Governor: 
The Triune Circle of The Eternal Starlight
WA Delegate (non-executive): 
The Mikulight of Vintrel (elected )
Founder: The Triune Circle of The Eternal Starlight
Last WA Update:
Embassies: Horizon, Stars Above, The Sovereign Seven, The League, Talonia, Europeia, the Plains of Perdition, The Order of the Grey Wardens, the South Pacific, the Outback, the West Pacific, Balder, Ridgefield, the Rejected Realms, The Sasquatch Republic, Declansburg, and 23 others.Lazarus, RGBN, Anteria, Cape of Good Hope, The Wellspring, Conch Kingdom, Commonwealth of Sovereign States, 10000 Islands, The Region That Has No Big Banks, The United Federations, Communitas, Lands End, Solstice, Narnia, Karma, Europe, Forest, Transatlantic Pirates, Carcassonne, The East Pacific, The North Pacific, The Frontier Sea, and The Leftist Assembly.
Tags: Anti-Fascist, Casual, Cyberpunk, Defender, FT: FTL, Fantasy Tech, Feminist, Future Tech, Gargantuan, LGBT, Magical, Map, and 10 others.Multi-Species, National Sovereigntist, Offsite Chat, Outer Space, Post-Modern Tech, Regional Government, Role Player, Silly, Social, and World Assembly.
Regional Power: Very High
Starlight contains 551 nations, the 88th most in the world.
Today's World Census Report
The Largest Trout Fishing Sector in Starlight
The World Census conducted frenzied haggling with fishmongers in order to determine which nations have the largest fishing industries.
As a region, Starlight is ranked 13,354th in the world for Largest Trout Fishing Sector.
 | Nation | WA Category | Motto | |
|---|---|---|---|---|
| 1. |  The Empire of West Harajyon | Inoffensive Centrist Democracy | “Of the Slug, By the Slug, For the Slug” | |
| 2. |  The Holy Empire of Luminaryn | Moralistic Democracy | “Free Hearts, Holy Souls” | |
| 3. |  The United Socialist States of Encelna | Father Knows Best State | “Workers, Unity, Liberty” | |
| 4. |  The Federation of The Arettia | Left-Leaning College State | “Virtue Uniti Ad Astra” | |
| 5. |  The Liberal Democracy of Nouveaurich | Anarchy | “Always try to be nice, but never fail to be kind.” | |
| 6. |  The Commonwealth of Latstat | Left-wing Utopia | “The future ever onward” | |
| 7. |  The Confederacy of Samgreat2 | Democratic Socialists | “Liberal Laic Land” | |
| 8. |  The People's Republic of Pandusta | New York Times Democracy | “By The Republic for its People” | |
| 9. |  The Armed Republic of Tetra II Remnants | Corrupt Dictatorship | “Unity and Prosperity” | |
| 10. |  The Kingdom of Mourovin | Scandinavian Liberal Paradise | “Ohhhh god not again” |
1234. . .5556»
Regional Poll • What is your favorite drink?
Summary • WA • Influence • Population • Voters
Voting opened 2 days 13 hours ago and will close . Open to residents. You cannot vote as you are not logged in.
Recent polls: “What's your favorite object in space?” • “What's your favorite part of the fall?”
Regional Happenings
- : Free London ceased to exist.
- : Nicelands ceased to exist.
- : La La La Land ceased to exist.
- : District 2049 ceased to exist.
- : Scorpia Solus ceased to exist.
- : Astralia Ry ceased to exist.
- : Goslingland ceased to exist.
- : Baonataga ceased to exist.
- : RIHAAM ceased to exist.
- : The Empire of Bate Matentickostan arrived from The Pacific.
Starlight Regional Message Board
Loading...
RP New Periodic Table
After months of research, the gods have revealed the fruit of their efforts, a new branch of exotic chemistry focused on Chromatons and Quarks known as Chromatic Matter.
Snipet: The Smallest Chromatic atom, known as Monochromia is about 2.5x10^-21 to 3x10^-21 meters in size, occupying an estimated density of 1.3x10^38 kg/m^3 to 2.2x10^38 kg/m^3. For more complex Chromatic Elements, their size and density varies by the quark shell orbitals, the flavor and number of bound quarks, and the number and configuration of other chromatons in the structure if present. Extra Chromatons act as additional binding centers for the construction of more complex elements, often in asymmetric structures. This is needed because Chromatons repel one another and cannot bind together into a larger unified nucleus. This gives complex Chromatic atoms bizarre geometry and binding channels, further separating them from typical atomic structures & chemistry. Chromatic binding energy has a limited range and capacity before additional quarks cannot be bonded with without exponentially increasing instability. Chromatons possess a fractional -2/3 charge value and bind easily with positively charged quark Negatively charged quark flavors can be incorporated when the combined Chromatic Atom has favorable properties to do so. Bulk Chromatic Matter is sometimes referred to as ‘Colorium’ and different Chromatic Elements are sometimes called ‘Shades’.
