| | S T R A N G E | |
OUT OF CHARACTER INFORMATION
- Intent: To create a neat-o heart for Agrippa and others.
- Image Source: Benjamin Louis
- Canon Link: N/A
- Permissions: N/A
- Primary Source: See bottom, there's alot.
- Manufacturer: Void Inc.
- Affiliation: Void Inc.
- Model: BHB-1398
- Modularity: No.
- Production: Limited.
- Material:
- Classification: Internal Organ
- Size: Small
- Weight: Heavy
- Resistances: Average
- Energy (And other Blaster type weapons): Average
- Kinetic: Average
- Lightsabers: Average
- Ion: Average
- Other: N/A
OOC Meta
Simplified Descriptions
This item is like a fusion reactor that generates a small bubble of gravity around the host.
STRENGTH
Simplified.
- The device is a reactor that creates a lot of energy.
- The device creates a 1 meter bubble of gravity manipulation similar to a small AOE of tractor beams or repulsor beams.
Simplified.
- Energy production, while theoretically infinite, is not instantaneously transferred.
- Gravity manipulation affects the host as well.
- Too much gravity = you can't move. Too much gravity = your bones break. Too much gravity = you're slow. Too much gravity = you can't breathe, your body collapses.
- Too little gravity = you uncontrollably float. Too little gravity= you can't maintain equilibrium. Too little gravity = Can't maintain friction.
SPECIAL FEATURES
- See Strengths & Weaknesses.
- The gravity within the Kardia's shell is so intense that the outer plating is nigh invulnerable to being meticulously tampered with - it is mathematically impossible for known materials to pry open the mirror shielding.
- It can provide theoretically exponentially limitless energy, at the cost of stability and usage of the infrared mirror.
- The Kardia has no currently measurable expiration.
- Provides the user a small 1 meter bubble of gravitic distortion that can be increased or decreased to combat against other forces that would manipulate gravity, such as the Force, personal tractor beams, high or low gravity environments, etc.
- There is an option for an external outlet to the powercell, allowing the host to use the BHB-1398 to charge external technology.
- The BHB-1398 provides both inputs for pulmonary arteries to attach to organic hosts and outlets to provide energy to inorganic hosts.
- Can operate as a substitute for an organic heart when applied to organic hosts.
- The infrared receptor mirror technology will occasionally require maintenance and/or replacement, as required, though it is rated for 15-20 standard years of usage.
- The host will appear on almost every known spectrum of electromagnetic radiation detection, unless otherwise shielded.
- Energy produced is infinitely intense but can also be occasionally unstable, depending on the amount of gravitons and other exotic materials produced by Hawking radiation.
- May rarely cause temporal anomalies, corporeal distortions, that may affect both the host and it's environment.
- Has an escape velocity displacement field that, if disrupted, will cause the character to exhibit gravity that of 10^100, or a googol, of current Earth-like gravity within the bubble and only affecting the host.
- Will have unknown effects when exposed to other gravity field generators or temporal anomalies.
- As a safety measure, if the device is tampered or damaged, the oscillators of this device will stop working and the black hole will evaporate.
DESCRIPTION
Breaking The Equivalence Principle
As originally formulated by the Imperium Scientific Exploration Commission, difficulties can be presented in the following approach of the conservation of energy when dictated by the point principle or other classical principles. Conservation of energy, as determined by the Equivalence principle in it's general context of the Theory of Relativity, can be argued as the single most important bar raised for the generation of the same. Classical theories from my colleagues underline the same observables of this point particle, in specificity of it's position, energy, and mass within the confines of the pillared Equivalence Principle. Yet, when introduced to the quantum mechanics of a Black Hole, there has been a great deal of controversy when discussing the conservation of energy and the formulation of the principle spatially imposed superpositions of the Black Hole.
First, we need to identify how to generate the Black Hole - a creature of such great mass and energy that it operates as a spatial and chronal vacuum. It is assumed in this Institute as fact that black holes are not the summarization of the mass they induce, but rather great titanic anomalies that signify the location of a distortion of space, time and gravity. Using this knowledge, we can proceed further to assume that this distortion does not obey the observed laws that govern information in the universe, as dictated by the Mygeeto Simulacrum's Holographic Principle. Black holes are the one rebel of nature that deter and rage, warp and corrupt these learned lessons. In our data collected, it is observed that the function of a particle's mass and other masses would deter differently from the same gravitational fields that they would generate. It is here that, because of these determinations, do we reference once again the Equivalence Principle and it's subsequent sundering by these astronomical rioters.
