CarterQuest Q2 2055 Results
SCED Base Tiberium Perimeter Stage 2 319/500
With training of the perimeter teams continuing, one of the subjects is Tiberium First Aid. While the teams are already familiar with the basics, a professional refresher is appreciated. The refresher additionally includes training to safely perform the operations for Stage 2 and 3 contamination, confirmed dermal infection and confirmed subdermal infection specifically.
Relocate Part Production 316/250
With one final push of part production operations are moved to Aldrin, making the old industrial site completely obsolete. Port crews have already begun deconstructing the old prefabs, marking the beginning of a new era for the organisation.
SCED Base Civilian Power Connections 167/100
The transformers and power lines connecting Aldrin to the civilian grid have been completed. For future expansion the site no longer needs to expand local energy production at the downside of not being able to operate at full capacity, should an outage occur.
Automated Assembly Line (Phase 3/8) 296/200
Completion of the next stage of the line has been completed, nearly doubling the number of assembly robots and adding a few specialised ones, significantly speeding up the workflow.
Modify Leopard (Normal Version) 316/160
Perhaps motivated by the ever closing time window before the election, modification of the Leopard went ahead perfectly, even with the continued normal work schedule. work is assisted by the mission crew, who use this time to familiarize themselves with the design's kinks and mannerisms. The launch test went successfully, the 4 engines easily producing the lift without problems. With the mission ready to launch, assembly used the remaining time to do various tests on the spacecraft, finding and fixing a bug with the RCS thruster control and replacing a faulty bearing on the fusion reignition system.
C-Sat-Development Autosuccess
As projected, modifying the Hermes into a dedicated communication satellite did not require much work. To finalise it however it still needs a small ion engine from the still unfinished development program, to correct their orbits should they drift. A recent addition is enabling the network as a very basic lunar positioning system. A far cry from GPS, the system is still able to calculate the rough position using time, the number and tags of the CSATs in the sky to calculate it to an accuracy of about a kilometer.
Heavy Space Suit Experiments 175/160
A number of technologies were experimented with, tried and tested for what is now known as the Hard Case Suit Project, or HCS. Even with GDI's immense material wealth, some corners had to be cut on the current generation of Zone Suits. For HCS, which has to keep the wearer alive in a, in some ways, more hostile environment, many of those cut corners were reexamined. Some of the test frames were equipped with superconducting wiring and more efficient, and expensive, electrical components. The hard case shell of the suit made for an interesting test case for technologies, with a total of three configurations being prototyped, including one made of small tanks of liquid water surrounding the wearer. The most interesting tests, however, were made with a few Myomer samples graciously provided by the Steel Talons at the request of Shen. The artificial muscles provide more efficient locomotion at the expense of degrading under solar radiation, because of their complex carbon structure. The experiments have also made clear to the researchers and planners in what direction to take the HCS. Similar to the Zone suits, which can perform long term missions in Red Zones, the Hardcase suit should allow extended operations, with life support, cooling, comfort and radiation shielding to facilitate operations of at least 16 hours.
Space Command Mission Planning
In rapid succession SCED's singular Titan launches three times to send five probes on their way to Mars, with barely any time for repairs to hit the launch window, the last launch almost suffers from an accident during ascend, but the enduring machine prevails and makes it to orbit and back with one control surface busted and some careful maneuvering by mission control. The probes meanwhile are on their way through deep space, having already finished about 25% of the journey.
Mission: Unmanned Lander Venus 173/150
Orpheus-Venus
Transfer Possible: Launch Window
Launch Windows: next Q2 2055, Q4 2056
Time for Transfer: 4 months (1 turn)
Mission Duration: ???
