Latest Thread
Depends on the receiving antenna. It can jam if it is omnidirectional antenna like you have on your phone. It will not jam if it directional antenna like your satellite dish antenna.Can the alrborne electronic attack planes like compass call,or Turkish hava soj can disrupt links beteen satallite and UAV?.
Bro, how are they going to fly a flying wing in supersonic domain? Anka-3 is a flying wing. The wing thickness will have to be so thin that it is not feasible for constructional stability if supersonic flight is expected from a flying wing.
A sans vertical stabiliser delta wing design, may be! Then you have the lack of control surfaces to give you manoeuvrability. But it is then possible. But that won’t be Anka-3.
There are NO supersonic flying wings in real life. Both Chinese H20 and B21 are subsonic aircrafts.
Anka-3 is seen as both a military asset and a testing platform for cracking new technologies (stealth, sensor positioning, flying wing stability). Maybe TUSAS will add wing tip control surfaces, maybe TUSAS will use active controlling with targeted jets on control surfaces, or maybe 2D,3D vectoring will come into the picture. TUSAS wants a highly stealth wingman that can supercruise together with KAAN. The latest idea was to turn Anka-3 into a dual-engine aircraft with stronger engines.Bro, how are they going to fly a flying wing in supersonic domain? Anka-3 is a flying wing. The wing thickness will have to be so thin that it is not feasible for constructional stability if supersonic flight is expected from a flying wing.
A sans vertical stabiliser delta wing design, may be! Then you have the lack of control surfaces to give you manoeuvrability. But it is then possible. But that won’t be Anka-3.
There are NO supersonic flying wings in real life. Both Chinese H20 and B21 are subsonic aircrafts.
Not necessarily bro!If for some reason you want your flying wing to be supersonic, you most probably need to put engines with afterburners on it
Bro, those are a lot of “may be”s !Maybe TUSAS will add wing tip control surfaces, maybe TUSAS will use active controlling with targeted jets on control surfaces, or maybe 2D,3D vectoring….
Not necessarily bro!
An aircraft can go supersonic without afterburners. (Supercruise). All you need is diverging nozzles. When the nozzle opens up the air going through it becomes supersonic.
In fact it is possible to go low supersonic without diverging nozzles for a short while.
Bro, designwise Anka-3 is a flying wing. It can’t supercruise. Full stop.You’re right, an aircraft can supercruise, but what about a fully loaded Anka-3 with one TF-10000 ? Do you think it can realistically supercruise or will it need it’s afterburner ?
I am familiar with all the points you made, and I read the bi-directional flying wing paper when it was released. However, I keep hearing that Anka 3 will go supersonic, and TUSAS is working on something. If you look at ANKA-3, it is not a conventional flying wing design. It is a delta wing flying wing hybrid. It looks like a triangle/big single piece of delta wing, with an aggressive sweep angle. An aggressive sweep angle is related to higher speeds. There are surely big questions to be answered, but i keep hearing this from multiple sources, both popular sources and sources inside the industry, that can't all be lying at the same time.Not necessarily bro!
An aircraft can go supersonic without afterburners. (Supercruise). All you need is diverging nozzles. When the nozzle opens up the air going through it becomes supersonic.
In fact it is possible to go low supersonic without diverging nozzles for a short while.
Bro, those are a lot of “may be”s !
But it doesn’t detract from the fact that technically, due to below stated primary reasons taken from various articles, it just isn’t feasible to build supersonic flying wings:
1. High Drag:
A flying wing design is inherently low drag, which integrates the fuselage and the wing into a single thick airfoil shape. This results in a large frontal area. Although this is efficient for subsonic flight, it creates significant wave drag as it approaches and exceeds the speed of sound, which requires enormous power to overcome.
2. Aerodynamic Instability:
Supersonic and subsonic aerodynamics are very different. At transonic and supersonic speeds, the centre of pressure makes the aircraft very unstable and difficult to control. Flying wings don‘t have vertical and horizontal stabilizers which are critical for stability and control at supersonic speeds.
