The jellyfish are attracted to the vast undersea cables of the internet, and the heat generated by the gigantic, subaquatic data centres. Somehow, they absorb the data and images deposited there. They become living image processors.

Jellyfish have the ability to rejuvenate. This process is known as Transdifferentiation. This property attracts immediate scientific and commercial interest

A search for two missing adults ends in mystery, as two unconscious children are found instead.

Discarded adult clothing is found nearby. The children are rushed to hospital for observation.

They appear to be in a deep coma, and their skin is beginning to exhibit a strange transparency. Brain activity is near zero, while neurological activity throughout the body is vastly increased.

The world's data systems run on jellyfish, which provide a quantum bridge to an alternate dimension.

Different isotopes of chemical elements have slightly different chemical behaviors, but for most elements the differences are far too small to use, or even detect. For hydrogen, however, this is not true. The larger chemical isotope-effects seen between protium (light hydrogen) versus deuterium and tritium manifest because bond energies in chemistry are determined in quantum mechanics by equations in which the quantity of reduced mass of the nucleus and electrons appears. This quantity is altered in heavy-hydrogen compounds (of which deuterium oxide is the most common) more than for heavy-isotope substitution in other chemical elements^[why?]. This isotope effect of heavy hydrogen is magnified further in biological systems, which are very sensitive to small changes in the solvent properties of water.

Heavy water is the only known chemical substance that affects the period of circadian oscillations, consistently increasing the length of each cycle. The effect is seen in unicellular organisms, green plants, isopods, insects, birds, mice, and hamsters. The mechanism is unknown.^[22]

To perform their tasks, enzymes rely on their finely tuned networks of hydrogen bonds, both in the active center with their substrates, and outside the active center, to stabilize their tertiary structures. As a hydrogen bond with deuterium is slightly stronger^[23] than one involving ordinary hydrogen, in a highly deuterated environment, some normal reactions in cells are disrupted.

Particularly hard-hit by heavy water are the delicate assemblies of mitotic spindle formation necessary for cell division in eukaryotes. Plants stop growing and seeds do not germinate when given only heavy water, because heavy water stops eukaryotic cell division.^[24][25] The deuterium cell is larger and it is a modification of the direction of division.^[26][27] The cell membrane also changes, and it reacts first to the impact of heavy water. In 1972 it was demonstrated that an increase in the percentage content of deuterium in water reduces plant growth.^[28] Research conducted on the growth of prokaryote microorganisms in artificial conditions of a heavy hydrogen environment showed that in this environment, all the hydrogen atoms of water could be replaced with deuterium.^[29][30][31] Experiments showed that bacteria can live in 98% heavy water.^[32] However, all concentrations over 50% of deuterium in the water molecules were found to kill plants.