Results for: uber
PAL-V
Quick SummaryThe Pal-V Liberty is a cross between a helicopter and a car. The Liberty is made by Dutch company Pal-V, which was founded in 2008. As September 2018, the company became one of the first to begin taking pre-orders. The aircraft will be available for anyone with a pilots license for about 400k USD.CompanyCEOProduct NamePAL-V, a Raamsdonksveer, Netherlands companyIr...

PAL-V

Quick Summary
The Pal-V Liberty is a cross between a helicopter and a car. The Liberty is made by Dutch company Pal-V, which was founded in 2008. As September 2018, the company became one of the first to begin taking pre-orders. The aircraft will be available for anyone with a pilots license for about 400k USD.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless, Roadable VTOL
Powerplant: Internal Combustion Engine (ICE)
Range: See Below
Top Speed: See Below
Propeller Configuration: Traditional Gyrocopter
Passenger/Payload Capacity: 2 Passengers
Autonomy Level: Piloted
Dimensions: Drive-mode: 4m L x 2m W x 1.7m H; Flight-mode: (Rotor diameter is 10.75m) 6.1m L x 2m W x 3.2m H
Other Information:
Maximum baggage load: 20 kg
Maximum Take-Off Weight (MTOW): 910 kg
Fuel type: Euro 95, Euro 98, E10 *
Fuel capacity: 100 l
* Unleaded automotive fuel, with max. 10% ethanol (E10), EN 228 specification, min RON 95 (min AKI 91)
Drive mode
Max Speed: 160 km/h
Top speed acceleration: (0-100 km/h)<9 seconds
Engine power: 100 hp
Fuel economy: 7.6 l/100km
Range: 1315 km
Flight Mode
Economic cruise speed: 140 km/h
High cruise speed (90% range): 160 km/h
Maximum speed: 180 km/h
Min speed for level flight: 50 km/h
Engine power: 200 hp
Maximum operating altitude: 3500m
Useful load: 246 kg
Landing roll distance: 30m
Fuel economy: 26 l/h
Take-off roll (MTOW, MSL): 180m
Take-off distance + 15m obstacle clearance, MTOW**, MSL***: 330m
Max Range (with ½ hour reserve fuel*, MTOW): 400 km
Max Range (with ½ hour reserve fuel, single person operation, MSL): 500 km
Our Take on the Pal-V
The PAL-V is very successful in that it is one of the first commercially available flying cars, however its design is not a radical departure from the more traditional gyrocopters that have been flying for decades. The engineering design skill for the PAL-V is exhibited by the folding component design of the product, featuring a rear facing propellor driving the vehicle forward and the free-spinning blade on top of the craft which provide inertial lift as the PAL-V accelerates to forward flight. PAL-V's greatest success is the successful completion of the design process (pending complete certification) and bringing their product to market. As of June 2018, the company was taking deposits for it's PAL-V craft - $25,000 for the option to purchase the Liberty Edition, PAL-V's flagship completely optioned, and $10,000 for the option to purchase a Sport model with fewer available options.
KittyHawk Flyer
Quick SummaryThe Kitty Hawk Flyer is a personal Hover bike intended for recreational use. It can be operated by anyone, and does not require a pilot's license to be flown. A number of public demonstration flights have already occurred.CompanyKitty Hawk CEOProduct NameKitty Hawk, a California-based corporation, operated by Zephyr Airworks in New Zealand.Sebastian ThrunFlyerStage of DevelopmentPreliminary DesignPrototype BuildFlight TestingCertificationCommercially OperatingTechnical...

KittyHawk Flyer

Quick Summary
The Kitty Hawk Flyer is a personal Hover bike intended for recreational use. It can be operated by anyone, and does not require a pilot's license to be flown. A number of public demonstration flights have already occurred.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: VTOL, no fixed wing
Powerplant: electric motors
Range: 12-20 minute
Top Speed: >20 mph
Propeller Configuration: 8 propellers, octocopter
Passenger/Payload Capacity: Designed for one flyer
Autonomy Level: pilot-assisted
Dimensions: 13ft wingspan, 8ft length
Other Information
Height Limit: Operates between 3-10 ft off the surface of water
Vertical take-off and landing: Powered by 10 independent lift fans
Battery Life: Battery life will depend on participant weight, environmental factors, and forward speed.
Regulation: Part 103 Ultralight
Funding: $6.5M (unconfirmed), Larry Page is backing this project, so most likely more resources are available.
Our Take on the Flyer
While the Kitty Hawk Flyer's price has not yet been disclosed, the Kitty Hawk website is taking deposits for the Founder's Series Flyer - an invite only group that will have first access to the machine. Since the Flyer is so easy to use, and a number of public flights have already occurred, it is likely not long until we'll see this group of individuals purchasing, owning, and flying their new Flyers. Additionally, since the Flyer is certified under FAA CFR Part 103 - Ultralight - it requires no license to operate, although training is absolutely recommended. Expect widespread public adoption of using Flyers in the same realm as going skydiving - possibly something to rent out for an afternoon to have fun with. As for individual purchases open to the general public, that'll have to wait, for now.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Airbus Vahana
Quick SummaryVahana is a project worked on by the A^3 technological development arm of Airbus which is headquartered in Silicon Valley, CA. Built as a (now-completed) eVTOL technology demonstrator and proof-of-concept for future aircraft like the CityAirbus, Vahana uses variable-angle rotors that provide thrust vertically for takeoff and landing and swivel forward to facilitate accelerated conventional flight.CompanyAirbus CEOA^3 CEO Product...

