There are many modifications in the basic cycles are possible to improve the performance and to adopt the conditions as per requirements and applications.
Some of these are constructed in [15] for small numbers of coupled cells, but up to now there does not seem to be an easy way to explore which cycles are possible and which are not within any particular system.
The simulation work indicates that average fuel savings of 10% for real life driving cycles and up to 17% when the start and stop functionality is applied to real life urban cycles are possible and that real life urban driving cycles benefit the most from the EE-VERT concept.
If g consists of strong links only, no cycles are possible and no player involved in a strong link has incentives to break it, but then the same must be true in JWBG1, since a weak link remains after withdrawal of support by one player in JWBG2, while in JWBG1 no information flows through the remaining weak link toward the player that withdraws support.
In the case of Strongyloides stercoralis, autoinfection cycles are possible.
The interaction with other information models associated to other activities of the production cycle is possible.
If H2 is obtained from renewable or CO2-neutral sources (e.g. biomass, solar, wind or nuclear energy), respectively, a potentially CO2-neutral cycle is possible.
Owing to high specificity of this method, distinguishing the citric acid from the matrix and by-products formed in the Krebs cycle is possible.
Pulses as short as 10 μs have been produced, rise times are < 1 μs, the maximum beam-on duration is unlimited, and almost any duty cycle is possible.
Note that this is false in JWBG2, where no cycle is possible in a Nash profile, and where above the line (c=1-alpha ) a strong link connecting a peripheral node is unstable (the non peripheral player supporting it would have incentives for withdrawing its support).
