Results for: blade
Urban Aeronautics CityHawk
Quick SummaryThe Urban Aeronautics CityHawk is a hydrogen-powered eVTOL that uses two massive ducted fans (front and rear) for both vertical take-off and forward thrust, by pushing airflow as desired. The CityHawk has intended uses as an air ambulance, air taxi, and even military vehicle. Several full-size functional prototypes of the CityHawk have already been built and flown.CompanyCEOProduct NameUrban Aeronautics, based...

Urban Aeronautics CityHawk

Quick Summary
The Urban Aeronautics CityHawk is a hydrogen-powered eVTOL that uses two massive ducted fans (front and rear) for both vertical take-off and forward thrust, by pushing airflow as desired. The CityHawk has intended uses as an air ambulance, air taxi, and even military vehicle. Several full-size functional prototypes of the CityHawk have already been built and flown.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless VTOL
Powerplant: Hydrogen Fuel Cell
Range: 93 miles / 150 km + 20 minute reserve
Top Speed: 160 mph / 270 km/h
Propeller Configuration: 2 front and rear large ducted fans
Passenger/Payload Capacity: 1 pilot and 5 passengers, 1670 lbs (760kg)
Autonomy Level: Piloted
Dimensions: Undisclosed
Other Information:
Empty Weight: 1,170kg
Max Takeoff Weight: 1,930kg
Cruise Speed: 234km/h
Min. Fuel Flow: 280kg/hr
Max Fuel: 800 liters
Range (Pilot only): 360km + 20 min reserve
Estimated noise level at 150 feet: 76dBa
From the Urban Aeronautics Website:
Urban Aeronautics’ Fancraft™ technologies comprise an extensive portfolio of patented innovations that transform a basic ducted-fan design into the foundation for a new family of aircraft, uniquely suitable to urban environments, known as Fancraft™.
Three of the core aerodynamic breakthroughs are:
- A “Vane Control System” (VCS), that is comprised of a cascade of vanes at both the inlet and outlet of the ducts that can be deflected either in unison (top and bottom) or differentially to generate either pure side force or pure rolling moment. The ducts (front and back) can also be deflected differentially to generate yaw. The bottom line is that the VCS generates 6 degrees of freedom entirely independent of one another and, for the first time, we have a vehicle that can move sideways without the need to roll and vice versa. In addition, the VCS generates such a great amount of control power that the vehicle can withstand gusts of up to 40 knots.
- A set of louvers or similar devices at the front of the forward duct and rear of the aft duct that open during forward flight to allow the incoming flow to move through the duct and thereby greatly reduce drag to enable forward speeds of up to 120 knots.
- Close aerodynamic tailoring between the lift rotors and the fuselage whereby the fuselage itself functions as an airfoil and generates sufficient lift at high speed (50% of what the aircraft requires) to be able to off-load 50% of the needed lift from the rotors.
Our Take on the CityHawk
Urban Aeronautics has very high levels of aerospace experience on its team (including experts from Boeing and military development) and has completed flights of Cormorant drones which prove the concept for the passenger CityHawk. The company's mission statement: "To create, manufacture and market a family of VTOL, multi-mission, utility aircraft known as Fancraft™ that are capable of operating safely in complex urban and natural environments" is ambitious; yet the experience of the team and the proof of concept technology already in the air warrants the vision. Urban Aeronautics also recently partnered with Hatzolah Air, the world's largest volunteer emergency response organization, to design a version of the CityHawk made for emergency rescue missions.
Sting VTOL
Quick SummaryAt this time, the Sting VTOL is little more than an artistic concept design; there is scant commercial information that is readily available for this VTOL at this time. The blended wing body design aims to take advantage of greater efficiencies during cruise flight, which would be indicative of the VTOL's tailoring for medium to longer range trips as...

