Particle transporters
have been a standard part
of all Star Fleet ships and facilities for over 200 years. As
such, every officer should be familiar with at least the emergency
operation of transporters, and common sources of problems. There are
four types of Transporter: Personnel, Emergency, Group and Cargo.
Mechanics
Transporters use the ships
sensors to locate a target, then locks on and translates the target
into a particle stream which reflects the quantum state of the target.
The stream is transmitted into a pattern buffer, which holds
the target pattern as it is beamed to the destination site. Once the
transporter has engaged, the target is incapable of sensing or acting,
but it also cannot be permanently affected or harmed by its
environment. When transported, it arrives at the the same state it was
in when lock-on was established - except for errors, of course.
Cargo Transporters can also transport
humanoids, but are more often used for equipment and cargo - thus it is
more prone to error when transporting organic material.
Current Star Fleet transporters can complete their operation within 2.5 seconds under optimal conditions, with 4 seconds being the standard. A properly maintained pattern buffer can hold signals for up to 7 minutes without significant loss of information. The transporter controls are thus designed to abort transport attempts after 5 minutes. System reset and cool down after each transport operation requires 15 to 45 seconds. Operating ranges vary depending on the Transporter Type (below).
'Basic'
Operation
When the transporter is
activated the auto-seqeuncers instruct the Annular Confinement Beam
(ACB) to lock onto, then disassemble the subject into phased matter
(through the phase transition coils) causing it to take on an
energy-like state similar to plasma, called phased matter. During
this process, the Heisenberg compensators and the imaging scanners
monitor the constantly moving Quantum state of the matter while it is
sent into the energizing coils. Here, it goes into the pattern
buffer where and eventually through the biofilters.
The matter
stream is then sent through waveguide conduits to beam
emitters on the hull of the starship or base. From there on, the
rematerialization
subroutines kick in, and a transporter carrier wave (the ACB) is
relayed to a target point where the ACB reconstructs the
subject.
It is important to note that Doppler Compensators selectively control the beaming of a person to and from a starship while it is moving (as in the term "Doppler effect"), and controls how much power goes in and out of the ACB to the phase transition coils to compensate accordingly.
The Energizer Coils determine the resolution of the object's materialization/dematerialization - including speed and reliability. All transporters have a chance of failure. Better Coil classes decrease that chance, but it can never be zero.
Chance of error increases substantially in case of battle; subspace or electromagnetic interference; excessive volume/speed/range of use. In such cases, errors can be much more of a danger, especially when transporting volatile or explosive substances. Errors can occur in three places: during translation, during holding, and during reintegration.
Translation errors usually result from sudden sub-space distortions. These errors manifest as changes in the target on a quantum level, and are usually unnoticeable. However, errors in an explosive substance could cause it to react before translation is complete.
Holding errors are rare, usually resulting from damage or improper maintenance of equipment. Safety restrictions preclude scanning or tampering with the pattern buffer. (The buffer uses an analog medium which could easily be altered by an intrusive scan). A passive sensor records the mass and rough density distribution of the transported objects, and automatically logs that information.
Reintegration errors
are cause by sudden changes of the
conditions along the path to the destination point. These normally
cause the transport to abort and retrieve the target, but sometimes
other problems may cause this to become impossible.
Type |
Range
(KM) |
Requirements |
1 |
10,000 |
EPS "basic" class or above ODN "basic" class or above |
2 |
15,000 |
Unavailable before 2240 |
3 |
20,000 |
Unavailable before 2260 |
4 |
25,000 |
Unavailable before 2280 EPS "standard" class or above ODN "standard" class or above |
5 |
30,000 |
Unavailable before 2300 Cannot transport unstable biomatter |
6 |
35,000 |
Unavailable before 2350 Cannot transport unstable biomatter |
7 |
40,000 |
Unavailable before 2370 EPS "high" class or above ODN "high" class or above |
8 |
45,000 |
Unavailable before 2380 |
9 |
50,000 |
Unavailable before 2390 |
10 |
55,000 |
Unavailable before 2400 |
Type |
Range (KM) |
Max. Mass
(KG) |
1 |
10,000 |
300 |
2 |
15,000 |
300 |
3 |
20,000 |
400 |
4 |
25,000 |
400 |
5 |
30,000 |
400 |
6 |
35,000 |
500 |
7 |
40,000 |
500 |
8 |
45,000 |
500 |
9 |
50,000 |
600 |
10 |
55,000 |
600 |
Type |
Range (KM) |
1 |
5,000 |
2 |
8,000 |
3 |
11,000 |
4 |
14,000 |
5 |
17,000 |
6 |
20,000 |
Class |
Reliability |
A |
90% |
B |
91% |
C |
92% |
D |
93% |
E |
94% |
F |
95% |
G |
96% |
H |
97% |
I |
98% |
J |
99% |
Location | Works alongside / inline with the Heisenberg Compensator. |
Function |
|
Limitations |
|