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- Cytoplasm Cost: 30 mutation points - Performs Process: Cytoplasm Glycolysis (0.06 glucose -> 5 ATP)/Second - Storage Space: 4 - The material or protoplasm within a living cell. The gooey innards of a cell. + + 30 + Turns Glucose into ATP . + Fermentation + 0.06 5.00 /second + +4 Storage + +1 Osmoregulation Cost + The gooey innards of a cell. The cytoplasm is the basic mixture of ions, proteins, and other substances dissolved + in water that fill the interior of the cell. One of the functions it performs is Fermentation, the conversion of glucose into + ATP energy. For cells that lack organelles to have more advanced metabolisms, this is what they rely on for energy. It is also + used to store molecules in the cell and to grow the cell's size. + + + Cytoplasm + Cytoplasm 30 MP |
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- Metabolosomes Cost: 45 mutation points - Performs Process: Metabolsome Respiration (In real life they Ferment, but we dont have those compounds in the game yet) (1 Oxygen + 1 Glucose -> 38 ATP)/Second (Depending On Environmental Oxygen) - Storage Space: 1 - Organelle-like Bacterial microcompartments (BMCs) consisting of a protein shell that encloses enzymes used for fermentation. + 45 + Turns Glucose into ATP . Rate scales with concentration of Oxygen . + Aerobic Respiration + 0.21 7.98 /second @ 21.00% + Fermentation + 0.13 5.00 /second + +1 Storage + +1 Osmoregulation Cost + Metabolosomes are clusters of proteins wrapped in protein shells. They are able to convert glucose + into ATP at a much higher efficiency than can be done in the cytoplasm in a process called Aerobic Respiration. + It does, however, require oxygen to function, and lower levels of oxygen in the environment will slow down + the rate of its ATP production. Since the metabolosomes are suspended directly in the cytoplasm, the surrounding + fluid performs some fermentation. + + Metabolosomes + Metabolosomes 45 MP |
- Chromatophores Cost: 55 mutation points - Performs Process: Chromatophore Photosynthesis (0.09 CO2 -> 0.15 glucose)/Second (Depending On Environmental C02) - Performs Process: Glycolysis (0.125 glucose -> 5 ATP)/Second (Depending On Environmental C02) - Storage Space: 1 - Coloured, membrane-associated vesicles used by various prokaryotes perform photosynthesis. - Chromatophores contain bacteriochlorophyll pigments and carotenoids. - Chromatophores 55 MP |
+ 55
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- ChemosynthisizingProteins Cost: 45 mutation points - Performs Process: Bacterial Chemosynthesis (1 CO2 + 1 Hydrogen Sulfide -> 1 Glucose)/Second (Depending On Environmental C02) - Performs Process: Glycolysis (0.125 glucose -> 5 ATP)/Second - Storage Space: 1 - Small membrane-associated structures that convert the noxious soup containing hydrogen - sulfide from hydrothermal vents into usable energy in the form of glucose. - Chemosynthisizing Proteins 45 MP |
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+ 45
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- Rusticyanin Cost: 45 mutation points - Performs Process: Iron Chemolithotrophy (0.21 Oxygen (Primary Electron acceptor) + 0.09 CO2 + 0.175 Iron Ion -> 10 ATP)/Second (Depending On Environmental C02 and O2) - Storage Space: 1 - Siderophores and Rusticyanin for storing and using iron ions with oxygen as the primary electron acceptor and carbon from atmospheric carbon dioxide to produce ATP. - Iron Chemolithotrophy is a process by which organisms obtain their energy from the oxidation of reduced inorganic ions. - - Rusticyanin 45 MP |
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+ 45
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- Nitrogenase Cost: 55 mutation points - Performs Process: Anaerobic Nitrogen Fixation (2 + 10 ATP -> 0.02 Ammonia)/Second (Depending On Environmental Nitrogen) - Performs Process: Glycolysis (0.125 glucose -> 5 ATP)/Second - Storage Space: 2 - Allows for synthesis of ammonia from atmospheric nitrogen anaerobically. For easier cell growth. + + 55 + Turns ATP into Ammonia . Rate scales with concentration of Nitrogen . + Nitrogen Fixation + 3.91 0.01 /second @ 78.00% + Fermentation + 0.13 5.00 /second + +2 Storage + +1 Osmoregulation Cost + Nitrogenase is a protein able to use gaseous nitrogen and cellular energy in the form of ATP to + produce ammonia, a key growth nutrient for cells. This is a process referred to as Anaerobic Nitrogen Fixation. + Since the nitrogenase is suspended directly in the cytoplasm, the surrounding fluid performs some fermentation. + + Nitrogenase + 55 MP |
