|

Buckingham-Class Starbase
UNITED FEDERATION OF
PLANETS:
STARFLEET DIVISION
Advanced Technical Specifications for
the Buckingham-Class Production Emplacement

|
Accommodation: ~20,000 stationed
personnel, 2,500-5,000 visiting personnel, varying civilian population
Classification:
Support Station
[Support/Economic/Defensive/Diplomatic]
Funding
for Buckingham Class Development Project Provided by:
Starfleet, Daystrom Institute of Technology, Jupiter Station Research
Facility, Advanced Starship Design Bureau, Federation Council
Development
Project Started: 2271
Production
Start Date: 2271
Prototype
Commissioned: 2288
Production
End Date: Still in Production
Current
Status: In Service
|
Locations of Major Buckingham-Class Manufacturing
Facilities:
Earth
Station McKinley, Earth; San Francisco Fleet Yards, Earth; Utopia
Planitia Fleet Yards, Mars; Venus Construction Yards, Venus; Baikonur
Cosmodrome, Earth; Newport News Fleet Yards, Earth; Cosmadyne Yards,
Boston; Pederson Spaceport, Copenhagen; Port Copernicus Fleet Yards,
Luna; Chandley Works, Caravalia; Axaanivus Cesleco Starcraft, Bedii
Plains, Alpha Centauri V; Tellar Fleet Yards; Seskon Trella, Chagala;
Andor Fleet Yards; Chiokis Starship Construction, Thelavor; 40 Eridani
A Fleet Yards; Shor Ta'kel, Central Docks, 40 Eridani; New Aberdeen
Fleet Yards; Antares Fleet Yards, Antares IV; Beta Antares Yards,
Antares IV; Avondale Group, Ferrata Docks, Rigellium, Rigel II; Alfras
Fleet Yards, Deneb V; M'Yengh Yards, Shzerensohr, Cait; Betazed Fleet
Yards, Starbase G-6; Trill Fleet Yards, Trill; Starbase 12
Current
Starship Identification and Registration Numbers:
- Deep
Space 102 - DS 102
- Arcadia
Station - SB-101
- Morgan
Le Fay Station - DS-168
- Denali
Station - SB-190
Former
Starship Identification and Registration Numbers:
|
CONTENTS
1.0
BUCKINGHAM-CLASS INTRODUCTION

1.1
MISSION OBJECTIVES
Pursuant
to Starfleet Directives 905.5 & 910.3,
Starfleet Defense Directives 138.6, 141.1 & 154.7, and
Federation Security
Council General Policy, the following objectives have been established
for the
Buckingham class station:
- Provide a fixed platform for a wide range of
ongoing scientific and cultural research projects.
- To replace aging K Series stations in their role as
fleet support stations.
- Provide autonomous capability for full execution of
Federation policy options.
- Provide an adaptive modular design capable of
performing only those jobs necessary to the locale of the station and
capable of being built off site and towed in modular sections.
- Provide civilian commercial traffic refuge,
resupply, and navigational assistance.
- Provide point for local government where none is
apparent or available.
1.2
DESIGN STATISTICS

Length:
not
available [this measurement is dependent upon the modules connected]
Width: 1142 meters
Height: 1713 meters
Weight: 80,220,400 metric kilotons
[main hull only]
Hull:
Duranium
microfoam and tritanium plating
Number of
Levels:
82.
1.3
GENERAL OVERVIEW

The
Buckingham class station is the
Federation's largest production station, and only second to the Taj
Mahal
Class in size [the Taj Mahal never went into full production]. Their
purpose is
to support Federation, Starfleet, and allied vessels within the area.
This
support ranges from refueling and resupply to refit in some cases.
These
stations also serve a vital economic purpose, with their onboard
manufacturing
systems. At the same time, the stations can also stand in as a seat of
government providing control for commerce in the area. As with all
Starfleet
installations, Buckingham class stations serve a
vital defensive &
diplomatic purpose as well. Such a large facility can perform support
tasks that
can keep an entire fleet of starships working against a threat force.
At the
same time, the actual presence of a Federation installation of this
scale within
reach of many diplomatic attach�s make these stations important centers
for
diplomatic exchange.
1.4 CONSTRUCTION HISTORY

Long before the mid 24th
century, when these stations came into their full use, Starfleet saw
the future
need. When Spacedock 1 was designed in the 2260's, Starfleet realized
the great
potential of having orbital stations throughout the Federation. But
when
planners calculated the entire project's cost, the numbers were too
much for
anyone to sign off on. It was decided to use another design for the
station. In
2271, when the splinter Buckingham Class projected began Starfleet
called for a
review of all designs that were submitted for Spacedock 1. Many designs
within
the group met the requirements Starfleet had set, but this didn't
satisfy
Starfleet. Starfleet included modular adaptations just as the process
was ready
to be completed near mid March. Fortunately Starfleet narrowed the
canidates
down to three designs at this time which were easily modified into
modular
stations.
Before June of 2271 rolled
around the design had been approved, jobs divided among contractors,
plans drawn
up for manufacturing facilities, and construction start on those
facilities. Due
to Starfleet bookkeeping policies it was decided to mark the
construction of the
manufacturing facilities as the beginning of production for the
Buckingham
Class, even though the first set of modules was not completed until
2283, and
that was just for the prototype. Another main hull was not completed
until two
years later. However once the manufacturing facilities were completed,
full
production was possible. Starfleet ordered that production slow while
the
prototype was being docked together.
It took nearly fifteen years
to complete the prototype, which was manufactured at over thirty
different
facilities into pre-fabricated components. Most of these parts were
assembled
into various modules at those facilities. These modules were
transported to
Sector 029 by Ptolemy Class tugs, where they were
docked in 2284. There
were only a few small problems noticed in the prototype, those of
concern were
the docking latches on the lower disk modules. These latches were
unable to
handle the stress that the schematics had originally predicted. This
was most
likely due to the fact that a different manufacturer built each module.
The
solution that Starfleet adopted was to reduce the amount of modules
each station
could have. The stresses created by the station maneuvering were
solved. Other
problems were reworked in similar fashion, including the addition of
more
utility generators [such as power, structural integrity field, inertial
dampening field, and gravity generators] to the docking bay. These
changes were
all included in the first production station that was assembled in 2285
within
1000 meters of a a K series station which was to be decommissioned
(interestingly enough this particular K-series station was not
immediately
decommissioned when it's neighboring Buckingham Class became fully
operational.
As was the case until about 2330, both stations continued working side
by side,
but the last case of this symbiosis ended in much ceremony in 2330).
Starfleet was satisfied with
the results of the changes and ordered nearly two hundred stations to
be built
across the Federation. The large percentage was placed well within
Federation
boarders, but some were built out slightly further. These were not deep
space
stations, but were far enough out to become major stepping-stones in
exploration
into deep space outside of Federation territory.
2.0
COMMAND SYSTEMS