Sting VTOL

Quick Summary
At this time, the Sting VTOL is little more than an artistic concept design; there is scant commercial information that is readily available for this VTOL at this time. The blended wing body design aims to take advantage of greater efficiencies during cruise flight, which would be indicative of the VTOL's tailoring for medium to longer range trips as opposed to many other intracity VTOL use cases.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Intercity Winged VTOL
Powerplant: Undisclosed, ducted fan
Range: Undisclosed
Top Speed: Undisclosed
Propeller Configuration: Two vertical lift ducted fans, two pusher fans
Passenger/Payload Capacity: 4+ passengers
Autonomy Level: Piloted, semi-autonomous
Wingspan/Dimensions: Undisclosed
No specific technical details are available at this time. From the art concepts posted online, it appears that the Sting VTOL would utilize gas turbines that drive the fans in the Blended Wing Body (BWB) of the aircraft.
For a full selection of renderings of the proposed design, go here.
Our Take on the Sting VTOL
Based on the lack of available information on this VTOL, TransportUP does not have a current prospectus. As new information becomes available, this will be updated.
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September 24, 2023EAC Whisper
Quick SummaryThe EAC Whisper is a two seat eVTOL being developed in Caromb, France. The Whisper's design aims to provide the 'pleasure of rotorcraft flight without constraints of helicopter', by reducing noise levels, maintenance costs, and size. The EAC uses 8 rotors for vertical and forward thrust during flight. EAC plans to manufacture 10 units in 2020, 20 units in 2021, and 40 units in 2022....

EAC Whisper

Quick Summary
The EAC Whisper is a two seat eVTOL being developed in Caromb, France. The Whisper's design aims to provide the 'pleasure of rotorcraft flight without constraints of helicopter', by reducing noise levels, maintenance costs, and size. The EAC uses 8 rotors for vertical and forward thrust during flight. EAC plans to manufacture 10 units in 2020, 20 units in 2021, and 40 units in 2022. Expected price will be between 150,000 and 180,000 Euros.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Wingless VTOL
Powerplant: All-electric
Range: About 30 miles / 50 km (30 minutes of flight)
Top Speed: Undisclosed
Propeller Configuration: 8 electrically-driven lift/thrust rotors
Passenger/Payload Capacity: 1 pilot + 1 passenger
Autonomy Level: Piloted
Dimensions: Undisclosed
Our Take on the Whisper
The EAC Whisper is still in early design and testing stages, but the design methodology of the Electric Aircraft Concepts group is sound, following that of many other successful eVTOLs such as the Volocopter, Workhorse SureFly, and Lift Hexa. Although there has not been many news updates on the Whisper, the aircraft was present at the AERO 2017 show in Friedrichshafen, and published and videos of the first open air flight tests in November of 2018, which shows promise for the company's future.
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September 24, 2023Bartini Flying Car
Quick SummaryThe Bartini Flying Car is a member of McFly.aero - a flying taxi incubator company - that plans to develop an eVTOL with four ducted fans that swivel to provide power for vertical takeoff and landing but transition to horizontal positioning for accelerated forward flight. Lift is provided in horizontal flight by the body of the aircraft, the fans...

