.
Financial structuring of the Blade acquisition, with $35 million in holdbacks tied to performance milestones and employee retention, reflects Joby’s cautious yet optimistic approach. This structure aligns incentives and ensures that operational continuity and service quality are maintained during the integration process.
Blade’s CEO described the partnership as a natural fit, stating, “Blade was founded with the mission of democratizing short-distance air travel by facilitating the transition from conventional rotorcraft to quiet, emissions-free electric aircraft, and I believe there is no better partner than Joby to make that mission a reality.”
“Integrating Blade into the Uber app is the natural next step in our global partnership with Uber and will lay the foundation for the introduction of our quiet, zero-emissions aircraft in the years ahead.”, JoeBen Bevirt, Joby Founder & CEO
Integration with Uber: User Experience and Market Reach
The integration of Blade’s services into the Uber app is expected to begin as soon as 2026. Uber users will be able to book helicopter and seaplane flights directly, just as they would an UberX or Uber Black. This seamless experience addresses one of the main barriers to UAM adoption: the complexity of accessing air mobility services through multiple platforms.
Uber’s President and COO, Andrew Macdonald, highlighted the significance: “By harnessing the scale of the Uber platform and partnering with Joby, the industry leader in advanced air mobility, we’re excited to bring our customers the next generation of travel.” This move transforms Uber from a ground transportation provider to a true multi-modal mobility platform.
The integration also serves as a stepping stone for the eventual introduction of Joby’s eVTOL aircraft. By familiarizing users with air mobility via Blade’s conventional aircraft, Uber and Joby can build trust and awareness ahead of the rollout of electric air taxis, which promise quieter, cleaner, and more efficient urban flights.
Financial and Market Context
The financial landscape for UAM is both challenging and promising. Joby reported a net loss of $325 million in Q2 2025 on minimal revenue, reflecting the capital-intensive nature of eVTOL development. Despite these losses, Joby maintains $991 million in cash reserves, providing a runway for certification and early operations. The company’s high price-to-book ratio signals strong investor expectations for future growth.
Blade, in contrast, achieved its first full year of adjusted EBITDA profitability in 2024, with $248.7 million in total revenue and $101.9 million from passenger services. This demonstrates that urban air mobility can be profitable at scale, providing a template for Joby’s future operations.
Investment in the sector is robust, with $24.8 billion committed by early 2025. Government initiatives, such as the European Union’s $2.8 billion Urban Air Mobility Initiative and the U.S. Department of Transportation’s $3.2 billion Future of Flight program, underscore institutional confidence in UAM’s potential.
Aircraft Technology and Safety
Joby’s S4 eVTOL aircraft is designed for four passengers and a pilot, with speeds up to 200 mph and a range of 150 miles per charge. Unlike helicopters, the S4 produces zero direct emissions and is 100 times quieter, with noise levels around 65 decibels, compared to over 85 decibels for traditional rotorcraft. This is crucial for community acceptance in urban areas.
The aircraft uses six electric motors and tilt-propellers, providing redundancy and safety. If one system fails, others can compensate, and the aircraft can land conventionally if needed. Manufacturing costs are projected at $1.3 million per unit, with an expected payback period of 1.3 years based on current revenue models and utilization rates.
Joby’s manufacturing expansion in California and Ohio, with Toyota’s support, has doubled production capacity to 24 aircraft per year, preparing the company for rapid market entry once certification is achieved.
“Joby’s electric air taxi produces zero direct emissions during flight and has an acoustic impact 100 times lower than conventional helicopters.”, Joby Aviation
Regulatory Progress, Global Expansion, and Competitive Landscape
Certification remains the primary hurdle for eVTOL commercialization. By June 2025, Joby had completed 70% of its Stage 4 FAA certification responsibilities, with the FAA’s review over halfway finished. The company began final assembly of its first conforming aircraft, a key step toward Type Inspection Authorization and eventual commercial approval.
Internationally, Joby has partnered with Dubai’s Roads and Transport Authority and conducted successful test flights in the UAE, demonstrating readiness for commercial operations in challenging environments. The UAE’s regulatory framework, which allows eVTOLs and helicopters to share infrastructure, provides a model for cost-effective UAM deployment. Agreements in Saudi Arabia and Japan, with over 300 aircraft committed, highlight Joby’s global ambitions.