2.1 OPERATIONS
General
Overview: Primary operational
control for the Buckingham Class station is
provided by Operations
located on Level 8. Operations directly supervises all primary mission
operations and coordinates all departmental activities.
Layout:
The current standard
Buckingham Class layout is as follows. In the center is the
Command area
with a circular station. Located here is seating for the command staff
when they
are present in Operations. This large station provides those at it with
access
to status and other station information. There is also an auxiliary
internal
communications control here.
The
operations center is a large dome in most
cases, and thus has a layout that sometimes negates the terminology of
forward
and rear. But the front part of operations is considered to be where
the main
viewer is located, and in the rear is the exit for the Captain's Ready
room.
In
the front area below the main viewer is a
group of stations. The chief positions here are for the Station's
Flight Control
officer and the Chief of Operations. Some other stations surrounding
them
include Sector Control [a station that monitors those ships within a
twenty
light-year radius], Space Dock Control [a station that closely monitors
each
ship within the docking bay and their current status], and Primary
Station
Status Control. Primary Station Status Control is a large transparent
schematic
between these stations and the command area. It is low enough to allow
an
unobstructed view between the command area and the main viewer. Its
purpose is
to quickly display the station's status, much like a master systems
display
screen would on starship bridges. There are control panels at the
bottom of this
large screen.
To
the left of the command area is Tactical and
Security. These two stations have control over two areas separately and
one area
jointly. The docking bay is the area of joint responsibility. Both
stations have
the responsibility to protect the station and those ships in the
docking bay at
all times. Security has the same responsibility to protect the station
from
internal threats, while tactical is oversees those threats that are
external.
Included with these stations is a read out on all reported civilian
issues.
To
the right of the command areas is the
engineering and science station. The Engineering station uses many of
the
auxiliary stations next to the Operations station, such as Space Dock
Control,
to check up on the ships in the docking bay being repaired, refueled,
or
resupplied by the station's Engineering department. Between the
engineering
station and the science station is Environmental Control and Library
Computer
access [a dedicated station specifically used for research of the
station's
library files]. The Science station is on the other side of these two
auxiliary
stations from the engineering station.
Other
stations scattered throughout Operations
are Communications Control, Cargo Control, and Shuttle Control. There
are five
turbolifts leading out of Operations; one is an emergency turbolift
that leads
directly to the secondary command center, two lead to separate areas of
the
docking bay, and two others lead to areas around the rest of the
station. The
Conference Room and Bridge Head egress is near the Captain's Ready Room
at the
back of Operations.
While
there is a seating station for each
member of the Senior Staff, most of them do not take up regular posts
here. The
CEO and CMO for example will remain in Engineering and Sickbay
respectively. The
CNS will also be less likely to visit this area of the station as their
responsibility leads them elsewhere, especially in the area of
Civilian-Crew
Communications. The CSO also is kept busy with duties outside of
Operations;
these usually revolve around the direct supervision of scientific
experiments on
board as well as review of scientific reports from teams aboard
Starfleet
vessels across the Federation. For the most part, the CO is also busy
within his
office. The other members of the Senior Staff usually
work from this location of
the station.
2.2
MAIN ENGINEERING

General
Overview: Main Engineering is
located on Level 2 of the Buckingham Class. Its
primary purpose is to
be the central point for control of all engineering systems, especially
those
relating to power generation. Here is located the Matter Antimatter
Reaction
Chamber also known as the Power Core. The fact the station is so large
has led
to the necessity of each primary and secondary system having a
dedicated console
for monitoring and control. These systems are so important, and so
large, that
monitoring them becomes ever more important over repairing them. These
consoles
are grouped together by specific criteria. Most of the secondary
systems are on
the walls, while the primary systems have table-monitoring stations.
The
categories that are usually grouped together are Power Generation,
Environmental, Tactical, Ship Support, and Repair &
Maintenance. Main
Engineering is also the location of the Chief Engineer's office.
The
Power Core is a horizontal shaft that takes
up almost two full Levels in diameter and its length almost reaches
from hull to
hull between the injectors. Deuterium and antimatter tanks within the
lower part
of the docking bay feed the core. When the reactants reach the core's
reaction
chamber they'll react and power will be sent through the power transfer
conduits
and the Electroplasma system. The power transfer conduits carry the
load first;
this allows greater efficiency over the long distances it must travel
through
the station. This also allows for a greater amount of ships to be
powered
directly by the station's main core.
During
emergencies Main Engineering can be
turned into a command and control center by converting a number of
consoles to
duplicate the stations in Operations. The software is already preloaded
onto
these consoles and each station has specific procedures in place in
case a
situation warrants.
2.3 SPACEDOCK

Spacedock
is located at the very top of the
station. It is among the station's primary responsibilities. Ships
enter the bay
by two opposing doorways. Spacedock is separated into multiple areas
known as
Tiers. The highest point, just below the Subspace Antenna and Long
Range Sensor
Array, is called Spacedock Engineering. This is where all the support
systems
for the docked vessels are located.
Extending
down inside the bay is a pillar from
this point until the bottom. Almost everything is located in this
pillar. Just
below the Spacedock Engineering area is the Capital Ship Docks, these
are
specifically designed to service Starfleet vessels, allied fleet
vessels, and
any diplomatic vessels that visit the station. The next location is the
control
area for the bay, the Spacedock Control room and the Spacedock Computer
Core.
The reason the computer core is located here is because it's necessary
for it to
be isolated from certain devices in the Spacedock Engineering area, it
is much
more plausible to do this here. The Spacedock Control room is located
here out
of simple convince.
The
next location on down is the entrance for
Spacedock, the huge Bay Doors that are located on the outer walls.
Electrofluidic pistons operate these massive doors. Also located around
the edge
of the outer wall is a group of platforms. These platforms take up
space that
isn't needed for maneuvering by the many starships that enter the bay.
They are
used to store several thousand metric tons of cargo and supplies. This
is also a
convenient location for freighter docking on the central pillar. During
times of
low traffic, the freighters will dock and their cargo will be shuttled
over to
the platforms. During times of high traffic (and when there is still
room within
the bay) the freighters will not dock. Instead they will keep position
near the
cargo platforms and the shuttles will not have to travel across the
paths of
other incoming and outgoing vessels. Within the pillar here is even
more Cargo
Storage, usually meant for those items which will be dispersed on the
station
itself. The next tiers contain areas for passenger and transport
docking. This
is also the location for temporary layovers. Located within the pillar
are
temporary residential areas (residency for no more than two weeks),
commercial
areas, and even a fair amount of recreational activities. Below this is
the
bottom of the pillar which widens slightly to include more internal
space.
Here
on the floor of Spacedock is a large
amount of flat space. This has been used as Shuttlebay 1 and storage
since the
beginning of the Buckingham Class, and recently
it hasn't been unheard
of for ships capable of hard landings to be here. Within the pillar are
more
cargo and storage areas, usually dedicated to the modular nature of
starships
and shuttle operations. Outside of that is a large parking lot of
Shuttlecraft
and Anti-grav platforms, more than any ship could hold. Further out
from that,
between the shuttle landing pads and the exterior wall is storage for
starship
modules. Not to be confused with the large station modules, starship
modules
range from sensor pallets to internal habitat compartments or even the
Multi-Mission Modules of the Nebula Class [which
must be towed out to
be equipped on the Nebula Class]. The modules are
arranged by class and
module type. This area has no artificial gravity generators, in fact
the only
force keeping the modules to the floor of the bay are large
electromagnetic
clips which connect modules to each other in stacks and then to the
floor. Most
stations carry an assortment of modules for each class especially when
they can
be interchanged with other classes (the internal compartments of the Nebula
and Galaxy Class for instance).
While
outside it appears that the bay continues
to a narrow point ending just above the command section of the station,
this is
not true. Just below the floor of the bay are the manufacturing areas
for the
Buckingham Class station, these are
located between Spacedock and the
command section. Located here are large replicators including at least
one
class-4 CFI industrial replicator.
2.4 SECONDARY
SPACEDOCK

Secondary
Spacedock is located on one of the
large modules near the bottom of the station. This bay has a large door
reminiscent of the K series' station. The door slides open along the
interior
wall by large electrofluidic pistons. Opposite the door is a series of
stacked
docking berths that can accommodate most civilian transport liners.
These berths
are meant for simple embarking and disembarking, long term docking is
done in
the main bay. They also allow direct transport to the typically
civilian areas
of the station. A small shuttle bus service is run from this bay to the
main bay
and back at regular intervals.
2.5 SPACEDOCK
CONTROL

