Rusticyanin: Difference between revisions
No edit summary |
No edit summary |
||
| (6 intermediate revisions by 3 users not shown) | |||
| Line 6: | Line 6: | ||
| cost = 45 | | cost = 45 | ||
| requiresNucleus = No | | requiresNucleus = No | ||
| processes = Iron | | processes = Iron Oxidation | ||
| enzymes = Rusticyanin | | enzymes = Rusticyanin | ||
| size = 1 | | size = 1 | ||
| Line 16: | Line 16: | ||
}} | }} | ||
Uses '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} to produce '''ATP''' {{CompoundIcon|image=ATPIcon.png|internalName=atp}} by the process of '''Iron Oxidation'''. | |||
== Requirements == | == Requirements == | ||
| Line 24: | Line 24: | ||
== Processes == | == Processes == | ||
'''Iron | '''Iron Oxidation''': '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} → '''ATP''' {{CompoundIcon|image=ATPIcon.png|internalName=atp}} | ||
A method of generating energy without '''Glucose''' {{CompoundIcon|image=GlucoseIcon.png|internalName=glucose}}. Consumes '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron | A method of generating energy without '''Glucose''' {{CompoundIcon|image=GlucoseIcon.png|internalName=glucose}}. Consumes '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}}. | ||
== Modifications == | == Modifications == | ||
| Line 42: | Line 42: | ||
== Strategy == | == Strategy == | ||
'''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} is a valuable alternative resource to use instead of '''Glucose''' {{CompoundIcon|image=GlucoseIcon.png|internalName=glucose}} since it doesn't decay in the environment until much later. | '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} is a valuable alternative resource to use instead of '''Glucose''' {{CompoundIcon|image=GlucoseIcon.png|internalName=glucose}} since it doesn't decay in the environment until much later. '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} is also directly transferred into ATP, so it can be a relatively cheap way to create an energetic organism early on in the Microbe Stage. However, because '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} is burnt through rather quickly, players must be mindful to constantly be near larger cloud-emitting chunks, and must budget this resource very carefully if they choose to play as a more motile organism. | ||
Storage can be a very useful attribute for iron-oxidizing organisms to utilize, as it allows them to store more of the rapidly-depleting compound. Size is also useful, as large organisms are able to ingest smaller '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} chunks floating around. This will give you more freedom in movement, as you'll be carrying a chunk of '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} with you as you explore your environment. ''' Cytoplasm ''' is a very beneficial part to consider for iron-oxidizing organisms, as it allows you to cheaply build up size and storage. ''' Vacuoles ''' are also very useful once you become a eukaryote. | |||
'''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} depletes more quickly as your organism places more demanding parts. It will also start to disappear with the rise of '''Oxygen'''. As such, players who utilize '''Iron''' {{CompoundIcon|image=IronIcon.png|internalName=iron}} must be vigilant as oxygen begins to dominate their atmosphere, and should consider aerobic respiration if they wish to create highly-efficient eukaryotes. | |||
== Scientific Background == | == Scientific Background == | ||
''' | '''Rusticyanins''' are proteins that can be found in the membranes of some bacteria and archaea. They oxidize '''Iron''' in contact with the membrane, transferring electrons from it as part of an electron transport chain. The charge created on the membrane surface is then used to draw positive '''Hydrogen''' ions into the cell. The extra electrons and ions help to convert spent '''ADP''' molecules into new '''ATP''' molecules and then reset the various proteins involved, so the process can start again. | ||
https://en.wikipedia.org/wiki/Rusticyanin | [https://en.wikipedia.org/wiki/Rusticyanin https://en.wikipedia.org/wiki/Rusticyanin] | ||
Latest revision as of 01:01, 8 September 2025
Uses Iron
to produce ATP
by the process of Iron Oxidation.
Requirements
No requirements.
Processes
Iron Oxidation: Iron
→ ATP
A method of generating energy without Glucose
. Consumes Iron
.
Modifications
No modifications.
Effects
Evolving Rusticyanin equips a cell with the enzyme of the same name. This allows a cell to digest chunks of Iron
in the environment.
Upgrades
No upgrades.
Strategy
Iron
is a valuable alternative resource to use instead of Glucose
since it doesn't decay in the environment until much later. Iron
is also directly transferred into ATP, so it can be a relatively cheap way to create an energetic organism early on in the Microbe Stage. However, because Iron
is burnt through rather quickly, players must be mindful to constantly be near larger cloud-emitting chunks, and must budget this resource very carefully if they choose to play as a more motile organism.
Storage can be a very useful attribute for iron-oxidizing organisms to utilize, as it allows them to store more of the rapidly-depleting compound. Size is also useful, as large organisms are able to ingest smaller Iron
chunks floating around. This will give you more freedom in movement, as you'll be carrying a chunk of Iron
with you as you explore your environment. Cytoplasm is a very beneficial part to consider for iron-oxidizing organisms, as it allows you to cheaply build up size and storage. Vacuoles are also very useful once you become a eukaryote.
Iron
depletes more quickly as your organism places more demanding parts. It will also start to disappear with the rise of Oxygen. As such, players who utilize Iron
must be vigilant as oxygen begins to dominate their atmosphere, and should consider aerobic respiration if they wish to create highly-efficient eukaryotes.
Scientific Background
Rusticyanins are proteins that can be found in the membranes of some bacteria and archaea. They oxidize Iron in contact with the membrane, transferring electrons from it as part of an electron transport chain. The charge created on the membrane surface is then used to draw positive Hydrogen ions into the cell. The extra electrons and ions help to convert spent ADP molecules into new ATP molecules and then reset the various proteins involved, so the process can start again.