For each of the 10 selected positions, we proposed several codon mutations for experimental validation using our reverse genetic system.
To modify a subwindow position, we propose to use the three-dimensional (3D) transformation which exists between an upright face and the same face in another pose.
Finally, in order to enable asynchronously and with high throughput data transmission of LEDs for the purpose of indoor positioning, we propose using one-persistent carrier sense multiple access (CSMA) network protocol.
To mitigate the effect of BDS code bias on precise positioning, we proposed a periodical correction method using a low-pass filter for BDS GEO, IGSO and MEO satellites.
For each parental position, we proposed an overall communication approach then more specific guidance tailored to each parental position (1 3 and 4).
For this position we proposed 2 experiments: a codon mutation to Threonine created by 3 transversions (ACA), and codon mutation to Threonine by 2 transversions (ACC).
As a result, for quasi-static positioning tasks, we propose a CDM position control strategy resulting from a cascade structure, with an internal cable tension control loop to handle friction.
Since this policy makes use of position information, we propose a new location discovery strategy for the railway domain, the HTRU location technique, which is a hybrid triple-redundant uncorrelated source of location information.
In combination with a scalable buoy positioning scheme that assures AUV underwater synchronization and position computation, we propose a Time Division Multiple Access scheduling technique for underwater communication that achieves energy-efficient, collision-free data exchange on the low data rate acoustic channel.