Airbus Vahana

Quick Summary
Vahana is a project worked on by the A^3 technological development arm of Airbus which is headquartered in Silicon Valley, CA. Built as a (now-completed) eVTOL technology demonstrator and proof-of-concept for future aircraft like the CityAirbus, Vahana uses variable-angle rotors that provide thrust vertically for takeoff and landing and swivel forward to facilitate accelerated conventional flight.
A^3 is a venture created by Airbus, a Colonge, France, company.
Guillaume Faury
Mark Cousin
Stage of Development
Preliminary Design
Project Complete
Technical Details:
Aircraft Type: Winged VTOL
Powerplant: All-Electric
Range: 31 miles
Top Speed: 136mph
Propeller Configuration: 8 propellers; 4 on each of the two tilting wings.
Passenger/Payload Capacity: Single Passenger
Autonomy Level: Autonomous/remote pilot
Dimensions: 20 ft wingspan, 9 ft height
Other Information:
Weight: 1600lbs
Motors: 8 electric motors at 45kW each
From Airbus:
Project Vahana intends to open up urban airways by developing the first certified electric, self-piloted vertical take-off and landing (VTOL) passenger aircraft. We envision Vahana being as a cost-comparable replacement for short-range urban transportation like cars or trains. A core premise of this project is that full automation and sense-and-avoid technology will allow us to achieve higher safety levels by minimizing human error while allowing more vehicles to share the sky. As a platform, Vahana can be as diverse as its wheeled grounded counterpart when being used for cargo delivery, emergency services, search and rescue, or even as a tool to deploy modular infrastructure in disaster sites. There is no other project that we know of that incorporates this much automation in vertical flight. With Airbus’ long history in aircraft certification and safety, we are uniquely positioned to realize large-scale automated flight within urban environments.
Our Take on Vahana
Since its creation, Vahana has achieved multiple important milestones integral to the future of aerial mobility. These have included building a fully-electric aircraft that can autonomously transition from vertical to fixed wing flight, enabling that aircraft to fly for a significant range, and completing over 130 test flights to prove the safety of eVTOL aircraft overall. The work A^3 did with Vahana allowed Airbus to lay the groundwork for larger aircraft such as the Airbus CityAirbus. Although the project is now completed, the Vahana team was able to make many significant discoveries and developments for the future of aerial mobility at airbus.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022United HeliFlight Service – “A Canary for eVTOL’s”
Marisa Garcia outlined in Forbes yesterday the prospect of using new helicopter-connection services, like the recently announced United Airlines HeliFlight service, as a “canary” or sorts for the future success of eVTOL transportation. Namely, Garcia focused on the potential hurdles that eVTOL’s might have to overcome that make them similar to helicopters: the high investment in technology that mandates a...

United HeliFlight Service – “A Canary for eVTOL’s”

Marisa Garcia outlined in Forbes yesterday the prospect of using new helicopter-connection services, like the recently announced United Airlines HeliFlight service, as a “canary” or sorts for the future success of eVTOL transportation.
Namely, Garcia focused on the potential hurdles that eVTOL’s might have to overcome that make them similar to helicopters: the high investment in technology that mandates a high utilization rate for a return on any level of investment. Other similar helicopter connection services exist, like FlyBlade, which is independently growing as one of the largest on-demand helicopter and aircraft charter businesses in the world, but Garcia argues that even companies like FlyBlade start to lose ground when they partner with another transportation entity to provide true door-to-door service, like Blade did with Delta. Supposedly, that partnership will now neither be confirmed nor denied by a Delta spokesperson reached out to with that very question.
However, there are a number of advantages that eVTOL’s have over the conventional helicopters that are outline in Garcia’s commentary: they’re quieter than helicopters, fully electric, and as a result, lower impact on the surrounding urban areas that they’re slated to operate in. Additionally, the sheer volume of funding that has poured in over the past few years has allowed for rapid industry progress. Coupled with mergers and acquisitions by numerous aerospace firms, the industry is burgeoning with preparedness and a level of work intensity that has not crossed the aerospace field (in terms of aircraft development time) in history.
Why it’s important: As Garcia stated in her commentary, the next 12 months will serve as a great barometer for the success of commercial eVTOL implementations and also for on demand door-to-door transportation business models in general. Companies like FlyBlade are most likely seeking to expand their reach, if not implement the infrastructure to be the single B2C model that a consumer may use to get from their door in New York to their condo in Los Angeles. Time will tell.
Source
- Forbes
- Image // United
Joby Aviation
Quick SummaryJoby Aviation is a Santa Cruz, CA based company developing the Joby S4 eVTOL. The S4 has been kept predominantly under wraps from the public during the design phase, but recently announced plans for a new manufacturing facility to begin production of its vehicle. Joby's team is extremely experienced and has executed on numerous projects in the past that...

