The micro black hole cellular battery: The ultimate limits of battery energy density

IF 1.6 3区 物理与天体物理 Q3 PHYSICS, FLUIDS & PLASMAS
Espen Gaarder Haug , Gianfranco Spavieri
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Abstract

With the clean energy revolution, many methods of energy production, such as solar and wind power, are quite unstable because of weather variability. However, energy consumption remains relatively stable. Therefore, efficient energy storage could be crucial for the future. In this context, we will explore the theoretical limits of battery efficiency in terms of energy density. Surprisingly, although quite speculative, a potential solution might involve a cellular battery composed of micro black holes. In fact, let us suppose hypothetically that advanced future technology can handle the formation of black holes. Then, according to the extremal solution of the Reissner–Nordström metric from general relativity, such a battery could be stable and would not collapse into a larger black hole because the electromagnetic repulsion would precisely offset the force of gravity. Additionally, although it is generally assumed that nothing can escape from a black hole, a micro black hole could possibly annihilate another micro black hole, resulting in the release of an enormous amount of clean energy. For example, a battery weighing just one kilogram could provide approximately 470 million times the energy of the most efficient 200-kilogram lithium battery at the time of writing. While achieving such a level of technological advancement is certainly not imminent, it is not inconceivable that battery technology development could follow a trajectory similar to that of computer technology. Just as breakthroughs in physics and computer engineering have led to exponential growth in computer efficiency in the last 50 years, it is possible that battery efficiency could double or even quadruple every few years following different types of breakthroughs. Nonetheless, the theoretical concept of a micro black hole battery appears to align with current predictions of fundamental physics regarding the ultimate physical limits on energy density storage. This strongly indicates we are at the very early stage of battery technology, not even close to the end.

微型黑洞蜂窝电池:电池能量密度的极限
随着清洁能源革命的到来,许多能源生产方式,如太阳能和风能,由于天气的多变性而变得相当不稳定。然而,能源消耗却相对稳定。因此,高效储能对未来至关重要。在这种情况下,我们将从能量密度的角度探讨电池效率的理论极限。令人惊讶的是,虽然只是推测,但潜在的解决方案可能涉及由微型黑洞组成的蜂窝电池。事实上,让我们假设未来的先进技术能够处理黑洞的形成。那么,根据广义相对论中赖斯纳-诺德斯特伦公设的极值解,这样的电池可能是稳定的,不会坍缩成更大的黑洞,因为电磁斥力会精确地抵消引力。此外,尽管人们普遍认为没有什么东西能从黑洞中逃逸,但一个微型黑洞有可能湮灭另一个微型黑洞,从而释放出巨大的清洁能源。例如,仅一公斤重的电池所提供的能量约为目前最高效的 200 公斤锂电池的 4.7 亿倍。虽然达到这样的技术进步水平肯定不是迫在眉睫的事情,但电池技术的发展轨迹与计算机技术的发展轨迹相似也不是不可想象的。正如物理学和计算机工程学的突破导致计算机效率在过去 50 年中呈指数级增长一样,电池效率也有可能在不同类型的突破之后每隔几年翻一番甚至翻两番。尽管如此,微型黑洞电池的理论概念似乎与当前基础物理学对能量密度存储最终物理极限的预测一致。这有力地表明,我们正处于电池技术的早期阶段,甚至还没有接近终点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
High Energy Density Physics
High Energy Density Physics PHYSICS, FLUIDS & PLASMAS-
CiteScore
4.20
自引率
6.20%
发文量
13
审稿时长
6-12 weeks
期刊介绍: High Energy Density Physics is an international journal covering original experimental and related theoretical work studying the physics of matter and radiation under extreme conditions. ''High energy density'' is understood to be an energy density exceeding about 1011 J/m3. The editors and the publisher are committed to provide this fast-growing community with a dedicated high quality channel to distribute their original findings. Papers suitable for publication in this journal cover topics in both the warm and hot dense matter regimes, such as laboratory studies relevant to non-LTE kinetics at extreme conditions, planetary interiors, astrophysical phenomena, inertial fusion and includes studies of, for example, material properties and both stable and unstable hydrodynamics. Developments in associated theoretical areas, for example the modelling of strongly coupled, partially degenerate and relativistic plasmas, are also covered.
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