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Thrive 100% 0 0 0 0 1,349 0 86

Overview

Language code en
Aliased language codes base, en_en, en_us, eng, enp, source
English name of the language English
Text direction Left to right
Case sensitivity Case-sensitive
Number of speakers 1,728,003,224
Plural: Default plural 4 translations
Number of plurals 2
Plural type One/other
Plurals Singular 1
Plural 0, 2, 3, 4, 5, 6, 7, 8, 9, 10, …
Plural formula n != 1
Plural: Qt Linguist plural 0 translations
Number of plurals 2
Plural type One/other
Plurals Singular 1
Plural 0, 2, 3, 4, 5, 6, 7, 8, 9, 10, …
Plural formula (n != 1)
14 hours ago

String statistics

Strings percent Hosted strings Words percent Hosted words Characters percent Hosted characters
Total 3,620 44,952 320,257
Approved 25% 916 12% 5,843 11% 37,171
Waiting for review 62% 2,244 85% 38,509 87% 278,696
Translated 100% 3,620 100% 44,952 100% 320,257
Needs editing 0% 0 0% 0 0% 0
Read-only 12% 460 1% 600 1% 4,390
Failing checks 37% 1,349 75% 33,947 78% 251,752
Strings with suggestions 0% 0 0% 0 0% 0
Untranslated strings 0% 0 0% 0 0% 0
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44,952
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3,620
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84
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User avatar Gregg

String added
In a nutshell
In a nutshell
4 days ago
User avatar None

Resource updated
The “locale/en.po” file was changed. 4 days ago
User avatar None

String updated in the repository
Probably the most mobile form of autotrophy, [i]Thermosynthesis[/i] requires almost constant movement. You need to go from colder areas to hotter ones and back again. After the cell's temperature has stopped increasing, [thrive:compound type="glucose"][/thrive:compound] production drops to zero. It is best to activate [i]thermal vision[/i] to see the hot and cold areas around your cell, to most effectively steer through them. Thermosynthase is much more effective in much hotter patches, and so is best used in the Volcanic Vents.

More efficient still is the [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplast[/url][/color][/b], available once a cell evolves a [b][color=#3796e1][url=thriveopedia:nucleus]Nucleus[/url][/color][/b]. Like all prokaryotic organelles with eukaryotic counterparts, we recommend replacing [b]Thermosynthase[/b] with [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplasts[/url][/color][/b] when possible.
Probably the most mobile form of autotrophy, [i]Thermosynthesis[/i] requires almost constant movement. You need to go from colder areas to hotter ones and back again. After the cell's temperature has stopped increasing, [thrive:compound type="atpglucose"][/thrive:compound] production drops to zero. It is best to activate [i]thermal vision[/i] to see the hot and cold areas around your cell, to most effectively steer through them. Thermosynthase is much more effective in much hotter patches, and so is best used in the Volcanic Vents.

Because [b]Thermosynthase's[/b] [thrive:compound type="atp"][/thrive:compound] production will stop frequently, it is important to have a second energy source, or else you will take continual damage from lack of [thrive:compound type="atp"][/thrive:compound].

More efficient still is the [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplast[/url][/color][/b], available once a cell evolves a [b][color=#3796e1][url=thriveopedia:nucleus]Nucleus[/url][/color][/b]. Like all prokaryotic organelles with eukaryotic counterparts, we recommend replacing [b]Thermosynthase[/b] with [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplasts[/url][/color][/b] when possible.
4 days ago
User avatar None

String updated in the repository
[b]Thermosynthase[/b] is a fictional enzyme, but the process of [color=#3796e1][url=https://en.wikipedia.org/wiki/Thermosynthesis]thermosynthesis[/url][/color], while theoretical, is generally regarded as biologically plausible.

Thermosynthesis was first proposed by Anthonie Muller in a 1983 paper "Thermoelectric energy conversion could be an energy source of living organisms" (Physics Letters A, vol. 96, Issue 6, p. 319-321). Muller even suggested that thermosynthesis could have been a precursor to the earliest (sulfur-based) photosynthesis (see link: A Search For Thermosynthesis: Starvation Survival In Thermally Cycled Bacteria).