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- Flagellum Cost: 55 mutation points - Performs Process: Movement (7atp -> Faster movement speed)/Second - Storage Space: 1 - A whip like structure used by microbes for movement. + 55 + Uses ATP to increase the movement speed of the cell. + +0.7 Speed + +1 Storage + +1 Osmoregulation Cost + The flagellum (plural: flagella) is a whip-like bundle of protein fibers extending from the + cell's membrane which can use ATP to undulate and propel the cell in a direction. + + + Flagellum + Flagellum 55 MP |
- Predatory Pilus 30 MP |
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+ 0
- Cilia 40 MP |
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+ 0
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- Nucleus Cost: 100 mutation points - Performs Process: Eukaryote Evolution - Storage Space: 15 - Allows for synthesis of RNA and MRNA, allows cell to evolve membrane bound organelles. - Warning! The nucleus will slow you down significantly and has an upkeep cost of 11 ATP per second due to osmoregulation! It is also irreversible. + 100+ Allows for the evolution of more complex, membrane-bound organelles. Costs a lot of ATP to maintain. This is an irreversible evolution. + +15 Storage + +10 Osmoregulation Cost + The defining feature of eukaryotic cells. The nucleus also includes the endoplasmic reticulum and the golgi body. + It is an evolution of prokaryotic cells to develop a system of internal membranes, done by assimilating another prokaryote + inside of themselves. This allows them to compartmentalize, or ward off, the different processes happening inside the cell and + prevent them from overlapping. This allows their new membrane bound organelles to be much more complex, efficient, and specialized + than if they were free-floating in the cytoplasm. However, this comes at the cost of making the cell much larger and requiring + a lot of the cell's energy to maintain. + + Nucleus + 100 MP |
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- Mitochondria Cost: 45 mutation points - Performs Process: Respiration (1 Oxygen + 0.2 glucose -> 45 ATP)/Second (Depending On Environmental Oxygen) - Storage Space: 2 - A captured prokaryote used by eukaryotic cells to perform respiration. - - The Mitochondria is the powerhouse of the cell + + 55 + Turns Glucose into ATP . Rate scales with concentration of Oxygen . + Aerobic Respiration + 0.04 9.45 /second @ 21.00% + +2 Storage + +2 Osmoregulation Cost + The powerhouse of the cell. The mitochondrion (plural: mitochondria) is a double membrane structure filled + with proteins and enzymes. It is a prokaryote that has been assimilated for use by its eukaryotic host. It is able to + convert glucose into ATP at a much higher efficiency than can be done in the cytoplasm in a process called Aerobic Respiration. + It does, however, require oxygen to function, and lower levels of oxygen in the environment will slow down the rate of its ATP + production. + + Mitochondrion + 45 MP |
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- Chloroplast Cost: 55 mutation points - Performs Process: Photosynthesis ( 0.09 CO2 -> 1 glucose)/Second (Depending On Environmental C02) - Storage Space: 2 - A captured prokaryote used by eukaryotic cells to perform photosynthesis. - The chloroplast is used primarily by plant cells on earth, but some ciliates and other organisms use it too. + + 55 + Produces Glucose . Rate scales with concentration of Carbon Dioxide and intensity of Light . + Photosynthesis + +1.00 /second @ 0.09% , 10,000 lux + +2 Storage + +2 Osmoregulation Cost + The chloroplast is a double membrane structure containing photosensitive pigments stacked together in membranous sacs. + It is a prokaryote that has been assimilated for use by its eukaryotic host. The pigments in the chloroplast are able to use the + energy of light to produce glucose from water and gaseous carbon dioxide in a process called Photosynthesis. These pigments are + also what give it a distinctive colour. The rate of its glucose production scales with the concentration of carbon dioxide, and + intensity of light. + + Chloroplast + Chloroplast 55 MP |