The Smallest Chromatic atom, known as Monochromia is about 3x10^-20 meters in size, with an estimated bulk density of 1.3x10^36 kg/m^3. For more complex Chromatic Elements, their size and density varies by the quark shell orbitals, the flavor and number of bound quarks, and the number and configuration of other chromatons in the structure if present. Extra Chromatons act as additional binding centers for the construction of more complex elements, often in asymmetric structures. This is needed because Chromatons repel one another and cannot bind together into a larger unified nucleus. This gives complex Chromatic atoms bizarre geometry and binding channels, further separating them from typical atomic structures & chemistry. Chromatic binding energy has a limited range and capacity before additional quarks cannot be bonded with without exponentially increasing instability. Chromatons possess a fractional -2/3 charge value and bind easily with positively charged quark Negatively charged quark flavors can be incorporated when the combined Chromatic Atom has favorable properties to do so. Bulk Chromatic Matter is sometimes referred to as ‘Colorium’ and different Chromatic Elements are sometimes called ‘Shades’.
01. Monochromia
Composition: 1C + 1u
Chromaton Count: 1
Charge: 0e
Element Type: Monocentric Quantum Solid
Unique Attributes: The simplest form of Chromatic matter, with an estimated bulk density of 1.3x10^36 kg/m^3. Monochromia is expected to appear dark graphite-grey with a subdued metallic lustre from its collective electromagnetic response. Its compact, single-center structure favors exceptional resistance to compression, but its limited internal binding geometry makes it vulnerable to tensile fracture and abrupt structural failure.
02. Dichromia
Composition: 1C + 1u + 1d
Chromaton Count: 1
Charge: −1/3e
Element Type: Charge-Asymmetric Quantum Solid
Unique Attributes: A dark, matte-grey material whose uncompensated fractional charge produces pronounced electrical polarization. It can interact strongly with external electromagnetic fields despite lacking conventional electron shells. In bulk quantities, accumulated charge may generate internal stress, making macroscopic stability dependent on how effectively its charge is compensated.
03. Trichromia
Composition: 1C + 2u + 1d
Chromaton Count: 1
Charge: +1/3e
Element Type: Positively Polarizable Quantum Solid
Unique Attributes: A pale silver-grey material with a soft, diffuse sheen. Its positively charged configuration permits unusual polarization under applied fields. It is expected to resist compression well but respond unevenly to directional loading, with microscopic defects potentially developing along preferred structural orientations.
04. Tetrachromia
Composition: 1C + 2u + 2d
Chromaton Count: 1
Charge: 0e
Element Type: Neutral Quantum Ceramic
Unique Attributes: A charcoal-grey, low-lustre material with a comparatively uniform electromagnetic response. Its balanced charge and compact single-center configuration favor structural stability under sustained compression. It behaves more like an ultradense ceramic than a ductile metal: difficult to deform, resistant to indentation, but susceptible to catastrophic cracking once a major fracture begins.
05. Pentachromia
Composition: 2C + 3u + 2d
Chromaton Count: 2
Charge: 0e
Element Type: Multicenter Structural Crystal
Unique Attributes: A silver-grey crystal whose multiple binding centers create direction-dependent structural behavior. Its optical response may vary subtly with crystal orientation, producing a faint satin sheen rather than a uniform mirror finish. It resists compression strongly, although its asymmetric internal geometry can create preferred cleavage directions and uneven resistance to shear.
06. Hexachromia
Composition: 2C + 3u + 3d
Chromaton Count: 2
Charge: −1/3e
Element Type: Charge-Asymmetric Multicenter Crystal
Unique Attributes: A dark-silver material with a faint blue-violet sheen under certain illumination. Its internal charge distribution permits a pronounced response to electromagnetic fields. Mechanically, it is highly resistant to compression but sensitive to repeated thermal cycling, which can initiate microfractures as its asymmetric binding structure responds unevenly to expansion and contraction.
07. Heptachromia
Composition: 2C + 4u + 3d
Chromaton Count: 2
Charge: +1/3e
Element Type: Positively Charged Structural Crystal
Unique Attributes: A pale, metallic-grey material with a clean reflective appearance. Its multicenter configuration distributes compressive loads across more than one binding region, although resistance to shear remains direction-dependent. Its charged structure responds strongly to external fields, potentially allowing its optical and electrical behavior to change under intense electromagnetic exposure.
08. Octachromia
Composition: 2C + 4u + 4d
Chromaton Count: 2
Charge: 0e
Element Type: Neutral Multicenter Crystal
Unique Attributes: A silver-white material with a cool, diffuse lustre. Its charge-balanced composition supports a comparatively stable bulk phase, with strong resistance to compression and dimensional change. Despite its structural rigidity, it exhibits little capacity for plastic deformation; concentrated impacts can produce clean fractures rather than gradual bending.
09. Enneachromia
Composition: 3C + 5u + 4d
Chromaton Count: 3
Charge: 0e
Element Type: Tricenter Structural Crystal
Unique Attributes: A graphite-grey, faintly lustrous material with a complex internal binding geometry. It withstands intense compression, but its three-center structure creates several possible fracture paths. Damage may remain localized under uniform loading yet spread rapidly when stress concentrates at an unfavorable junction.
