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installed in the Talon IIs cargo compartment, and the aircraft’s communication and naviga -<br />

tion systems will be upgraded.<br />

<strong>The</strong> most significant improvement scheduled for Combat Talon II is the installation<br />

of an aerial refueling system capable of refueling both helicopter and tilt-rotor aircraft.<br />

<strong>The</strong> refueling system installed on the Combat Talon I utilizes a refueling pod designed in<br />

the late 1950s that requires aircraft electrical power, hydraulics, and aircraft fuel pumps<br />

for proper operation. Although maintenance on the older pods is not complex, meantime<br />

between failures is low, thus requiring excessive maintenance actions to keep the pods<br />

operational. Fuel output rate is also dependent on fuel pressure generated by the aircraft’s<br />

dump pumps. To overcome the shortfalls of the Talon I pods, AFSOC began testing the MK<br />

32B-902E pod on a Hurlburt-based Talon II aircraft in 1999. <strong>The</strong> new pod has a “ram air<br />

turbine” that powers an internal fuel pump, thus eliminating the need to use the aircraft’s<br />

dump pumps. Also, the pod has a DC motor that operates the hose-reel assembly. <strong>The</strong> hose<br />

is retrieved by use of a hose-reel tensator spring, thus eliminating the need for aircraft<br />

hydraulic pressure. <strong>The</strong> new pod will be capable of supporting all refueling operations from<br />

105 knots to over 180 knots without having to land and change drogues. Because of its<br />

augmenting fuel pump, the pod will be capable of simultaneously passing over 150 gallons<br />

per minute of fuel to two receivers. <strong>The</strong> increased off-load rate will significantly reduce the<br />

time a receiver aircraft has to spend “on the hose” refueling. <strong>The</strong> programmed completion<br />

date for the modification is 2007 for the Talon II fleet.<br />

At its current utilization rate, the Combat Talon I will require a service life extension<br />

program (SLEP) to be initiated by 2007. At the present time, SLEP is not funded for<br />

Combat Talon I, which will mean that the older Talons will reach the end of their service<br />

life by 2015. With the SLEP, the aircraft will remain serviceable through 2025.<br />

<strong>The</strong> CV-22<br />

To augment the current Talon fleet, AFSOC has developed two initiatives that will provide<br />

flexibility and improved delivery capability. <strong>The</strong> first initiative is the CV-22. It is currently<br />

undergoing testing by a joint AFSOC/Marine Corps team, with the first four CV-22s scheduled<br />

for delivery to Kirtland AFB, New Mexico, in 2003. <strong>The</strong> revolutionary tilt-rotor aircraft will<br />

provide fixed-wing en route speed with the landing capability of a rotary-wing aircraft. It<br />

fulfills a long-standing USSOCOM requirement to be able to accomplish a long-range infiltration/exfiltration<br />

mission during one period of darkness. <strong>The</strong> extended range of the CV-22 (as<br />

compared to conventional rotary-wing aircraft) reduces its dependency on penetrating tankers.<br />

Its design also improves its survivability and reduces maintenance downtime. An added benefit<br />

is that the aircraft is self-deployable—it will fly to the fight instead of relying on sca rce<br />

airlift for transport as does the current rotary-wing fleet.<br />

<strong>The</strong> CV-22 has a terrain-following/terrain-avoidance radar capability similar to the<br />

Combat Talon. It also has an ECM suite that will protect it from enemy threats in hostile<br />

areas. Approximately 90 percent of the CV-22’s airframe and equipment is common to the<br />

Marine Corps’s MV-22, thus reducing the costs of future maintenance and improving the<br />

availability of parts. <strong>The</strong> CV-22’s performance is similar to the Combat Talon, with en<br />

route speeds of 230 knots and a service ceiling of 25,000 feet. It can carry 25,000 pounds of<br />

cargo, compared to 51,000 for the Combat Talon, with an unrefueled combat radius of 500<br />

miles compared to the Combat Talon’s 1,000 miles. Current planning does not have the<br />

CV-22 replacing any Talons, but rather it replaces the current AFSOC rotary-wing fleet<br />

(the MH-53 Pave Low and the MH-60 Pave Hawk). A total of 50 tilt-rotor aircraft have<br />

been funded, with the last four being delivered in 2009.<br />

<strong>The</strong> MC-X<br />

<strong>The</strong> twenty-first century provides many challenges for special operations aircraft, foremost<br />

among them is the growing threat by hostile forces. By 2015 most of the world’s<br />

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