Neutrino channelling
Neutrinos exist in three "flavours" (electron, muon, and tau) and oscillate between these states as they travel. Channelling technologies exploit these oscillations to control neutrino trajectories and/or amplify specific interactions at desired points. Fine-tuning such oscillation parameters allows for targeted detection or energy transfer through deep materials.
By creating specific resonant conditions, neutrinos can be encouraged to interact with engineered materials at predefined depths or locations. This technique allows otherwise non-interactive particles to become usable energy carriers or probes. It then becomes possible to efficiently harvest neutrinos for energy applications or enabling neutrino-based imaging of deep and otherwise difficult to analyse structures.
Also, magnetic and gravitational anomalies can influence neutrino paths over vast distances. Systems capable of generating localised "neutrino corridors" guide these particles toward specific targets with minimal dispersion and be used as guided energy transfer apparatus or extremely hard to intercept communication channels.
Research
| Tier | 6.000 | A decimal number between 0.0 and ~12.0 indicating the overall level of "advancement" of the science |
|---|---|---|
| Type | Applied | Pure sciences are focused on research and the improvement of knowledge. Applied sciences are too, but to a lesser extent and grant access to more concrete outcomes such as blueprints, governance, and others. |
Aspects
| Physical | Abstract | |
|---|---|---|
| Natural | 12 | 1 |
| Artificial | 4 | 4 |
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Blueprints
Coming soon.