The competitive landscape is crowded. Archer Aviation, Lilium, and Vertical Aerospace are among the main rivals. Archer’s “Midnight” aircraft targets similar urban markets, while Lilium’s ducted-fan design focuses on longer regional flights. Each faces unique challenges in certification, manufacturing, and market access. Joby’s integration with Uber and Blade, combined with manufacturing scale and regulatory progress, gives it a strategic edge, but the market is likely to support multiple successful models.
Market Projections and Infrastructure Challenges
The global eVTOL market is projected to grow from $1.7 billion in 2023 to $39.0 billion by 2033, driven by urban congestion, technological advancement, and environmental concerns. Air taxi services are expected to remain the largest segment, with additional growth in cargo, emergency medical services, and tourism.
Infrastructure remains a significant challenge. Vertiports require substantial investment and regulatory approval. The UAE’s approach, leveraging existing helipads, offers a scalable solution, but public acceptance and air traffic management are ongoing concerns. Safety, noise, and security remain top priorities for regulators and the public alike.
Investment requirements are steep, with estimates of up to $1 billion needed for type certification. However, the combination of private investment, government support, and strategic partnerships is helping to overcome these barriers. Blade’s recent profitability demonstrates that with scale and efficiency, UAM can be financially sustainable.
“The global eVTOL aircraft market is projected to expand from $1.7 billion in 2023 to $39.0 billion by 2033, representing a compound annual growth rate of 36.8%.”, Market Research
Conclusion
The integration of Blade’s air mobility services into the Uber platform, facilitated by Joby Aviation, marks a turning point for urban air mobility. It combines advanced aircraft technology, established operational infrastructure, and one of the world’s most widely used mobility platforms. This collaboration addresses barriers to adoption, such as customer acquisition, infrastructure, and market education, creating a pathway for the mainstream adoption of air taxis.
While significant challenges remain, particularly in certification, infrastructure, and public acceptance, the partnership positions Joby, Uber, and Blade at the forefront of the UAM revolution. As regulatory milestones are reached and public awareness grows, this model may serve as a template for other cities and operators worldwide. The next few years will be critical in determining whether eVTOLs can deliver on their promise of transforming urban transportation.
FAQ
What services will be available through the Uber app?
Starting as soon as 2026, Uber users will be able to book Blade’s helicopter and seaplane flights directly through the Uber app, with plans to add Joby’s electric air taxis once certified.
How does Joby’s eVTOL aircraft differ from helicopters?
Joby’s S4 uses electric propulsion, produces zero direct emissions, and is significantly quieter than conventional helicopters, making it more suitable for urban environments.
When will Joby’s electric air taxis be available for commercial service?
Joby is targeting commercial operations as early as 2026, pending final FAA certification and regulatory approval.
What are the main challenges facing urban air mobility?
Key challenges include aircraft certification, infrastructure development (vertiports), public acceptance, air traffic management, and achieving financial sustainability.
Who are Joby’s main competitors?
Archer Aviation, Lilium, and Vertical Aerospace are among the main competitors, each pursuing different technological and market strategies.
Sources
Photo Credit: Joby Aviation
Technology & Innovation
Japan Tests Ramjet Engine for Mach 5 Passenger Aircraft
Japan’s JAXA and Waseda University successfully tested a ramjet engine for a Mach 5 passenger plane, advancing hypersonic travel development.
This article summarizes reporting by Mainichi and Harumi Kimoto.
Japan has reached a major milestone in the pursuit of hypersonic aviation. In April 2026, a joint research team successfully conducted the nation’s first combustion test of a ramjet engine designed for an experimental Mach 5 passenger aircraft. According to reporting by Mainichi, this technological breakthrough brings the ambitious prospect of two-hour flights between Japan and the United States one step closer to reality.
The collaborative effort, which includes researchers from the Japan Aerospace Exploration Agency (JAXA) and Waseda University in Tokyo, aims to commercialize this ultra-fast travel technology by the 2040s. If successful, the envisioned aircraft would cruise at an altitude of 25 kilometers and reach speeds of roughly 5,400 kilometers per hour. This is approximately six times faster than conventional modern airliners and more than double the top speed of the Concorde, the world’s last supersonic passenger jet, which was retired in 2003.
Beyond point-to-point global aviation, researchers envision the platform serving as a stepping stone for suborbital space tourism. Mainichi reports that by integrating a rocket engine into the airframe, the horizontally launched aircraft could potentially transport passengers to altitudes of 100 kilometers, the internationally recognized boundary of space known as the Kármán line, before returning to land on ordinary airport runways.
