recursal/Fanatic-Fandom huggingface dataset:
Boron

***Sources & Ore to Ingot %***

File:Boracite cm lg.png

**Boracite Ore to Ingot - 18.43%**

File:Fontarnauite cm lg.png

**Fontarnauite Ore to Ingot - 8%**

File:Borcarite cm lg.png

**Borcarite Ore to Ingot - 7.54%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 5.19%**

Boron has potential uses in pyrotechnics due to a green tinged flame being given off when burned. You can also find boron in ceramic glazes and cleaning solutions like borax however further development if required to ensure safe usage procedures.
Huttonite

Huttonite is a radioactive composite material which doesn't mean anything apart from containing a few radioactive elements. No special handling is required, that is, if you can actually get your hands on some. Most deposits are deep and huttonite ore will be difficult to obtain with basic hand tools.
Sphalerite

Sphalerite ore and zinc ore are the two ideal sources for obtaining zinc in large amounts. Fabricating any substantial amount of brass will not be possible until one has secured one of these sources. Sphalerite ore is common on Earth but will likely be found over 100 meters deep on other planetary bodies.
Plutonium

***Sources & Ore to Ingot %***

File:Uraninite 01 ForAxisXZ cm lg.png

**Uraninite Ore to Ingot - 0.07%**

File:Pitchblend cm lg.png

**Pitchblend Ore to Ingot - 0.02%**

File:Zircon cm lg.png

**Zircon Ore to Ingot - 0.01%**

File:Monazite cm lg.png

**Monazite Ore to Ingot - 0.009%**

Initially, it was thought possible to make a plutonium weapon that operated by slamming together two pieces of nuclear fuel to create a "critical mass" - a lump big enough to set off a chain reaction. But soon it became clear that plutonium gave off too many neutrons - the particles that trigger each nucleus to split apart and liberate energy. This meant that as soon as two pieces of plutonium came anywhere near each other, the reaction would start prematurely, leading to a so-called "fizzle", where the bomb fails to detonate correctly. The solution was to take a single subcritical piece of plutonium and surround it with conventional high explosives. Detonating the explosive compressed the fuel at the center, while at the same time the core was showered with neutrons from the "initiator" device usually made of beryllium and polonium. It's also worth noting that there are 19 plutonium isotopes known, with Pu-238 has found applications as a power image. It gives off mainly weak penetrating alpha radiation, but enough of it so that a reasonable-sized lump can generate a large number of watts of power for long periods of time.

 PlutoniumActivation
Iridium

***Sources & Ore to Ingot %***

File:Rutheniridosmine cm lg.png

**Rutheniridosmine Ore to Ingot - 21.22%**

File:Ruthenarsenite cm lg.png

**Ruthenarsenite Ore to Ingot - 0.04%**

In its pure form iridium is brittle, lustrous, and silvery. The high melting point, corrosion resistance, and hardness of iridium and its alloys have determined most of its applications. More advanced sought after uses include the tips of spark plugs, custom engineering components and crucibles that can withstand high temperatures.
Silicon

***Sources & Ore to Ingot %***

File:Silicon 01 ForAxisXZ cm lg.png

**Silicon Ore to Ingot - 40%**

File:RocksDesert ForAxisXZ cm lg.png

**Desert Rock Ore to Ingot - 28.87%**

File:Sand 02 ForAxisXZ cm lg.png

**Sand Ore to Ingot - 23.76%**

File:MarsSoil 01 ForAxisXZ cm lg.png

**Mars Soil Ore to Ingot - 23.52%**

File:Halite cm lg.png

**Quartz Ore to Ingot - 20.46%**

File:Monazite cm lg.png

**Monazite Ore to Ingot - 10.31%**

File:Hafnon cm lg.png

**Hafnon Ore to Ingot - 9.31%**

File:Huttonite cm lg.png

**Huttonite Ore to Ingot - 9.31%**

File:Coffinite cm lg.png

**Coffinite Ore to Ingot - 8.2%**

File:Spodumene cm lg.png

**Spodumene Ore to Ingot - 8.1%**

File:Zircon cm lg.png

**Zircon Ore to Ingot - 7.5%**

File:Thorite cm lg.png

**Thorite Ore to Ingot - 6.53%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Chamosite Ore to Ingot - 6.3%**

File:Kentbrooksite cm lg.png

**Kentbrooksite Ore to Ingot - 6.15%**

File:Titanite cm lg.png

**Titanite Ore to Ingot - 5.84%**

File:Lepidolite cm lg.png

**Lepidolite Ore to Ingot - 4.83%**

File:Soil cm lg.png

**Soil Ore to Ingot - 3.26%**

File:Green2 cm lg.png

**Mulch Ore to Ingot - 3.26%**

File:Bismutotantalite cm lg.png

**Bismutotantalite Ore to Ingot - 0.88%**

File:Cerite cm lg.png

**Cerite Ore to Ingot - 0.51%**

File:Chaoite cm lg.png

**Chaoite Ore to Ingot - 0.29%**

An atom of silicon can bond with up to four other atoms, just like carbon. However, whereas life on earth-like uses water as a solvent, silicon-based biochemistry would require liquid ammonia and extremely low temperature in order to survive.The element of silicon is formed by the nuclear fusion process that takes place inside a star. After all the hydrogen has been converted into helium, the star begins a series of nuclear reactions, burning carbon, neon, and oxygen and creating additional elements at each stage; silicon is produced during the oxygen-burning. Probably the most important use for silicon is in microchips, acting as a "semiconductor" - a material that is neither a perfect insulator nor perfect conductor. The latest microchips pack billions of transistors onto a square of silicon just half an inch across. Silicon is mixed with metals, such as aluminum, to improve their ability to form a quality casting. Silicon mixed with carbon forms silicon carbide, a common abrasive, and when mixed with oxygen, silicon forms the rubber-like polymer silicone used for waterproofing and air-sealing your ships hull.
Chaoite

Mining factions tasked with documenting sources of this predominantly carbon material, have yet to report the existence of the ore on Mars. Is it true that there are no sources of Chaoite on the red planet? Or is someone is withholding information regarding it's whereabouts? Hard to believe anyone within the economic exclusion zone of Mars would want to monopolize an abundant and worthless element like Carbon.