Requirements:
-Venus Surface Exploration Vehicle Experiments Finished
-Venus Surface Exploration Vehicle Developments Finished
-[ ]Unmanned Orbiter (Venus) Mission Finished
-Titan Rocket System + 6C Done
-(?) Rover (1AP Launch)
-(?) Basic Drive Module (1AP Launch)
Venus' surface is, perhaps with competition from the deep red zones, the most inhospitable surface of all the planets, moons and planetoids in the solar system. Its CO2 rich atmosphere generates the strongest greenhouse effect in the Solar System, creating surface temperatures of at least 735 K°/462 °C with a surface pressure 93 times greater than Earths. This makes Venus' surface hotter than Mercury's, which has a minimum surface temperature of −220 C°/ −364 F° and maximum surface temperature of 427 °C/ 801 °F), even though Venus is nearly twice Mercury's distance from the Sun and thus receives only 25% of Mercury's solar irradiance. Above the dense CO2 layer are thick clouds, consisting mainly of sulfuric acid, which is formed by sulfur dioxide and water through a chemical reaction resulting in sulfuric acid hydrate. Additionally, the atmosphere consists of approximately 1% ferric chloride. The very top layer of Venus' clouds zips around the planet every four Earth days, propelled by hurricane-force winds traveling roughly 224 mph/360 kph. A vehicle designed to explore the surface will require major changes in design, as the temperature alone makes operating any machine for prolonged periods of time a challenge.
Martian Comsat Network 63/100 Nat 1
Perhaps motivated by doing something else than planning the repair schedule for the ion cannon network, the mission planning comission has been doing undocumented overtime for SCED for months. The additional work was finally noticed by HR, who gave all personnel except the critical staff mandatory vacation. Very loud arguments were heard out of Carter's office between the Admiral and HR's lawyers about "The Admiral please not again making use of his subordinates weird sense of loyalty to him" and "We found pictures of Secretary Granger in the common rooms the staff used to throw darts and knives at for entertainment".
Relocate Administration 126/150
SCED does not have the same need for security as Space Command, as the division is mostly concerned with civilian exploratory matters. There are exceptions however. SCED is still a Space Command subsidiary, many of the staff are military personnel and both organisations regularly intermix off work. As such moving administration is not as easy as it could be, all files are secured by InOps and moved in armored transport escorted by GDI soldiers, an almost funny matter, if it were not so serious with the Brotherhood of Nod being a constant threat.
Prepare for Budget Infusion 146/150
Several SCED projects had been shelved due to budget limitations, but with colossal budget infusions through the treasury these projects are once more possible. They just need slightly more planning, preparation and paperwork to actually become possible.
Reach out to the Technical Schools 23/50
Reaching out to the Technicals had been significantly easier than the universities, as they already have ties with GDI's military machine. The biggest hurdle has been the amount of paperwork that needs to be done for the proposed cooperation, that sees much of the self trained staff of SCED getting a chance to get an official degree matching their experience.
CartersQuest Q3 2055
This Side Quest was allowed by Ithillid and is supposed to be fun. Things happening in CarterQuest will be affected by the main one, but unless Ithillid says otherwise it is noncanon.
Budget: 45 Capital + 80 Capital Reserve (10 to Experiments, 20 to Research Grants)
Power: 10
Personnel: 0
Office Space: 4
Laboratory Space: 2
Work Amenities
-Anchorage +++++ (17)
-Harper +++++ (27) (+++ (7) after relocation)
Tiberium: 0
Resources: 7 Usable Storage: Enough
Advanced Parts (AP): 7/turn Usable Stored: 7 (If not otherwise specified, 1AP can be bought for 10C)
Plan Goals:
-Finish [ ]Manned Landing (Luna) Before Q1 2056
Mandate:
-Complete a Lunar and Mars Orbiter Mission within a reasonable timeframe with a minimum of three (3) probes per body and Phobos and Deimos Orbiter mission with a minimum of one (1) Probe. The lunar mission should be finished before Q2 2056 and the martian mission should be underway with the second launch window from now.
Auxiliary Dice (AD): Auxiliary Dice cost Capital, the C cost for each category is specified in the header. The cost is added to all other costs.
Industry (3 Dice): +14 (AD cost: 4C)
[ ][Carter]Automated Assembly Line (Phase 4/7) 96/200 (1 AP or 5C/Die)
As the third in the row of the "Industry-M"-line of prefab buildings, the one meant for the automated assembly line stands tall and identical to the other ones. Erecting it proved no issue after the experience gained with the two other ones. All that is left is installing the industrial robots.