Joby Aviation

Quick Summary
Joby Aviation is a Santa Cruz, CA based company developing the Joby S4 eVTOL. The S4 has been kept predominantly under wraps from the public during the design phase, but recently announced plans for a new manufacturing facility to begin production of its vehicle. Joby's team is extremely experienced and has executed on numerous projects in the past that demanded a high degree of technical acuity, and the company is well-funded by Toyota and other investors.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL
Powerplant: Distributed Electric Propulsion (DEP) System powered by lithium-nickel-cobalt-manganese-oxide batteries
Range: 150 miles
Top Speed: 200 mph
Propeller Configuration: Four (4) propellers tilt vertically including its entire motor nacelle, and two (2) of the propellers tilt vertically with a linkage mechanism
Passenger/Payload Capacity: 1 pilot and 4 passengers
Autonomy Level: Piloted
Dimensions: 35 ft wingspan, 24 ft length
Other Information:
- Safety assurance in excess of CS-23 cert requirements
- Unified flight control – extremely simple vehicle operations (SVO)
- 100 times quieter than a helicopter
- Weight: 4,000 lb
- Windows: Large windows for spectacular views for the passengers
- Fuselage: Composite
- Landing gear: Tricycle wheeled retractable landing gear.
- First flight: On February 1st, 2018, a prototype executed a 15 minute, 15 mile loop which included a piloted vertical takeoff
Our Take on Joby
Joby's small media presence seems to be by design - Joby's team has been working with maximum intensity on bringing the project to fruition and testing their full scale S4 prototype. The company has recently closed large funding rounds - which included investors such as Toyota, JetBlue Baillie Gifford - and is demonstrating strong momentum as it stands up its new manufacturing facility in California. Once the facility is operational, it's likely we will be seeing substantially more news from Joby as it begins testing and certifying vehicles.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Lilium Jet
Quick SummaryThe Lilium Jet is an eVTOL designed and manufactured near Munich, Germany. The Jet uses swiveling ducted fans to provide vertical thrust for takeoff and landing. These same fans then slowly rotate towards rear facing as the Jet accelerates and converts to its forward flight mode.CompanyCEOProduct NameLilium, a Munich, Germany based companyDaniel WiegandLilium JetStage of DevelopmentPreliminary DesignPrototype BuildFlight TestingCertificationCommercially...