10. Decachromia
Composition: 3C + 5u + 5d
Chromaton Count: 3
Charge: −1/3e
Element Type: Charge-Asymmetric Tricenter Crystal
Unique Attributes: A near-black material with a subdued indigo or violet sheen, depending on its surface condition and illumination. Its complex internal charge distribution supports unusual field-dependent optical behavior. In a properly charge-compensated bulk phase, it can withstand substantial compression and abrasion; uncompensated regions are more vulnerable to electrical stress and localized instability.
11. Hendecachromia
Composition: 3C + 6u + 5d
Chromaton Count: 3
Charge: +1/3e
Element Type: Polarizable Multicenter Crystal
Unique Attributes: A pale platinum-grey material with a bright, cool sheen. Its charged multicenter configuration gives it a pronounced response to electromagnetic excitation, potentially changing its reflected spectrum under intense fields. It is exceptionally rigid under compression but can develop directional shear fractures where its internal binding channels are poorly aligned with an applied load.
12. Dodecachromia
Composition: 3C + 6u + 6d
Chromaton Count: 3
Charge: 0e
Element Type: Neutral Tricenter Structural Crystal
Unique Attributes: A silver-grey, finely reflective material with comparatively uniform bulk behavior. Its balanced composition and multicenter geometry favor stable compression resistance and reduced sensitivity to external electrical fields. It remains brittle under severe tensile or impact loading, but its internal structure can distribute moderate mechanical stress more evenly than simpler single-center materials.
13. Tridecachromia
Composition: 4C + 7u + 5d + 1s
Chromaton Count: 4
Charge: 0e
Element Type: Strange-Bearing Structural Crystal
Unique Attributes: A smoky-grey material with a subtle greenish iridescence proposed to arise from its unusual collective electromagnetic response. The inclusion of a strange-quark constituent changes its binding configuration and may permit structural phases unavailable to lighter compositions. It resists compression well, but rapid temperature changes can trigger abrupt transitions between phases with different mechanical properties.
14. Tetradecachromia
Composition: 4C + 7u + 6d + 1s
Chromaton Count: 4
Charge: −1/3e
Element Type: Charge-Asymmetric Strange-Bearing Crystal
Unique Attributes: A pewter-grey material with a dense, muted sheen. Its strange-bearing configuration is expected to resist surface wear and compressive damage, while its fractional net charge permits pronounced electrical polarization. Mechanical reliability depends on charge compensation and crystal orientation; certain structural directions may be substantially more vulnerable to shear than others.
15. Pentadecachromia
Composition: 4C + 8u + 6d + 1s
Chromaton Count: 4
Charge: +1/3e
Element Type: Positively Charged Strange-Bearing Crystal
Unique Attributes: A silver material with a restrained blue-gold sheen. Its charged structure supports unusual field-sensitive optical behavior, while its multicenter geometry favors high compressive rigidity. It is comparatively stable under sustained pressure but less reliable under sudden lateral loading, where stress may concentrate along asymmetric binding channels.
16. Hexadecachromia
Composition: 4C + 8u + 6d + 2s
Chromaton Count: 4
Charge: 0e
Element Type: Neutral Strange-Rich Structural Crystal
Unique Attributes: A blue-grey material with a restrained, almost ceramic lustre. Its increased strange-quark content permits a more complicated internal structure and a potentially wider range of stable phases. It resists compression and surface indentation, but its complex binding geometry makes precision machining difficult: conventional removal processes may induce fractures or trigger local structural rearrangement.
17. Heptadecachromia
Composition: 5C + 9u + 6d + 2s
Chromaton Count: 5
Charge: 0e
Element Type: Multicenter Structural Ceramic
Unique Attributes: A steel-grey material with a subdued, non-mirror-like finish. Its numerous binding centers allow strong resistance to compression, but the asymmetric structure remains poor at accommodating plastic deformation. Under impact, it may distribute force through the bulk before ultimately failing along a sharply defined fracture surface.
18. Octadecachromia
Composition: 5C + 9u + 7d + 2s
Chromaton Count: 5
Charge: −1/3e
Element Type: Charge-Asymmetric Structural Ceramic
Unique Attributes: A dark blue-grey material with faint violet highlights under directional illumination. Its charge imbalance permits strong polarization and unusual interactions with applied fields. When properly compensated, it offers excellent compressive stability and resistance to abrasion; uncompensated regions can experience localized electrical stress, especially at interfaces between differing structural phases.
19. Enneadecachromia
Composition: 5C + 10u + 6d + 3s
Chromaton Count: 5
Charge: +1/3e
Element Type: High-Temperature Structural Crystal
Unique Attributes: A platinum-like grey material with a bright, tightly controlled sheen. Its strange-rich configuration is proposed to support phases that remain structurally coherent at elevated temperatures. It resists compression and heat-induced deformation, but abrupt temperature gradients can still create stress between regions occupying different phases. Its thermal stability should not be mistaken for immunity to thermal shock.
20. Icosachromia
Composition: 5C + 10u + 7d + 3s
Chromaton Count: 5
Charge: 0e
Element Type: Neutral High-Temperature Crystal
Unique Attributes: A pale-grey material with a clean, restrained metallic sheen. Its neutral composition and multicenter configuration favor dimensional stability under pressure and heat. It is difficult to deform and resistant to surface wear, but flaws introduced during formation or processing can act as severe stress concentrators, making manufactured components less reliable than pristine material.