Engineering the Mach 5 Ramjet
Simulating Extreme Altitudes and Temperatures
Developing an engine capable of sustained Mach 5 flight requires overcoming immense aerodynamic and thermal hurdles. As detailed by Mainichi, the April combustion test took place at JAXA’s Kakuda Space Center in Miyagi Prefecture, a facility specialized in advanced propulsion systems. Researchers utilized the center to replicate the extreme atmospheric conditions found at an altitude of 25 kilometers, where air pressure drops to just one-hundredth of that at sea level.
The research team tested a 2-meter-long experimental craft, which represents approximately one-fiftieth the length of the envisioned commercial airliner. During hypersonic flight, rapid air compression generates intense shock waves and extreme aerodynamic heating. The recent ground test successfully demonstrated that the ramjet engine could maintain stable combustion in complex airflows while enduring surface temperatures of around 1,000 degrees Celsius, confirming that the heat-resistance performance worked exactly as designed.
The HIMICO Project and Future Milestones
Moving Toward Flight Demonstrations
This engine test is a critical component of the High Mach Integrated Control Experiment (HIMICO), a long-term initiative launched around 2013 by JAXA and Waseda University. Following the successful ground combustion validation, the research team is now setting its sights on real-world atmospheric testing to prove the technology in motion.
Secondary research into the HIMICO project indicates that the next major phase involves mounting a scaled-down experimental vehicle onto a JAXA S-520 sounding rocket. The craft is designed to be deployed mid-flight, accelerating during free fall, and eventually igniting its ramjet engine at Mach 5 to test integrated control systems in actual flight conditions.
Experts involved in the project remain cautiously optimistic about the timeline, acknowledging the immense engineering challenges ahead. Tetsuya Sato, a professor at Waseda University and a key member of the research team, emphasized the preliminary nature of the recent achievement.
“This result is still only a first step. Our dream is to connect it to a Test-Flights demonstration,” Sato told Mainichi.
Hideyuki Taguchi, a professor at the Tokyo University of Science and a former senior research and development executive at JAXA, noted the extended development cycle required for hypersonic platforms. While conventional aircraft take roughly a decade to develop, Taguchi explained to Mainichi that hypersonic planes require a rigorous two-stage demonstration process, first an experimental craft, followed by a passenger version. He expressed hope that the entire development cycle could be completed in about 20 years, aligning with the target of a 2040s commercial rollout.
Industry Implications
AirPro News analysis: The Global Hypersonic Race
We observe that Japan’s successful ramjet test places the country in a highly competitive global race to commercialize next-generation high-speed travel. While aerospace Startups like Boom Supersonic are currently targeting Mach 1.7 for their upcoming sustainable airliners, the JAXA-Waseda initiative is aiming significantly higher with air-breathing Mach 5 technology. This approach also competes conceptually with suborbital point-to-point rocket travel proposed by private spaceflight companies.
Furthermore, the engineering hurdles for commercial hypersonic flight remain formidable. Designing a passenger jet capable of withstanding repeated exposure to 1,000-degree Celsius thermal cycles while maintaining the rapid turnaround times and stringent safety standards of commercial aviation is a challenge akin to building a reusable spacecraft. Achieving the 2040s commercialization target will likely require sustained government funding, international regulatory cooperation, and significant advancements in sonic boom mitigation to allow for overland flights.
Frequently Asked Questions
What is a ramjet engine?
A ramjet is an air-breathing jet engine that uses the aircraft’s forward motion to compress incoming air without the need for rotary compressors. This design makes it highly efficient at supersonic and hypersonic speeds, though it requires high forward speed to begin operating.
How fast is Mach 5?
Mach 5 is approximately 5,400 kilometers per hour (about 3,350 miles per hour). This is roughly six times the speed of a conventional commercial airliner and is generally considered the threshold for hypersonic flight.
When will this hypersonic aircraft be available for passengers?
The Japanese research team, including JAXA and Waseda University, aims to bring the hypersonic passenger plane into practical commercial use in the 2040s, following a projected 20-year development and testing cycle.
Sources
Photo Credit: JAXA
Sustainable Aviation
Menzies Aviation Achieves 25 Percent Electric Ground Support Equipment Target
Menzies Aviation reached its goal of 25% electric Ground Support Equipment globally by 2025, investing $200M and expanding alternative fuel use.
This article is based on an official press release from Menzies Aviation.
The aviation industry faces mounting pressure to decarbonize, and while in-flight emissions dominate headlines, ground operations offer immediate opportunities for sustainability. According to a recent press release, Menzies Aviation has officially reached its global target of electrifying 25% of its Ground Support Equipment (GSE) by the end of 2025.