Lilium Jet

Quick Summary
The Lilium Jet is an eVTOL designed and manufactured near Munich, Germany. The Jet uses swiveling ducted fans to provide vertical thrust for takeoff and landing. These same fans then slowly rotate towards rear facing as the Jet accelerates and converts to its forward flight mode.
Lilium, a Munich, Germany based company
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL
Powerplant: All-Electric
Range: 300 km / 186 miles
Top Speed: 300km/h / 187 mph
Propeller Configuration: 36 ducted fans
Passenger/Payload Capacity: 5 passengers
Autonomy Level: Semi-Autonomous, Autonomy function built in.
Dimensions: 36 ft wingspan
From Lilium's Technical Overview
"At Lilium, we have invented a completely new aircraft concept for the modern age. While vertical take-off and landing (VTOL) itself is not new – after all, quadcopters, tilt rotors and tilt wings are well-known concepts – we did not want to accept the compromises inherent to these configurations.
Quadcopters excel with their simplicity but are highly inefficient in cruise flight. Transition aircraft can fly three times faster and ten times further with an equally sized battery, but system complexity is usually much higher.
So, the goal was set: defining a transition aircraft concept with better performance in safety, noise, speed, range and payload than existing concepts, while cutting complexity to one third.
We challenged physical limitations, mechanical complexity and energy laws, until we came up with something new and unique. Something simple and efficient."
The Jet
The Lilium Jet consists of a rigid winged body with 12 flaps. Each one carries three electric jet engines. Depending on the flight mode, the flaps tilt from a vertical into a horizontal position. At take-off, all flaps are tilted vertical, so that the engines can lift the aircraft. Once airborne, the flaps gradually tilt into a horizontal position, leading the aircraft to accelerate. When they have reached complete horizontal position, all lift necessary to stay aloft is provided by the wings as on a conventional airplane.
One Flap,
Covering it All.
The beauty of this system is its simplicity. In comparison to existing concepts, Lilium Jets require no gearboxes, no foldable or variable pitch propellers, no water-cooling, and no aerodynamic steering flaps. Just tiltable electric engines.
What’s more: The Lilium Jet has the highest possible structural efficiency. As we can provide differential thrust from the engines in cruise flight, no stabilizing tail is necessary.
Efficient and Fast.
The design of the electric engines ensures a very low drag coefficient in cruise flight, leading to a higher speed and range. The energy consumption per seat and kilometer thereby becomes comparable to an electric car – but the jet is 3 times faster.
More Efficiency at Low Speeds.
The Lilium Jet uses an integrated high-lift system. The objective is to increase the lift of the wings even at low speeds to save energy. While hovering is very energy-consuming, as an aircraft must provide thrust equal to its own weight, dynamic lift of wings consumes much less energy to stay aloft. So, it is important to create as much dynamic lift from the wings as possible, even at very low speeds.
Electric Jet Engines
The electric jet engines work like turbofan jet engines in a regular passenger jet. They suck in air, compress it and push it out the back. However, the compressor fan in the front is not turned by a gas turbine, but by a high performance electric motor. Therefore, they run much quieter and completely emission-free.
Our Take on the Lilium Jet
The Lilium Jet is sleek, fast, and successful thus far in flight testing. Lilium has produced (in under 5 years) a very viable prototype eVTOL with a target entry to market of 2025, and a target first manned flight in early 2019. Given their past timeline and rate of progress, both of these goals seem achievable by the German team. Furthermore, the company has gone to great lengths to ensure that their entire experience matches the design paradigms of their eVTOL, and that they make no compromises in safety or the operation of their eVTOL. While keeping relatively quiet in terms of public demonstration flights, the videos depicting flight testing of the Jet are impressive enough on their own and should be a good indicator for future success of the company.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Boeing Passenger Air Vehicle (PAV)
Quick SummaryThe Boeing Passenger Air Vehicle is a venture originally headed by John Langford, who's company Aurora Flight Sciences was acquired by Boeing in November of 2017 (AFS is now a subsidiary of Boeing's NeXt technology ventures arm). The Boeing PAV is similar in design to the Kitty Hawk Cora, as it utilizes vertical lift propellors for takeoff and landing...

Boeing Passenger Air Vehicle (PAV)

Quick Summary
The Boeing Passenger Air Vehicle is a venture originally headed by John Langford, who's company Aurora Flight Sciences was acquired by Boeing in November of 2017 (AFS is now a subsidiary of Boeing's NeXt technology ventures arm). The Boeing PAV is similar in design to the Kitty Hawk Cora, as it utilizes vertical lift propellors for takeoff and landing and transitions to forward flight using a single pusher propellor. The first flight of the PAV was on January 23rd, 2019.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL
Powerplant: All-electric
Range: 50 miles
Top Speed: Undisclosed
Propeller Configuration: 8 lifting rotors, 1 pusher propeller
Passenger/Payload Capacity: Two-seater
Autonomy Level: Autonomous
Dimensions: 30 feet wingspan, 28ft length
Other Information:
Infrastructure:
- Aurora’s eVTOL aircraft will provide on-demand transportation to minimize long commutes due to heavy traffic and urbanization in populated areas.
- The infrastructure plan includes urban “vertiports” for passenger boarding and vehicle servicing.
- eVTOL aircraft will operate a “hub-to-hub” service between designated vertiports.
- The first test bed flights are scheduled to begin in 2020 in Dallas, Texas, USA and Dubai, The United Arab Emirates.
Operational Overview:
- The eVTOL aircraft includes eight lift rotors for vertical takeoff and cruise propeller and wing to transition to high-speed forward cruise.
- At destination hub, the aircraft transitions back to rotor-borne flight for vertical landing.
- Fully electric operation decreases or eliminates emissions and noise pollution for a quieter flight.
- While initially operated with a safety pilot, the eVTOL aircraft is designed for fully autonomous operations.
- The flight capability for eVTOL aircraft is three times more efficient than a multi-copter aircraft.
Capabilities:
- The eVTOL will be used for short-haul transport of passengers or cargo.
- Current configuration allows for two passengers including the pilot plus luggage.
- Offerings will include specific configuration options to address mission requirements for civil and military operations.
Our Take on Boeing NeXt and Aurora
Aurora Flight Sciences is unique - it is a medium size company, with around 470 employees, and is now a Boeing subsidiary under the Boeing NeXt technology ventures arm. Furthermore, Aurora has completed a number of other theoretical and physical design projects, including autonomous, novel flight control, and novel configuration - all components that require mastery and experience in to successfully design a competitive eVTOL. The first test of the full scale prototype was on January 23rd, 2019 in Manassa, VA.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022EHang 216
Quick SummaryThe Ehang AAV is the largest autonomous aerial vehicle that Ehang, a Chinese company with a large wealth of experience in drone manufacturing, has designed and flown to date. Ehang mostly specializes in smaller drone technologies, but has scaled their experience and product with the AAV. EHang has conducted successful flight tests in extreme environments, including a typhoon, and...