(Power-, Personnel -)
Assembly (4 Dice): +9 (AD cost: 7C) (Progress limited by assigned Parts)
[ ][Carter]Satellite Factory Assembly: Satellites bought this way can be launched the same turn, max 3 per turn, requires no Dice)
-[ ][Carter]Hermes Orbiter Probe 10C Cost
-[ ][Carter]C-SAT 5C Cost
[ ][Carter]Communication Satellite 0/35 0/1AP 0/1C (+1 CSAT)
[ ][Carter]Hermes Orbiter Probe 0/70 0/1AP 0/2C (+1 Orbiter Probe)
[ ][Carter]Opportunity Rover 0/100 0/1AP 0/2C (+1 Rover)
[ ][Carter]Basic Drive Module 0/70 0/1 AP (+1 Basic Drive Module)
[ ][Carter]Large Basic Drive Module 0/140 0/2 AP (+1 Large Basic Drive Module)
[ ][Carter] Titan Rocket System 0/70 0/1 AP
The Titan is the lightest of the launch vehicles in GDI's arsenal. It is reliable, robust and reusable, but can only carry a small payload compared to its powerful siblings.
[ ][Carter] Atlas Rocket System 0/210 0/5 AP
The Atlas was the workhorse with which the Philadelphia was built. A far more powerful rocket than the Titan System it is also known to be maintenance heavy and expensive to fuel. (
[ ][Carter]Leopard Class Transport 0/350 0/20 AP (AP can be requisitioned for 1 AP ~ 2C)
The Leopard is the crowning achievement in ground-orbital transportation. Its powerful fusion drive gives it a truly ridiculous amount of lifting power and cargo space.
[ ][Carter]VTOL Leopard Class Transport 0/350 0/24 AP (up to 20 AP can be requisitioned for 1 AP ~ 2C)
A heavily modified Leopard with the capability to travel to the moon and back.
[ ][Carter]Union Class Transport 0/350 0/20 AP (AP can be requisitioned for 1 AP ~ 3C)
The Union is the overlooked part of what came of the fusion lift experiments. Having much more in common with a rocket instead of a plane its lifting capability is less than the Leopard, but it can lift off vertically as a trade-off.
RnD: +20
Mechanics FAQ: RnD is divided into three categories: Development, which has Dice which can be assigned as normal, Experiments which have a starting cost and then make 1D100 progress per turn, and Studies which are long term observations of things and have no set end.
Development (3 Dice):
[ ]HCS Development 0/300 0/5C 0/2AP 0/400 (5C/Die)
With a variety of prototype technologies on the table, all that remains is bringing them together. By far the most work will be put into the more advanced features of the suit, such as the entering and leaving system and electronic features.
[ ]LRC-Development 0/1AP 0/1C 0/75 (5C/Die)
The long range version of the c-sat requires a little more work, or to be more precise, the parabolic send-receive antenna needs more work. Using this antenna and a more robust system of reaction wheels and RCS thrusters, the LRC can aim its antenna at specific targets to send and receive messages over long distances.
[ ]Radio-Thermal-Generator Module Development 0/2AP 0/3C 0/50 (5C/Die)
RTGs have historically been used as power sources in satellites, space probes, and uncrewed remote facilities such as a series of lighthouses built by the Soviet Union inside the Arctic Circle. RTGs are usually the most desirable power source for unmaintained situations that need a few hundred watts (or less) of power for durations too long for fuel cells, batteries, or generators to provide economically, and in places where solar cells are not practical. An RTG module will enable SCED rovers to operate in low light conditions, such as the outer solar system or the craters of the lunar poles.
