| Class: |
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| Ship Name: |
Jonah |
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Points Spent: |
#N/A |
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| Owner: |
The Bittersweet Party |
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| Pilot/Driver: |
Jonesy |
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| Chassis: |
Standard |
|
Sensors and Tools |
Dice |
Cost |
Range |
|
| Dimensions: |
|
Sensors: |
d8 |
8 |
500 km |
Passive - Always on, but
short range. |
|
| Length: |
159 |
|
Scanners: |
d10 |
10 |
15000 km |
Active - Must be
activated and aimed. |
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| Width: |
97 |
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Targeting: |
d8 |
8 |
100 km |
Must be used to lock
targets |
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| Height: |
65 |
|
Daignostics: |
d6 |
6 |
|
To check Ship Systems |
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| Class: |
Space |
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Med Comp: |
d4 |
4 |
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To diagnose |
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Max Turn angle per Rnd
at top speed |
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| Top
Speed: |
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MPH |
Meters/ Round |
Points |
Per |
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| |
Atmo: |
1500 |
Kilometers per hour |
932.06 |
2,500.00 |
35 |
15 |
100 |
Kilometers per hour |
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| |
Black; Reaction: |
10000 |
Kilometers per hour |
6,213.71 |
16,666.67 |
45 |
10 |
1000 |
Kilometers per hour |
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| |
Black; Pulse: |
3 |
Hex per day |
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|
6 |
0.5 |
Hex per day |
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| Maneuverability: |
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|
Max Agility |
Points |
|
|
System Overview |
Pods |
|
| |
Atmo: |
Great |
1d10 |
32 |
|
|
|
Gravity Drive: |
100% |
1 |
100% |
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| |
Black; Reaction: |
Great |
1d10 |
32 |
|
|
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Fusion Reactor: |
100% |
2 |
100% |
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| |
Black; Pulse: |
None |
NA |
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Thrusters: |
100% |
3 |
100% |
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| Traits: |
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Hull: |
100% |
4 |
100% |
|
| Allure (Minor) |
+2
Step on Allure related skill checks
when viewing/experiencing the ship.
Often triggers greed in others. |
|
Atmospheric: |
88% |
5 |
#N/A |
|
| Healthy as a
Horse (Minor) |
Takes
less damage under duress. |
|
Waste Management: |
100% |
6 |
#N/A |
|
| Loved (Major) |
Crew
can spend PP on ship's rolls even when not involved. Only when proper
maintenance (love) is given. |
|
Communications: |
100% |
7 |
#N/A |
|
| Haunted |
Strange
noises, creepy feelings, cold spots and ghostly images haunt the crew. |
|
Weapons: |
100% |
8 |
#N/A |
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| |
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Other systems: |
Other: |
#N/A |
9 |
#N/A |
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| |
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#VALUE! |
10 |
#N/A |
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| Ship Systems |
|
Damage Points |
|
Damage Sustained |
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| Gravity Drive |
100% |
The gravity drive is actually spread out around
the ship in electromagnetic form. This is the hub. |
|
| Central Processing Unit |
100% |
10 |
|
0 |
- the CPU of the gravity drive performs the
calculations of when and how to pulse the electromagnets. |
|
| RS SDRAM |
100% |
10 |
|
0 |
- Radiation-shielded random-access memory.