EHang 216

Quick Summary
The Ehang AAV is the largest autonomous aerial vehicle that Ehang, a Chinese company with a large wealth of experience in drone manufacturing, has designed and flown to date. Ehang mostly specializes in smaller drone technologies, but has scaled their experience and product with the AAV. EHang has conducted successful flight tests in extreme environments, including a typhoon, and has hosted numerous public demonstration flights. The company is quite popular in China and is rapidly spreading their global influence, having conducted demonstration flights in Asia, the middle east, Europe, and North America to date.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless VTOL
Powerplant: All-Electric
Range: 22 miles with max payload
Top Speed: 80 mph
Propeller Configuration: 16 lift/thrust rotors (8 dual rotors)
Passenger/Payload Capacity: 2 Passengers, or 485 lbs total payload
Autonomy Level: Autonomous
Dimensions: 18' 4" wingspan, 5' 9" length
Other Information:
Flight Endurance: 25min (est)
Empty Weight: 793 lbs
Cruising altitude: 1600 ft (AGL)
Charging Time: 1 hr
Max Takeoff Weight: 1322 lbs
Materials:
Main frame: Reinforced composite material with carbon fiber and epoxy
Other components: aerial aluminum alloy
Interior:
Seat Depth: 1' 3"
Seatback Height: 2' 10"
Seatback angle: 95 degrees
Storage capacity: 18-inch backpack
Our Take on the EHang AAV
Ehang boasts more drone building experience than most other eVTOL manufacturers, and seemed to have benefited from approaching the eVTOL design process by scaling up their previous drone projects, designing an autonomous vehicle from the start, and conducting rigorous testing early and often. The company has rapidly filled a large product line and advanced drone technology in that time frame, despite being a relative newcomer to the aerospace industry when compared with other larger OEM's. Their strength in relationships with with Chinese local and national government officials and the CAAC has aided their progress, including the facilitation of a pilot program that offers limited aerial mobility operations in select cities along coastal China. Given the huge emerging market for on-demand transportation in China, and Asia in general, EHang has great potential to make a huge impact on the way people move. Furthermore, the recent explosion of ride-sharing services like Uber and Grab in Asia will aid in shifting public sentiment toward accepting on-demand transportation, regardless of mode.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Overair Butterfly
Quick SummaryOverair was founded in 2004 by Abe Karem, founder ofLeading Systems and Frontier Systems. At Frontier Systems, Abe led the development of Optimum Speed Rotor (OSR) technology and unmanned aerial vehicle (UAV) systems, as well as the A160 Hummingbird Optimum-Speed Rotor UAV, now owned by Boeing. Karem Aircraft became an independent company and rebranded as Overair Inc. in January...

Overair Butterfly

Quick Summary
Overair was founded in 2004 by Abe Karem, founder ofLeading Systems and Frontier Systems. At Frontier Systems, Abe led the development of Optimum Speed Rotor (OSR) technology and unmanned aerial vehicle (UAV) systems, as well as the A160 Hummingbird Optimum-Speed Rotor UAV, now owned by Boeing.
Karem Aircraft became an independent company and rebranded as Overair Inc. in January of 2020, following a $25 million investment by Hanwha Systems. Upon being approved for the investment, Hanwha Systems became a 30% owner of Overair, Inc. Overair has over 100+ years of combined aerospace engineering and management experience, as well as 20+ years of VTOL propulsion development experience. $150 million dollars of military and private funding of future tech development also aid the company.

Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL, Intercity
Powerplant: All-Electric
Range: 100 miles (161 km)
Top Speed: 200 mph (322 km/h)
Propeller Configuration: Quad tiltrotor with Optimum Speed Tiltrotor (OSTR) technology; large rotor, slow turning propeller.
Noise signature: "at low point of human hearing range"
Passenger/Payload Capacity: 1 pilot, 5 passengers
Autonomy Level: Piloted
Flight Control Redundancy: dual, triple in certain cases
Dimensions: Unknown
Certification Date: 2025
From Karem:
Our Take on Overair
Since Overair is a smaller firm than the large aerospace corporations that have dominated the industry for decades, they'll most likely be able to accommodate some of the requests that Uber has that other companies wouldn't. However, their largest hurdle is completing their preliminary design process and moving forward with production of a prototype and testing of the Butterfly. Overair currently plans to have an operable ride-sharing eVTOL aircraft available by 2025; their continued focus on battery and aerodynamic efficiency has the potential to give the Butterfly a economic advantage over the other competitors in the urban air vehicle market.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Volocopter 2X
Quick SummaryThe Volocopter 2X is one of the most visually remarkable eVTOLs today - featuring almost 20 propellers (18, to be exact) all arranged in a circular symmetrical pattern. Volocopter has been successful thus far in garnering public support and even in hosting ride-along events for high-profile individuals.CompanyCEOProduct NameVolocopter, based in Bruchsal, GermanyFlorian ReuterVolocopter 2XStage of DevelopmentPreliminary DesignPrototype BuildFlight TestingCertificationCommercially...

Volocopter 2X

Quick Summary
The Volocopter 2X is one of the most visually remarkable eVTOLs today - featuring almost 20 propellers (18, to be exact) all arranged in a circular symmetrical pattern. Volocopter has been successful thus far in garnering public support and even in hosting ride-along events for high-profile individuals.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless VTOL
Powerplant: All-Electric
Range: 17 miles
Top Speed: 62mph
Propeller Configuration: 18 independent electric motors and propellers
Passenger/Payload Capacity: 2 passengers, 350 lbs max payload
Autonomy Level: Autonomous
Dimensions:
7 ft height by 30ft rotor rim diameter
Cockpit: 10 ft length / 4 ft width / 4 ft height
Skids: 11 ft length / 6.5 ft width
Other Information:
Operating weight empty (OWE): 640 lbs
Rate of climb (@ MTOM): 9 ft/s
Altitude (service ceiling): ≥ 6,500 ft AMSL
Noise level: ~ 65 dB(A) at 250 ft
Safety and Redundancy:
Full aircraft emergency parachute
Multiple redundancy in all critical components such as propellers, motors, power source, electronics, flight control, displays
Highly reliable communication network between devices through meshed polymer optic fiber network (fly-by-light)
Composition/Structure:
Fibre composites; lightweight construction
Diameter of a single propeller: 5'10"
Power Supply and Battery:
Number of battery packs: 9 independent battery systems with quick release
Battery type: Lithium-ion battery
Power supply: 9 batteries supply 2 motors each
Max. charging time < 120 min
Fast charging time < 40 min
Battery changing system: Quick-change system; plug-in system
Battery cooling: Active air cooling
Engine type:
3-phase PM synchronous motor, brushless DC electric motor (BLDC)
Certification:
Light sport multicopter; German ultralight (UL)
Our Take on the V2X
Volocopter leverages engineering experience from Germany and a very successful marketing and placement campaign that has promoted its V2X eVTOL to a variety of potential customers worldwide. Most notably, the public demonstration of the V2X in Dubai attracted a large amount of attention and interest in the V2X, and the continuing high performance in flight demonstrations and testing should enable Volocopter to place themselves in a competitive spot for certification of their aircraft - one of the last hurdles they must clear before the V2X is produced and commercially delivered. Volocopter is absolutely an important eVTOL player to watch in the coming years.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Terrafugia Transition
Quick SummaryThe Terrafugia Transition is a flying car with foldable wings produced in Woburn, MA by aerospace company Terrafugia. Terrafugia is also working on future eVTOL prototypes, such as the TF-2 and TF-X. The Transition is named such because of the foldable wing mechanism that allows for the wings to stow for legal driving on US roadways and then extended...