Menzies Aviation, recognized as the world’s largest aviation services company operating at 347 airports across 65 countries, achieved this milestone through a dedicated $200 million investment aimed at modernizing its vehicle fleet. The company reported adding more than 620 electric GSE assets to its operations in 2025 alone, pushing the global proportion of its electric equipment from 22% in 2024 to the 25% target. Currently, 11 Menzies locations operate fleets with more than 70% electric GSE, and over 20 locations have surpassed the 50% mark.
Driving the Transition: Fleet Modernization and Regional Success
European Operations Lead the Charge
The transition to electric GSE is heavily dependent on local airport charging infrastructure, leading to regional variations in adoption. In its press release, Menzies Aviation highlighted Europe as the leading region, with more than 50% of all GSE across the continent now fully electric.
Specific European locations have achieved even higher electrification rates. At Milan Malpensa Airport (MXP) in Italy, a partnership with AGS Handling has resulted in over 80% of motorized GSE becoming electric. When combined with a permanent switch to electric Pre-Conditioned Air Units, this allows for fully electric aircraft turnarounds. Additionally, the company noted that Manchester Airport in the UK increased its electric GSE to 40% following the deployment of two hybrid de-icing rigs, while London Gatwick (LGW) and Copenhagen (CPH) introduced fully electric fuel hydrant dispensers to support quieter, lower-emission operations.
Progress in Oceania and South East Asia
Progress is also visible outside of Europe. Menzies Aviation reported that its operations in Oceania and South East Asia increased to 30% electric GSE in 2025. As part of this regional push, the company has initiated trials for electric ground power units (GPUs) in Cairns, Australia.
Bridging the Gap with Alternative Fuels
Recognizing that full electrification is not yet viable at all airports due to infrastructure constraints, Menzies Aviation has expanded its use of lower-emission alternative fuels. The company’s press release details a significant pivot toward Hydrotreated Vegetable Oil (HVO) where electric charging grids remain insufficient.
In 2025, Menzies utilized two million liters of HVO, marking a 50% year-on-year increase from 2024. According to the company, HVO has fully replaced diesel in several major locations, including San Diego, Los Angeles, Amsterdam, and Stockholm Arlanda. The use of this alternative fuel has also been expanded at London Heathrow (LHR) and London Gatwick (LGW).
Corporate Strategy and Financial Alignment
The 25% electric GSE milestone is a component of Menzies Aviation’s broader “All In” sustainability strategy, which targets net-zero greenhouse gas emissions by 2045. The company noted it is the first major aviation services provider to have its net-zero targets validated by the Science Based Targets initiative (SBTi), adding scientific credibility to its corporate goals.
“2025 was a year of real progress towards our net-zero target. Achieving our ambitious goal of 25% electric GSE by 2025 across our fleet and accelerating our adoption of lower‑emissions fuels and renewable energy demonstrates our commitment to reducing emissions, even as our global network continues to grow. We are now focused on building on this momentum, with further increases in electric GSE already underway across our network.”
Crucially, the press release indicates that these sustainability investments are occurring alongside robust financial growth. Menzies reported a 16% year-on-year growth in 2025, surpassing $3 billion in revenue, demonstrating that aggressive decarbonization efforts can run parallel to global expansion.
AirPro News analysis
We observe that while sustainable aviation fuel (SAF) and next-generation electric aircraft frequently dominate media coverage regarding aviation decarbonization, ground operations represent a highly actionable area for immediate, measurable emissions reductions. Transitioning tarmac vehicles from diesel to electric power directly reduces Scope 1 emissions while simultaneously improving local air quality and lowering noise pollution for airport workers and surrounding communities.
However, the data provided by Menzies Aviation underscores a critical industry bottleneck: infrastructure. The speed of GSE electrification is intrinsically linked to the willingness and ability of airports to upgrade their electrical grids and charging capabilities. The reliance on bridge technologies like HVO in major hubs such as Los Angeles and London Heathrow highlights that even well-capitalized service providers must wait for municipal and airport infrastructure to catch up with corporate sustainability ambitions.
Frequently Asked Questions (FAQ)
What is Ground Support Equipment (GSE)?
GSE refers to the vehicles and machinery found on an airport tarmac used to service aircraft between flights. This includes baggage tugs, fuel hydrant dispensers, ground power units, and de-icing rigs.
Why is Menzies Aviation using Hydrotreated Vegetable Oil (HVO)?
