天然流体中的Turbulence和湍流混合
Turbulence and turbulent mixing in natural fluids
摘要：
自然流体中的湍流和湍流混合始于大爆炸湍流，由普朗克粒子和普朗克反粒子的可燃组合旋转提供动力。在旋转对上的粒子碰撞吸积释放42%的粒子静止质量能量，以产生更多的燃料用于湍流燃烧。负粘性应力和负湍流应力与重力相反，从真空中提取质能和时空。湍流混合冷却的温度，直到强大的粘性应力冻结湍流混合模式作为第一个化石湍流。宇宙微波背景温度各向异性显示大爆炸湍流化石，以及等离子体光子粘性力引发的弱等离子体湍流化石，允许超星系团到星系质量尺度上的引力碎片。在z~7的哈勃超深场中，湍流形态和粘性湍流长度表现为线性气体原星系团。原星系在退耦时分裂成原始气体行星的琼斯质量团：星系的暗物质。在等离子体向气体过渡后不久，行星合并产生了恒星，这些恒星在过度喂养时爆炸，以施肥和传播第一个生命。
英文摘要：
Turbulence and turbulent mixing in natural fluids begins with big bang turbulence powered by spinning combustible combinations of Planck particles and Planck antiparticles. Particle prograde accretions on a spinning pair releases 42% of the particle rest mass energy to produce more fuel for turbulent combustion. Negative viscous stresses and negative turbulence stresses work against gravity, extracting mass-energy and space-time from the vacuum. Turbulence mixes cooling temperatures until strong-force viscous stresses freeze out turbulent mixing patterns as the first fossil turbulence. Cosmic microwave background temperature anisotropies show big bang turbulence fossils along with fossils of weak plasma turbulence triggered as plasma photon-viscous forces permit gravitational fragmentation on supercluster to galaxy mass scales. Turbulent morphologies and viscous-turbulent lengths appear as linear gas-proto-galaxy-clusters in the Hubble ultra-deep-field at z~7. Proto-galaxies fragment into Jeans-mass-clumps of primordial-gas-planets at decoupling: the dark matter of galaxies. Shortly after the plasma to gas transition, planet-mergers produce stars that explode on overfeeding to fertilize and distribute the first life.
机构、总结、中文摘要均由AI分析而来，可能存在错误，请以论文正文为准。