Bartini Flying Car

Quick Summary
The Bartini Flying Car is a member of McFly.aero - a flying taxi incubator company - that plans to develop an eVTOL with four ducted fans that swivel to provide power for vertical takeoff and landing but transition to horizontal positioning for accelerated forward flight. Lift is provided in horizontal flight by the body of the aircraft, the fans themselves, and the struts connecting the fans to the body.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL
Powerplant: battery powered
Range: 150km (battery) /55okm (hydrogen)
Top Speed: 162 kts
Propeller Configuration: 8 propellers, mounted on 4 swiveling fan ducts, each outputting 40kW
Passenger/Payload Capacity: 4 passengers
Autonomy Level: semi-autonomous
Wingspan/Dimensions: 4.5m x 5.2m x 1.7m
Additional Information
Range, km: †150
Payload, kg: 400
Take off weight, kg: 1100
Lift-to-drag: 4-5
Disc loading, kg/m: 2146
Battery weight, kg: 320
Battery density, Wh/kg: 200
Battery capacity, kWh: 64
Power output, kW: 320
Altitude above ground, m: 1000
Cruising speed, km/h: 300
Energy used for flight, kWh: 51
— hover (1 min for VTOL): 5.3
— cruise (30 mins): 45.9
Reserve energy, kWh: 13
Energy per 1 km, kWh:0.34
— per 1 km cruise: 0.30
— per 1 min cruise: 1.5
Our Take on Bartini
The Bartini Flying Car is one of the more novel flying car designs incubated by McFly.aero - most notably the decision to use ducted fans combined with a semi-lifting body resulted in a unique configuration. Additionally, the current design has a lift to drag ratio of 4/5 - which is aerodynamically very undesirable (normally an aircraft is designed to have a greater amount of lift than drag). This is most likely due to the configuration of the aircraft, and the lack of either a lifting rotor or some lifting surface, like a wing. Nevertheless, the Bartini Flying Car seems to have support from the McFly incubator, which is an umbrella to more than 10 other flying car manufacturers that plan on creating a network of air taxi hubs that feature shopping malls and other destinations that allow for greater connectivity between densely-trafficked areas.
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September 24, 2023Georgia Tech HummingBuzz
Quick SummaryThe Georgia Tech Hummingbuzz is a conceptual design for a human carrying hover bike that was part of the Boeing sponsored GoFly competition.CompanyProduct NameGeorgia Tech Student GroupHummingbuzzStage of DevelopmentPreliminary DesignPrototype BuildFlight TestingCertificationCommercially OperatingTeam BackgroundWorking together for two full semesters to design Hummingbuzz was a broad base of Georgia Tech undergrad and grad students: Yuanxin (Adam) Shen (AE), Shuyi (Suzie) Wang (ISYE), Brian Eberle (ME), Alistair Sequeira (AE). The effort was...

Georgia Tech HummingBuzz

Quick Summary
The Georgia Tech Hummingbuzz is a conceptual design for a human carrying hover bike that was part of the Boeing sponsored GoFly competition.
Stage of Development
Preliminary Design
Team Background
Working together for two full semesters to design Hummingbuzz was a broad base of Georgia Tech undergrad and grad students: Yuanxin (Adam) Shen (AE), Shuyi (Suzie) Wang (ISYE), Brian Eberle (ME), Alistair Sequeira (AE). The effort was headed up by AE professor Daniel Schrage, with mentoring from his colleagues Prof. Marilyn Smith and Prof. J.V.R. Prasad, and AE research engineers Apinut Sirirojvisuth, and Sylvester V. Ashok.
Our Take on the Humming Buzz
The GT HummingBuzz was one of the 10 winners of Phase I of the Boeing GoFly contest - a competitive world-wide effort that sought to explore innovative efforts in the world of eVTOL and personal urban transport. The team was awarded $20,000 to continue their design efforts and begin to build a prototype in Phase II of the project.
References
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September 24, 2023Flike
Quick SummaryThe Flike is a single person hover bike designed and built in Budapest, Hungary at the Bay Zoltan Research Institute. It uses three ducted rotors to propel itself vertically during takeoff and landing, and then tilt the vehicle at a forward angle and accelerate for horizontal flight. The first flight of the Flike was successfully executed on March 7, 2015...

Flike

Quick Summary
The Flike is a single person hover bike designed and built in Budapest, Hungary at the Bay Zoltan Research Institute. It uses three ducted rotors to propel itself vertically during takeoff and landing, and then tilt the vehicle at a forward angle and accelerate for horizontal flight. The first flight of the Flike was successfully executed on March 7, 2015 at Miskolc Airfield in northeast Hungary.

Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Hoverbike
Powerplant: All-Electric
Range: Undisclosed
Top Speed: 62 mph
Propeller Configuration: Three pairs of ducted propellers
Passenger/Payload Capacity: Single Passenger
Autonomy Level: Piloted
Dimensions: Undisclosed
Other Information:
Ceiling: 30 m (electronically limited)
Endurance: 60 min (range-extended version)
Take-off mass: 400 kg
Maximum Payload: 100 kg
Design load: +3 g (-1 g)
Our Take on the Flike
The Flike is a novel and well-backed project in Hungary - but not much has been made public with regards to its certification progress in the past few years. According to the government-funded institute, the project has a wide range of applications from hobby use to military deployment such as border protection, or even rescue operations. The Flike was successful during its multiple flight tests in 2015, so there is the possibility that a great deal of additional advancement has occurred since that time. Check back to learn more about the Flike as the Bay Zoltan Nonprofit releases additional information and media.
References
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September 24, 2023XTI Aircraft TriFan 600
Quick SummaryThe XTI TriFan 600 is a luxury, high-tech, long-range passenger VTOL aircraft being designed in Englewood, CO, USA. It uses three ducted fans to take off vertically, which then rotate to a horizontal position in order to facilitate forward flight. The TriFan features a private jet style interior and has been in development since 2012. Its intended use cases...

XTI Aircraft TriFan 600

Quick Summary
The XTI TriFan 600 is a luxury, high-tech, long-range passenger VTOL aircraft being designed in Englewood, CO, USA. It uses three ducted fans to take off vertically, which then rotate to a horizontal position in order to facilitate forward flight. The TriFan features a private jet style interior and has been in development since 2012. Its intended use cases are either for charter or private ownership.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged VTOL, Intercity
Powerplant: Hybrid-Electric. A single 1,000 shp (745 kW) Honeywell HTS900 turboshaft driving three generators, powering two 350 hp (260 kW) electric motors for the wing ducts and one each for the aft propellers.
Range: 1380 miles
Top Speed: 345 mph
Propeller Configuration: 3 ducted fans, 2 rotating
Passenger/Payload Capacity: Pilot + 5 passengers
Autonomy Level: Piloted
Wingspan/Dimensions: 37.7 ft / 38.7 ft
Our Take on the TriFan 600
XTI Aircraft has a solid leadership team and momentum from building the first prototype of their TriFan 600 VTOL. Their CEO, Robert LaBelle, came from helicopter manufacturer Agusta Westland Helicopters, gaining substantial experience leading the helicopter company. Since the TriFan uses a hybrid drive system (a combination of a turbine and electric propulsion system), there may be some additional integration challenges, but XTI's innovative turbines have been tried-and-true in both fixed wing and rotorcraft applications.
References
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September 24, 2023Audi and Airbus’ Air Taxi Approved for Testing
Audi and Airbus took a big step forward yesterday by signing a letter of intent with the government to test their Air Taxi project near the city of Ingolstadt. The letter of intent was signed by both companies in addition to the local government, firming up local political support to advance the Air Taxi project that has two industry magnates...

Audi and Airbus’ Air Taxi Approved for Testing

Audi and Airbus took a big step forward yesterday by signing a letter of intent with the government to test their Air Taxi project near the city of Ingolstadt. The letter of intent was signed by both companies in addition to the local government, firming up local political support to advance the Air Taxi project that has two industry magnates collaborating to produce a new product.
German Transport Minister Andreas Scheur stated:”Flying taxis aren’t a vision any longer, they can take us off into a new dimension of mobility. They’re a huge opportunity for companies and young startups that already develop this technology very concretely and successfully.”
Among benefits for the partnership were boosted technological activity in Germany and the long goal of traffic alleviation country-wide.
Audi and Airbus’ concept is called the Pop.Up Next, designed by Italian firm Italdesign – and is a modular eVTOL that has a detachable “base” made by Audi that serves as the car portion of the vehicle, driving it around autonomously after the Pop.Up component, manufactured by Airbus, lands on the base. The Pop.Up is a quad-rotor aircraft that Airbus is working on, in addition to their other eVTOL project, the A^3 Ventures Vahana.
Why it’s important: The Audi and Airbus partnership is further strengthened by the local government of Ingolstadt, and increasingly the tide is turning in favor of positive regulator and government relations with eVTOL manufacturers. This relationship is critical to the success of the flying car and taxi industry, as no product will ever become commercially viable without some level of support from regulators and political officials. In Germany, that’s happening already.
Source
- CNET
- Image // AutoEvolution
Dufour aEro2
Quick SummaryThe aEro2 is one of Dufour Aerospace's eVTOL concepts currently under development. It is a winged eVTOL that uses two variable angle propellors mounted on the wing of the aircraft that swivel to provide vertical thrust for takeoff and landing and then transition to a horizontal orientation to facilitate acceleration to forward flight. Dufour is also known for successfully...