21. Henicosachromia
Composition: 6C + 11u + 8d + 2s
Chromaton Count: 6
Charge: 0e
Element Type: High-Density Structural Crystal
Unique Attributes: A dark silver-grey material with a dense, subdued reflection. Its six-center structure provides numerous internal binding regions and exceptional resistance to compression and indentation. However, a large number of binding centers does not guarantee toughness: once a major fracture finds a favorable path through the structure, it may propagate rapidly.
22. Docosachromia
Composition: 6C + 11u + 9d + 2s
Chromaton Count: 6
Charge: −1/3e
Element Type: Charge-Asymmetric High-Density Crystal
Unique Attributes: A gunmetal-grey material with a subdued blue cast. It resists abrasion and compressive damage, while its fractional charge produces a strong response to external electric fields. Interfaces between differently compensated regions can become mechanically weak points, particularly when subjected to repeated loading or rapid changes in field strength.
23. Tricosachromia
Composition: 6C + 12u + 9d + 2s
Chromaton Count: 6
Charge: +1/3e
Element Type: Polarizable High-Density Crystal
Unique Attributes: A silver-white material with a mirror-like sheen under favorable surface conditions. Its charged multicenter structure may produce direction-dependent reflection and polarization effects. It is highly resistant to compressive deformation, though its mechanical response varies with orientation; components cut along unfavorable structural axes can fail under shear despite their apparent rigidity.
24. Tetracosachromia
Composition: 6C + 12u + 10d + 2s
Chromaton Count: 6
Charge: 0e
Element Type: Neutral High-Density Structural Crystal
Unique Attributes: A pale gunmetal material with a fine, even sheen. Its neutral charge and complex binding geometry favor a comparatively stable bulk phase, with excellent surface hardness and resistance to indentation. It is extremely difficult to shape without introducing defects, and sharp impacts may cause brittle failure rather than gradual deformation.
25. Pentacosachromia
Composition: 7C + 13u + 9d + 3s
Chromaton Count: 7
Charge: 0e
Element Type: Ultradense Structural Crystal
Unique Attributes: A dark silver material with a subtle bronze tint. Its seven-center architecture permits strong resistance to compression and surface abrasion, but its extreme density makes even small components exceptionally massive. Its complex internal geometry complicates processing, and machining damage may produce hidden fractures that are difficult to detect from the surface.
26. Hexacosachromia
Composition: 7C + 13u + 10d + 3s
Chromaton Count: 7
Charge: −1/3e
Element Type: Charge-Asymmetric Ultradense Crystal
Unique Attributes: A charcoal-grey material with a purple-blue sheen. Its charge imbalance permits pronounced field polarization, while its dense multicenter structure provides strong resistance to compression and wear. Charge compensation is important for large-scale stability; uncompensated regions may develop local stress, particularly where the material meets a different Chromatic phase.
27. Heptacosachromia
Composition: 7C + 14u + 10d + 3s
Chromaton Count: 7
Charge: +1/3e
Element Type: Positively Charged Ultradense Crystal
Unique Attributes: A silver-grey material with a faint pearlescent appearance. Its charged structure may respond strongly to electromagnetic excitation, while its internal binding centers provide exceptional compressive rigidity. It retains its shape under intense pressure but remains vulnerable to certain directional shear loads and sudden changes in structural phase.
28. Octacosachromia
Composition: 7C + 14u + 10d + 4s
Chromaton Count: 7
Charge: 0e
Element Type: Neutral Strange-Rich Ultradense Crystal
Unique Attributes: A dark, iridescent grey material whose appearance may shift subtly with illumination and crystal orientation. Its strange-rich composition supports complex internal configurations and pressure-dependent phase behavior. It is highly resistant to compression, but changes in pressure can rearrange its binding structure, potentially altering its hardness, optical response, or fracture behavior.
29. Enneacosachromia
Composition: 8C + 15u + 10d + 4s
Chromaton Count: 8
Charge: 0e
Element Type: Octacenter Structural Crystal
Unique Attributes: A dark metallic-grey material with a faint, multicolored sheen. Its eight-center architecture creates several possible structural configurations, some of which may remain locked in place after pressure is removed. It exhibits exceptional resistance to compression, but its retained configurations can produce residual stress and make the material’s mechanical behavior dependent on its formation history.
30. Triacontachromia
Composition: 8C + 15u + 11d + 4s
Chromaton Count: 8
Charge: −1/3e
Element Type: Charge-Asymmetric Octacenter Crystal
Unique Attributes: A near-black material with an indigo sheen. When properly charge-compensated, it offers extraordinary resistance to compression and surface wear. Its complex charge distribution may create strong electromagnetic polarization, while poorly compensated interfaces can become preferred sites for structural failure. Its dark appearance is a proposed optical characteristic, not a direct consequence of its net charge.
31. Hentriacontachromia
Composition: 8C + 16u + 10d + 5s
Chromaton Count: 8
Charge: +1/3e
Element Type: Positively Charged Strange-Rich Crystal
Unique Attributes: A pale steel-grey material with a subtle, cool reflection. Its complex strange-rich structure permits multiple possible phases, some of which may respond differently to temperature or pressure. It withstands intense compression but can undergo abrupt changes in mechanical behavior when a phase boundary moves through the material.