Spacedock
is the largest portion of the
Buckingham Class station's responsibilities. To adequately
control this not
only is Operation's involved but so is a separate section of the
station's
command chain. Spacedock Control is located in the central area of the
docking
tower. From this location ships are remotely piloted once they enter
the docking
bay. The gangway and utility umbilicals are controlled from here. Cargo
loading
and unloading must be authorized through this room. Any refueling,
resupplying,
and repair work is first reported here and then passed on to other
departments
of the station.
This
location is a large circular area that
rings the docking tower. There are piloting stations as well as
communications,
engineering, and operational stations as well. Each ship will be
assigned to a
set of these stations and will use them to communicate to station
command staff.
Spacedock Control is also one of the best places to view the docked
ships
because of the windows looking out over the docking bay.
2.6 SPACEDOCK
ENGINEERING

Starfleet
saw it necessary to separate the
different generators that the station and the ships use. Access to this
area is
achieved by heading towards the top of the docking tower, but unlike
Main
Engineering, this is only a mechanical area. There are only seven
generators
necessary, power generation [fusion based], gravity, water &
waste recycling,
replicator service, atmospheric service, structural integrity field,
and inertia
dampening field. There are no exterior docking ports so shield
generators are
not necessary for ship support, however there are some shield
generators in this
area for station use [Addendum: After the advent of large dimension
vessels such
as the Ambassador, Galaxy, Nebula, and Sovereign, Starfleet did see the
need for
external docking. External docking is achieved from the modules where a
docking
gangway will extend out to mate with the ship. Support generators are
located
nearby within the Modules and because these docks are exterior they do
have
shield generators]. Deuterium is fed up the docking tower to the fusion
reactors
in this area. All the services lead to a centralized hub near the
center of the
docking tower where they then go down a conduit and branch off in
umbilical
bundles to be connected to the ships. The umbilical bundles can reach a
maximum
of ninety meters from the docking gangway. After that extensions must
be used.
The extensions are connected with the help of manipulators attached to
Workbees.
2.7
SUBSPACE COMMUNICATIONS NETWORK

Buckingham
Class stations are major stepping-stones in the Subspace Comm Network
receiving
transmissions from across a 22 light-year radius and passing them on to
the next
step towards their destination. For centuries a postal service has been
a
requirement for a true civilization, and the Federation is no
different. The
Subspace Communication Network provides boosting and amplification for
long-range messages. This is all necessary because of physical
limitations on
all subspace messages. The Subspace Communications Network Hub on Buckingham
Class stations receives messages from the large antenna array on the
top of the
station. From here most messages are quickly processed and sent on,
however a
staff of 100-200 dedicated personnel work the equipment and help to
move along
undeliverable messages. Station communications also travel through the
antenna
array, but not through the Network Hub. SEE: 6.4
COMMUNICATIONS
2.8
STATION MANUFACTURING FACILITIES

Because
stations are called to service and
repair those vessels that dock, it is a necessity to have manufacturing
facilities for those items that cannot be replicated to acceptable
specifications. Most of these facilities are located near the bottom of
Spacedock. To this end, all Buckingham Class
stations contain
Engineering Labs and Manufacturing facilities. For jobs that can be
replicated
but require large industrial replicators, most Buckingham
Class
stations have been equipped with at least two Class-4 CFI industrial
replicators
3.0
TACTICAL SYSTEMS

3.1 PHASERS
Phaser
Arrangement:
Primary
Hull: Twenty-four Type-11 Main
Phaser Turrets spread out in three rows of eight. Sixteen Type-8 Point
Defense
Phaser Turrets.
Ventral
Hull: Four Type-11 Main Phaser
Turrets placed at ninety degree in travels. Eight Type-9 Point Defense
Phaser
Turrets.
Modules:
Most modules come equipped with
a variety of phaser types on their dorsal and ventral surfaces, but
there aren't
more than six turrets on each module. All these turrets are for point
defense,
and so far no modules have been manufactured with anything stronger
than Type-9.
Some modules have no phasers at all; these are usually placed near the
center,
instead of further out.
Phaser
Output: Each phaser array takes
its energy directly from the Power Core and auxiliary fusion
generators. Each
type of phaser denotes a different maximum power level. The Type-8
phasers
achieve an output of about 4.1 megawatts, Type-9 achieves 4.5
megawatts, and the
Type-11 achieves an amazing 6.1 megawatts.
Phaser
Array Range: Maximum effective
range is 300,000 kilometers.
Primary
purpose: Assault
Secondary
purpose:
Defense/anti-spacecraft/anti-fighter
3.2
TORPEDO LAUNCHERS

Arrangement:
There are only six torpedo
launchers designed into the Buckingham Class
station. The first four
are placed in between the docking bay doors. They service threat
vessels coming
from all axes but negative z, which is blocked by the modules. The
remaining two
launchers are in the ventral hull at ninety-degree angles from the
docking
latches for the modules. These launchers have a more limited firing arc
because
the modules block them.
As
a station, the Buckingham class has
the materials in storage and the equipment on board to manufacture more
torpedo
casings than it currently carries in ready stock.
Type:
Mark XXV photon torpedo, capable
of pattern firing (sierra, etc.) as well as independent launch.
Independent
targeting once launched from the station, detonation on contact unless
otherwise
directed.
Payload:
Buckingham Class
stations store an average of 500-photon torpedo packages dedicated for
station
use outside of emergencies [in emergencies part of the station's
torpedo
compliment can be siphoned to allied vessels]. Only a few stations
carry a
supply of quantum torpedoes, those nearest hostile territory come
first. More
torpedo packages are stored for resupply purposes.
Range:
Maximum effective range is
3,000,000 kilometers.
Primary
purpose: Assault
Secondary
purpose: Anti-spacecraft
3.3
DEFLECTOR SHIELDS

Type:
Symmetrical subspace graviton
field. This type of shield is fairly similar to those of most
Starships. Under
Starfleet Directives all facilities incorporate the nutation shift in
frequency.
During combat, the shield sends data on what type of weapon is being
used on it,
and what frequency and phase the weapon uses. Once the tactical officer
analyzes
this, the shield can be configured to have the same frequency as the
incoming
weapon - but different nutation. This tactic dramatically increases
shield
efficiency.
Output:
There are a total of
forty-eighty shield generators on the Buckingham
Class. Each generator
has a cluster of twelve thirty-two megawatt graviton polarity sources
feeding a
pair of six hundred twenty five millicochrane subspace field distortion
amplifiers. During emergency situations the generators are synchronized
together
providing two thousand six hundred eighty-eight megawatts continuously.
The
maximum peak load is four hundred seventy-three thousand megawatts for
one
hundred seventy milliseconds.
Range:
The shields, when raised, operate
at two distances. One is a uniform distance from the hull, averaging
about ten
to twelve meters. The other is an elliptical bubble field, which varies
in
distance from any single point on the hull but has a common center
within the
station.
Primary
purpose: Defense from enemy
threat forces, hazardous radiation and micrometeoroid particles.
4.0
COMPUTER SYSTEMS

4.1
COMPUTER CORE
Number
of computer cores: five primary
cores. Because stations are so large, designers decided that it would
be more
efficient to have a larger amount of cores, than to have long utility
lines. The
largest core is in the command section, which functions mainly for
station
operations only. The second largest core is the spacedock core, which
is near
the center of the docking bay. This computer controls all those ships
docked,
those ships entering or leaving the docking bay, and it also provides
the
largest area of storage for Starfleet records. This second core is in
fact the
only one equipped with it's own subspace transceiver assembly. Two
other cores
provide computer power for the station's secondary missions and
population. The
remaining primary core acts as a back up, while it is used as a
secondary core,
it's equipment and setup is that of a primary core.
Type:
The computer cores on
Buckingham Class stations are isolinear storage devices
utilizing faster
than light processing drives with isolinear temporary storage.
4.2 LCARS

