sounds a bit like "trade wars" .. if you remember that BBS door game?

(I was born in 1995)

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Name: Viviana
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ID: 000657678
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Your ship arrives at the planet Viviana, having used up 9 % of its propellant capacity to decelerate and establish orbit. The ship's course has to be adjusted in the middle of the journey, using up 1 extra unit of propellant, but otherwise the trip is unremarkable. The crew are in agreeable spirits.

Viviana is a cold, inhospitable world. Even with fully-protected space suits, any manned activity on this planet would be very limited. Seen on our displays, the landscapes of this frigid planet present a rather peaceful view. With the ship's shielding, the background radiation dose rate for working in the planet's orbit is measured at 22 mSv/a (50 mSv/a is the occupational limit on Earth). Working on the planet's surface will expose astronauts to an estimated 34 mSv/a (3 mSv/a average for Earth's surface). Unmanned expeditions to this planet will expend a minimum of 4 units of chemical propellant and 1 electronics modules, and will risk an additional 5 electronics modules, 2 structural panels and 1 shielding panels should the mission fail. A manned expedition to explore this planet will cost 2 times as much, risk the lives of 1 astronauts, and is inadvisable since no manned mining activity can be sustained here in any case.

Viviana's primary composition: Silicon 59, Aluminium 39, Calcium 18, Iron 11, Magnesium 11

Constructing an unmanned mining outpost on Viviana's frozen surface will cost 3 units of chemical propellant, 7 structural panels, 3 shielding panels, and 5 electronics modules. It will produce a maximum of 20 structural panels, 20 units of silicon, 0 units of iron, 1 units of nutrients. Extensive geological samples from the planet are retrieved and stored, revealing mediocre deposits of Thallium and Sulfur beneath the surface. No more than 4 units of each may be mined here in the course of a year.

Staying in orbit around Viviana for the rest of the year, we can expect on-board resource expenditures to be nominal. Keeping instruments cool is easy near this cold world. Up to 2 units of fusion propellant and 0 units of chemical may be expended for orbital maintenance. Routine work on the ship will consume up to 2 structural panels, 3 shielding panels, 0 electronics modules. The life support system can be expected to lose up to 3 C, 0 N, 3 O, 2 H, 1 Si, 2 Fe, and 0 units of other nutrients. For the crew population, we anticipate a maximum birth rate of 2 % and a maximum death rate of 3 % during the year. The on-board doctors are reporting most adults on board to be in a fairly fitting state of health. The safety of our station from accidents or collisions in orbit around Viviana is judged to be painfully vulnerable.

The analysis and planning for the first manned mission to Viviana's surface regards the prospects of landing as adequate . The mission is to be led by Dorthy Mase, who is considered to be a thoroughly poor astronaut by much of the ship's crew. The main objectives of the mission are to 1) Acquire samples from the Viviana's surface; 2) Explore prospective sites for resource mining; and 3) Study some of the impact sites from meteorites on the planet to learn more about the history of this system . The recommended landing site for the mission is in a well-surveyed area with several interesting geological features. The astronauts are to remain on the planet's cold surface for no longer than 8 hours before they must depart. The surface of Viviana at the landing site feels strangely difficult to grasp to the touch. The astronauts set off to do their exploring, keeping a particular lookout for mineral deposits of mustard-coloured appearance on the surface, which have been noted by surveys during the approach to the planet. They also search for a mysterious hook-shaped rock formation that was spotted in imagery of Viviana from orbit. The astronauts are in a mostly auspicious mindset about this expedition.

Leaving Viviana's orbit will expend 5 % of our total propellant capacity.

Viviana was named in honour of Viviana Yamasaki, an outstanding philantropist who died in unfortunate circumstances.

Here is an example of the kind of output my input files will generate...

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Name: Laz
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ID: 024508222
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Our ship arrives in orbit of the planet Laz, having used up 16 % of its propellant capacity to decelerate and establish orbit. The journey to the planet is a rather uninteresting one. The crew are in admirable spirits.

Laz is a murky gas giant with a cold atmosphere. Seen on our displays, the cloudscapes of this planet present a rather extreme view. Laz is suitable only for automated atmospheric mining of gases. Like most gas giant planets, this planet possesses an active magnetosphere, which is closely similar to Jupiter's. Powerful radiation belts extend as far as 1.3 million kilometers from the planet, and despite all the shielding, our ship cannot approach any closer than that without exposing the crew to lethal doses of radiation, or visit any satellites that fall within the radiation belts. Even at the far outer edges of this zone, crew working regular shifts outside the ship would absorb as much as 10 Sv/a (compared to 0.16 Sv/a in low Earth orbit). In a safe distant orbit, the average exposure level for the crew is a more reasonable 42 mSv/a (50 mSv/a is the occupational limit on Earth). Unmanned expeditions to this planet will expend a minimum of 8 units of chemical propellant, 2 units of shielding and 3 electronics modules, and will risk an additional 3 electronics modules, 3 structural panels and 3 shielding panels should the mission fail. Obviously, any manned expeditions to Laz are out of question. Any satellites that lie within its radiation belts are also off-limits for astronauts, and are best avoided by robotic probes as well.

The first atmospheric proble to Laz arrives on the star-lit side of the planet, which turns out to be a generally great location in the cold environment of the planet. Deploying parachutes and aerostatic balloons, the unmanned exploration vessel takes 3 hours to descend to its target altitude, then begins gathering samples. However, on the return trip, contact with the probe is lost, and its fate remains unknown. Prospects for further probes into Laz's atmosphere look acceptable.