 Carbon | Template:Carbon | 563.04
 Silicon | Template:Silicon | 2.45
 Chlorine | Template:Chlorine | 1.40
Phosphorus

***Sources & Ore to Ingot %***

File:AlienGreenGrass cm lg.png

**Alien Mulch Ore to Ingot - 0.79%**

File:MarsSoil 01 ForAxisXZ cm lg.png

**Mars Soil Ore to Ingot - 1.84%**

File:MoonSoil 01 ForAxisXZ cm lg.png

**Regolith Ore to Ingot - 3.55%**

File:AlienSnow cm lg.png

**AlienOrganic Hydrocarbons Ore to Ingot - 2.68%**

File:Coal cm lg.png

**Coal Ore to Ingot - 0.5%**

File:Fluorapatite cm lg.png

**Fluorapatite Ore to Ingot - 4.4%**

File:Monazite cm lg.png

**Monazite Ore to Ingot - 7.73%**

File:Thorite cm lg.png

**Thorite Ore to Ingot - 0.03%**

Phosphorus is highly toxic when ingested, reacting with the liver causing death within days. Plus it's a central component in nerve gas, which kills by blocking the enzyme that governs the way the body sends signals to vital organs such as the heart. On the other hand when phosphorus bonds with oxygen it forms phosphate. Phosphate molecules are of paramount importance in biochemistry, where they are part of ATP (adenosine triphosphate), which acts as a medium for energy in body cells. Phosphate is also a component in DNA, and is essential to the skeletal system; bone is made of calcium phosphate. Phosphorus occurs in four natural allotropes, the most common of which are white and red phosphorus. White phosphorus is the nastiest form; it catches fire spontaneously in air, leading us to its use in tracer bullets and incendiary bombs and most notably gun powder (charges).
Coil

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 0.2 x Template:Insulation
* 0.2 x Template:Tape
 Base Production Time: 1 Seconds

* 2 x Template:Insulation
* 2 x Template:Tape
 Base Production Time: 5 Seconds

* 20 x Template:Insulation
* 20 x Template:Tape
 Base Production Time: 25 Seconds
Control Rod

## ***Production Info***

### Classification

**Advanced
Electrical**

## ***Trade Data***

### Drop Probability

**0.5**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 6 x Template:Solder
* 4 x Template:Ball Bearing
* 3 x Template:Insulated Copper Wire
* 3 x Template:Steel Rod
* 1 x Template:Detector
* 1 x Template:Solenoid
 Base Production Time: 6 Seconds

* 60 x Template:Solder
* 40 x Template:Ball Bearing
* 30 x Template:Insulated Copper Wire
* 30 x Template:Steel Rod
* 10 x Template:Detector
* 10 x Template:Solenoid
 Base Production Time: 50 Seconds

* 600 x Template:Solder
* 400 x Template:Ball Bearing
* 300 x Template:Insulated Copper Wire
* 300 x Template:Steel Rod
* 100 x Template:Detector
* 100 x Template:Solenoid
 Base Production Time: 250 Seconds
Germanium

***Sources & Ore to Ingot %***

File:Germanite cm lg.png

**Germanite Ore to Ingot - 1.47%**

File:Orpiment cm lg.png

**Orpiment Ore to Ingot - 0.54%**

File:Sphalerite cm lg.png

**Sphalerite Ore to Ingot - 0.13%**

The first semiconductor devices were made from germanium. These were diodes - electrical components that only allow current to pass through in one direction. This is useful, for example, in converting "alternating" electrical current (AC, of the sort that might be produced by a dynamo generator such as wind turbines) into steady, constant "direct current" (DC). Applications into fibre optic cables are being developed - cables which would allow data transfer speeds far greater than that of anything currently being used. Germanium is also completely transparent at infrared wavelenghts, making it extremely useful in the optics of devices such as night vision cameras however such applications have not been developed yet.
Silver

***Sources & Ore to Ingot %***

File:Silver 01 ForAxisXZ cm lg.png

**Silver Ore to Ingot - 27%**

File:Arsenolite cm lg.png

**Iodargyrite Ore to Ingot - 6.5%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 0.13%**

File:Sphalerite cm lg.png

**Sphalerite Ore to Ingot - 0.08%**

File:Chalcopyrite cm lg.png

**Chalcopyrite Ore to Ingot - 0.01%**

Silver invariably plays second fiddle to gold, which is a shame as it possesses many intriguing qualities. Amazingly, silver is so ductile that 0.035 ounces (1 gram) of it can be stretched into a wire of more than 2000 meters in length. It is the best conductor of electricity of any element, and has the highest thermal conductivity of any metal. Like gold, silver is one of the least chemically reactive of the transition metals, although it does react with sulfur compounds, therefore having both refined materials together in your inventory is not recommended. Silver is the most reflective of metals and this accounts for its uses in mirrors, however its more economical to use aluminum. Pure silver can be too soft for use in everyday objects, so copper is added to create sterling silver, which is both durable and decorative.
Niobium

***Sources & Ore to Ingot %***

File:Columbite cm lg.png

**Columbite Ore to Ingot - 8.77%**

File:Bismutotantalite cm lg.png

**Bismutotantalite Ore to Ingot - 8.43%**

File:Kentbrooksite cm lg.png

**Kentbrooksite Ore to Ingot - 0.09%**

Niobium is a soft, shiny, gray metal when pure and is strikingly similar to tantalum - at least chemically that is. No biological processes have been linked to niobium however alloying with Titanium, Zirconium, and Tantalum will make one hell of a superalloy gummetal - known for it's impeccable heat-resistance and mainly used in weapon components.
Strontium

***Sources & Ore to Ingot %***

File:Strontiofluorite cm lg.png

**Strontiofluorite Ore to Ingot - 15.3%**

File:Fontarnauite cm lg.png

**Fontarnauite Ore to Ingot - 1.3%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 0.21%**

File:Titanite cm lg.png

**Titanite Ore to Ingot - 0.07%**

Strontium is a soft, silvery, highly reactive alkaline earth metal. If added to water, strontium reacts to produce strontium-hydroxide and hydrogen. If exposed to air, strontium metal quickly turns a yellowish color with the resulting oxide, a white fine powder that will spontaneously ignite in air. Due to the similarities between calcium and strontium, strontium-chloride has found uses in toothpaste and as a plausible bone supplement however more studies need to be done in order to be approved.
Rhodium