With the assumption lifted that the principle of Equivalence does not equivocate naturally in the state of a Black Hole, it can be assumed that exponential gains and losses of mass and energy differ entirely with the fuel placed in such a quantum system. When inertial and gravitation mass are the same constant, introducing energy into this equation should - in a normal environment - always equivocate the output with the input. It is the Imperial Order's stance, however, that upon entering the Event Horizon - in conjunction with Hawking Radiation - that this is not the case and rather the opposite stands observed.
Gravitational Scaling Relations
How does one quantify the density and spacial reserve of an undead gluttonous star? Black holes at the terascale are natural relative phenomenons, but particle dense black holes are an uncertainty at even the scale that must accept that quantum principles cannot be ignored. At the planck scale, it is highly problematic for energies far beyond that of any ground-based particle to explore, as the highest energy that can be subsequently performed is would not require the density of mass that the construct could perform. This is when gravitonic energy, instead of mass, must be introduced artificially to accept as the new mechanism for judging density at the particle level, in addition to having the gravitational coupling lowered to a new fundamental energy level that would permit the modification of gravity at short length scales. Permittable levels of spatial dimensions, to allow for the construct to accept spacetime to form at the particle levels, is referred to as the bulk in this layman's exploration of the quantum generation of an artificial black hole. Though the data from large hadron colliders is sufficient enough to provide the spherically symmetric metrics to provide the gravitonic proximity of the actual space-time geometry, it can be severely constraining on the metaphysical requirements of the scale.
During the creation of the miniaturized black hole, it can be assumed at every construction that the density of gravity undergoes the following four phases, as described in the papers published by the Small Hadron Institute at the Csilla Scientific Academy:
1. Balding phase: Upon the formation of the black hole, it will introduce as a highly asymmetric object with guage field hair, generating massive amounts of Hawking Radiation and assimilating pair production at the highest of rates imaginable.
2. Spin-Down Phase: At the end of the balding phase, the highly spinning neutral black hole loses mass and angular momentum, with rates of Hawking radiation lowering slightly though still insanely high.
3. Schwartzchild Phase: At the end of the spin-down phase, the resulting spherically symmetric black hole now generates hawking radiation at mild levels and will continue to do so as it gradually decreases it's mass and increases it's temperature.
4. Planck phase: When the mass and gravitonic radiation levels approach the fundamental scale required for particle level, gravitonic coupling is introduced to stabilize the mass for as long as radiation is introduced for pair production.
Upon the destabilization of the black hole, concurring after a millenia or perhaps longer, it is the New Imperial Scientific Research Academy's thesis that the exponential event of heat death could occur if new mechanisms requiring theories in quantum gravity are not introduced to control the phenomenon. This would require new reflective coefficients to be installed as stop-gaps to reduce the anomaly through Hawking radiation until mass at the Planck phase has reached it's natural conclusive ending and the Black hole will cease to exist. Gravitational radiation would continue, though sparsed, throughout the Dark Heart construct in order to dissipate the gravity into energy through standard model particles such as scalars and fermions.
Utilizing the gap between the heaviest neutron stars and the smallest black holes begins to fill the unknown mysteries that prevented previous orchestration of miniature artificial black holes. Originally, the stellar mass equations did not previously allow for the size projects of black holes to fit on the Planck scale. However, due to recent breakthroughs in the field, alongside the evaporation of Hawking radiation to be known to reduce a black hole down to bursts of dark matter, it is known to be feasible to shrink a black hole while retaining it's information. Though this violates several principles on the physical level, on the particle level the quantum explanations of those principles - including the Uncertainty principle - remain intact. Because of this, the phases of the black hole are maintained, and evaporation can be safely distilled and altogether avoided by constantly feeding the artificial black hole through the means of a black dyson sphere.
Energetic Pair Production
It is this institute's finding that the pair production is the creation of a subatomic particle and it's antiparticle from a neutral boson. Upon the event horizon of the artificial black hole, pair production begins by removing the anti-particle and leaving the particle. Is this inclination to "steal" energy from the artificial black hole in a manner that generates radiation, due to Hawking radiation. For the pair production to naturally occur, the incoming energy of the photon arriving must surpass that of the total rest mass energy of the two particles, and the situation must conserve both the energy and the momentum of the original rest rate of both the boson and mass of the object. Basic kinematics dictate that in a natural environment, this should not be possible without quantum correction, which is provided by the black dyson sphere. This is defined, in this environment, as superradiant scattering. Superradiant scattering is caused by the waves bouncing between the infrared receptor mirror of the black dyson sphere, through the event horizon, then the ergosphere, and finally the curvature of spacetime within the void of the artificial black hole itself. With each bounce, and each phase that it passes through, the electromagnetic energy creates more and more pair production at an exponential rate - greatly surpassing the production of radiation contained within a fusion reaction of stellar mass.