Acronym for Library
Computer Access and Retrieval
System, LCARS is the
common user interface of 24th century computer systems, based on verbal
and
graphically enhanced keyboard/display input and output. The graphical
interface
adapts to the task that is supposed to be performed, allowing for
maximum
ease-of-use. The Buckingham Class operates on LCARS
build version 5.2 to
account for increases in processor speed and power, and limitations
discovered
in the field in earlier versions, and increased security. The operating
version
receives minor upgrades any time they are available when contact with
another
Starfleet vessel or facility is made. Stations also receive major
upgrades every
six months, which include an updated version of the combined Federation
and
Starfleet Database.
4.3
SECURITY LEVELS

Access to all Starfleet
data is highly regulated. A standard set of access levels have been
programmed
into the computer cores of all Starfleet installations in order to stop
any
undesired access to confidential data.
Security levels are also
variable, and task-specific. Certain areas of the station are
restricted to
unauthorized personnel, regardless of security level. Security levels
can also
be raised, lowered, or revoked by Command personnel.
Security levels in use aboard
the Buckingham Class are:
-
Level 10 �
Captain and Above
-
Level 9 �
First Officer
-
Level 8 -
Commander
-
Level 7 �
Lt. Commander
-
Level 6 �
Lieutenant
-
Level 5 �
Lt. Junior Grade
-
Level 4 -
Ensign
-
Level 3 �
Non-Commissioned Crew
-
Level 2 �
Civilian Personnel
-
Level 1 �
Open Access (Read Only)
Note:
Security Levels beyond current rank can and are bestowed where, when
and to whom
they are necessary.
The
main computer grants access based on a battery of checks to the
individual user,
including face and voice recognition in conjunction with a vocal code
as an
added level of security.
4.4 UNIVERSAL TRANSLATOR

All Starfleet installations
make use of a computer program called a Universal Translator that is
employed
for communication among persons who speak different languages. It
performs a
pattern analysis of an unknown language based on a variety of criteria
to create
a translation matrix. The translator is built in the Starfleet badge
and small
receivers are implanted in the ear canal. The station's computer is
also quite
good at adapting to alien translation devices and utilizing them during
conferences.
The Universal Translator
matrix aboard Buckingham Class stations consists
of well over 100,000
languages and increases with every new encounter.
5.0
POWER GENERATION SYSTEMS

5.1 MAIN
REACTOR CORE
Type:
NNEC Mark 4.5 Standard
Matter/Anti-Matter Reaction Drive, developed by Newport News
Engineering
Consortium adapted for station purposes.
Normal Power Output: 105
megawatts
Standard Peak Output: 107
megawatts
Maximum Power Output: 109
megawatts
The
Main Reactor Core for the Buckingham
Class station was originally designed for the Excelsior
Class. Before
the stations were completed the Excelsior Class
was in flight trials
for the Transwarp Propulsion system, which more than proved the
viability of its
power plant. Designers decided to scrap the original idea to adapt the
refit
Constitution Class' power plant. This decision eventually
saved Starfleet
from an extensive refit process in the future because of the hardened
nature of
that power plant.
5.2 BACKUP
FUSION CORES

Type:
Standard Galaxy Class
Impulse drives developed and built by Theoretical Propulsion Group in
conjunction with the Advanced Starship Design Bureau - Utopia Planitia
Division.
Output:
108 to 1011
megawatts per module pack [6 generators to a single pack].
The
Buckingham Class was refit with
new fusion cores during the 2340's and 2350's. During the operational
lifetimes
of the stations they had received newly built cores based on the
original specs
at least three times, some stations received five such upgrades. But
after half
a century of service, Starfleet saw the need for more power. For the
most part
the replacement of the Fusion Cores was a simple matter. Take out the
original
cores and the isolation track system they were attached to. Install a
new track
and then put in the new cores. However, in some cases [especially in
the
Spacedock Engineering area], modifications to the EPS system were
necessary.
These modifications continue to prove advantageous over the older specs.
5.3
REACTION CONTROL SYSTEM

Type:
Standard magnetohydrodynamic
gas-fusion thrusters designed specifically for the Buckingham
Class.
Output:
Each thruster quad can produce 8
million newtons of exhaust.
Tractor
Emitter: All Reaction Control
System Thruster packages on the Buckingham Class
have small tractor
beam emitters. These emitters help provide more coverage for the
station entire
tractor beam system.
6.0
UTILITIES AND AUXILIARY
SYSTEMS

6.1
DEFLECTOR GRID
A
standard Buckingham Class deflector
grid is located all along the hull of the station. This grid is in fact
the
shield grid; it just doubles as a system similar to the navigational
deflector
on starships. The deflector grid's shield and sensor power comes from
graviton
polarity generators located throughout different station modules, each
capable
of generating one hundred twenty-eight megawatts which is fed into a
pair of
five hundred fifty millicochrane subspace field distortion amplifiers.
6.2 TRACTOR BEAM

Type:
Multiphase subspace graviton beam,
used for direct manipulation of objects from a submicron to a
macroscopic level
at any relative bearing. Each emitter is directly mounted to the
primary members
of the station's framework, to lessen the effects of isopiestic
subspace
shearing, inertial potential imbalance, and mechanical stress.
Output:
Each tractor beam emitter is
built around two variable phase sixteen megawatt graviton polarity
sources, each
feeding two four hundred seventy-five millicochrane subspace field
amplifiers.
Phase accuracy is within two and seven tenths arc-seconds per
microsecond. Each
emitter can gain extra power from the Structural Integrity Field by
means of
molybdenum-jacketed waveguides. The subspace fields generated around
the beam
(when the beam is used) can envelop objects up to one thousand meters,
lowering
the local gravitational constant of the universe for the region inside
the field
and making the object much easier to manipulate.
Range:
Effective tractor beam range
varies with payload mass and desired delta-v (change in relative
velocity).
Assuming a nominal five m/sec-squared delta-v, the primary tractor
emitters can
be used with a payload approaching 7,500,000 metric tons at less than
one
thousand meters. Conversely, the same delta-v can be imparted to an
object
massing about one metric ton at ranges approaching twenty thousand
kilometers.
Primary
purpose: Towing or manipulation
of objects
Secondary
purpose: Tactical, pushing
enemy ships into each other.
6.3
TRANSPORTER SYSTEMS

Number
of Systems: 35
Personnel Transporters: Starfleet 10
transporters, civilian 5
transporters
Cargo Transporters: 6 high capacity, 4
standard
Emergency Transporters: 10
6.4
COMMUNICATIONS

Standard
Communications Ranges:
- RF: 5.2 AU
- Subspace: 22.65 LY
Standard
Data Transmission Speed: 18.5
kiloquads per second
Subspace Communications Speed: Warp
9.9997
Buckingham
Class stations are equipped
as part of the Subspace Relay Network. To this end they are equipped
with a
large transceiver array at the top of spacedock. SEE: 2.7
Subspace
Communications Network
7.0
SCIENCE AND REMOTE
SENSING SYSTEMS

7.1 SENSOR
SYSTEMS
Long
range and navigational sensors are located
at the top of the station along with the subspace relay network
transceiver
array. Lateral sensor pallets are located around the hull of the
station,
providing full coverage in all standard scientific fields, but with
emphasis in
the following areas:
-
Astronomical
phenomena
-
Planetary
Analysis
-
Remote
Life-Form Analysis
-
EM Scanning
-
Passive
Neutrino Scanning
-
Parametric
subspace field stress (a scan to search for cloaked ships)
-
Thermal
variances
-
Quasi-stellar
material
-
Sub-Quantum
Mass Particulates
Each
sensor pallet can be interchanged and
re-calibrated with any other pallet on the station, including those in
storage.
7.2 TACTICAL
SENSORS