***Sources & Ore to Ingot %***

File:Rutheniridosmine cm lg.png

**Rutheniridosmine Ore to Ingot - 0.12%**

File:Ruthenarsenite cm lg.png

**Ruthenarsenite Ore to Ingot - 0.08%**

Rhodium is corrosion resistant, unaffected by air and water up to 1112ºF (600ºC) and nearly impervious to attack by some of the strongest acids with only molten alkalis able to do damage to this metal. The main use of rhodium is in catalytic converters which can be accommodated into most systems outputting harmful emissions. Platinum can also be used in catalytic converters, however rhodium is cheaper and generally reduces unwanted reactions like the catalyst nitric oxide. Other uses of Rhodium stem from its reflectivity as a thin surface layer. Development in coatings for optical fibers and mirror applications have been sought. One of rhodium's most intriguing characteristics is its peculiar ability to absorb oxygen from its environment without becoming oxidized itself. This is because, when rhodium is melted, it captures oxygen and then releases it as it solidifies.
Palladseite

Contrary to what the name may lead you to believe, Palladseite ins't actually the primary source of palladium. If Telluropalladinite Ore has yet to be found then Palladsenite will prove most useful providing the palladium needed in the fabrication of reactor components and energy couplers.

 Palladium | Template:Palladium | 150.61
 Tellurium | Template:Tellurium | 62.29
 Mercury | Template:Mercury | 2.83
 Copper | Template:Copper | 2.82
Brazing Rod

## ***Trade Data***

### Drop Probability

**0.3**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

5 x Template:Titanium
0.1 x Template:Zirconium
 Base Production Time: 3 Seconds

50 x Template:Titanium
1 x Template:Zirconium
 Base Production Time: 15 Seconds

500 x Template:Titanium
10 x Template:Zirconium
 Base Production Time: 75 Seconds
Iodine

***Sources & Ore to Ingot %***

File:Arsenolite cm lg.png

**Iodargyrite Ore to Ingot - 12.74%**

File:AlienGreenGrass cm lg.png

**Alien Mulch Ore to Ingot - 2.71%**

File:AlienSoil cm lg.png

**Alien Soil Ore to Ingot - 0.17%**

File:Halite cm lg.png

**Halite Ore to Ingot - 0.03%**

Iodine is essential to human beings and many animals as a constituent of thyroxine and tri-iodothyronine. These are produced by the thyroid gland in the neck and regulate a number of metabolic functions, including controlling body temperature and managing the levels of many hormones. Iodine in its natural form is toxic but, like other members of the halogen group, it forms a safe stable ion - iodide - which is highly soluble and in plentiful supply in brine. It's important to note that iodine is often used as a blanket term when referring to its various forms. Elemental iodine is black, but most engineers associate the element with the violet tint that it produces when it evaporates.
Chlorine

***Sources & Ore to Ingot %***

File:Halite cm lg.png

**Halite Ore to Ingot - 32.89%**

File:Sylvite cm lg.png

**Sylvite Ore to Ingot - 11.87%**

File:EarthStone cm lg.png

**Stone Ore to Ingot - 8.03%**

File:AlienSnow cm lg.png

**AlienOrganic Hydrocarbons Ore to Ingot - 6.73%**

File:AlienGreenGrass cm lg.png

**Alien Mulch Ore to Ingot - 6.5%**

File:AlienSoil cm lg.png

**Alien Soil Ore to Ingot - 5.57%**

File:Ice 02 cm lg.png

**Brine Ore to Ingot - 5.23%**

File:MoonRocks 01 ForAxisXZ cm lg.png

**Anorthite Ore to Ingot - 5.23%**

File:Amber Ice cm lg.png

**Amber Ice Ore to Ingot - 2.82%**

File:Boracite cm lg.png

**Boracite Ore to Ingot - 0.75%**

File:Fluorapatite cm lg.png

**Fluorapatite Ore to Ingot - 0.4%**

File:Chaoite cm lg.png

**Chaoite Ore to Ingot - 0.16%**

File:Arsenolite cm lg.png

**Iodargyrite Ore to Ingot - 0.14%**

Chlorine images are abundant on Alien-Like however have not been integrated into any schematics as of yet.
Stator

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.28**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 4 x Template:Zip Ties
* 6 x Template:Diode
* 12 x Template:Solder
* 3 x Template:Insulated Copper Wire
 Base Production Time: 2 Seconds

* 40 x Template:Zip Ties
* 60 x Template:Diode
* 120 x Template:Solder
* 30 x Template:Insulated Copper Wire
 Base Production Time: 10 Seconds

* 400 x Template:Zip Ties
* 600 x Template:Diode
* 1 200 x Template:Solder
* 300 x Template:Insulated Copper Wire
 Base Production Time: 50 Seconds
Iodargyrite

Iodargyrite looks identical in appearance to arsenolite and can easily be mistaken for it if ore detectors happen to be offline or using your using outdated tools. Iodine and silver are very useful elements and are obtained in fairly substantial amounts from a small amount of raw material. If mining from Earth's crust don't be surprised to find some deposits over 200 meters down, but I suppose this is better than Titan where there are no deposits at all.

 Iodine | Template:Iodine | 41.41
 Silver | Template:Silver | 21.12
 Chlorine | Template:Chlorine | 0.44
Cinnabar

Deposits of Cinnabar can readily be found on Mars and Europa and can be found in rather large formations. Mercury currently has limited uses in fabrication but Sulfur will be needed to fabricate the necessary ammunition for conventional kinetic weapons.