3. Design Compromises:
To overcome the drag and stability issues at supersonic speeds, a wing must be very thin and long, like the ones on the Concorde or military jets. Such a design, however, performs poorly at low speeds (takeoff and landing), requiring a high angle of attack and faster landing speeds. A "flying wing" design optimized for cargo or passenger capacity (deep and thick) inherently compromises the sleek, low-drag shape needed for supersonic flight.
4. Control Surface Challenges:
The shock waves that form at supersonic speeds can make conventional control surfaces, especially at the wingtips, ineffective or even cause them to produce the opposite of the intended response, leading to potential structural failure and loss of control.
So consequentially, the complex engineering that is needed make it impractical and close to impossible to design a stable and efficient flying wing that is capable of sustained supersonic speeds without structural deficiencies.
The only technically viable solution to this dilemma is a biderectional flying wing that is described in NASA’s related article. This aircraft can go supersonic in fig 8 flight. And subsonic in fig 9 flight. In other words it has to swivel round to go supersonic or subsonic.
View attachment 78630
The Chinese CH-7 UCAV will have a longer range thanks to its wide wingspan, more fuel, and possibly a larger ammunition capacity in the mid-fuselage. This design seems like a logical design for stealth aircraft.I am familiar with all the points you made, and I read the bi-directional flying wing paper when it was released. However, I keep hearing that Anka 3 will go supersonic, and TUSAS is working on something. If you look at ANKA-3, it is not a conventional flying wing design. It is a delta wing flying wing hybrid. It looks like a triangle/big single piece of delta wing, with an aggressive sweep angle. An aggressive sweep angle is related to higher speeds. There are surely big questions to be answered, but i keep hearing this from multiple sources, both popular sources and sources inside the industry, that can't all be lying at the same time.
The rumored aircraft is supposed to have a dual engine setup, over 2x thrust and up to %30 increased MTOW. Supersonic cruise target is Mach 1.2-1.3.
Chinese CH-7
![]()
B-2 Spirit B-21 Raider
![]()
Anka 3
![]()
I can see where you are coming from. Anka -3 is not as wide as standard flying wing. It is more compact and a bit closer to a delta wing. But not quite. If you check the frontal exposed surface thicknesses of Anka-3 it is substantially thick. Even the end part of the wings are quite thick. That would cause so much drag related stress on the design that would give it problems if it tried to go.supersonic.I am familiar with all the points you made, and I read the bi-directional flying wing paper when it was released. However, I keep hearing that Anka 3 will go supersonic, and TUSAS is working on something. If you look at ANKA-3, it is not a conventional flying wing design. It is a delta wing flying wing hybrid. It looks like a triangle/big single piece of delta wing, with an aggressive sweep angle. An aggressive sweep angle is related to higher speeds. There are surely big questions to be answered, but i keep hearing this from multiple sources, both popular sources and sources inside the industry, that can't all be lying at the same time.
The rumored aircraft is supposed to have a dual engine setup, over 2x thrust and up to %30 increased MTOW. Supersonic cruise target is Mach 1.2-1.3.
Chinese CH-7
![]()
B-2 Spirit B-21 Raider
![]()
Anka 3
![]()
Actually, this makes a lot of senseWe know that ANKA-3 project started based on Boeing's UCAV Model 1303.
Now look what i have found.
Numerical study of geometric morphing wings of the 1303 UCAV
Why? What makes Ghost Bat more stealth?I have still problems with the design of Kizilelma. It doesn’t look “LO enough “ , less matured. Try to compare it with Ghost Bat.
As common knowledge canard may considered as an effecting factor in LO ... surface finishing is important as well (concerning surface finishing so far we have seen prototypes and ''production prototypes'' (KIZILELMA PT-series ) not wise to expect Boeing or TAI (once assigned to manufacture center fuselages of F 35 and now KAAN) manufacruring standards from Baykar overnight.I have still problems with the design of Kizilelma. It doesn’t look “LO enough “ , less matured. Try to compare it with Ghost Bat.
First, Ghost Bat looks from one piece. Second, the Air intake and fuselage looks seamless. Third, all the visible screws and rivets on Kizilelma. Fourth, the Radome is more flush mounted and less straight like be Kizilelma. And some more points I could count if you want?..Why? What makes Ghost Bat more stealth?
I thought that’s the final design of mass production.Current Kızılelme isn't the final form of Kızılelma.