There are sixty-four
independent tactical sensors on the Buckingham
Class. Each sensor
automatically tracks and locks onto incoming hostile vessels and
reports
bearing, aspect, distance, and vulnerability percentage to the tactical
station
on the main bridge. Each tactical sensor is approximately eighty-four
percent
efficient against Electronic Counter Measures.
7.3 SCIENCE LABS

There
are over one thousand separate scientific
research labs on board the Buckingham Class.
However depending upon
current internal arrangement the station can have more. At the same
time all
labs are specifically designed for adaptability. Most science labs
share the
same design, only a few have extremely specialized equipment. When
necessary,
the Engineering department can be contacted and the lab can be
outfitted with
equipment either in storage or replicated. Other, even more specialized
equipment can be brought on board by mission specialists and installed
per
approval of appropriate members of the Senior Staff.
7.4 PROBES

A
probe is a device that contains a number of
general purpose or mission specific sensors and can be launched from a
station
for closer examination of objects in space.
The
Buckingham Class carries a variety
of science probes; each one fully built and in storage for dispersal
among
allied vessels. At the same time the station also uses these.
The nine
standard classes are:
- 7.6.1 Class
I Sensor Probe:

- Range: 2 x
10^5 kilometers
- Delta-v
limit: 0.5c
- Powerplant:
Vectored deuterium microfusion propulsion
- Sensors: Full
EM/Subspace and interstellar chemistry pallet for in-space applications.
- Telemetry:
12,500 channels at 12 megawatts.
-
- 7.6.2 Class
II Sensor Probe:
-

Range: 4 x 10^5 kilometers
- Delta-v
limit: 0.65c
- Powerplant:
Vectored deuterium microfusion propulsion, extended deuterium fuel
supply
- Sensors: Same
instrumentation as Class I with addition of enhanced long-range
particle and field detectors and imaging system
- Telemetry:
15,650 channels at 20 megawatts.
-
- 7.6.3 Class
III Planetary Probe:

- Range: 1.2 x
10^6 kilometers
- Delta-v
limit: 0.65c
- Powerplant:
Vectored deuterium microfusion propulsion
- Sensors:
Terrestrial and gas giant sensor pallet with material sample and return
capability; onboard chemical analysis submodule
- Telemetry:
13,250 channels at ~15 megawatts.
- Additional
data: Limited SIF hull reinforcement. Full range of terrestrial soft
landing to subsurface penetration missions; gas giant atmosphere
missions survivable to 450 bar pressure. Limited terrestrial loiter
time.
-
- 7.6.4 Class
IV Stellar Encounter Probe:

- Range: 3.5 x
10^6 kilometers
- Delta-v
limit: 0.6c
- Powerplant:
Vectored deuterium microfusion propulsion supplemented with continuum
driver coil and extended deuterium supply
- Sensors:
Triply redundant stellar fields and particle detectors, stellar
atmosphere analysis suite.
- Telemetry:
9,780 channels at 65 megawatts.
- Additional
data: Six ejectable/survivable radiation flux subprobes. Deployable for
nonstellar energy phenomena
-
- 7.6.5
Class V
Medium-Range Reconnaissance Probe:

- Range: 4.3 x
10^10 kilometers
- Delta-v
limit: Warp 2
- Powerplant:
Dual-mode matter/antimatter engine; extended duration sublight plus
limited duration at warp
- Sensors:
Extended passive data-gathering and recording systems; full autonomous
mission execution and return system
- Telemetry:
6,320 channels at 2.5 megawatts.
- Additional
data: Planetary atmosphere entry and soft landing capability. Low
observatory coatings and hull materials. Can be modified for tactical
applications with addition of custom sensor countermeasure package.
- 7.6.6 Class
VI Comm Relay/Emergency Beacon:

- Range: 4.3 x
10^10 kilometers
- Delta-v
limit: 0.8c
- Powerplant:
Microfusion engine with high-output MHD power tap
- Sensors:
Standard pallet
- Telemetry/Comm:
9,270 channel RF and subspace transceiver operating at 350 megawatts
peak radiated power. 360 degree omni antenna coverage, 0.0001
arc-second high-gain antenna pointing resolution.
- Additional
data: Extended deuterium supply for transceiver power generation and
planetary orbit plane changes
- 7.6.7Class
VII Remote Culture Study Probe:

- Range: 4.5 x
10^8 kilometers
- Delta-v
limit: Warp 1.5
- Powerplant:
Dual-mode matter/antimatter engine
- Sensors:
Passive data gathering system plus subspace transceiver
- Telemetry:
1,050 channels at 0.5 megawatts.
- Additional
data: Applicable to civilizations up to technology level III. Low
observability coatings and hull materials. Maximum loiter time: 3.5
months. Low-impact molecular destruct package tied to antitamper
detectors.
- 7.6.8 Class
VIII Medium-Range Multimission Warp Probe:

- Range: 1.2 x
10^2 light-years
- Delta-v
limit: Warp 9
- Powerplant:
Matter/antimatter warp field sustainer engine; duration of 6.5 hours at
warp 9; MHD power supply tap for sensors and subspace transceiver
- Sensors:
Standard pallet plus mission-specific modules
- Telemetry:
4,550 channels at 300 megawatts.
- Additional
data: Applications vary from galactic particles and fields research to
early-warning reconnaissance missions
- 7.6.9 Class
IX Long-Range Multimission Warp Probe:

- Range: 7.6 x
10^2 light-years
- Delta-v
limit: Warp 9
- Powerplant:
Matter/antimatter warp field sustainer engine; duration of 12 hours at
warp 9; extended fuel supply for warp 8 maximum flight duration of 14
days
- Sensors:
Standard pallet plus mission-specific modules
- Telemetry:
6,500 channels at 230 megawatts.
- Additional
data: Limited payload capacity; isolinear memory storage of 3,400
kiloquads; fifty-channel transponder echo. Typical application is
emergency-log/message capsule on homing trajectory to nearest starbase
or known Starfleet vessel position
8.0
CREW SUPPORT SYSTEMS

8.1 MEDICAL
SYSTEMS
Infirmary:
There are at least six
infirmary facilities located throughout the station. The Chief Medical
Officer
chooses the primary medical facility. These facilities can practically
be
considered to be a full-fledged hospital when combined together.
Stations are
more capable facilities than any starship in medical operations. Even
the
Galaxy Class does not compare to most station hospitals. The
facilities
have even been recently equipped with EMH systems.
Aid
Stations: Like on most stations, the
Buckingham class has nurse stations,
almost on each level. These areas
are staffed on a rotating schedule during green mode, and during higher
alert
status they may all be activated. They provide first aid to injured
personnel
and become quick essential command posts during situations where the
station is
damaged. When the Commanding Officer needs to know how many people are
injured,
those who find out serve at these stations.
8.2 CREW
QUARTERS SYSTEMS