 Sulfur | Template:Sulfur | 72.00
 Mercury | File:Mercury ingot.png | 72.00
Hydrogen

***Sources & Ore to Ingot %***

File:AlienIce cm lg.png

**CHON Ore to Ingot - 168%**

File:AlienIce 03 cm lg.png

**Ammonium Hydroxide Ore to Ingot - 144%**

File:Ice 03 cm lg.png

**Mineral Ice Ore to Ingot - 48%**

File:Ice 02 cm lg.png

**Brine Ore to Ingot - 43.54%**

File:EarthIce cm lg.png

**Ice Ore to Ingot - 43.5%**

File:AlienSnow cm lg.png

**AlienOrganic Hydrocarbons Ore to Ingot - 39.6%**

File:Green Ice cm lg.png

**Green Ice Ore to Ingot - 38.82%**

File:Amber Ice cm lg.png

**Amber Ice Ore to Ingot - 37.53%**

File:Blue Ice cm lg.png

**Blue Ice Ore to Ingot - 35.53%**

File:Pink Ice cm lg.png

**Pink Ice Ore to Ingot - 32.91%**

File:Purple Ice cm lg.png

**Purple Ice Ore to Ingot - 30.33%**

File:IceEuropa2 cm lg.png

**Europa Ice Ore to Ingot - 27.06%**

File:AlienIce cm lg.png

**Alien Ice Ore to Ingot - 21.03%**

File:AlienIce cm lg.png

**Methane Hydrate Ore to Ingot - 12.48%**

File:Borcarite cm lg.png

**Borcarite Ore to Ingot - 8.88%**

File:Green2 cm lg.png

**Mulch Ore to Ingot - 6.89%**

File:Soil cm lg.png

**Soil Ore to Ingot - 6.89%**

File:Fontarnauite cm lg.png

**Fontarnauite Ore to Ingot - 5.63%**

File:Cerite cm lg.png

**Cerite Ore to Ingot - 4.38%**

File:MoonSoil 01 ForAxisXZ cm lg.png

**Regolith Ore to Ingot - 2.87%**

File:AlienSoil cm lg.png

**Alien Soil Ore to Ingot - 2.32%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Chamosite Ore to Ingot - 1.7%**

File:Lepidolite cm lg.png

**Lepidolite Ore to Ingot - 1.69%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 1.02%**

File:Kentbrooksite cm lg.png

**Kentbrooksite Ore to Ingot - 0.37%**

Hydrogen is life giving in a variety of ways. It is the fuel that keeps our star and many others burning; when you exit your cockpit and feel the searing heat of our star on one side, with the chilling emptiness of space on the other you have hydrogen to thank. It has been determined that our star's core is a cool 27 million ºF (15 million ºC) and the density is 200 kilograms per litre; imagine having that in your inventory! At standard temperature and pressure (similar to that of earth-like) hydrogen is a colorless and odorless gas that exist in diatomic form H2 ("diatomic" meaning that it consists of two atoms). In this form, hydrogen is highly combustible and readily forms compounds with other elements.
Arsenic

***Sources & Ore to Ingot %***

File:Realgar cm lg.png

**Realgar Ore to Ingot - 25.48%**

File:Arsenolite cm lg.png

**Arsenolite Ore to Ingot - 22.4%**

File:Orpiment cm lg.png

**Orpiment Ore to Ingot - 18.8%**

File:Cobaltite cm lg.png

**Cobaltite Ore to Ingot - 3.64%**

File:EarthStone cm lg.png

**Stone Ore to Ingot - 2.24%**

File:Wulfenite cm lg.png

**Wulfenite Ore to Ingot - 1.74%**

File:Telluropalladinite cm lg.png

**Telluropalladinite Ore to Ingot - 0.77%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 0.14%**

Ingesting just one tenth of a gram is enough to subdue a full-grown human therefore, extreme caution must be taken while working with this element. Arsenic is rarely found in it's pure form hence is mostly produced as a by-product from other metals and their ores. It is used in semiconductor electronics as a "dopant" agent, which when combined with base semiconductor converts them into n-type (electron-rich) materials for use in transistors and microchips.
Lithium

***Sources & Ore to Ingot %***

File:Spodumene cm lg.png

**Spodumene Ore to Ingot - 5%**

File:Lepidolite cm lg.png

**Lepidolite Ore to Ingot - 2.75%**

File:Halite cm lg.png

**Quartz Ore to Ingot - 0.06%**

File:MoonRocks 01 ForAxisXZ cm lg.png

**Anorthite Ore to Ingot - 0.05%**

File:Beryl cm lg.png

**Beryl Ore to Ingot - 0.03%**

Under standard conditions, this soft, silvery white alkali metal is the lightest of all metals and the least dense solid element. Lithium is highly reactive and has to be stored with a coating of petroleum jelly. Despite its reactivity, lithium is useful in many everyday items. Lithium oxide is thought to be used in heat-resistant glass and ovenware, while lithium-ion batteries pack considerable power-density when compared to the standard lead acid battery.
Micro Chip

## ***Production Info***

### Classification

**Advanced
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 10 x Template:Capacitor
* 8 x Template:Solder
* 8 x Template:Transistor
* 1 x Template:Processor
* 1 x Template:PCB
* 1 x Template:Gold
 Base Production Time: 4 Seconds

* 100 x Template:Capacitor
* 80 x Template:Solder
* 80 x Template:Transistor
* 10 x Template:Processor
* 10 x Template:PCB
* 10 x Template:Gold
 Base Production Time: 20 Seconds

* 1 000 x Template:Capacitor
* 800 x Template:Solder
* 800 x Template:Transistor
* 100 x Template:Processor
* 100 x Template:PCB
* 100 x Template:Gold
 Base Production Time: 100 Seconds

Tools:HandDrill2,3,4
Advanced Rifle
Elite Rifle
Beryllium

***Sources & Ore to Ingot %***

File:Beryl cm lg.png

**Beryl Ore to Ingot - 20%**

File:Ice 02 cm lg.png

**Brine Ore to Ingot - 0.07%**

File:Halite cm lg.png

**Quartz Ore to Ingot - 0.06%**

Research shows that this element has an unusual ability to reflect neutrons therefore use in Reactor components is common. More testing is required before further applications can be found.
Titanium