An electron-positron-photon plasma and a quark-gluon plasma form around the black hole in regions called the photosphere and chromosphere, respectively. Occurring at different intervals, the temperatures reached in each plasma around the outer edges of the black hole result in thermal fragmentation, erupting in emissions of high gamma and beta radiation. Because of the law of conservation of energy, the proliferation of particles leads to a lower average energy per particle, which in turn leads to a lower output of temperature in the plasmas generated by both. To resolve this, several thermal absorption pads are placed within the Black Dyson Sphere to convert the transmissions into useable energy, while the infrared receptor array will utilize the Hawking radiation as the main energy source.
In addition to and in conjunction with, the rotational spacetime environment provided by the dyson sphere allows for all objects within the construct to propel in locomotive concurrence with the aforementioned spacetime. This happens in the ergosphere, allowing it to operate individually of the superradiant scattering mechanism, and allowing gravity to begin the generation of that rotational energy. This can be assumed that the momentum of the two pieces of matter when separated, one piece of the matter can escape - and the other remains. This is because of "negative-mass energy", and that while momentum is conserved, the effect is that more energy can be extracted than was originally provided - thus breaking the conservation of energy within the ergosphere. This is provided by the black hole itself, so while not a true break of physics, it is as close as one could get in science. This transference of energy will result in a exponential loss in the angular momentum of the black hole, though the black dyson sphere will perform the quantum calculations to reprioritize the gravitational momentum of the environment to safely prevent a total loss of momentum. The maximum amount of energy gain possible for a single particle equivocates to a 20% gain in energy total, per rotational loop, given any amount of charged mass inflation.
In summary, the energy production of the black hole can be described as thus:
1. Superradiant scattering of foreign waves.
2. Thermal radiation provided by Hawking radiation.
3. Penrose's process of rotational energy.
Black Dyson Sphere
Due to the nature of gravity within the sphere and surrounding the black hole, as well as the intense heat in which the sphere is subjected to, several neutrino oscillators are provided to help dissipate and rapidly hypercharge the radiation emitted within. Several panels of thin solarium glasteel are provided to help conduct, absorb, and transmit the radiation from the oscillators. This was mostly chosen due to their innate ability to be able to reduce the heat radiation, as well, as being able to withstand the intense pressure of the small chamber. The gauge coupling strength of the glasteel provides a distinct advantage in this environment, as the particle physics of the quantum interaction within the black dyson sphere provide the model that is most able to withstand the paradigm shift of the boson particles within. It is because of this interaction that the energetic exchange from radiation, dark matter, and gravitons are provided safely - as well as the ability to receive and bounce infrared radiation without evaporation it completely.
In addition to the glasteel that negates the thermal radiation, several thin layers of neuranium were plated on the outside of the sphere. This metal was chosen for it's density and properties of warping spatial spacetime, as well as it's ability to contain the gravitational anomalies created by the artificial event horizon and ergo sphere of the curvature contained within. While this doesn't entirely negate nor evaporate the effects of the gravitational anomalies, the neuranium is the best material derived to be able to handle the constantly changing environment. Because of the pressure induced on the sphere, once constructed, it is nigh invulnerable to break open with physical force. Quantum correction would need to be instructed and utilized, leaving the largest danger to the chassis itself to be the black hole's curvature of spacetime within. It is entirely possible that if too much energy were to be introduced to the curvature at once, the mass of the hole would increase to the size that it would swallow the black dyson sphere itself and begin to absorb the host. It is ascertained by this institute that the host would not feel any pain - the host would just simple erase from existence, forever mapped as information on the surface of the black hole itself.