Terrafugia Transition

Quick Summary
The Terrafugia Transition is a flying car with foldable wings produced in Woburn, MA by aerospace company Terrafugia. Terrafugia is also working on future eVTOL prototypes, such as the TF-2 and TF-X. The Transition is named such because of the foldable wing mechanism that allows for the wings to stow for legal driving on US roadways and then extended at an airport for "Transition" to flight mode.
Terrafugia, based in Woburn, MA, USA
Terrafugia Transition®
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Intercity fixed wing STOL
Powerplant: Rotax 912iS
Range: 400 miles
Top Speed: 100+ mph
Propeller Configuration: One pusher propeller
Passenger/Payload Capacity: 4 passengers
Autonomy Level: Piloted
Wingspan/Dimensions: 26.6 feet
Additional Information
Useful Load: 500 pounds
Maximum Altitude: 10,000 feet
Fuel Burn (at cruise): 5 gph
Dimensions (Drive Mode): 6.5’ x 7.5’ x 19.5’
Dimensions (Flight Mode): 6.5’ x 26.5’ x 19.5’
Funding (unconfirmed): $6.8M
*Note - Terrafugia was acquired by Geely Holdings Ltd in November of 2017. Read our article on the acquisition here.
Our Take on the Transition
Terrafugia is no stranger to the flying car market - their efforts to design and produce the Transition dates back to 2006 when a group of MIT engineers decided to create some truly revolutionary. The first flight of the Transition occurred in 2009. Following the first flight, improvements were made and another design iteration completed to yield a better flying car in 2012. Now, flight testing is ongoing and Terrafugia's last hurdle to clear before production of the vehicle is the regulatory one. All indicators lead to Terrafugia applying the Transition for FAA Type Certification in the US - which will be the one of the first applications by a manufacturer of a true flying car - which will definitely encourage and gain the attention of other eVTOL manufacturers who are planning their certification paths while attempting to take in some lessons learned from other companies. Terrafugia may have the most engineering and flight operations experience for flying cars of any company in the world today, which gives them a large advantage and insight into what requirements actually matter for driving their product to success.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Bell and Safran to Collaborate on Hybrid eVTOL Propulsion
Bell and Safran announced on Tuesday that they’d be working together on Bell’s new eVTOL system. Bell will be responsible for the design cycle, including manufacturing of the eVTOL, with Safran providing “a disruptive propulsion system”, according to Safran’s press release. Scott Brennan, Bell’s Director of Innovation, commented at a transit conference in Cologne: “This announcement is another proof point...

Bell and Safran to Collaborate on Hybrid eVTOL Propulsion

Bell and Safran announced on Tuesday that they’d be working together on Bell’s new eVTOL system. Bell will be responsible for the design cycle, including manufacturing of the eVTOL, with Safran providing “a disruptive propulsion system”, according to Safran’s press release.
Scott Brennan, Bell’s Director of Innovation, commented at a transit conference in Cologne: “This announcement is another proof point of our commitment to providing transportation of people and logistics in new, innovative and more efficient ways. Our work with Safran is a historical milestone for future transport solutions.”
While the announcement will undoubtedly aid Bell with their propulsion system, not much has been publicly released regarding their VTOL concept since the unveiling of the cabin of their Air Taxi at CES in January 2018 – detailed in TransportUP’s article here. This partnership leverages experience from Safran, but may also be Bell acknowledging the technical difficulties of hybridized eVTOL transport design and searching for heavy hitters in industry to provide a tailor-made solution.
Why it’s important: This announcement marks a large partnership between a propulsion and aerospace design company. While these partnerships are very common in the traditional aerospace industry, many eVTOL manufacturers are opting to insource their propulsion system to maintain complete control over the product that they’re designing. The Bell Safran partnership will certainly bring more experience and focused expertise to the table, but may also induce additional coordination challenges as integration of the eVTOL amplifies any small discrepancies that occurred during the design process.
Source
Workhorse SureFly
Quick SummaryThe Workhorse SureFly VTOL is a hybrid-powered personal transport vehicle being developed in Ohio, with a target entry to market price of less than $200,000. The vehicle is developed by Workhorse, a leader in electric and hybrid vehicle solutions. The SureFly uses 8 contra-rotating propellors to generate lift, and is roughly the same size as a pickup truck.CompanyCEOHQProduct NameWorkhorse...

Workhorse SureFly

Quick Summary
The Workhorse SureFly VTOL is a hybrid-powered personal transport vehicle being developed in Ohio, with a target entry to market price of less than $200,000. The vehicle is developed by Workhorse, a leader in electric and hybrid vehicle solutions. The SureFly uses 8 contra-rotating propellors to generate lift, and is roughly the same size as a pickup truck.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless VTOL
Powerplant: Gasoline combustion engine
Range: 60 minutes of continuous flight
Top Speed: 70 mph
Propeller Configuration: 2 propellers per arm, contra rotating. Eight independent motors with each propellor
Passenger/Payload Capacity: Two seater, 400lbs payload
Autonomy Level: Pilot operated, semi-autonomous
Other Information:
Empty Weight: 1100lbs
Max Takeoff Weight: 1500lbs
Dual Lithium Battery Packs: 7.5kWh each, for emergency landing power (5 minutes) in case gasoline generator fails
Ceiling: 4000 feet
Funding: Acquired by Navistar, which has $256M funding and 2 other acquisitions according to Crunchbase
Dimensions: Undisclosed
From Workhorse:
- Piloted Vehicle designed to carry pilot and passenger or pilot and cargo
- Fixed Prop Pitch and no transitional parts (No wings, tail, tilt rotor or tilt wings) for simplicity and safety
- Full computer and electrical system redundancy
- Ballistic Parachute
- Fuselage and props are carbon fiber for durability and light weight
- Gasoline Piston Engine drives dual generators to provide power to prop motors
Our Take on SureFly
Workhorse's SureFly VTOL conducted its first flight in May of 2018 and was moving forward with the FAA Type Certification Process until acquired by Moog (a Torrance, CA based aerospace controls manufacturer) in late 2019. While the company had not yet officially applied for a Type Certificate for the SureFly, it did operate the aircraft under an Experimental Type Certificate from the FAA. Although the project showed a fair amount of potential, not much information has been released regarding the future of the SureFly since it was acquired by Moog. Workhorse also makes electric pick up trucks, as well as last-mile drone delivery system, which it has also sold in part to Moog. According to Moog, the acquisition of these technologies will allow it to "more rapidly develop innovative system solutions to better support both existing and new customers in the aerospace market."
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022WISK Cora
Quick SummaryCora is an experimental airworthiness certificate holding flying taxi that is being developed in New Zealand. Google's Larry Page is backing the project, which evolved from Zee.Aero. Cora operates as an eVTOL flying taxi with deployable rotors for vertical takeoff and landing and a single pusher propeller for sustained forward flight.CompanyCEOProduct NameWISK, a California-based corporation, operated by Zephyr Airworks...