Dufour aEro2

Quick Summary
The aEro2 is one of Dufour Aerospace's eVTOL concepts currently under development. It is a winged eVTOL that uses two variable angle propellors mounted on the wing of the aircraft that swivel to provide vertical thrust for takeoff and landing and then transition to a horizontal orientation to facilitate acceleration to forward flight. Dufour is also known for successfully designing and flying other conventionally configured electric aircraft, and looks to build on the success of its aEro 1 electric CTOL aerobatic plane.
Stage of Development
Preliminary Design
Technical Details
Aircraft Type: Winged eVTOL
Powerplant: Hybrid or All-Electric
Range: 500 mi (hybrid mode) 75 mi (full electric mode)
Top Speed: 200mph
Propeller Configuration: 4 propellors distributed along a tilt-wing
Passenger/Payload Capacity: Single Passenger
Autonomy Level: Optional Pilot
Dimensions: Undisclosed
From the Dufour website:
Our aircraft uses a proven tilt-wing design concept which keeps the wings constantly under airflow and therefore offers outstanding stability and control even in very slow flight. An efficient tail fan provides pitch control in hover flight and ensures that aEro 2 is robust against changes in center of gravity and gusty conditions.
Four motors (two on each side) provide redundancy, with each motor temporarily able to provide twice the power to keep full hover capacity in case of a failure. The laminar airflow around the wing makes it less vulnerable to vortex ring state, strong wind and gust conditions in hover than any other aircraft.
The unbeatable visibility makes it safe to operate in congested areas and gives the passengers a wonderful view.
Multiple redundancy
Even without electric motors running the aircraft is still under the pilot's control: unlike a multicopter, the conventional plane configuration guarantees flight safety in multiple ways. If 1 or 2 motors fail on one side, or even if 3 motors fail the aircraft is still fully controllable and can make an emergency short landing within a couple of dozens of meters. And even in glide configuration aEro 2 is fully controllable and glides at a 1:12 ratio (like today's single engine light airplanes). Finally, the integrated parachute guarantees the last line of safety.
Operational safety is also paramount: similar to a helicopter, for the safety of passengers and bystanders, the rotors are positioned above head height. The passenger compartment is a strong monocoque construction and the landing gear can absorb impact energy if necessary.
Our Take on the aEro2
Dufour did what many other eVTOL manufacturers did not - they built a full size electric proof of concept conventional aircraft, named the aEro1, prior to moving forward with an eVTOL configuration. The company's iterative approach to testing its electric propulsion technology first on a proven configuration has evidently paid dividends, as shown by the success of its aEro2 eVTOL flight test program. As of July 2020, Dufour has just completed the first phase of flight testing of its VTOL technology demonstrator aircraft. Over the course of 550 test flights, expanding the flight envelope incrementally, the aEro2 demonstrated a high degree of stability and control in all conditions, including transitions from hover to cruise and back again.
References
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September 24, 2023PAL-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.
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September 24, 2023KittyHawk 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
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September 24, 2023Airbus 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
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September 24, 2023FAA authorizes Zipline for initial BVLOS drone operations
September 24, 2023United 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 was kept predominantly under wraps from the public during the design phase, but in December of 2020, the company announced Military Airworthiness Certification for the S4 and simultaneously the company's acquisition of the Uber Elevate project. Joby's team is extremely experienced and has...