Infrared Mirror Receptor
The weakest point of entry to the black dyson sphere is the fusion cell storage device and photobiomodulator, the Infrared Mirror Receptor. With functions applied to each of the solarum glasteel panels within the sphere, the Receptor is capable of sending infrared imaging shots and beta particles into the chamber to trigger the processes that both capture and generate the energy provided. The receptor is capable of storing up to 100 petajoules, theoretically - though it is unknown exactly what it's maximum capacity could be, due to the information shared with the spacetime curvature. This construct, aside from the energy storage system, is rather simple. Beta and infrared particles are introduced as a wave, which begins the superradiant process, which powers the rotation of the black hole, which succumbs to hawking radiation and the penrose process. Any energy in excess is sent back into the black hole, recuperating it's mass while fueling the quantum calculations needed to manage the safety of the density of the sphere. Another strange phenemonon is the gravitational aura provided by the receptor, allowing for a small exchange of influence surrounding the host and providing the capability to adjust that influence. For safety precautions, it is not recommended to allow complete control, as the host could accidentally succumb himself to the total stellar mass of the black hole. The amount of gravity generated could far outweigh the amount of gravitational influence any biological being could feasibly survive.
The receptor also provides a number of attachments, provided by this institute, ranging from pulmonary artery attachments that would allow for biological integration in a living host to external ports that would allow the host to expel charges of energy to other outlets.
Safety Warning
It is imperative that this institute remind the reader that this research is not recommended for field use. While inherently a powerful step forward in terms of energy production, the dangers of utilizing artificial black holes for energy are still too incredibly high. Though it is unknown how long the black dyson sphere can remain stable, and it is far more likely that the artificial black hole within resolves to eat it's host - and anything else found in it's path.
It is also suspected that gravitational anomalies, including those found outside of the spacetime curvature, are not only possible but likely.
OOC Meta
The weaknesses of this item can vary greatly, so we'll run through some hypothetical scenarios to help understand the limitations of the BHB-1398.
Q: A Force User attempts to break the Heart. What happens?
A: Well, the Force is an all powerful, mysterious Force with no real world equivalent. Force Pushes are described as "just happening" in the Wookieepedia, disregarding size, mass, density. It seems the limitations are based completely on the Force User, so it's hard to gauge what would happen. They could very likely succeed, bypassing gravity. This would understandably destroy your character, and likely result in player death - so, to write it, you might have the chassis of the device, the neuranium hull "fracture" or dent or become incapable of transmitting "as much" power - something to that effect. Similar to an actual heart.
Q: A lightsaber burns the heart, or the heart takes a direct hit. What happens?
A: Substantial force would need to be applied to break through the neuranium - it's noted as being able to withstand even lightsabers. I wouldn't be too worried about writing that damage off, you could still function with your character with it. Still, it's up to your writing and how you wish to interact with it, but I'd strongly advise suffering some sort of mechanical failure that causes the weaknesses of the device to exacerbate.
Q: I've increased the density of my mass shadow, projecting the weight of a starship on my character. What does that mean?
A: It means ideally, you exert as much force in the 1m bubble as a starship weighs - but that weight is also on your character. Imagine a X-wing falling on top of your character from a short height - not only are you projecting that outwards, you're projecting it inwards, too. If you'd like to survive the increase in density, you'd want to keep it to a small number of levels. This doesn't mean you can punch people with great force - because you'd have to swing your arm at the same rate you could in normal earth gravity, if you have the strength. You won't, so it's difficult to judge.
Q: What are the anomalies?
A: Whatever you want! It gets wild in the ergosphere of a black hole - theoretically. Limitless number of possibilities. The anomalies wouldn't last forever, but it could be a bit crazy - your imagination is the limit. Yes, they could experience object permanence.
OOC Sources
Beta Particle - an overview | ScienceDirect Topics
www.sciencedirect.com
Black hole - Wikipedia
en.wikipedia.org
On the Testability of the Equivalence Principle as a Gauge Principle Detecting the Gravitational t3 Phase
There have been various claims that the Equivalence Principle, as originally formulated by Einstein, presents several difficulties when extended to the quantum domain, even in the regime of weak gravity. Here we point out that by following the same approach as used for other classical...
www.frontiersin.org
(PDF) Micro black holes in the laboratory
PDF | The possibility of creating microscopic black holes is one of the most exciting predictions for the LHC, with potentially major consequences for... | Find, read and cite all the research you need on ResearchGate
www.researchgate.net
Grand Unified Theory - Wikipedia
en.wikipedia.org
Pair production - Wikipedia
en.wikipedia.org
Physicists Verify Half-Century-Old Theory about Rotating Black Holes | Physics | Sci-News.com
Physicists from the University of Glasgow and the University of Arizona have experimentally verified a half-century-old theory that began as speculation about how an advanced alien civilization could use a rotating black hole to generate energy.
www.sci-news.com
Penrose process - Wikipedia
en.wikipedia.org
Infrared - Wikipedia
en.wikipedia.org
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