WISK Cora

Quick Summary
Cora is an experimental airworthiness certificate holding flying taxi that is being developed in New Zealand. Google's Larry Page is backing the project, which evolved from Zee.Aero. Cora operates as an eVTOL flying taxi with deployable rotors for vertical takeoff and landing and a single pusher propeller for sustained forward flight.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL
Powerplant: All-electric
Range: 25 miles
Top Speed: 100 mph
Passenger Capacity: Two passengers
Propeller Configuration: 6 lift propellers under each wing (non-tilting), 1 rear pusher-propeller for forward thrust.
Autonomy Level: Autonomous
Dimensions: 36ft wingspan
Other Information:
Operating Altitude: Between 500 ft to 3000 ft
Regulation: Cora has an experimental airworthiness certificate from both the New Zealand Civil Aviation Authority (CAA) and the United States Federal Aviation Administration (FAA). We are working with the CAA on further certification goals to bring an air taxi service to the commercial market.
Funding: $6.5M (unconfirmed), with backing from Google co-founder Larry Page
Our Take on Cora
Cora is poised for great success in the flying taxi industry - the biggest hurdle to overcome for the company at this point is regulatory. Cora made its first flight in October of 2017, and sparked a large amount of media attention. The path forward will be a pioneering one for the Mountain View, CA based company, as no other manufacturer has attempted certification with the New Zealand CAA (Civil Aviation Authority) that is known to date. If the company can successfully navigate this certification process and argue for equivalency under the United State's Federal Aviation Administration, KittyHawk has the potential to be one of the leading manufacturers of flying taxis to both private and commercial users. Additionally, the first flight of the KittyHawk Flyer drew even more attention to KittyHawk, as the Flyer requires no pilot.
References
The Latest News from TransportUP
MAGicaALL Motors Selected to Power CityAirbus NextGen
May 14, 2022FAA Issues New Guidance on eVTOL Certification
May 13, 2022AIR ONE Prototype Showcased at Kentucky Derby
May 13, 2022Virtual ATC Tower Training Opportunities for Aerial Mobility
May 11, 2022Boeing’s GoFly Flying Car Design Contest
The GoFly flying car design contest winners were announced on Thursday. The Boeing supported contest encouraged innovators and engineers to think outside the box to come up with novel solutions to personal transportation. All 10 winners received a $20,000 reward for topping out the more than 100 entires in the first phase of the contest. The second and third phases...

Boeing’s GoFly Flying Car Design Contest

The GoFly flying car design contest winners were announced on Thursday. The Boeing supported contest encouraged innovators and engineers to think outside the box to come up with novel solutions to personal transportation. All 10 winners received a $20,000 reward for topping out the more than 100 entires in the first phase of the contest. The second and third phases aim to have the winning teams design and build prototypes that will fly in 2019.
Boeing’s support of the contest is important because the aerospace industry will benefit from a no-idea-untouched format of competition that might allow some novel designs more consideration than normally given in established aerospace companies.
Greg Hyslop, Boeing’s Chief Technology Officer, stated: “The industry, from its inception, has thrived on good competition and innovation that is fueled by that competition. We need things like this to really spark the imagination of folks and encourage them.”
Why it’s important: Boeing’s acquisition of Aurora Flight Sciences in late 2017 was a clear indicator that Boeing was serious about investing and researching eVTOL flight. Now, the GoFly competition is furthering progress in the industry and creating connections between innovators and large OEM’s that will allow for a competitive, but constructive, atmosphere in which some of the best designs will actually be produced and introduced to the public.
Source
- Seattle Times
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