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- Thermoplast Cost: 40 mutation points - Performs Process: Thermosynthesis (Heat -> 1 glucose)/Second (Depending On Environmental Heat) - Storage Space: 2 - A captured prokaryote used by eukaryotic cells to perform thermosynthesis. - The thermoplast is a theoretical organelle that takes environmental heat gradients and generates energy from them. + 40 + Produces Glucose . Rate scales with concentration of Carbon Dioxide and Temperature . + Thermosynthesis + +1.00 /second @ 0.09% , 50 ℃ + +2 Storage + +2 Osmoregulation Cost + The thermoplast is a double membrane structure containing thermosensitive pigments stacked together + in membranous sacs. It is a prokaryote that has been assimilated for use by its eukaryotic host. The pigments + in the thermoplast are able to use the energy of heat differences in the surroundings to produce glucose from + water and gaseous carbon dioxide in a process called Thermosynthesis. The rate of its glucose production scales + with the concentration of carbon dioxide, and temperature. + + Thermoplast + Thermoplast 40 MP |
- Chemoplast Cost: 45 mutation points - Performs Process: Chemosynthesis (0.09 CO2 + 1 Hydrogen Sulfide -> 2 Glucose)/Second (Depending On Environmental C02) - Storage Space: 2 - Allows for synthesis of glucose from hydrogen sulfide and atmospheric carbon dioxide. - - Can be used to process the normally toxic soup containing hydrogen sulfide that comes out of hydrothermal vents at the bottom of the ocean. Into glucose. + 45 + Turns Hydrogen Sulfide into Glucose . Rate scales with concentration of Carbon Dioxide . + Hydrogen Sulfide Chemosynthesis + 1.00 2.00 /second @ 0.09% + +2 Storage + +2 Osmoregulation Cost + The chemoplast is a double membrane structure containing proteins able to convert hydrogen sulfide, + water, and gaseous carbon dioxide into glucose in a process called Hydrogen Sulfide Chemosynthesis. The rate + of its glucose production scales with the concentration of water and carbon dioxide. + + Chemoplast + Chemoplast 45 MP |
- Nitrogen Fixing Plastid Cost: 50 mutation points - Performs Process: Aerobic Nitrogen Fixation (1 Oxygen + 1 Nitrogen + 5 ATP -> 0.5 Ammonia)/Second (Depending On Environmental Oxygen/Nitrogen) - Storage Space: 2 - Allows for synthesis of ammonia from atmospheric nitrogen and oxygen. For easier cell growth. + 50 + Turns ATP into Ammonia . Rate scales with concentration of Nitrogen and Oxygen . + Nitrogen Fixation + 1.05 0.11 /second @ 78.00% , 21.00% + +2 Storage + +2 Osmoregulation Cost + The Nitrogen Fixing Plastid is a protein able to use gaseous nitrogen and oxygen and + cellular energy in the form of ATP to produce ammonia, a key growth nutrient for cells. This is + a process referred to as Aerobic Nitrogen Fixation. -
- Nitrogen Fixing Plastid 50 MP |
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+ Nitrogen Fixing
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- Vacuole Cost: 50 mutation points - Storage Space: 15 - A space or vesicle within the cytoplasm of a cell, enclosed by a membrane and used to hold compounds. + 50 + Increases the storage space of the cell. + +15 Storage + +1 Osmoregulation Cost + The vacuole is an internal membranous organelle used for storage in the cell. They are composed + of several vesicles, smaller membranous structures widely used in cells for storage, that have fused together. + It is filled with water which is used to contain molecules, enzymes, solids, and other substances. Their shape + is fluid and can vary between cells. + + + Vacuole + Vacuole 50 MP |
- Toxin Vacuole Cost: 70 mutation points - Performs Process: OxytoxyNT Production (1 Oxygen + 5 ATP -> 5 Oxytoxy)/Second (Depending On Environmental Oxygen) - Storage Space: 5 - Allows for production and storage of OxytoxyNT which can be shot at enemy cells using E. The more of this organelle you have the faster your toxin fire rate will be. + 70 + Turns ATP into Oxytoxy . Can release toxins by pressing E. Rate scales with concentration of Oxygen . + Agent Synthesis + 1.05 1.05 /second @ 21.00% + +5 Storage + +1 Osmoregulation Cost + The toxin vacuole is a vacuole that has been modified for the specific production, storage, + and secretion of oxytoxy toxins. More toxin vacuoles will increase the rate at which toxins can be + released. + + Toxin Vacuole + Toxin Vacuole 70 MP |
- Bioluminescent Vacuole N/A MP |
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+ 0 Bioluminescent Vacuole