Laz's primary composition: Hydrogen 94, Helium 4

Sending aerostatic mining probes down into Laz's cold atmosphere will cost 8 units of chemical propellant, 5 structural panels, 5 shielding panels, and 5 electronics modules. The resulting mining operation is expected to produce a maximum of 17 fusion propellant and 16 units of pure hydrogen. Gas samples from the planet also indicate the presence of typical traces of Argon and Phosphorus in the atmosphere, which could be refined in the amount of no more than 3 units each.

Staying in orbit around Laz for the rest of the year should be feasible - there are worse places where our ship could be. Up to 5 units of fusion propellant and 2 units of chemical propellant may be expended for orbital maintenance. Routine work on the ship will consume up to 6 structural panels, 6 shielding panels, 3 electronics modules. The life support system can be expected to lose up to 6 C, 3 N, 4 O, 4 H, 0 Si, 0 Fe, and 6 units of other nutrients. For the crew population, we anticipate a maximum birth rate of 1 % and a maximum death rate of 3 % during the year. The on-board doctors are reporting most adults on board to be in a fairly unremarkable state of health. The safety of our station from accidents or collisions in orbit around Laz is judged to be superlative. Conducting risky EVA work and handling highly irradiated mining probes returning from Laz's atmosphere means that 1 crew on dangerous duties will risk their lives this year.

Laz was named in honour of Laz Harger, a spaceship engineer whose work had changed the world.

So far the errors have been easy to detect - I've noticed that all of the variables (both for Rnd and for number of lines of text in any custom-defined variable) are limited to 10,000.

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Name: Inna
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ID: 000005386
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Our ship arrives at the planet Inna, a dry desert world, having used up 16 % of its propellant capacity to decelerate and establish orbit. During the course of this journey, a political faction among the ship's crew seems to have been formed in secret, perhaps with the goal of overthrowing the ship's officers. To date, they have not taken any action. The crew are in rotten spirits.

Inna is a cold, inhospitable desert world. Even with fully-protected space suits, any manned activity on this planet would be very limited by the temperature. Seen on our displays, the landscapes of this frigid planet present a rather discouraging view. This planet possesses no intrinsic magnetosphere, much like Mars or Venus. There are no radiation belts to traverse around the planet - but this also means no protection from cosmic rays, except for a possible atmosphere (if the planet possesses one). Fortunately, this cold and desolate planet seems to receive only a modest amount of cosmic radiation, save for occasional flares and bursts. Crew working outside the ship would receive a dose of up to 60 mSv/a from cosmic sources. The total radiation dose received from the planet itself and the liquids, dust and gases on its surface is up to about 3 mSv/a (2 mSv/a is Earth average). Unmanned expeditions to this planet will expend a minimum of 6 units of chemical propellant and 2 electronics modules, and will risk an additional 2 electronics modules, 4 structural panels and 2 shielding panels should the mission fail. A manned expedition to explore this planet will cost 5 times as much, risk the lives of 9 astronauts, and is inadvisable since no manned mining activity can be sustained here in any case.

The first unmanned probe to Inna lands in a narrow valley on the planet's surface, which turns out to be a generally crude landing site. The unmanned craft is able to retrieve a surface sample from Inna, a small goblet-shaped rock. The probe's mission runs into some trouble when its instruments malfunction, but it is able to recover and return to the ship successfuly with its samples. Prospects for further landings on the planet look superb.

The analysis and planning for the first manned mission to Inna's surface regards the scientific value of the expedition as magnificent . The mission is to be led by Vilhelmina Silbert, who is considered to be a thoroughly average astronaut by much of the ship's crew. The main objectives of the mission are to 1) Acquire samples from the Inna's surface; 2) Explore prospective sites for resource mining; and 3) Search for deposits of rare isotopes, particularly Helium-3 . The recommended landing site for the mission is on the star-lit side of the planet. The astronauts are to remain on the planet's cold surface for no longer than 10 hours before they must depart. The surface of Inna at the landing site feels strangely pliable to the touch. The astronauts must set off to do their exploring, keeping a particular lookout for mineral deposits of buckskin appearance on the surface, which have been noted by surveys during the approach to the planet. They will also search for a mysterious crescent-like rock formation that was spotted in imagery of Inna from orbit. The astronauts are in a mostly inauspicious mindset about this expedition.

Inna's primary composition: Silicon 38, Iron 19, Aluminium 12, Magnesium 9, Calcium 4, Sulfur 1, Iron 1

Constructing an unmanned mining outpost on Inna's frozen surface will cost 3 units of chemical propellant, 6 structural panels, 4 shielding panels, and 6 electronics modules. It will produce a maximum of 5 structural panels, 3 shielding panels, 7 electronics modules, 3 units of silicon, 1 units of iron, 10 units of nutrients, and no more than 1 units of reactor fuel. Extensive geological samples from the planet are retrieved and stored, revealing serious deposits of Fluorine and Gallium beneath the surface. No more than 2 units of each may be mined here in the course of a year.

Staying in orbit around Inna for the rest of the year, we can expect on-board resource expenditures to be nominal. Keeping instruments cool is easy near this cold world. Up to 1 units of fusion propellant and 0 units of chemical may be expended for orbital maintenance. Routine work on the ship will consume up to 1 structural panels, 0 shielding panels, 0 electronics modules. The life support system can be expected to lose up to 0 C, 0 N, 3 O, 0 H, 2 Si, 1 Fe, and 1 units of other nutrients. For the crew population, we anticipate a maximum birth rate of 6 % and a maximum death rate of 1 % during the year. The on-board doctors are reporting most adults on board to be in a fairly exemplary state of health. The safety of our station from accidents or collisions in orbit around Inna is judged to be safe. Up to 1 crew are expected to risk their lives on dangerous duties in orbit.

Leaving Inna's orbit will expend 17 % of our total propellant capacity.

Inna was named in honour of Inna Guo, a famous entertainer who campaigned tirelessly for reproductive rights.