32. Dotriacontachromia
Composition: 8C + 16u + 11d + 5s
Chromaton Count: 8
Charge: 0e
Element Type: Neutral Strange-Rich Structural Crystal
Unique Attributes: A dark-silver material with a subdued, almost satin-like sheen. Its neutral bulk composition supports stable electromagnetic behavior while its eight-center structure provides substantial resistance to compression. Under certain loading conditions, internal rearrangements may absorb energy before failure, although this response is highly dependent on the available structural phase and does not imply conventional ductility.
33. Tritriacontachromia
Composition: 9C + 16u + 13d + 3s + 1c
Chromaton Count: 9
Charge: 0e
Element Type: Charm-Bearing Multicenter Crystal
Unique Attributes: A dark, mirror-like blue-black material with a distinctive proposed spectral response. The addition of a charm-quark constituent introduces a new degree of complexity into its binding configuration; its consequences for bulk stability and optical behavior remain speculative. It resists compression strongly but may respond unusually to high-energy excitation, potentially entering altered structural states.
34. Tetratriacontachromia
Composition: 9C + 16u + 14d + 3s + 1c
Chromaton Count: 9
Charge: −1/3e
Element Type: Charge-Asymmetric Charm-Bearing Crystal
Unique Attributes: A gunmetal material with a blue-violet cast. Its charm-bearing configuration and fractional charge permit a complex electromagnetic response, especially when exposed to intense fields. Charge-compensated specimens can be highly resistant to compression, but transitions between structural phases may leave brittle regions or internal stresses that reduce impact tolerance.
35. Pentatriacontachromia
Composition: 9C + 17u + 14d + 3s + 1c
Chromaton Count: 9
Charge: +1/3e
Element Type: Positively Charged Charm-Bearing Crystal
Unique Attributes: A silver-grey material with a subtle blue-gold sheen. Its dense internal structure resists indentation and compression, while its charged configuration allows field-dependent polarization. It is extremely rigid but may be vulnerable to shear when loaded across unfavorable binding directions; surface hardness should not be mistaken for resistance to all forms of damage.
36. Hexatriacontachromia
Composition: 9C + 17u + 15d + 3s + 2c
Chromaton Count: 9
Charge: +2/3e
Element Type: Positively charged Multi-Charm Crystal
Unique Attributes: A blue-black material with a highly reflective, cool-toned surface. Its multiple charm-bearing constituents allow a more complicated set of possible internal configurations. It is strongly resistant to compression and may retain stable phases under severe conditions, but some configurations can fail abruptly when a critical stress or excitation threshold is crossed.
37. Heptatriacontachromia
Composition: 10C + 18u + 15d + 3s + 1c
Chromaton Count: 10
Charge: 0e
Element Type: Decacenter Charm-Bearing Crystal
Unique Attributes: A dark silver-grey material with a compact, low-relief sheen. Its ten-center structure provides many internal binding regions, giving it exceptional compressive rigidity and resistance to indentation. Energy deposited into the material may trigger localized rearrangement or unusual thermal responses, although the exact behavior depends on its internal phase.
38. Octatriacontachromia
Composition: 10C + 18u + 15d + 4s + 1c
Chromaton Count: 10
Charge: −1/3e
Element Type: Charge-Asymmetric Decacenter Crystal
Unique Attributes: A dark pewter material with a green-blue iridescent cast. Its fractional charge supports unusual electromagnetic polarization, while its complex multicenter structure allows multiple stable or metastable configurations. It withstands compression exceptionally well, but thermal transitions can change its fracture behavior and create localized stress at phase boundaries.
39. Enneatriacontachromia
Composition: 10C + 19u + 15d + 4s + 1c
Chromaton Count: 10
Charge: +1/3e
Element Type: Positively Charged Decacenter Crystal
Unique Attributes: A pale-silver material with a bright, cool reflection. Its charged configuration is expected to produce measurable field-dependent behavior, while its dense structure strongly resists compression. Its performance is orientation-sensitive, and charge compensation may be important in large components where electrical and mechanical stresses interact.
40. Tetracontachromia
Composition: 10C + 19u + 16d + 4s + 1c
Chromaton Count: 10
Charge: 0e
Element Type: Neutral Decacenter Structural Crystal
Unique Attributes: A dark silver material with a restrained metallic sheen. Its neutral bulk configuration supports comparatively consistent electromagnetic behavior, while its ten-center structure provides extraordinary resistance to compressive deformation. Despite its rigidity, it remains vulnerable to directional shear and fracture propagation along unfavorable internal binding paths.
41. Hentetracontachromia
Composition: 11C + 20u + 16d + 4s + 1c
Chromaton Count: 11
Charge: 0e
Element Type: Hendecacenter Structural Crystal
Unique Attributes: A graphite-silver material with a subdued, finely mottled reflection. Its eleven-center geometry creates a highly complex network of internal binding regions. It resists compression extremely well, but some configurations may rearrange into less favorable phases when stressed, leaving residual deformation or localized weak points despite the material’s overall rigidity.