***Sources & Ore to Ingot %***

File:Titanium cm lg.png

**Titanium Ore to Ingot - 50.07%**

File:AlienRockyTerrain cm lg.png

**Alien Rocks Ore to Ingot - 13.71%**

File:Iron 02 ForAxisXZ cm lg.png

**Ilmenite Ore to Ingot - 12.62%**

File:AlienSand cm lg.png

**Alien Sand Ore to Ingot - 8.54%**

File:Thorite cm lg.png

**Thorite Ore to Ingot - 7.83%**

File:Titanite cm lg.png

**Titanite Ore to Ingot - 6.67%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 2.82%**

File:Wulfenite cm lg.png

**Wulfenite Ore to Ingot - 0.16%**

File:Iron 01 ForAxisXZ cm lg.png

**Hematite Ore to Ingot - 0.04%**

File:Halite cm lg.png

**Quartz Ore to Ingot - 0.04%**

Titanium has many different images, which is lucky given the wealth of applications this branch of engineering has for it. Titanium is as strong as steel but 45 percent lighter, and all the while unaffected by the deadly phenomena of metal fatigue and cracking. Titanium is not only strong and light, but also resistant to corrosion; when exposed to an oxygen rich environment it corrodes ever so slightly. Rather than flaking off like rust on iron and exposing the metal beneath to yet more corrosion, the oxide effectively encases the metal in a protective film preventing further corrosion.
POT

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 1 x Template:Carbon
* 1 x Template:Silicon
* 1 x Template:Aluminum
 Base Production Time: 5 Seconds

* 10 x Template:Carbon
* 10 x Template:Silicon
* 10 x Template:Aluminum
 Base Production Time: 25 Seconds

* 100 x Template:Carbon
* 100 x Template:Silicon
* 100 x Template:Aluminum
 Base Production Time: 125 Seconds
Lepidolite

Lepidolite Ore is a notable source potassium, while also producing a small amount of lithium and fluorine. The latter two being used in some of the most power dense storage cells available, however a more productive source besides Lepidolite will likely be needed before any such power cells can be produced in usable amounts.
Radium

***Sources & Ore to Ingot %***

File:AlienIce cm lg.png

**Alien Ice Ore to Ingot - 1.5%**

File:Uraninite 01 ForAxisXZ cm lg.png

**Uraninite Ore to Ingot - 0.1%**

All isotopes of radium are highly radioactive. Although in it's pure form, it is a pristine silvery white metal, radium readily oxidizes in oxygen and glow dark in color. Radium became useful in the manufacture of luminous LCD's and cockpit dials. Due to radium's radioactivity prolonged exposure can be fatal.
Helium

***Sources & Ore to Ingot %***

File:Pink Ice cm lg.png

**Pink Ice Ore to Ingot - 2.4%**

File:Pitchblend cm lg.png

**Pitchblend Ore to Ingot - 0.08%**

File:Uraninite 01 ForAxisXZ cm lg.png

**Uraninite Ore to Ingot - 0.04%**

Helium is a member of the noble gases (group 18), which are odorless, colorless, have very low chemical reactivity, and have molecules consisting of a single atom. The elements of this group have their outermost shell of electrons full; giving them little tendency to react chemically. One of helium's key uses is in cryogenics, most notably cooling of magnetic and electric superconductors. Helium has also been used as a medium to force hydrogen fuel out of their storage tanks to be used in hydrogen thrusters.
Lead

***Sources & Ore to Ingot %***

File:Lead cm lg.png

**Lead Ore to Ingot - 32%**

File:Wulfenite cm lg.png

**Wulfenite Ore to Ingot - 10.33%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 0.15%**

File:Sphalerite cm lg.png

**Sphalerite Ore to Ingot - 0.14%**

File:Cobaltite cm lg.png

**Cobaltite Ore to Ingot - 0.12%**

File:Uraninite 01 ForAxisXZ cm lg.png

**Uraninite Ore to Ingot - 0.08%**

File:Thorite cm lg.png

**Thorite Ore to Ingot - 0.05%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Mars Rocks Ore to Ingot - 0.03%**

Lead is positioned amid a cluster of poisonous elements, such as thallium, mercury, and polonium. Its toxicity has led to it being replaced in certain applications (namely those in which killing people is not an objective) by its neighbour bismuth, which has low toxicity. Lead is exceptionally good at absorbing radiation making it ideal in reactor components.
Arsenolite

Arsenolite is the second most primary source for Arsenic while also producing a significant amount of Oxygen. Triton, Pertam and Alien-Like have the shallowest ore deposits while Mars has proven to harbor the largest deposits of Arsenolite.

 Oxygen | File:Oxygen ingot.png | 244.00
 Arsenic | Template:Arsenic | 162.40
Hafnium

***Sources & Ore to Ingot %***

File:Hafnon cm lg.png

**Hafnon Ore to Ingot - 11.17%**

File:Coffinite cm lg.png

**Coffinite Ore to Ingot - 0.9%**

File:Zircon cm lg.png

**Zircon Ore to Ingot - 0.58%**

File:Monazite cm lg.png

**Monazite Ore to Ingot - 0.43%**

File:Huttonite cm lg.png

**Huttonite Ore to Ingot - 0.33%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 0.24%**

File:Uraninite 01 ForAxisXZ cm lg.png

**Uraninite Ore to Ingot - 0.08%**

File:Pitchblend cm lg.png

**Pitchblend Ore to Ingot - 0.07%**

Chemically, hafnium is almost identical to the elements directly above it in group 4 - namely zirconium. Spotting the difference between hafnium and zirconium was a puzzle that took the best scientists in the system millennia to solve. Hafnium is one of the best neutron absorbers making it one of the principal components to reactor control rods. The element of hafnium and its alloys are very heat resistant, leading to applications such as plasma cutters however such applications have yet to be applied in the field of space engineering.
Chromferide

The importance of finding and securing many sources of Chromium cannot be understated. Due the requirement of Chromium in the fabrication of brazing rods - a fundamental component if the construction of all grids, sources of Chromferide will quickly be exhausted by expansionist factions.