[ ]Surface Exploration EVA Development 0/500 (2C/Die, requires 1 Rover in inventory)
Remote controlled rovers suffer from the, over interstellar and interstellar distances, slow speed of light. It takes about 5 to 20 minutes for a message to travel between earth and mars. Surface missions even further out will require local rover autonomy to some extent. The EVA unit will need to navigate, take samples and recognize when a problem needs a solution from earth, on its own. General reluctance in regards to autonomous vehicles means that GDI has limited knowledge of such use cases compared to other AI applications, making the creation of such an EVA more difficult.
[ ][Carter] Surface Space Suit Development 3/3C 1/1 AP 105/350 (5C/Die)
For any short term mission the standard GDI space suit will do, but for a longer term a new design will be needed. One that provides comfort in an environment with gravity and potentially atmosphere and is more resistant to corrosive and abrasive environments.
[ ][Carter]Ion Drive Module Development AP 4/4 84/125 (5C/Die)
An Ion drive has several advantages to a chemical one in a vacuum environment, such as a higher amount of delta V per weight-unit of fuel. The downside is that it requires a constant supply of power, usually from solar panels or a nuclear source. Similarly to the Basic Drive Module Development, developing an Ion Drive Module is about building a few models that fit with SCEDs mission parameters.
Experiments:
[ ][Carter]Reactionless Drive Joint Research Experiments 0/5Ap 0/??? 3C/turn
From the number of Scrin technologies discovered, the Reactionless Drive, as a revolutionary piece of propulsion, is of the biggest interest to SC and SCED and, as part of the treasury's joint research program, can assist the research. Understanding the physics behind the technology requires millions of configurations to be tested, the data compiled and physicists to spend many sleepless nights over the results. The more drive test-frames are out there to cycle through frame configurations, the faster the data can be gathered.
[Active]Plasma Torch Drive Experiments 5/5 AP 20/20C
222/340 5C/turn
[Active]Fusion Drive Experiments 5/5 AP 20/20C
167/340 5C/turn
Space Command Mission Planning (0/6 Dice) +5
[-][Carter]Mission: Unmanned Orbiter (Write-in) (for example: Luna, Mars, Ceres, Jupiter) 0/50
[-][Carter]Mission: Unmanned Lander (Write-in) 0/200
[-][Carter]Mission: Manned Landing (Write-in) 0/500
-Mars 279/450
[-][Carter]Mission: Research Base (Write-in) 0/1000
-Luna
493/500
-Mars 0/800
[-]Martian Comsat Network
63/100
With more missions to the mars surface likely to happen sooner than expected, the buildup of a proper commsat-system in martian orbit will need to be prepositioned to cover the surface radio reception.
Mission Tracker
Bureaucracy (5 Dice): +6
[ ][Carter]Relocate Administration
126/150
The administration however has much more paperwork and sensitive data that InOps has categorised to need at least basic secrecy, due to SCED position as a Space Command subsidiary. Moving operations over will need to be done with much higher security standards as thus take much longer.
[ ][Carter]Prepare for Budget Infusion
146/150
The first time the treasury decided to inject additional funding into SCED the organisation was almost paralysed about the question what exactly to do with so much money. By planning several projects outside the price range the Division can normally pay for, the organisation is prepared for the next time billions of credits are put in their laps.
[ ][Carter]Reserve Enterprise Working Hours (Requires one Die)
The Enterprise nearing the first real stage of operation has opened up an interesting option. The delivery of missions in small parts with assembly relegated to the personnel in orbit. It should take a little paperwork to set it up, but Carter being the Commanding Officer of Space Command helps.
[ ][Carter]Expand RnD Staff 0/5C 0/150
(+1 Development Die, Laboratory Space -)
[ ][Carter]]Requisition (Requires one Die)
-[ ]Titan Rocket System 0/10C
-[ ]Atlas Rocket System 0/20C
-[ ]Leopard Shuttle System 0/60C
-[ ]Union Shuttle System 0/80C
Inventory:
-1 Titan Rocket System
-1 VTOL Leopard
-Construction Robots
-Construction Vehicles
-V-35 Ox Squadron
-1 Basic Drive Module
-1 Hermes Probes
-1 CSAT
-1 Surface Rover
Vote by Plan, Vote closes in 24h-ish.