In earlier versions of Thrive this organelle produced ATP directly, however due to game balancing reasons it now produces glucose, but there's no explanation for where the carbon would come from for that. So that's one more Thrive sin against realism. This might get fixed in the far future if someone volunteers to implement an organelle that would turn ATP to glucose for longer term storage.
[b]Thermosynthase[/b] is a fictional enzyme, but the process of [color=#3796e1][url=https://en.wikipedia.org/wiki/Thermosynthesis]thermosynthesis[/url][/color], while theoretical, is generally regarded as biologically plausible.

Thermosynthesis was first proposed by Anthonie Muller in a 1983 paper "Thermoelectric energy conversion could be an energy source of living organisms" (Physics Letters A, vol. 96, Issue 6, p. 319-321). Muller even suggested that thermosynthesis could have been a precursor to the earliest (sulfur-based) photosynthesis (see link: A Search For Thermosynthesis: Starvation Survival In Thermally Cycled Bacteria).
In earlier versions of Thrive this organelle produced ATP directly, however due to game balancing reasons it now produces glucose, but there's no explanation for where the carbon would come from for that. So that's one more Thrive sin against realism. This might get fixed in the far future if someone volunteers to implement an organelle that would turn ATP to glucose for longer term storage.
4 days ago
User avatar None

String updated in the repository
[b]Bacterial Thermosynthesis[/b]: [thrive:compound type="temperature"][/thrive:compound] [i]increase[/i] → [thrive:compound type="glucose"][/thrive:compound]

Generates energy from increasing [thrive:compound type="temperature"][/thrive:compound]. The thermosensitive enzymes change shape as the [thrive:compound type="temperature"][/thrive:compound] rises, allowing the conversion of various compounds into [thrive:compound type="glucose"][/thrive:compound]. As the cell cools, the enzymes return to their previous shape, allowing the process to repeat. Less efficient form of the [i]Thermosynthesis[/i] present in [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplasts[/url][/color][/b].The rate of its [thrive:compound type="glucose"][/thrive:compound] production scales with [thrive:compound type="temperature"][/thrive:compound] [i]delta[/i].

[b]Glycolysis:[/b] [thrive:compound type="glucose"][/thrive:compound] → [thrive:compound type="atp"][/thrive:compound]

Since [b]Thermosynthase[/b] proteins are suspended directly in the [b][color=#3796e1][url=thriveopedia:cytoplasm]Cytoplasm[/url][/color][/b], the surrounding fluid performs [b]Glycolysis[/b].
[b]Bacterial Thermosynthesis[/b]: [thrive:compound type="temperature"][/thrive:compound] [i]increase[/i] → [thrive:compound type="atpglucose"][/thrive:compound]

Generates energy from increasing [thrive:compound type="temperature"][/thrive:compound]. The thermosensitive enzymes change shape as the [thrive:compound type="temperature"][/thrive:compound] rises, allowing the recycling of [i]ADP[/i]conversion of various compounds into [thrive:compound type="atpglucose"][/thrive:compound]. As the cell cools, the enzymes return to their previous shape, allowing the process to repeat. Less efficient form of the [i]Thermosynthesis[/i] present in [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplasts[/url][/color][/b].The rate of its [thrive:compound type="atpglucose"][/thrive:compound] production scales with [thrive:compound type="temperature"][/thrive:compound] [i]delta[/i].
[b]Glycolysis:[/b] [thrive:compound type="glucose"][/thrive:compound] → [thrive:compound type="atp"][/thrive:compound]

Since [b]Thermosynthase[/b] proteins are suspended directly in the [b][color=#3796e1][url=thriveopedia:cytoplasm]Cytoplasm[/url][/color][/b], the surrounding fluid performs [b]Glycolysis[/b].
4 days ago
User avatar None

String updated in the repository
Produces [thrive:compound type="glucose"][/thrive:compound] using [thrive:compound type="temperature"][/thrive:compound] gradients in the environment. Prokaryotic form of the more efficient [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplast[/url][/color][/b].

