I found myself about 10 seconds later hanging in the straps on about a 70-degree diving delivery. In my excitement I had failed to do the most important thing—fly the jet! I was able to shoot only about 50 bullets, not anything close to what I wanted to put down. They did impact the immediate target area, however. I asked Smokey if he had seen my bullets hit so that I could clear him in on a pass of his own. He came back with a negative, so I climbed back to altitude. This time I made sure that I was in a good position to roll in, and with two bursts—about 300 rounds—from the mighty GAU-8 the Giraffe slumped over, smoldering and resting on the same trees that had just provided it cover. The 81st had stuck its finger in Milosevic’s eye, and the monkey was finally off our back. It was nothing new for the A-10. As it has done in every war in which it has been involved, the Hog proved it had the ability to adapt to nearly any mission at a moment’s notice and have success, leaving some other high-tech jets stuck in orbit.
\Photo: Crew chief cleaning the canopy after the GAU-8 cannon had been used on a mission
Chapter 7.
TACTICAL INNOVATION
Introduction
The A-10 was a ridiculously simple fighter aircraft in its 1999 configuration, as well as the one used in OAF. When measured by twenty-first-century standards, its avionics suite lacked the gadgets that are standard in most modern fighters. There is a long list of what it did not have: GPS for precision navigation; a targeting pod for target identification or laser designation; a data link for receiving or passing target coordinates; a high-speed data bus for a moving map display; precision survival-radio-finding equipment for CSAR; and radar to provide precise target elevations for medium-altitude attacks or to find a tanker at night or in the weather. Its engines, not having been updated, continued to limit the Hog’s maximum airspeed to less than 225 knots at 20,000 feet. Even with this long list of have-nots, the A-10 retained some distinct advantages.
The Hog had abundant cockpit space for stacks of maps, mission materials, and gyrostabilized binoculars. It also had a big canopy on which to write, with grease pencil, the target area and striker information. We had a great mix of weapons, particularly the 30 mm gun and the Maverick missile, both optimized for our targets. We had great logisticians and maintainers to keep the jets in top shape and fully loaded. We had pilots who trained daily in a European environment and learned to capitalize on the A-10’s strengths, compensate for its shortcomings, and skillfully evaluate the ground situation. Notwithstanding these strengths, we still had to refine and develop a few new tactics and techniques during the course of our OAF operations.
Efficient cockpit organization was critical to expeditious target identification and attack. Each pilot had his own techniques and habits that worked best for him. These evolved as we compared and adopted each other’s tricks. For example, we needed a faster method to determine and pass target information critical to incoming fighters. After an A-10 AFAC located a lucrative target, he had to develop the data necessary for the FAC-to-fighter brief. To do so, while flying the aircraft, he would have to use a sequence similar to the following:
1. Find the general target area on a large-scale map (1:250) that had markings for each of the smaller-scale maps (1:50).
2. Determine which 1:50 to use.
3. Find the correct 1:50 among the stack of 16 such maps.
4. Study the terrain, roads, forests, power lines, and houses marked on the map to match the target area on the ground.
5. Read the coordinates, in Universal Transverse Mercator (UTM) format, from the scale on the map.
6. Write these coordinates on the inside of the A-10’s canopy in grease pencil.
7. Go back to the 1:50, follow the contour lines to determine the target elevation in meters, and write that on the canopy.
8. Use the Inertial Navigation System to convert the UTM coordinates to latitude and longitude, and write those on the canopy.
9. Use the HUD to convert the elevation from meters to feet, and write that on the canopy.
10. Finally, read the target information to the incoming fighters over the radio.
By contrast, F-16CG and F-14 FACs with targeting pods could simply point their laser designators at a target to determine its relative range, direction, and elevation. The aircraft’s avionics automatically integrate that information with its GPS information and instantly display target coordinates and elevation in the desired format. If the incoming fighters are equipped with a compatible data link, they could pass the information without even using the radio.