 Chromium | Template:Chromium | 101.50
 Iron | Template:Iron | 304.50
Capacitor

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 0.2 x Template:Titanium
* 0.1 x Template:Insulation
* 0.1 x Template:Copper Wire
 Base Production Time: 1 Seconds

* 2 x Template:Titanium
* 1 x Template:Insulation
* 1 x Template:Copper Wire
 Base Production Time: 5 Seconds

* 20 x Template:Titanium
* 10 x Template:Insulation
* 10 x Template:Copper Wire
 Base Production Time: 25 Seconds
Thermocouple

## ***Production Info***

### Classification

**Advanced
Electrical**

## ***Trade Data***

### Drop Probability

**0.3**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 1 x Template:Insulated Copper Wire
* 1 x Template:Detector
* 1 x Template:Tungsten
 Base Production Time: 5 Seconds

* 10 x Template:Insulated Copper Wire
* 10 x Template:Detector
* 10 x Template:Tungsten
 Base Production Time: 25 Seconds

* 100 x Template:Insulated Copper Wire
* 100 x Template:Detector
* 100 x Template:Tungsten
 Base Production Time: 125 Seconds
Zinc

***Sources & Ore to Ingot %***

File:Zinc cm lg.png

**Zinc Ore to Ingot - 30.93%**

File:Sphalerite cm lg.png

**Sphalerite Ore to Ingot - 23.52%**

File:Germanite cm lg.png

**Germanite Ore to Ingot - 0.98%**

File:Bismutotantalite cm lg.png

**Bismutotantalite Ore to Ingot - 0.84%**

File:Chromite cm lg.png

**Chromite Ore to Ingot - 0.71%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 0.12%**

File:Rhodochrosite cm lg.png

**Rhodochrosite Ore to Ingot - 0.1%**

Zinc is an essential trace element for humans, plants and wolves. Low levels of zinc in humans have been shown to stunt growth and hinder sexual development ultimately leading to lower sperm count in men. Zinc only has a hand-full of images with a similarly small hand-full of uses for fabrication.
Solid State Drive

## ***Production Info***

### Classification

**Advanced
Electrical**

## ***Trade Data***

### Drop Probability

**0.3**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 5 x Template:Germanium
* 5 x Template:Arsenic
* 1 x Template:Data Cable
* 1 x Template:Yttrium
* 1 x Template:Gold
 Base Production Time: 5 Seconds

* 50 x Template:Germanium
* 50 x Template:Arsenic
* 10 x Template:Data Cable
* 10 x Template:Yttrium
* 10 x Template:Gold
 Base Production Time: 25 Seconds

* 500 x Template:Germanium
* 500 x Template:Arsenic
* 100 x Template:Data Cable
* 100 x Template:Yttrium
* 100 x Template:Gold
 Base Production Time: 125 Seconds
Hafnon

Hafnon ore produces, you guessed it, hafnium which is critical for ion projectors and zone chips. The small amount zirconium is really nice to have also, but in some cases be prepared to mine down nearly 1/2 a kilometer (1/3 mile) to get it.

 Oxygen | File:Oxygen ingot.png | 131.83
 Hafnium | Template:Hafnium | 47.46
 Silicon | Template:Silicon | 39.55
 Zirconium | Template:Zirconium | 1.45
Diode

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 1 x Template:Silicon
* 1 x Template:Copper Wire
 Base Production Time: 4 Seconds

* 10 x Template:Silicon
* 10 x Template:Copper Wire
 Base Production Time: 20 Seconds

* 100 x Template:Silicon
* 100 x Template:Copper Wire
 Base Production Time: 100 Seconds
Thallium

***Sources & Ore to Ingot %***

File:AlienRockyTerrain cm lg.png

**Alien Rocks Ore to Ingot - 0.9%**

File:Wulfenite cm lg.png

**Wulfenite Ore to Ingot - 0.61%**

File:Germanite cm lg.png

**Germanite Ore to Ingot - 0.47%**

File:Sphalerite cm lg.png

**Sphalerite Ore to Ingot - 0.12%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 0.08%**

File:Chalcopyrite cm lg.png

**Chalcopyrite Ore to Ingot - 0.04%**

Thallium is one of the most toxic elements and, like arsenic, has been dubbed "clang powder". Just died all of a sudden with no explanation as to why? Might not be clang after all, but rather a fellow engineer with a heart full of hate and an inventory full of thallium. The pure element is a soft, silvery metal that tarnishes in damp earth-like air and is susceptible to acids.
Processor

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 6 x Template:Silicon
* 0.1 x Template:Gold
 Base Production Time: 2 Seconds

* 60 x Template:Silicon
* 1 x Template:Gold
 Base Production Time: 10 Seconds

* 600 x Template:Silicon
* 10 x Template:Gold
 Base Production Time: 50 Seconds
Tantalum

***Sources & Ore to Ingot %***

File:Bismutotantalite cm lg.png

**Bismutotantalite Ore to Ingot - 8.43%**

File:Stibiotantalite cm lg.png

**Stibiotantalite Ore to Ingot - 8.14%**

File:Titanite cm lg.png

**Titanite Ore to Ingot - 0.08%**

The element tantalum initially proved to be tantalizing to isolate, which is perhaps how it earned its name. Tantalum is very similar the the element niobium and is a soft, silvery, shiny metal in its pure form. It occurs mainly as the isotope Ta-181 (99.99 percent) and is highly resistant to corrosion due to the oxide film that forms on its surface. This proves useful for coating other metals, which not only protects them from corrosion but also provides an insulating layer. For this reason, tantalum is used in tiny capacitors (electrical components consisting of tow metal plates separated by an insulating layer, which are capable of storing electrical charge) in items like medical equipment, radios and spacesuit broadcasting devices. Tantalum can create particularly strong alloys with other metals, which have potential uses in rocket nozzles and heat shields.
Ferchromide

Due to chromium being is such high demand due to it's use in brazing rods and multiple Alloys, Ferchromide is also in high demand. Most reserves can be found on Mars within very deep deposits. Ferchromide can otherwise be easily obtainable with deposits being relatively close to the surface on other planets.