Speculative organelle not found in real life. Unavailable in games with [i]LAWK[/i] (Life As We Know it) turned on.

It is a grouping of membranous compartments containing thermosensitive enzymes. The enzymes are able to use the energy of rising [thrive:compound type="temperature"][/thrive:compound] in their surroundings to produce [thrive:compound type="glucose"][/thrive:compound] in a process called [i]thermosynthesis[/i].
Produces energy in the form of [thrive:compound type="atpglucose"][/thrive:compound] using [thrive:compound type="temperature"][/thrive:compound] gradients in the environment. Prokaryotic form of the more efficient [b][color=#3796e1][url=thriveopedia:thermoplast]Thermoplast[/url][/color][/b].

Speculative organelle not found in real life. Unavailable in games with [i]LAWK[/i] (Life As We Know it) turned on.

It is a grouping of membranous compartments containing thermosensitive enzymes. The enzymes are able to use the energy of rising [thrive:compound type="temperature"][/thrive:compound] in their surroundings to produce [thrive:compound type="atpglucose"][/thrive:compound] in a process called [i]thermosynthesis[/i].
4 days ago
User avatar None

String updated in the repository
Probably the most mobile form of autotrophy, [b]Thermosynthesis[/b] requires almost constant movement. You need to go from colder areas to hotter ones and back again. After the cell's temperature has stopped increasing, [thrive:compound type="glucose"][/thrive:compound] production drops to zero. It is best to activate [i]thermal vision[/i] to see the hot and cold areas around your cell, to most effectively steer through them. Thermoplasts are much more effective in much hotter patches, and so are best used in the Volcanic Vents.

With organelle unlocks enabled, the requirement to reproduce multiple times with [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b] in your cell means a player who evolves [b]Thermoplasts[/b] has likely already specialised quite heavily in [b]Thermosynthesis[/b] by the time they obtain [b]Thermoplasts[/b].
Probably the most mobile form of autotrophy, [b]Thermosynthesis[/b] requires almost constant movement. You need to go from colder areas to hotter ones and back again. After the cell's temperature has stopped increasing, [thrive:compound type="atpglucose"][/thrive:compound] production drops to zero. It is best to activate [i]thermal vision[/i] to see the hot and cold areas around your cell, to most effectively steer through them. Thermoplasts are much more effective in much hotter patches, and so are best used in the Volcanic Vents.

Because the [b]Thermoplast's[/b] [thrive:compound type="atp"][/thrive:compound] production will stop frequently, it is important to have a second energy source, or else you will take continual damage from lack of [thrive:compound type="atp"][/thrive:compound].

With organelle unlocks enabled, the requirement to reproduce multiple times with [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b] in your cell means a player who evolves [b]Thermoplasts[/b] has likely already specialised quite heavily in [b]Thermosynthesis[/b] by the time they obtain [b]Thermoplasts[/b].
4 days ago
User avatar None

String updated in the repository
Thermosynthesis was first proposed by Anthonie Muller in a 1983 paper ("Thermoelectric Energy Conversion Could Be An Energy Source Of Living Organisms", in Physics Letters A, vol. 96, Issue 6, pp. 319-321) . It would provide a small fraction of the overall energy that respiration does (A Search For Thermosynthesis: Starvation Survival In Thermally Cycled Bacteria).

Muller even suggested thermosynthesis could have been a precursor to the earliest (sulfur-based) photosynthesis (Photosystem 0, A Proposed Ancestral Photosystem Without Reducing Power That Synthesized ATP During Light-Dark cycling).

In earlier versions of Thrive this organelle produced ATP directly, however due to game balancing reasons it now produces glucose, but there's no explanation for where the carbon would come from for that. So that's one more Thrive sin against realism. This might get fixed in the far future if someone volunteers to implement an organelle that would turn ATP to glucose for longer term storage.

[color=#3796e1][url=https://en.wikipedia.org/wiki/Thermosynthesis]Thermosynthesis on Wikipedia[/url][/color]
Thermosynthesis was first proposed by Anthonie Muller in a 1983 paper ("Thermoelectric Energy Conversion Could Be An Energy Source Of Living Organisms", in Physics Letters A, vol. 96, Issue 6, pp. 319-321) . It would provide a small fraction of the overall energy that respiration does (A Search For Thermosynthesis: Starvation Survival In Thermally Cycled Bacteria).