42. Dotetracontachromia
Composition: 11C + 20u + 16d + 5s + 1c
Chromaton Count: 11
Charge: −1/3e
Element Type: Charge-Asymmetric Hendecacenter Crystal
Unique Attributes: A charcoal-grey material with violet highlights under directional light. Its unusual charge distribution and complex internal structure may support metastable phases with distinct optical and mechanical behavior. It is highly resistant to compression when stable, but transitions between phases can create stress concentrations that make certain specimens unexpectedly brittle.
43. Tritetracontachromia
Composition: 11C + 21u + 16d + 5s + 1c
Chromaton Count: 11
Charge: +1/3e
Element Type: Positively Charged Hendecacenter Crystal
Unique Attributes: A silver-grey material with a subtle blue-gold tint. Its charged multicenter structure may produce strong polarization effects, while its high-density configuration gives it exceptional stiffness under compression. Its main mechanical weakness is directional shear: resistance can vary significantly according to the orientation of its internal binding geometry.
44. Tetratetracontachromia
Composition: 11C + 20u + 17d + 5s + 2c
Chromaton Count: 11
Charge: 0e
Element Type: Neutral Multi-Charm Crystal
Unique Attributes: A deep blue-black material with a low, reflective sheen. Its multiple charm-bearing constituents create a particularly complex internal configuration with potentially unusual excitation and phase behavior. It resists compression strongly, but some phases may be brittle or sensitive to high-energy disturbance, making stability dependent on the material’s precise formation history.
45. Pentatetracontachromia
Composition: 12C + 21u + 17d + 5s + 2c
Chromaton Count: 12
Charge: 0e
Element Type: Dodecacenter Multi-Charm Crystal
Unique Attributes: A dark mirror-black material with a subtle blue-grey reflection. Its twelve-center geometry supports a wide range of complex structural arrangements and pronounced directional variation in its bulk response. It is extraordinarily resistant to compression, but internal anisotropy can make fracture behavior difficult to predict without knowing its crystal orientation and phase.
46. Hexatetracontachromia
Composition: 12C + 21u + 17d + 6s + 2c
Chromaton Count: 12
Charge: −1/3e
Element Type: Charge-Asymmetric Dodecacenter Multi-Charm Crystal
Unique Attributes: A near-black material with a blue-violet sheen. Its complex charged structure may produce a distinctive electromagnetic response, while its dense bulk phase offers excellent resistance to indentation and abrasion. Rapid thermal changes can trigger structural transitions, potentially altering its appearance and mechanical properties without any change in elemental composition.
47. Heptatetracontachromia
Composition: 12C + 22u + 17d + 6s + 2c
Chromaton Count: 12
Charge: +1/3e
Element Type: Positively Charged Dodecacenter Crystal
Unique Attributes: A silver-blue material with a bright, cool-toned sheen. Its charged structure may respond strongly to electromagnetic fields, while its twelve-center configuration provides extraordinary compressive rigidity. The material is difficult to deform, but its high stiffness can make it susceptible to brittle failure under sudden impact or unfavorable shear loading.
48. Octatetracontachromia
Composition: 12C + 22u + 18d + 6s + 2c
Chromaton Count: 12
Charge: 0e
Element Type: Neutral Dodecacenter Ultradense Crystal
Unique Attributes: Estimated density: 8.8 × 10^17 kg/m³. A dark-silver material with a compact, restrained reflection. Its neutral composition supports comparatively stable bulk electromagnetic behavior, while its dense multicenter structure strongly resists compression. Its enormous density does not automatically make it tougher than other Chromatic materials; impact resistance depends on phase stability, fracture paths, and the arrangement of its internal binding centers.
49. Enneatetracontachromia
Composition: 13C + 23u + 18d + 6s + 2c
Chromaton Count: 13
Charge: 0e
Element Type: Tridecacenter Multi-Charm Crystal
Unique Attributes: A dark, iridescent metallic material with a subtle shifting sheen. Its thirteen-center geometry permits highly complex internal configurations and strong orientation-dependent behavior. It resists compression exceptionally well, but processing history can determine which phase is retained, leaving otherwise similar specimens with noticeably different fracture resistance and optical signatures.
50. Pentacontachromia
Composition: 13C + 22u + 18d + 7s + 3c
Chromaton Count: 13
Charge: −1/3e
Element Type: Charge-Asymmetric Tridecacenter Multi-Charm Crystal
Unique Attributes: A near-black material with a deep blue-violet sheen under certain illumination. Its thirteen-center architecture and complex strange- and charm-bearing composition permit an unusually large range of possible internal configurations. Properly stabilized phases may resist extreme compression, but metastable arrangements can undergo abrupt transitions once a critical stress, temperature, or excitation threshold is crossed. Its properties are therefore especially sensitive to phase control and charge compensation.
Celestara RP - United Utopian Empire
Message received by the Bureau of Foreign Affairs, relaying the proposal to the desk of Imperator Yunis Torisson.
Priority: The revolution of space-travel is paramount, the Empire expands;
Additional Priority: Ensure that the UUE's relationship with Ferax is kept secret, maintaining positive relations;
Expected Risk: INCREASING, Foreign Affairs reaching capacity with immigrants from Alterra and refugees from Starlit Guam;
Status: APPROVED.