General
Overview: Crew and officers'
quarters are located throughout the station, this because of the
stations size.
Normally personnel are assigned to quarters near their duty stations.
Individuals
assigned to Buckingham
Class stations for periods over six months are permitted to reconfigure
their
quarters within hardware, volume, and mass limits. Individuals assigned
for
shorter periods are generally restricted to standard quarter
configuration.
Crew
Quarters: Standard Living Quarters
are provided for both enlisted and non-commissioned Officers. This
includes
their families as well, those officers with children are assigned
quarters with
view ports.
Crewmen
can request that their living quarters
be combined to create a single larger dwelling.
Officers'
Quarters: Starfleet personnel
from the rank of Ensign up to Commander are given one set of quarters
to
themselves (they do not need to share).
These
accommodations typically include a small
bathroom, a bedroom (with standard bed), a living/work area, a food
replicator,
an ultrasonic shower, personal holographic viewer, and provisions for
pets.
Officers
may request that their living quarters
be combined to form one larger dwelling.
Executive
Quarters: The Captain and
Executive Officer of Buckingham Class stations
have special quarters.
These quarters are much more luxurious than any others are, with the
exception
of the VIP/Diplomatic Guest quarters. Both the Executive Officer's and
the
Captain's quarters are larger than standard Officers Quarters, and this
space
generally has the following accommodations: a bedroom (with a nice,
fluffy bed),
living/work area, bathroom, food replicator, ultrasonic shower,
old-fashioned
water shower, personal holographic viewer, and provisions for pets. The
second
officer and senior staff members have similar quarters with less area,
generally
between that of the Executive Quarters and the Officer's Quarters.
VIP/Diplomatic
Guest Quarters: The
Buckingham Class is a symbol of UFP authority, a tool in
dealing with other
races. Starfleet intends to use Buckingham Class
in diplomacy several
times, and the need to accommodate Very Important Persons, diplomats,
or
ambassadors may arise.
These
quarters are located within the command
section and take up all of Level 17. These quarters include a bedroom,
spacious
living/work area, personal viewscreen, ultrasonic shower, bathtub/water
shower,
and provisions for pets, food replicator, and a null-grav sleeping
chamber.
These quarters can be immediately converted to class H, K, L, N, and N2
environments.
8.3
RECREATION SYSTEMS

General
Overview: The
Buckingham Class is not the largest installation in
Starfleet but as with
all stations, it is a center dedicated to the rest and relaxation of
every
member in Starfleet. The stress of operating at ninety-nine percent
efficiency
that is built up during non-stop work can be dangerous.
Holodecks:
There are twelve
standard holodeck facilities on the Buckingham
Class. Most are located
in the newer modules, but some stations were retrofitted with holodecks
in the
command sections. Holographic facilities were not originally a part of
the
Buckingham Class.
Holosuites:
These are smaller
versions of standard Federation Holodecks, designed for individual
usage (the
twelve Holodecks themselves are to be used by groups or individual
officers;
enlisted crewmen and cadets are not allowed to use the Holodecks under
normal
circumstances). They do everything that their larger siblings do; only
these
Holosuites can't handle as many variables and are less detailed. They
are
equivalent to the Holodecks on an Intrepid Class
Starship. There are
thirty Holosuites on board as well, located mainly in the modules.
Holographic
facilities were not originally a part of the Buckingham
Class.
Phaser
Range: Sometimes the
only way a Starfleet officer or crewman can vent his frustration is
through the
barrel of a phaser rifle. The phaser ranges are located mainly in the
command
areas, however there are a few recreational versions for civilian use
in the
modules.
Normal
phaser recreation and practice is used
with a type III phaser set to level 3 (heavy stun). The person stands
in the
middle of the room, with no light except for the circle in the middle
of the
floor that the person is standing in. Colored circular dots
approximately the
size of a human hand whirl across the walls, and the person aims and
fires.
After completing a round, the amounts of hits and misses, along with
the
percentage of accuracy is announced by the station's computer.
The
phaser range is also used by security to
train station's personnel in marksmanship. During training, the
holo-emitters in
the phaser range are activated, creating a holographic setting, similar
to what
a holodeck does. Personnel are "turned loose" either independently or
in an Away
Team formation to explore the setting presented to them, and the
security
officer in charge will take notes on the performance of each person as
they take
cover, return fire, protect each other, and perform a variety of
different
scenarios. All personnel onboard are tested every six months in phaser
marksmanship.
There
are 25 levels of phaser marksmanship. All
personnel onboard are trained in the operation of phaser types II and I
up to
level 14. All security personnel on board must maintain a level-17
marksmanship
for all phaser types. The true marksman can maintain at least an eighty
percent
hit ratio on level 23. The Buckingham Class
carries all varieties of
phaser rifles in varying amounts, even those not mentioned specifically
here.
Training for marksmanship is officially carried out aboard Buckingham
Class
stations for entire sectors in many cases.
Gymnasium:
Some Starfleet
personnel can find solace from the aggravations of day-to-day life in
exercising
their bodies. The Security department on board encourages constant use
of this
facility; tournaments and competitions are held regularly in this room.
Stations
usually set up a proportional amount of gymnasiums to their population
so that
personnel can visit the facilities weekly without have to be concerned
with over
crowding.
The
Gymnasium also contains the weight room,
which has full bodybuilding and exercise apparatuses available for your
disposal; any kind of exercise can be performed here, be it Terran,
Klingon,
Vulcan (it isn't logical to let your body atrophy), Bajoran, Trill, or
others.
There
is also a wrestling mat that can be used
for wrestling, martial arts, kickboxing, or any other sort of
hand-to-hand
fighting. There are holo-diodes along the walls and ceiling which
generate a
holographic opponent (if you can't find someone to challenge), trained
in the
combat field of your choice. The computer stores your personal patterns
of
attack and defense as it gains experience on your style of fighting,
and adapts
to defeat you. All personnel on board must go through a full physical
fitness
and hand-to-hand combat test every six months.
There
are also racks of hand-to-hand combat
weapons, for use in training. Starfleet�s security division recommends
ancient
weapon proficiencies for Starfleet personnel; phasers may not always be
available for use in contingencies. Terran, Klingon, Betazoid, Vulcan,
Bajoran,
and other non-energy weapons are available for training.
Arboretum:
Sometimes, one must feel
grass under ones feet and between ones toes. Located in several areas
throughout
the station [including one in the docking bay], the arboretum is
maintained by
the botany department, and is used for research into plant-life.
Crewmembers are
allowed to wander the facilities, which includes twisting paths that
provide
privacy, and streams that feed multiple ponds. (The streams and ponds
are
connected to a high-speed pump that will immediately drain both during
a red
alert situation.) 'Natural' lighting is provided on a day/night
schedule that
provides maximum benefit to the plant-life. The Promenade areas on the
station
also have arboretum areas, which add to the feeling of an outdoor
market place.
Promenades:
With such a high
concentration of officers, visiting personnel, and even civilians some
commercial areas will become necessary. These Promenades are all
focused on
business and recreation providing goods and services. Sometimes there
is more
than one shop of the same type on a station; they are just located in
different
Promenades. Promenades near docking areas are the only location where
temporary
lodges are can be obtained for travelers. Promenades usually have
garden areas;
some even have streams and botanical paths running through the center
of main
paths.
8.4 LOUNGES

There
are large lounges located throughout the
Buckingham Class station. They have a
very relaxed and congenial air
about them; Lounges are the only place on the station where rank means
nothing -
"sir" need not be uttered when a person of lower rank addresses an
officer, and
everyone is on an equal footing. Opinions can be voiced in complete
safety.
These lounges are the social center of the station.
Lounges
have a battery of recreational games
and assorted "stuff." From 3-D chess, pool tables, poker tables
(complete with
holographic dealer and chips), and numerous other games to windows that
look out
into space or spacedock, heavily cushioned seats, and plenty of
conversational
topics. There is also a bar (usually serviced by an on-duty bartender),
and it
stores various potent alcoholic beverages, such as chech'tluth,
Aldebaran
whiskey, Saurian brandy, Tzartak aperitif, Tamarian Frost, C&E
Warp Lager,
Warnog, Antarean brandy, and countless others. The replicators are also
able to
produce other food and beverages for the crew to enjoy in this relaxed
social
setting.
8.5
EDUCATIONAL FACILITIES