Approximately 1 kilobyte. Stores time/date information. |
|
| Pulse Iterator |
100% |
7 |
|
0 |
- The Pulse Iterator constantly shuts the
hull electromagnets on and off to save energy. |
|
| Pulse Capacitor |
100% |
7 |
|
0 |
- The Pulse Capacitor charges during the off
periods to provide enough power for the on periods. |
|
| Fiber Optic Cables |
100% |
10 |
|
0 |
- Fiber Optics, faster than the conventional
copper wire, are required to run calculations this fast. |
|
| Power Input Cables |
100% |
8 |
|
0 |
- The electricity travels to the grav drive
from the fusion reactor through this highly-protected wiring. |
|
| Output Cables |
100% |
7 |
|
0 |
- The electricity is pumped through the
capacitor from the reactor to the hull electromagnets with these. |
|
| Fusion Reactor |
100% |
The fusion reactor is actually a pretty simple
system, and usually has a backup computer control on the bridge. |
|
| Reaction Chamber |
100% |
25 |
|
0 |
- A torus shaped chamber containing the
fusion reaction. |
|
| Plasma Exit |
100% |
12 |
|
0 |
- Superheated helium is exhausted through
this controlled escape mechanism. |
|
| EM Layer |
100% |
15 |
|
0 |
- Coating the torus is an enormous
electromagnetic coil that is used to provide the gravity. |
|
| Wires |
100% |
12 |
|
0 |
- Wires run from the EM layer to the main
gravity drive to communicate the amount of energy needed. |
|
| Fuel Injection Manifold |
100% |
15 |
|
0 |
- A device that controls the injection of
hydrogen into the system. |
|
| Convection Chamber |
100% |
20 |
|
0 |
- The chamber mounted externally that
contains water, is heated by the plasma. |
|
| Turbine |
100% |
10 |
|
0 |
- The turbine which the convection of the
water turns. Is connected to the generator. |
|
| Generator |
100% |
25 |
|
0 |
- The generator which produces the
electrical current from the rotational kinetic energy of the turbine. |
|
| Fuel Tank |
100% |
15 |
|
0 |
- Tritium and deuterium is stored here bound
to oxygen as water. |
|
| Interface |
100% |
10 |
|
0 |
- You place an H2O pack or major fuel cell
here to empty it into the fuel tank. |
|
| Electrolysis Chamber |
100% |
15 |
|
0 |
- This chamber, between the injection and
the fuel tank, separates the hydrogen isotopes from the oxygen. |
|
| Immediate Store |
100% |
15 |
|
0 |
- This stores hydrogen isotopes that have
been separated before their injection into the reaction chamber. |
|
| Oxygen Exit |
100% |
15 |
|
0 |
- Oxygen is exhausted through this
pipe. |
|
| Computer Control |
100% |
110 |
|
0 |
- The computer that calculates the power of
the electromagnets and amount of fuel to inject. |
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| Emergency Interface |
100% |
5 |
|
0 |
- A hard-to-get-to computer interface that
can regulate the processes of the reactor. |
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| Emergency Kill Switch |
100% |
5 |
|
0 |
- A hard-to-get-to manual valve that stops
hydrogen injection into the reaction. |
|
| Hull |
100% |
The hull is made of superstrength alloys and
superdense plastics, typically, and can withstand most radiation. |
|
| Heat Sinks |
100% |
10 |
|
0 |
-These are apparatus effectively designed to
allocate heat proportionally. |
|
| Heat Pumping |
100% |
10 |
|
0 |
- These pipes can contain unused superheated
helium, which then transfers heat into the heat sink. |
|
| Coolant Pumping |
100% |
10 |
|
0 |
- Coolant (liquid or gas) can be pumped
through the heat sinks, vaporized, and then used for propulsion. |
|
| EM
Radiation Shields |
100% |
20 |
|
0 |
- Lead and other radioactivity-blocking
materials make up several layers of hull. |
|
| Airlocks |
100% |
40 |
|
0 |
- Everyone needs a way in and out. Usually 5 per hatch, more for larger. |
|
| Cargo Ramp Door |
100% |
10 |
|
0 |
- Some designs come with a ramp that extends
or lowers so that cargo can be easily moved into the boat. |
|
| Cargo Elevator |
- |
- |
|
0 |
- As an alternative to the ramp door, a
platform can be lowered on wires or pneumatic pumps. |
|
| Shuttle Launch Bay |
100% |
50 |
|
0 |
- Just another door alternative to get a
shuttle out of the boat. |
|
| Bomb Bay Doors |
- |
- |
|
0 |
- Popular with dropping cargo or craft
without landing. |
|
| Windows |
100% |
15 |
|
0 |
- Specially finished polarized plastics that
allow light to pass through but not other EM radiation. |
|
| Tints |
100% |
15 |
|
0 |
- Another window outside the normal window.