Under supervision of Foreign Affairs, the United Utopian Empire will collaborate with Freywynn and Ferax, scientists and engineers of the Bureau of Science will be sent, with additional support from the Bureau of Abnormalities to ensure integrity of the fabric of reality and containment of incidents, additional funding will be provided at the discretion of the Ministry of Resources; the Bureau of Foreign Affairs will be provided with additional funding and government support, expected institutional expansion: 300%.
Celestara RP - United Utopian Empire
At the edge of the United Utopian Empire, Red Division Fleet "Colossus" hails the vessel, luckily, they have a Black Division translator at the ready, establishing the situation. "Refugees? More of them?", the commander of the Colossus questions, Foreign Affairs hasn't responded yet, instead, an unexpected message from the Bureau of Abnormalities comes in. Their usual questions are strange for most, the mystery of the scientific jargon is unsolved as the Bureau brings the question to the Imperial Authority.
Priority: Auxiliate the Thrúdian refugees in finding safe refuge;
Secondary Priority: Research their anatomy (consent pending) as to provide better accommodations and for other purposes;
Foreign Affairs Supervision: PENDING, restructuring on-going;
Status: CONDITIONALLY APPROVED.
The neutron star Töru will be provided as refuge for the Thrúdians, with the status of Protectorate, meaning: 1. They will be subject to certain laws of the UUE; 2. They can elect a representative, as well as add and change laws as long as compliant to UUE principles; 3. The UUE will provide additional resources if needed. The Bureau of Abnormalities has been given special permission to oversee the Protectorate.
Hello and Welcome to Starlight! – In a starless night, we are the light!
To get started, join the World Assembly and endorse Vintrel and Kaidan. This helps make our region more powerful and secure, while giving you the opportunity to collect endorsements of your own!
Join our Discord: https://discord.gg/EvDHxy8rYE
Also make sure to read our Welcome Guide!
If you have any questions, feel free to telegram me! ^.^
✧ Welcome to Dawnbreak! ✧
───────── ☀ ─────────
✦ Concorands
✦ Oronmar
───────── ☽ ─────────
Let 
Oseao, 
Cuchimilco, 
Subundia, 
Stevist Guam or 
Imantica know if you have any questions on how to get started.
|
|
|
|
|
|
|
|
Dawnbreak Political MapDawnbreak Continents MapDawnbreak Subterranean MapInformation TableNationStates Nation | Dawnbreak Nation | Main Factbook | RP Index Link | Character Index |
Elarithil | ||||
Stevist Guam | N/A | |||
The Viceroyalty of New Zaron | N/A | |||
The Verdant Union of Eggland | N/A | N/A | N/A | |
zaneunisal di wer draushum | ||||
Themiphron | N/A | N/A | N/A | |
Sjukla-ni Zorith | N/A | N/A | N/A | |
Kingdom of Mex Laing | N/A | N/A | N/A | |
Repubblica di Aurelia | N/A | |||
Kingdom of Skrekivio | N/A | N/A | ||
Valentia Free Republic | N/A | N/A | N/A | |
The Magistarchy of Ocolia | N/A | N/A | N/A | |
United States of Chreeno | N/A | N/A | N/A | |
The Kingdom of Félinrefugia | N/A | N/A | N/A | |
Meritocratic Republic of Imantica | N/A | N/A | ||
Holy Empire of the Old Insectoid Nation | N/A | N/A | N/A | |
Empire of Geumhwaro | N/A | N/A | N/A | |
Queendom of Malos | N/A | N/A | N/A | |
Arestra | N/A | N/A | N/A | |
Empire of Frankist-Carlgenslen | N/A | |||
Subundia | N/A | |||
Hattorai Shinobainate | N/A | N/A | N/A | |
Orange Cult | N/A | N/A | N/A | |
Ryk Bēzkssāvuri | ||||
Min Dynasty | N/A | N/A | N/A | |
Empire of Enyvala | N/A | N/A | N/A | |
Cuchimilco | N/A | N/A | N/A | |
Kingdom of Akimahara | N/A | N/A | N/A | |
Direnne | N/A | N/A | N/A | |
Quartio | N/A | N/A | N/A | |
The Circle of Anderlion | N/A | N/A | N/A | |
Holy Kingdom of Luminara | N/A | N/A | N/A | |
Alaina | N/A | N/A | ||
Axercualtzin | N/A | N/A | N/A | |
Greater Velkynia-Urmassia | N/A | N/A | N/A | |
The Vesperian World Order | N/A | N/A | N/A | |
Most Serene Republic of Ethalanne | N/A | N/A | N/A | |
Tristaea | N/A | N/A | N/A | |
The Adamantine Empire | N/A | N/A | N/A | |
Thycinia | N/A | N/A | N/A | |
The Ecclesiastic Republic of Ubertas | N/A | N/A | N/A | |
Peko Republics | N/A | N/A | N/A | |
The Seventh House | N/A | N/A | N/A | |
Farrine | N/A | N/A | N/A | |
The Sethlanic League | N/A | N/A | N/A | |
Leshokelenr | N/A | N/A | N/A | |
Kumugur | N/A | N/A | N/A | |
Asternstan | N/A | N/A | N/A | |
Khosravid Empire | N/A | N/A | N/A | |
The Alliance of Rebirth | N/A | N/A | N/A | |
The Reformed Holy Empire of New Ruach | N/A | N/A | N/A | |
Aurellis & Garrathen's Spectacular Circus | N/A | N/A | N/A | |
Drientin | N/A | N/A | N/A | |
Geraluden | N/A | N/A | N/A | |
Morvainne | N/A | N/A | N/A | |
Shingento | N/A | N/A | N/A | |
Commonwealth of the Four Domains | N/A | N/A | N/A | |
Ydinvoimapom | N/A | N/A | N/A | |
Aioland | N/A | N/A | N/A | |
Empire of Invernus | N/A | N/A | N/A | |
Federation of Va'o Tinui'i | N/A | N/A | N/A | |
Holy Kingdom of Michin | N/A | N/A | N/A | |
Eirkleesm | N/A | N/A | N/A | |
The Underking's Realm | N/A | N/A | N/A | |
Amatsukini | N/A | N/A | N/A | |
Industrica | N/A | N/A | N/A | |
Concorands | N/A | N/A | N/A | |
Oronmar | N/A | N/A | N/A |
How To Apply?To join Dawnbreak ensure you have done the following:
Ensure you are a member of the World Assembly and are endorsing Oseao, Irenima, and Alainian Otters if you're a member of Horizon or Vintrel and Kaidan if you're a member of Starlight.