As
a location with a large civilian population,
the Buckingham Class requires some type of
educational facilities. Most
stations have between ten and twenty educational facilities located in
the
civilian areas. These facilities are equipped to educate youth and
adults on a
variety of subjects especially the basics up to the pre-collegiate
level.
Most
stations from the mid-range on up contain
Starfleet Academy Training Facilities. These training facilities are
the first
location where hopeful cadets will tests to gain acceptance to the
Academy. At
the same time if the facilities on a station are large enough, the
Academy will
send cadets (usually third and fourth year cadets) here for real world
training
and experience.
9.0
STATION GOVERNMENT

9.1
EXECUTIVE OVERVIEW
Buckingham
Class stations have a sizable
civilian population, because of this some form of civil government is
necessary
on board. As the primary force in that government, the Commanding
Officer is
charged with the duties of the executive branch of government. This
charge is
similar to his responsibility for each and every member of his crew,
whether or
not they are a part of Starfleet. A CO's duty in this part of the
government is
to follow the events aboard the station and provide an optimal
environment for
the civilian population. This includes providing security for life
& property
and engaging station staff in public works. The Commanding Officer also
has the
responsibility of signing into law any ordinance passed by the
legislative
branch and carrying that law out. The Commanding Officer also has in
his
authority the decision to appoint members of his Senior Staff to the
legislative
responsibility, however the Executive Officer and 2nd Officer are both
automatically appointed to this position out of right and duty.
9.2
LEGISLATIVE OVERVIEW

The
legislative branch of station government is
radically different from that of a planetary or non-Starfleet station.
Because
the station's primary responsibility is to Starfleet, and not the
Federation, it
has a military government. However, this has never excluded the rights
of
citizens to fair representation. Each station starts with a set of
standard code
revised by the Federation and Starfleet. A representative council on
board the
station can further modify this code, but each modification must be
approved by
the Senior Staff and then signed by the Commanding Officer. The Senior
Staff as
well is the highest legislative body and has authority to pass any
ordinance it
deems necessary for station security. The rights of Federation citizens
are
still protected by Federation law, which is a higher authority (however
Federation law has recognized since 2257 that citizens aboard
space-borne
vessels and facilities [or domes providing protection from inhospitable
environments 2268] are under special circumstances that may conflict
with
Federation law legally. Common law has held similar facts for citizens
on
military installations for a longer period; this has been transferred
to
Starfleet protocol as well). Rates for residential, commercial, and
industrial
space on board the station as well as any station service are decided
by the
Senior Staff (transport and cargo docking, non-Starfleet refuel and
repair,
etc.).
9.3 JUDICIAL
OVERVIEW

Buckingham
Class stations are required
to have a working civil & criminal court system for use by all
residents on
board. Only key stations are required to provide permanent facilities
for
Maritime and Starfleet issues. Other stations, when the need arises for
such
judicial proceedings, are to take at least three command level officers
for the
judicial panel, fair counsel for both sides are to be provided by other
staff
members (the defendant may acquire the services of a trained Judge
Advocate
General or practicing attorney in the field of Maritime and Starfleet
legal
proceedings). No decision can be made without a majority opinion by the
presiding panel. All misdemeanors are handled by civil &
criminal court system
while some felonies are under the jurisdiction of Starfleet.
9.4
DIPLOMATIC OVERVIEW

Diplomacy
is one of the many objectives that
stations are to achieve. To do this the Commanding Officer is charged
to
represent not only the station, but also Starfleet and the Federation
in all
interests. To achieve this the Federation invites nearby governments to
set up
embassies on board Buckingham Class stations,
even if they are
Federation member worlds. These embassies are located on the same deck
as the
Ambassadorial Suites, providing easy interaction between governments.
The
station can achieve its objectives in diplomacy by being an open and
non-partial
forum for disputing parties. It can also be a location for foreign
governments
to set up a bureau of relation with the Federation, as well as dispute
their
grievances. When necessary, all diplomatic staffs on the station can be
gathered
together for important briefings.
10.0
AUXILIARY SPACECRAFT
SYSTEMS

10.1 SHUTTLEBAYS
General
Overview: There are usually four
shuttlebays aboard each Buckingham Class station.
Shuttlebay one is
within the docking bay. Shuttlebay two directly serves the command area
of the
station. The remaining two shuttlebays are located within the modules
connected
to the station. The Buckingham Class contains the
latest in Starfleet
shuttle and runabout designs. The same spacedock control that has
oversight of
the docking bay also controls shuttle operations. Each shuttlebay has a
dedicated control room.
10.2 SHUTTLECRAFT

The
Shuttlecraft load out on a Buckingham
Class contains the following:
- Ten runabouts, normally of the Danube
Class
- At least thirty personnel shuttles
- At least thirty cargo shuttles
- Forty shuttlepods, unless otherwise replaced by
personnel shuttles
- Twenty Sphinx Workpods
- An average of two hundred to three hundred Workbees
- Ordnance, Fuel, Spare Parts, and Runabout Modules
- Flight Ops
10.2.1
TYPE-15 SHUTTLEPOD

Type:
Light short-range sublight shuttle.
Accommodation: Two; pilot and
system manager.
Power Plant: Two 500
millicochrane impulse driver engines, four RCS
thrusters, three sarium krellide storage cells.
Dimensions: Length, 3.6 m;
beam, 2.4 m; height 1.6 m.
Mass: 0.86 metric tones.
Performance: Maximum delta-v,
12,800 m/sec.
Armament: Two Type-IV phaser
emitters.
The Type-15
Shuttlepod
is a two person craft primarily used for short-ranged transportations
of
personnel and cargo, as well as for extravehicular inspections of
Federation
starships, stations and associated facilities. Lacking the
ability to obtain
warp speeds, the Type-15 is a poor candidate for even interplanetary
travel, and
is traditionally used as a means of transport between objects only a
few
kilometers apart. The craft is capable of atmospheric flight,
allowing for
routine flights between orbiting craft or stations and planetside
facilities.
Ships of this type are stationed aboard various starship classes and
stations,
both spaceborne and planetside.
A variant of
this type,
the Type-15A Shuttlepod, shares the same specifications of its sister
craft, but
is capable of reaching a maximum delta-v of 13,200 m/sec. The
Type-15A was a
limited production craft and the information gained from its service
allowed for
further streamlining of what would eventually become the Type-16
Shuttlepod.
Still, the 15A remains in active service, and existing Type-15
spaceframes can
easily be converted to the 15A provided that off the shelf parts are
available.
However, it should be noted that Starfleet Operations has deemed that
the 15A
spaceframe exhausts its fuel supply rather quickly and its production
at major
assembly plants is now discontinued.
10.2.2 TYPE-16 SHUTTLEPOD

Type:
Medium short-range sublight shuttle.
Accommodation: Two; pilot and
system manager.
Power Plant: Two 750
millicochrane impulse driver engines, four RCS
thrusters, four sarium krellide storage cells.
Dimensions: Length, 4.8 m;
beam, 2.4 m; height 1.6 m.
Mass: 1.25 metric tones.
Performance: Maximum delta-v,
12,250 m/sec.
Armament: Two Type-IV phaser
emitters.
Like the
Type-15, the
Type-16 Shuttlepod is a two person craft primarily used for
short-ranged
transportations of personnel and cargo, as well as for extravehicular
inspections of Federation starships, stations and associated
facilities.
Lacking the ability to obtain warp speeds, the Type-16 is a poor
candidate for
even interplanetary travel, and is traditionally used as a means of
transport
between objects only a few kilometers apart. The craft is
capable of
atmospheric flight, allowing for routine flights between orbiting craft
or
stations and planetside facilities, and its cargo capacity is slightly
higher
then that of the Type-15. Ships of this type are stationed
aboard various
starship classes and stations, both spaceborne and planetside.
10.2.3 TYPE-18 SHUTTLEPOD