While Menzies is transitioning to electric equipment, many airports currently lack the electrical grid infrastructure required to charge large fleets of electric vehicles. HVO serves as a lower-emission “bridge” fuel that can immediately replace diesel in existing combustion engines without requiring new infrastructure.
What is the Science Based Targets initiative (SBTi)?
The SBTi is a corporate climate action organization that enables companies to set greenhouse gas emissions reduction targets grounded in climate science. Menzies Aviation is the first major aviation services provider to have its net-zero targets validated by this body.
Sources: Menzies Aviation Press Release
Photo Credit: Menzies Aviation
Technology & Innovation
Surf Air Mobility Joins FAA-Backed Advanced Aviation Consortium
Surf Air Mobility becomes the first Part 135 operator in the FAA-sponsored CAAT Consortium to support next-gen aviation tech integration.
This article is based on an official press release from Surf Air Mobility.
Surf Air Mobility Inc. (NYSE: SRFM) has officially become a member organization of the Center for Advanced Aviation Technologies (CAAT) Consortium. According to the company’s press release, this development marks a notable industry milestone, as Surf Air Mobility is the first Part 135 passenger operator to join the initiative.
The CAAT Consortium operates as a collaborative national effort spearheaded by the Texas A&M University System in partnership with the Federal Aviation Administration (FAA). Its primary objective is to facilitate the safe and efficient integration of next-generation aviation technologies, such as electric aircraft and autonomous systems, into the National Airspace System.
By joining this consortium, Surf Air Mobility positions itself at the forefront of regulatory and technological advancements in the air mobility sector. We view this integration between active commercial operators and regulatory research bodies as a critical step toward modernizing aviation infrastructure.
Strategic Benefits of CAAT Membership
Unlocking FAA Collaboration and Research
The official announcement outlines several key advantages for Surf Air Mobility as a new consortium member. Primarily, the company gains eligibility to bid on and respond to FAA-funded task orders that are exclusively available to CAAT members. This opens a direct channel for the operator to contribute to federally backed aviation projects.
Furthermore, membership grants Surf Air Mobility enhanced visibility into the FAA’s research priorities and emerging technology requirements. The company will also participate in exclusive working groups and discussions that help shape future solicitations, allowing them to collaborate closely with government, academic, nonprofit, and industry partners.
Industry and Regulatory Perspectives
Leadership Insights on the Integration
Company leadership emphasized the strategic alignment between their operational goals and the consortium’s mission. Deanna White, CEO of Surf Air Mobility, highlighted the importance of this partnership in developing their intelligent operating system for air mobility.
“Membership puts us alongside the organizations defining how next-generation aviation technologies integrate into the national airspace,” stated White in the press release, noting it allows the company to leverage its AI-enabled software capabilities.
The CAAT leadership also welcomed the addition of a commercial operator to their ranks. Albert Bejarano, Acting Associate Director for CAAT, noted that Surf Air Mobility’s inclusion provides a crucial real-world perspective for the consortium’s ongoing research.
“Surf Air Mobility brings a valuable industry perspective through its real-world aviation operations, operational data, and software-enabled capabilities,” Bejarano noted in the release, adding that their participation will bolster technology evaluation efforts.
AirPro News analysis
We observe that Surf Air Mobility’s entry into the CAAT Consortium as the first Part 135 passenger operator is a significant development for the advanced air mobility (AAM) sector. Part 135 operators handle commuter and on-demand operations, meaning they possess practical, day-to-day data on passenger logistics, flight operations, and airspace utilization.
By bridging the gap between theoretical research and active commercial operations, the FAA and Texas A&M can leverage Surf Air’s operational data to create more realistic evaluation pathways for electric and autonomous aircraft. This symbiotic relationship suggests a maturing regulatory approach, where the FAA is actively seeking input from the operators who will ultimately deploy these emerging technologies in the National Airspace System.
Frequently Asked Questions
What is the CAAT Consortium?
The Center for Advanced Aviation Technologies (CAAT) Consortium is a national initiative between the Texas A&M University System and the FAA. It is designed to safely integrate emerging aviation technologies, such as electric and autonomous aircraft, into the National Airspace System.
Why is Surf Air Mobility’s membership significant?
According to the company’s press release, Surf Air Mobility is the first Part 135 passenger operator to join the consortium, bringing real-world operational data and industry perspective to the research initiative.
What benefits does Surf Air Mobility receive from joining?
The company gains access to exclusive FAA-funded task orders, visibility into federal research priorities, and the ability to participate in working groups that will shape future aviation technology solicitations.
Sources
Photo Credit: Surf Air Mobility
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