 Chromium | Template:Chromium | 297.38
 Iron | Template:Iron | 99.13
Fluorine

***Sources & Ore to Ingot %***

File:Strontiofluorite cm lg.png

**Strontiofluorite Ore to Ingot - 19.6%**

File:AlienGreenGrass cm lg.png

**Alien Mulch Ore to Ingot - 4.3%**

File:AlienRockyTerrain cm lg.png

**Alien Rocks Ore to Ingot - 4.3%**

File:AlienSoil cm lg.png

**Alien Soil Ore to Ingot - 3.68%**

File:Blue Ice cm lg.png

**Blue Ice Ore to Ingot - 2.59%**

File:Lepidolite cm lg.png

**Lepidolite Ore to Ingot - 1.84%**

File:Fluorapatite cm lg.png

**Fluorapatite Ore to Ingot - 0.71%**

File:Huttonite cm lg.png

**Huttonite Ore to Ingot - 0.34%**

File:Kentbrooksite cm lg.png

**Kentbrooksite Ore to Ingot - 0.18%**

Fluorine is one of the most reactive and dangerous elements however it is still considered essential to humans in very small amounts (0.0001 oz) per 24 hours is sufficient. Research laboratories have begun development on polytetrafluororethene, or sometimes referred to as "Teflon". During storage of this compound is small cylinders it was discovered that a while powder - heat resistant, chemically inert and remained flexible down to -400ºF (-240ºC), has potential applications in space craft components.
Cassiterite

Cassiterite looks very similar to Cadmoindite but provide very different resources when processed in a refinery. Cassiterite is hard to locate on Mars and Europa, compared to other planetary bodies where it will be relatively close the surface.

 Oxygen | File:Oxygen ingot.png | 202.31
 Tin | Template:Tin | 150.98
 Indium | Template:Indium | 3.13
 Tungsten | Template:Tungsten | 1.01
Concrete

## ***Trade Data***

### Drop Probability

**0.5**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

4 x Template:Gravel
2 x Template:Fine Sand
2 x Template:Water
 Base Production Time: 3 Seconds

40 x Template:Gravel
20 x Template:Fine Sand
20 x Template:Water
 Base Production Time: 15 Seconds

400 x Template:Gravel
200 x Template:Fine Sand
200 x Template:Water
 Base Production Time: 75 Seconds
Solder

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 55 x Template:Tin
* 2 x Template:Lead
 Base Production Time: 3 Seconds

* 550 x Template:Tin
* 20 x Template:Lead
 Base Production Time: 15 Seconds

* 5 500 x Template:Tin
* 200 x Template:Lead
 Base Production Time: 75 Seconds
Krypton

***Sources & Ore to Ingot %***

File:Green Ice cm lg.png

**Green Ice Ore to Ingot - 2.94%**

Krypton is a product of Green Ice which means it can only be obtained by traveling to Europa. Due to it's requirement in the fabrication in Beam Emitters any engineer who would like to build Ion Thrusters would first need to travel to Europa.

Like its fellow members of the noble (or "inert") group of gases, it's colorless, odorless, and tends not to react chemically with other elements, although it will bond with fluorine. Passing an electric current through krypton will display a eye-catching blue and white glow, and when mixed with other gases will create a bright, greenish-yellow tone.
Copper

***Sources & Ore to Ingot %***

File:Copper cm lg.png

****Copper** Ore to Ingot - 60%**

File:Germanite cm lg.png

**Germanite Ore to Ingot - 15%**

File:Chalcopyrite cm lg.png

**Chalcopyrite Ore to Ingot - 8.8%**

File:AlienRockyTerrain cm lg.png

**Alien Rocks Ore to Ingot - 6.87%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Chamosite Ore to Ingot - 4.6%**

File:Palladseite cm lg.png

**Palladseite Ore to Ingot - 0.54%**

File:Cobaltite cm lg.png

**Cobaltite Ore to Ingot - 0.19%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 0.16%**

File:EarthStone cm lg.png

**Stone Ore to Ingot - 1.95%**

Copper is arguably the most important metal element due to it's wide array of application in all branches of engineering. Alongside gold and silver, copper is one of the transition metals. These elements share certain attributes: They are soft and malleable, highly ductile (easy to stretch) and are good conductors of electricity. After silver, copper has the highest electrical conductivity of any metal making it one of the first reimages a starting off engineer should try to obtain, be it from mining, trading or scrapping. Copper is arguably the single most limiting factor for an engineer's progression due to the rarity of ore deposits and the relatively low ore to ingot ratios for most of the composite materials it can be found in. Copper is essential for all living things and in the human body it combines with proteins to form enzymes. These act as catalysts for the release of energy from cells, the transformation of melanin for skin pigmentation, and the maintenance of connective tissues (especially in the heart and arteries).
Cobalt

***Sources & Ore to Ingot %***

File:Cobalt 01 ForAxisXZ cm lg.png

****Cobalt** Ore to Ingot - 45.07%**

File:Cobaltite cm lg.png

**Cobaltite Ore to Ingot - 17.64%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Mars Rocks Ore to Ingot - 4.34%**

File:Rhodochrosite cm lg.png

**Rhodochrosite Ore to Ingot - 0.06%**

Cobalt in it's pure form is known for it's beautiful shade of blue. Cobalt is the single most limiting factor for the construction of heavy armor blocks due to it's requirement for metal grid fabrication. If access to earth-like has yet to be achieved this element and it's images will be hard to come by.
Iron