See the current Dawnbreak map here: Dawnbreak Map
Once that is complete, fill out the application below and send it to Oseao to apply!
RP Nation Name:
Government Type:
Population:
Economy Level:
(Low / Medium / High)
Preferred Map Location:
Additional Information:
(Any optional lore notes, themes, magic level, or flavor that we should be aware of)
Cuchimilco, Imantica, and Subundia
C.O.R.A'S PLAN PART 7/7 | THE INCIDENT. | CELESTARA RP
C.O.R.A was trying her hardest to create preon elements in a basement universe, trying various methods old, and new.
Then BOOM! the basement universe connected with the sufferverse causing some suffer-matter to be transported into this universe.
C.O.R.A would see this and be fascinated, taking a sample before the sample exploded, then she figured what if it cant be contained within a regular matter container?
For the next few months she worked on a suffer-matter made container.
Then she suceeded, the first samples of suffer matter were born.
She then began attempting to create elements with the suffer-matter, creating sufferanium, and suffobon!
But one thing truely interested her. its abilities and compact size allowing it to store more stuff than magmatter.
TIMESKIPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPPP
C.O.R.A finally completed the first suffer matter synthesis machine!
She switched the power, a gateway formed to the sufferverse transport sufferverse counterparts of sub-atomic particles which would then allow her to synthesize elements.
A week after she began constructing a Megastructure to contain her mind in made from suffermatter to see if it coulkd ascend her to S7.
Then it was completed after a year.
As she ascended to S7, she would become a literal ball of light(that could blind people) with light-form tendrils
(Sorry if this felt quick, it was just this was the finale part and i didnt want to create more parts so i decided to include everything in here.)
(And no a S7 god C.O.R.A will not be as op as you think she will have nerfs such as her godlike powers will only be used for technology, construction, and scenebuilding. not military wise cause thats unfair.)
✧ Light of the Stars Oct 13: Below is our question of the day - feel free to share your answer with us!
What's a really underrated quality in a leader?
This question was brought to you by the Ministry of Gameside!
RP Chasing Rabbits
Representatives of 
The United Terran Empire met with the Freywynn science fleet somewhere in unclaimed space, a safe distance away from any known inhabited systems. Members of the Bureau of Abnormalities would begin working with Avatars of several Lesser ASIs who were assisting Commonweth metric engineering teams to set up the initial experiment. Several maps could be seen displayed on holographic screens, showing the native hyperspace landscape and the mini-branes suspended above this area. They seemed to stretch on and on and on into the non Euclidean sea. For this test a MCCV dreadnought, only 5cm or so in size, massing over 10 Billion tons, would be tasked with making it through the Wonderland Bridge once it was opened. The time had come after a day of preparation. The Zipper Drive spun up, and before everyone, space and time began to wildly distort and shift. Unimaginable geometries became visible as all 11 dimensions were forced open by machinery beyond the comprehension of most in attendance. Then the Weylforge activated. Calculations were done via Oracle-Branes connected to ship-board super computers in order to determine the size and shape of the wormhole and how to keep it stable. With held breath, everyone watched as the wormhole began to balloon in slipspace, eventually connecting with another place on the other side. The MCCV went through, guided by the Sheperd drone and its void motes. In under an hour, the MCCV appeared out the other side of the wormhole, bruised but otherwise functional. Instability rapidly increased in the structure once the zipper drive was disabled, and the wormhole imploded into a singularity, which was destroyed using a Planar Conservation Weapon suspended above the region in hyperspace. Time and space violently re-asserted itself, as an explosion stronger than multiple supernovae spread out from where the wormhole was. Exotic particles, temporal and spatial anomalies, and high energy photons were all recorded. The prototype works, but can we reduce the collateral?
Advertisement