Joby Aviation

Quick Summary
Joby Aviation is a Santa Cruz, CA based company developing the Joby S4 eVTOL. The S4 was kept predominantly under wraps from the public during the design phase, but in December of 2020, the company announced Military Airworthiness Certification for the S4 and simultaneously the company's acquisition of the Uber Elevate project. 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 now one of the most well-funded eVTOL developers in the world. Notably, Joby has received its Part 135 Air Carrier Certificate from the FAA, and has begun forming infrastructure partnerships around the U.S to begin commercial operations.
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
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September 24, 2023Lilium Jet
Quick SummaryThe Lilium Jet is an electric vertical take-off and landing aircraft designed and manufactured near Munich, Germany. The Jet features 36 ducted electric vectored thrust (DEVT) 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. The prior 5-seat variant...

Lilium Jet

Quick Summary
The Lilium Jet is an electric vertical take-off and landing aircraft designed and manufactured near Munich, Germany. The Jet features 36 ducted electric vectored thrust (DEVT) 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. The prior 5-seat variant aircraft is defunct and the company is now pursuing plans to have a 7-seat model and 16-seat model variant of the Lilium Jet.
Lilium, a Munich, Germany based company founded in 2015.
Stage of Development
Preliminary Design
Technical Details
5-seater specifications:
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 for future implementation, however the aircraft is currently piloted
Dimensions: 36 ft wingspan
7-seater specifications:
Aircraft Type: Winged VTOL
Powerplant: All-Electric
Range: 250+ km / 155+ miles
Top Speed: 280 km/h / 175 mph
Propeller Configuration: 36 ducted fans
Passenger/Payload Capacity: 1 pilot; 6 passengers
Autonomy Level: Piloted
Dimensions: 36 ft wingspan
From Lilium's Technical Overview
- Zero operating emissions
- Architecture benefits:
- Aerodynamic efficiency - With fixed wings, embedded distributed propulsion, and no tail, the Lilium Jet is highly efficient in cruise flight
- Market-leading payload - Ducted engines provide a high payload at low footprint, enabling the use of existing helipads
- Low noise profile - Acoustic liners help capture and dissipate noise before it reverberates into the environment
- Ducted electric vectored thrust
- The proprietary technology at the core of the Lilium Jet is Ducted Electric Vectored Thrust (DEVT) which we have refined through successive generations of aircraft demonstrators. Electric jet engines integrated into the wing flaps provide advantages in payload, aerodynamic efficiency and a lower noise profile, whilst also providing thrust vector control to manoeuvre the Lilium Jet through every phase of flight.
- Underlying engine technologies
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Traditional jet engines power 95% of commercial aircraft and we have based our design on the same principles, yet far simpler.Our electric jet engines rely on just a single "stage" rotor/stator system driven by an electric motor with zero emissions
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- Designed for versatility
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The Lilium Jet can adapt for a range of customers and uses, with each configuration optimized for an unparalleled experience. The most spacious cabin arrangement is designed for private flights, with luxurious club seating. Alternatively, the cabin can be configured with 6 seats for passenger flights, or without seats to serve the zero-emissions logistics market.
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"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 amongst a handful of leading eVTOLs in the aerial mobility industry, and is sleek, fast, and successful thus far in flight testing. Lilium has produced a very viable prototype eVTOL with a target entry to market of 2025, and completed the first manned flight of its five-seater aircraft in early 2019. The company has gone to great lengths to intentionally design key features of the vehicle to align with the expected customer experience and seamless integration in to an urban operating environment, while also ensuring to make no compromises in safety. In 2020, the company was valued at over one billion USD and deemed to be a "unicorn" in the financial sector. Since then, Lilium has largely lived up to its reputation, though there is still significant runway ahead of them before the Jet can be implemented in commercial use-cases.
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