Type:
Medium short-range sublight shuttle.
Accommodation: Two; pilot and
system manager.
Power Plant: Two 800
millicochrane impulse driver engines, four RCS
thrusters, four sarium krellide storage cells.
Dimensions: Length, 4.5 m;
beam, 3.1 m; height 1.8 m.
Mass: 1.12 metric tones.
Performance: Maximum delta-v,
16,750 m/sec.
Armament: Three Type-V phaser
emitters.
Developed in
the
mid-2360s, the Type-18 Shuttlepod is somewhat of a departure from the
traditional layout for ships of its size. In response to the
growing threat of
conflicts with various galactic powers bordering or near to the
Federation, this
shuttlepod was designed to handle more vigorous assignments that still
fell into
the short-range roles of a shuttlepods. Even with her parent
vessel under
attack, the Type-18 was designed to function in battle situations and
could even
be used as an escape vehicle should the need arise. Lacking a
warp core, the
pod is a poor choice for travel beyond several million
kilometers. Ships of
this type are seeing limited deployment on various border patrol and
defensive
starship classes, including the Defiant-, Sabre-, and Steamrunner-class.
10.2.4
TYPE-6 PERSONNEL SHUTTLECRAFT (UPRTD)

Type:
Light short-range warp shuttle.
Accommodation: Two flight
crew, six passengers.
Power Plant: One 50 cochrane
warp engine, two 750 millicochrane impulse
engines, four RCS thrusters.
Dimensions: Length, 6.0 m;
beam, 4.4 m; height 2.7 m.
Mass: 3.38 metric tones.
Performance: Sustained Warp 3.
Armament: Two Type-IV phaser
emitters.
The Type-6
Personnel
Shuttlecraft is currently in widespread use throughout Starfleet, and
is only
recently being replaced by the slightly newer Type-8 Shuttle of similar
design.
The Uprated version of this vessel is considered to be the ideal choice
for
short-range interplanetary travel, and its large size makes it suitable
to
transport personnel and cargo over these distances. A
short-range transporter
is installed onboard, allowing for easy beam out of cargo and crew to
and from
their destination. Atmospheric flight capabilities allow for
this shuttle type
to land on planetary surfaces. Ships of this type are
currently in use aboard
virtually every medium to large sized starship class, as well as aboard
stations
and Starbases.
The Type-6 is
perhaps
the most successful shuttle design to date, and its overall structure
and
components are the foundations upon which the Type-8, -9, and -10
spaceframes
are based.
Major
technological
advancements in the 2370�s allowed for further upgrades to be made to
the engine
systems aboard shuttlecraft. These upgrades make this craft
more capable of
long-range spaceflight and, like its starship counterparst, no longer
damages
subspace.
10.2.5
TYPE-7 PERSONNEL SHUTTLECRAFT (UPRTD)

Type:
Medium short-range warp shuttle.
Accommodation: Two flight
crew, six passengers.
Power Plant: One 150 cochrane
warp engine, two 750 millicochrane impulse
engines, four RCS thrusters.
Dimensions: Length, 8.5 m;
beam, 3.6 m; height 2.7 m.
Mass: 3.96 metric tones.
Performance: Sustained Warp 4.
Armament: Two Type-V phaser
emitters.
With the
borders of the
Federation ever expanding as Starfleet reached the latter half of the 24th
Century, the ASDB realized that there was sufficient need for a
shuttlecraft
capable of making the week-long journeys between planets and stations
at low
warp. The Type-7 was the first step in this direction, and is
equipped for
short-range warp travel. To offer comfort to its occupants,
the shuttle
contains a standard replicator system and sleeping
compartments. The forward
and aft compartments are separated by a small, informal living area
that has a
workstation and table. The aft area is normally equipped with
a bunk area, but
can easily be converted to allow for increased cargo
capabilities. A
medium-range transporter and atmospheric flight capabilities allow for
the
Type-7 to service starbases, starships and stations. Ships of
this type are
currently in use aboard most medium to large sized starship classes, as
well as
aboard stations and Starbases.
Major
technological
advancements in the 2370�s allowed for further upgrades to be made to
the engine
systems aboard shuttlecraft. These upgrades make this craft
more capable of
long-range spaceflight and, like its starship counterparts, no longer
damages
subspace.
10.2.6 TYPE-8 PERSONNEL
SHUTTLECRAFT

Type:
Light long-range warp shuttle.
Accommodation: Two flight
crew, six passengers.
Power Plant: One 150 cochrane
warp engine, two 750 millicochrane
impulse engines, four RCS thrusters.
Dimensions: Length, 6.2 m;
beam, 4.5 m; height 2.8 m.
Mass: 3.47 metric tones.
Performance: Warp 4.
Armament: Two Type-V phaser
emitters.
Based upon
the frame of
the Type-6, the Type-8 Shuttlecraft is the most capable follow-up in
the realm
of personnel shuttles. Only slightly larger, the Type-8 is
equipped with a
medium-range transporter and has the ability to travel within a
planet�s
atmosphere. With a large cargo area that can also seat six
passengers, the
shuttle is a capable transport craft. Slowly replacing its
elder parent craft,
the Type-8 is now seeing rapid deployment on all medium to large
starships, as
well as to Starbases and stations throughout the Federation.
10.2.7 TYPE-9 PERSONNEL
SHUTTLECRAFT

Type:
Medium long-range warp shuttle.
Accommodation: Two flight
crew, two passengers.
Power Plant: One 400 cochrane
warp engine, two 800 millicochrane impulse
engines, four RCS thrusters.
Dimensions: Length, 8.5 m;
beam, 4.61 m; height 2.67 m.
Mass: 2.61 metric tones.
Performance: Warp 6.
Armament: Two Type-VI phaser
emitters.
The Type-9
Personnel
Shuttle is a long-range craft capable of traveling at high warp for
extended
periods of time due to new advances in variable geometry warp
physics. Making
its debut just before the launch of the Intrepid-class, this shuttle
type is
ideal for scouting and recon missions, but is well suited to perform
many
multi-mission tasks. Equipped with powerful Type-VI phaser
emitters, the
shuttle is designed to hold its own ground for a longer period of
time.
Comfortable seating for four and moderate cargo space is still achieved
without
sacrificing speed and maneuverability. As is standard by the
2360�s, the
shuttle is equipped with a medium-range transporter and is capable of
traveling
through a planet�s atmosphere. With its ability to travel at
high-warp speeds,
the Type-9 has been equipped with a more pronounced deflector dish that
houses a
compact long-range sensor that further helps it in its role as a
scout. The
Type-9 is now being deployed throughout the fleet and is especially
aiding
deep-space exploratory ships with its impressive abilities.
10.2.8 TYPE-10 PERSONNEL
SHUTTLECRAFT

Type:
Heavy long-range warp shuttle.
Accommodation: Two flight
crew, two passengers.
Power Plant: One 250 cochrane
warp engine, two 800 millicochrane impulse
engines, four RCS thrusters.
Dimensions: Length, 9.64 m;
beam, 5.82 m; height 3.35 m.
Mass: 19.73 metric tones.
Performance: Warp 5.
Armament: Three Type-V phaser
emitters, two micro-torpedo launchers,
jamming devices.
Developed
specifically
for the Defiant-class starship project, the Type-10 Personnel Shuttle
is the
largest departure from the traditional role of an auxiliary craft that
Starfleet
has made in the past century. Short of a dedicated fighter
craft, the Type-10
is one of the most powerful auxiliary ships, with only the bulkier
Type-11 being
more heavily equipped. Nonetheless, the shuttle sports
increased hull armor and
the addition of micro-torpedo launchers, as well as a suite of tactical
jamming
devices. A larger warp coil assembly, as well as torpedo
stores, makes the
Type-10 much more heavier then other shuttles. Elements from
the Defiant-class
project that were incorporated into the shuttle include armored bussard
collectors, as well as a complex plasma venting sy |