^^^^Upravo ga ta bulumenta i ucila...
Citat dalje iz gornjeg teksta i fotografija:
Citat:U.S. Air Force Tech. Sgt. Rachel Youkey, center, oversees Afghan airmen as they load the rocket pod of a Mi-17 helicopter with rockets at Kandahar Airfield, Afghanistan, Nov. 13, 2011. Youkey is a munitions air adviser assigned to the 738th Air Expeditionary Advisory Group. U.S. Air Force phoro by Senior Airman Corey Hook
A sada nešto iz naftalina Ovo se nekada kačilo na posleratne avione. Oerlikon SURA-FL 80mm. Primetno je da su stabilizatori na sredini tela i služe za povezivanje raketa( pomoću useka u stabilizatorima)
... ali tokom lansiranja klize na svoje mesto i dolazi do odvajanja
Na sedmoj stranici ove teme pisao sam o projektu NRZ Laser Zuni tj. poluaktivnom-laserski vođenim projektilom sa glavom za samonavođenje oznake WGU-58/B.
Ovde imamo sličnu koncepciju poput Laser Zunija - laserski vođeni projektil pod nazivom APKWS (Advanced Precision Kill Weapon System) u kombinaciji sa NRZ Hydra.
Kako ovaj NRZ funkcioniše, slikovito je objašnjeno u promo-video klipu...
Citat:The new weapon, with a warhead that can punch through a wall and then explode, is expected to be operational on U.S. Marine Corps helicopters in Afghanistan as early as this spring.
BAE Systems expects to deliver its next batch of low-rate production Advanced Precision Kill Weapon System (APKWS) missiles directly to the U.S. Marine Corps for shipment to operational units. The first 325 low-rate production missiles were delivered to the Navy Department in December, and the second lot of 600 will be dispatched in early fiscal 2012. With the end of operational testing in January, a full-rate production decision for about 1,000 missiles a year is expected to follow early in the year.
“On the AH-1W Cobra it will fill the weapons gap between guns and the Hellfire,” says Maj. Ryan Schiller, former lead operational test director for Air Test and Evaluation Squadron-Nine (VX-9) at China Lake, Calif. Naval Air Warfare Center. “On the UH-1Y it will introduce a precision guided missile capability that is new for the Huey side of the house. The overall result is going to be a higher number of precision kills per sortie, and it will improve aircrew survivability due to increased standoff ranges. It also offers a low-yield weapon for urban conflict where collateral damage has to be minimized.”
So how does the magic work with a missile that is 29% of the weight and about 15% of the cost of the benchmark AGM-114 Hellfire missile? Part of the answer is lots and lots of warehoused missiles that are already paid for and can be easily modified.
BAE Systems came up with a mid-body addition – the WGU-59/B guidance section – that can simply be screwed into place between the existing warhead and Mk. 66 Mod. 4 rocket motor, says Lt. Col. Raymond Schreiner, lead test pilot for VX-31 at China Lake.
The mid-body guidance section has four small wings with flaperon flight-control surfaces on the trailing edge and an optical sensor on the leading edge of each.
“The wings provide heavy, stable platforms,” says Dick Venuti, BAE Systems' technical director for missiles and munitions solutions.
“When they open and lock, they become an optical bench. The missile’s accuracy depends on how much each wing doesn’t move.”
Key to the mid-body design was development of the Distributed Aperture Semi-Active Laser’s electronics stack and optics. The package is about the size of a soda can with guidance, seeker, computers and receiver electronics all connected through four fiber-optic bundles to the optical sensors on each wing.
During production, the wings and “eyeball” optics are folded and stored inside the missile where they are insulated with a “wing-slot seal” against weather, heat, particulates and blast damage from adjacent rockets. Before the missiles are loaded, they are updated with the laser code of the day.
During the launch is where a mid-body sensor array shows its value.
“Rockets with nose-mounted seekers have a tough time with adjacent rocket fire,” Venuti says. “It takes all the output of the rocket motor with its very corrosive, high aluminum content and puts it on the face of any exposed seeker. Inside the launcher, the overpressures were more than anyone expected. With APKWS, the missile interior is water-, pressure-, carbon- and aluminum-tight.”