Muller even suggested thermosynthesis could have been a precursor to the earliest (sulfur-based) photosynthesis (Photosystem 0, A Proposed Ancestral Photosystem Without Reducing Power That Synthesized ATP During Light-Dark cycling).

In earlier versions of Thrive this organelle produced ATP directly, however due to game balancing reasons it now produces glucose, but there's no explanation for where the carbon would come from for that. So that's one more Thrive sin against realism. This might get fixed in the far future if someone volunteers to implement an organelle that would turn ATP to glucose for longer term storage.

[color=#3796e1][url=https://en.wikipedia.org/wiki/Thermosynthesis]Thermosynthesis on Wikipedia[/url][/color]
4 days ago
User avatar None

String updated in the repository
[b]Thermosynthesis[/b]: [thrive:compound type="temperature"][/thrive:compound] [i]increase[/i] → [thrive:compound type="glucose"][/thrive:compound]

Generates energy from increasing [thrive:compound type="temperature"][/thrive:compound]. The thermosensitive enzymes change shape as the [thrive:compound type="temperature"][/thrive:compound] rises, allowing conversion of various compounds into [thrive:compound type="glucose"][/thrive:compound]. As the cell cools, the enzymes return to their previous shape, allowing the process to repeat. More efficient form of [i]Bacterial Thermosynthesis[/i] present in [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b].The rate of its [thrive:compound type="glucose"][/thrive:compound] production scales with [thrive:compound type="temperature"][/thrive:compound] [i]delta[/i].
[b]Thermosynthesis[/b]: [thrive:compound type="temperature"][/thrive:compound] [i]increase[/i] → [thrive:compound type="atpglucose"][/thrive:compound]

Generates energy from increasing [thrive:compound type="temperature"][/thrive:compound]. The thermosensitive enzymes change shape as the [thrive:compound type="temperature"][/thrive:compound] rises, allowing the recycling of [i]ADP[/i]conversion of various compounds into [thrive:compound type="atpglucose"][/thrive:compound]. As the cell cools, the enzymes return to their previous shape, allowing the process to repeat. More efficient form of [i]Bacterial Thermosynthesis[/i] present in [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b].The rate of its [thrive:compound type="atpglucose"][/thrive:compound] production scales with [thrive:compound type="temperature"][/thrive:compound] [i]delta[/i].
4 days ago
User avatar None

String updated in the repository
Produces [thrive:compound type="glucose"][/thrive:compound] using [thrive:compound type="temperature"][/thrive:compound] gradients in the environment. Eukaryotic form of the less efficient [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b].

Speculative organelle not found in real life. Unavailable in games with [i]LAWK[/i] (Life As We Know it) turned on.

It is a membrane-bound organelle containing thermosensitive enzymes inside membranous compartments. It is a prokaryote that has been assimilated for use by its eukaryotic host. The enzymes are able to use the energy of rising [thrive:compound type="temperature"][/thrive:compound] in their surroundings to produce [thrive:compound type="glucose"][/thrive:compound] in a process called [i]thermosynthesis[/i].
Produces energy in the form of [thrive:compound type="atpglucose"][/thrive:compound] using [thrive:compound type="temperature"][/thrive:compound] gradients in the environment. Eukaryotic form of the less efficient [b][color=#3796e1][url=thriveopedia:thermosynthase]Thermosynthase[/url][/color][/b].

Speculative organelle not found in real life. Unavailable in games with [i]LAWK[/i] (Life As We Know it) turned on.

It is a membrane-bound organelle containing thermosensitive enzymes inside membranous compartments. It is a prokaryote that has been assimilated for use by its eukaryotic host. The enzymes are able to use the energy of rising [thrive:compound type="temperature"][/thrive:compound] in their surroundings to produce [thrive:compound type="atpglucose"][/thrive:compound] in a process called [i]thermosynthesis[/i].
4 days ago
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