***Sources & Ore to Ingot %***

File:Iron 01 ForAxisXZ cm lg.png

**Iron Ore to Ingot - 65%**

File:Chromferide cm lg.png

**Chromferide Ore to Ingot - 43.5%**

File:Iron 01 ForAxisXZ cm lg.png

**Hematite Ore to Ingot - 30.66%**

File:EarthStone cm lg.png

**Stone Ore to Ingot - 21.41%**

File:Pyrite cm lg.png

**Pyrite Ore to Ingot - 18.15%**

File:Iron 02 ForAxisXZ cm lg.png

**Ilmenite Ore to Ingot - 16.75%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Mars Rocks Ore to Ingot - 16.33%**

File:Silver 01 ForAxisXZ cm lg.png

**Ferchromide Ore to Ingot - 15.25%**

File:Chromite cm lg.png

**Chromite Ore to Ingot - 7.72%**

File:MarsRocks 01 ForAxisXZ cm lg.png

**Chamosite Ore to Ingot - 7.27%**

File:Chalcopyrite cm lg.png

**Chalcopyrite Ore to Ingot - 7.26%**

File:AlienRockyTerrain cm lg.png

**Alien Rocks Ore to Ingot - 6.87%**

File:Indite cm lg.png

**Indite Ore to Ingot - 6.43%**

File:Columbite cm lg.png

**Columbite Ore to Ingot - 2.9%**

File:Pyrochlore cm lg.png

**Pyrochlore Ore to Ingot - 2.82%**

File:Germanite cm lg.png

**Germanite Ore to Ingot - 1.6%**

File:AlienIce cm lg.png

**CHON Ore to Ingot - 1.25%**

File:Bismutotantalite cm lg.png

**Bismutotantalite Ore to Ingot - 0.76%**

File:Boracite cm lg.png

**Boracite Ore to Ingot - 0.72%**

File:RocksDesert ForAxisXZ cm lg.png

**Desert Rock Ore to Ingot - 0.72%**

File:Cerite cm lg.png

**Cerite Ore to Ingot - 0.53%**

File:Cobaltite cm lg.png

**Cobaltite Ore to Ingot - 0.38%**

File:Halite cm lg.png

**Quartz Ore to Ingot - 0.32%**

File:Kentbrooksite cm lg.png

**Kentbrooksite Ore to Ingot - 0.26%**

File:Spodumene cm lg.png

**Spodumene Ore to Ingot - 0.13%**

File:Rhodochrosite cm lg.png

**Rhodochrosite Ore to Ingot - 0.11%**

File:Titanite cm lg.png

**Titanite Ore to Ingot - 0.11%**

File:Thorite cm lg.png

**Thorite Ore to Ingot - 0.08%**

File:Halite cm lg.png

**Halite Ore to Ingot - 0.05%**

Iron is the heaviest element that can be made in the nuclear fusion that takes place inside stars; and without it, ship building industries would collapse... literally. So, what is it that gives iron its legendary strength? The answer lies in the size of the grains in iron's crystal structure. Iron has a cubic crystal structure, which is inherently strong. However, a sample of iron in its pure form has a granular structure - made of many grains in which the crystal is aligned in different directions. The boundaries between these grains can produce defects that weaken the iron. However, working the iron at high temperature (as done in assemblers) serves to make the grains smaller. This process leads to a more consistent structure and producing metal that is stronger and tougher.

 In other words, Iron Ingots are no longer directly used in the fabrication of components. (except for rebar) Instead, iron must first be combined with carbon and subjected to the process described above using a Chemical Asembler or Mass Chemical Assembler to produce the alloy: Steel.
Transistor

## ***Production Info***

### Classification

**Basic
Electrical**

## ***Trade Data***

### Drop Probability

**0.1**

***Standard Fabrication***

### Neutron Collider

File:Red X Icon.png

***Mass Production***

### MassChemical Reactor

File:Red X Icon.png

* 10 x Template:Silicon
* 10 x Template:Gallium
* 10 x Template:Arsenic
* 10 x Template:Copper
* 10 x Template:Insulation
 Base Production Time: 6 Seconds

* 100 x Template:Silicon
* 100 x Template:Gallium
* 100 x Template:Arsenic
* 100 x Template:Copper
* 100 x Template:Insulation
 Base Production Time: 30 Seconds

* 1 000 x Template:Silicon
* 1 000 x Template:Gallium
* 1 000 x Template:Arsenic
* 1 000 x Template:Copper
* 1 000 x Template:Insulation
 Base Production Time: 150 Seconds
Vapitus

"Rocks and, hey! look there's more rocks"

## Appearance

Vapitus is a rocky moon of Tenmarr and has some puddles of water

## Colonization

Easy to colonize as it is right next to lebers station which you spawn at

## Trivia

* Vapitus, along with all other rocky planets used to be flat, The way this worked was: All ships had a hitbox, and once the hitbox touched the planets hitbox, it will be teleported far away from the spherical solar system onto the flat solar system, Once the ship has escaped the atmosphere, it will be teleported back to the spherical solar system.
Lechites

**Lechites** (Polish: *Lechici*, German: *Lechiten*), also known as the **Lechitic tribes** (Polish: *Plemiona lechickie*, German: *Lechitische Stämme*), is a name given to certain West Slavic tribes who inhabited modern-day Poland and eastern Germany, and were speakers of the Lechitic languages. Distinct from the Czech–Slovak subgroup, they are the closest ancestors of ethnic Poles and of Pomeranians, Lusatians and Polabians.

## History

According to Polish legend, Mieszko I inherited the ducal throne from his father who probably ruled over two-thirds of the territory inhabited by eastern Lechite tribes. He united the Lechites east of the Oder (Polans, Masovians, Pomeranians, Vistulans, Silesians) into a single country of Poland. His son, Bolesław I the Brave, founded the bishoprics at Wrocław, Kołobrzeg, and Kraków, and an archbishopric at Gniezno. Bolesław carried out successful wars against Bohemia, Moravia, Kievan Rus' and Lusatia, and forced the western Pomeranians to pay Poland a tribute. Shortly before his death Bolesław became the first King of Poland in 1025.
Osmium

***Sources & Ore to Ingot %***

File:Rutheniridosmine cm lg.png

**Rutheniridosmine Ore to Ingot - 20.9%**

File:Ruthenarsenite cm lg.png

**Ruthenarsenite Ore to Ingot - 0.04%**

Osmium isn't one of the most renowned chemical elements, but it does have a few claims to fame: not only is it the densest of all the elements, it is also the hardest pure metal found on earth-like. Look closely and you'll see a delicate bluish tint to it, which also distinguishes it from the plethora of silver-gray metals of the system. Sharing a number of properties with platinum, osmium is similarly hard, dense and durable. Osmium the element is not toxic, but its oxide is poisonous. Great care must be taken when handling the powdered state on planets with an oxygen rich atmosphere due to the gradual oxidization causing a volatile osmium tetroxide to occur. Once this compound reaches room temperature it sublimates a highly toxic vapor.