PHOTON TORPEDO OPERATIONS The uses of photon torpedoes against natural and constructed targets are as varied as those devised for the Galaxy class shipboard phaser arrays. A complete examination of defensive and productive applications would require additional volumes dealing with specific celestial objects and Spacecraft Combat Maneuvers (SCMs), though the fundamentals are included here. Photon torpedoes are directed against Threat force targets at distances from 15 to nearly 3,500,000 kilometers from the starship. In docked flight, targeting data is gathered from the shipÕs various sensor systems and processed at FTL speeds in the main computers, then relayed through the Tactical bridge station to the forward and aft torpedo launchers. The automated reactant handling and torpedo loading into the launcher are managed by the tactical situation controller (TSC), in concert with the TA/T/TS. This dedicated section of the computer maintains regularly updated files of actual and simulated Threat tracking algorithms, firings, and battle damage reports, plus adaptive algorithms for new Threat targets. Tactical inputs determine the desired results from a list of basic menu choices, including nonstandard instructions, such as the option of computer-assisted manual torpedo flight control. WEAPONS CONTROL In Separated Flight Mode, the main computer in the Battle Section accepts a total handoff of control from the Saucer Module main computers, switching the duplicate situation controller to full active status. This allows uninterrupted control of the two launcher tubes. With the Battle Section no longer occupying the docking cavity, the single aft-firing torpedo launcher in the Saucer Module is open to space. The main computer tactical situation controller manages the firing of this launcher, designed to defend the Saucer Module in the event of attack away from the Battle Section. Since photon torpedoes are classified as semi-autonomous weapons, initial firing direction is not a major concern. Most firings involve direct fore or aft vectors, within ten degrees of the vehicle centerline. When required, rapid trajectory changes may be executed following launch to achieve target acquisition, cruise tracking, and terminal guidance. This is utilized with numerous preprogrammed starship maneuvers, momentarily disabling Conn bridge station attitude and translational panel inputs. Targets within twenty-five kilometers involve launch followed immediately by a fast breakaway to guarantee that the starship will remain outside the explosion hazard radius, which is variable with yield. Sensor blinding of pursuing Threat vessels can be attempted by aft volley firings of four or more weapons. Combinations of many factors, including warp or impulse velocity changes, volley firing spread angles, and warhead yield are sorted and matched to Threat vehicles. Targeting is directed by the Tactical Officer following command authorization. Target detection and prioritization are orchestrated by the Tactical Officer with interactive prompts and responses from the computers. Torpedo sensors and guidance circuits are configured by the tactical situation controller to sense specific EM and subspace energies, and will perform homing maneuvers most suitable to the scenario. While Threat defenses exist against photon torpedoes, including high-energy deflector shields and active torpedo countermeasures, improvements in tactical algorithm creation routines are constantly being applied. Phaser ÒdimplingÓ of a Threat shield can sometimes allow torpedo penetration for detonation within the outer shield layers, constraining the explosion and causing almost total vaporization of the Threat rather than vessel fragmentation. OTHER APPLICATIONS Photon torpedoes, being general energy release devices, have found their way into many other specialized applications. Reinforced torpedo casings are able to penetrate geologic formations for deep explosive modifications in terraforming and planetary engineering projects. Torpedoes are detonated as long-range sensor calibrators at both warp and sublight speeds. They are often used to divert or dissociate asteroidal materials designated as hazards to spacecraft and planets. Æ