Light-blocking gas can be injected into the space between. |
|
| Atmospheric |
88% |
The atmosphere is recycled by algae used to
produce oxygen. However, this has several mechanical parts as well. |
|
| Algae Tanks |
100% |
5 |
|
0 |
- Containment tanks for the algae and the
water through which the oxygen is filtered. |
|
| Input Ventilation Shaft |
100% |
5 |
|
0 |
- Introduces the contaminated air into the
tank and mixes it into the water. |
|
| Ventilation Network |
80% |
5 |
|
1 |
- Runs throughout the ship. Powered by
gravitational bellows. |
|
| Filtration Network |
100% |
5 |
|
0 |
- A series of filters drains water from the
top of the tank without taking in algae. |
|
| Evaporation Shaft |
100% |
5 |
|
0 |
- The water is then heated and evaporated
into gases again. |
|
| Output Ventilation Shaft |
100% |
7 |
|
0 |
- The water vapor and oxygen is pumped back
out into the ship. |
|
| Waste Management |
100% |
The compaction of waste is one of the simplest
systems on the ship. |
|
| Centrifuge |
100% |
5 |
|
0 |
- The waste is centrifuged here. Water is
pushed through a semi-permeable wall to the evaporator shell. |
|
| Evaporator Shell |
100% |
5 |
|
0 |
- The outer wall is heated by the
superheated helium from the fusion reactor, causing evaporation. |
|
| Exhaust Shaft |
100% |
5 |
|
0 |
- The water is they recycled through this
shaft and added back into stores. |
|
| Transfer Shaft |
100% |
5 |
|
0 |
- This drops the somewhat dehydrated waste
into the compacting chamber. |
|
| Compactor |
100% |
5 |
|
0 |
- This chamber subjects the waste to extreme
heat, fusing it in compacted form. |
|
| EM Shell |
100% |
5 |
|
0 |
- The electromagnet surrounding the
compactor that causes the gravitational compression of waste. |
|
| Storage Cell |
100% |
5 |
|
0 |
- The compacted waste is then stored here,
dropped from the Compactor in. |
|
| Communications |
100% |
Used for sensors and navigation as well. |
|
| Main Computer |
100% |
10 |
|
0 |
- Located on the bridge, does all navigation
calculations. |
|
| Pilot's Controls |
100% |
20 |
|
0 |
- Interface that the pilot uses to
electronically control the ship. |
|
| Receiving Devices |
100% |
10 |
|
0 |
- The entire ship is as described in the
book, a huge antenna used to find and intercept EM signals. |
|
| External Sensors |
100% |
10 |
|
0 |
- On larger ships that are harder to design
as an antenna, external interceptors of EM signals are used. |
|
| Scanners |
100% |
10 |
|
0 |
- Scanners must be externally mounted so
that the hull's EM shielding doesn't block the signal. |
|
| Weapons |
100% |
Any systems that are used offensively. |
|
| Beam
Weapons Systems: |
- |
- |
|
0 |
|
|
|
| Missile Weapon Systems: |
100% |
25 |
|
0 |
2 Missiles. |
|
|
| Plasma Weapon Systems: |
- |
- |
|
0 |
|
|
|
| Projectile Weapon Systems: |
- |
- |
|
0 |
|
|
|
| Mine
Weapon Systems: |
- |
- |
|
0 |
|
|
|
| Targeting
Systems: |
- |
- |
|
0 |
|
|
|
| |
- |
- |
|
0 |
|
|
|
| |
- |
- |
|
0 |
|
|
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
0 |
|
|
| Other |
#N/A |
Any other system. |
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
|
|
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
0 |
|
|
| |
- |
- |
|
0 |
|
|
| Thrusters (Pod 1) |
100% |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
100% |
20 |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
100% |
20 |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
100% |
10 |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
100% |
10 |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
100% |
10 |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
100% |
10 |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
100% |
10 |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
100% |
10 |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 2) |
100% |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection
Manifold |
100% |
20 |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
100% |
20 |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
100% |
10 |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
100% |
10 |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
100% |
10 |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
100% |
10 |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
100% |
10 |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
100% |
10 |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 3) |
100% |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
100% |
20 |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
100% |
20 |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
100% |
10 |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
100% |
10 |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
100% |
10 |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
100% |
10 |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
100% |
10 |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
100% |
10 |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 4) |
100% |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
100% |
20 |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
100% |
20 |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
100% |
10 |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
100% |
10 |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
100% |
10 |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
100% |
10 |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
100% |
10 |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
100% |
10 |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 5) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 6) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 7) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 8) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 9) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
| Thrusters (Pod 10) |
#N/A |
The pods are relatively simple by nature and use
little of the electromagnetic energy that the rest of the boat uses. |
|
| Injection Manifold |
- |
- |
|
0 |
- Where the hydrogen is injected into the
engine to heat the air moving through it, or burn in rocket mode. |
|
|
| Chassis |
- |
- |
|
0 |
- The external aerodynamic shape of the
engine, in which everything is contained. |
|
|
| Swivelplate and Bearing |
- |
- |
|
0 |
- The device by which the engine can rotate
radially. Some designs prefer a ball-in-socket approach. |
|
|
| Intake |
- |
- |
|
0 |
- The device that at which air flows in by.
Closes off in rocket mode. |
|
|
| compressor |
- |
- |
|
0 |
- The central device that forces the air
into smaller volume. Cone-shaped. The turbine deploys from this. |
|
|
| Turbine |
- |
- |
|
0 |
- Collapsible blades which spin rapidly,
forcing air into the pod. Fold up at Mach .5. |
|
|
| Combuster |
- |
- |
|
0 |
- This is the spark system used to cause the
hydrogen reaction within the point of compression. |
|
|
| Nozzle |
- |
- |
|
0 |
- This is the exit point of the engine, and
ejects severely pressurized air and rocket fuel. |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
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|
|
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