Hiroaki Egashira’s scientific contributions

... It is worthy to note that adaptation of TDMA principles over to MC (molecular communication) have been investigated, covering a wide range of topics like scheduling optimization for neuron-based MC [38]- [40], time-slot synchronization for MCvD systems [41], and drug delivery systems for MCvD-with-drift systems [42]. Although, Rouzegar and Spagnolini [43] studied packet errors that are caused by erroneous bits considering a MIMO setting and Nakano et al. [44] studied packet losses that are caused by fragmented packets colliding spatially in the medium considering a single transmitter-receiver pair setting, the issue of packet collision caused by the temporal overlapping of packets in a multiple spherical transmitter setting has not been investigated and addressed. ...

Reference:

A TDMA-Based Data Gathering Protocol for Molecular Communication via Diffusion-Based Nano-Sensor Networks

... Accordingly, the molecular channels experience extremely long latency, large jitters, high erasure rate, and low capacity [20][21][22][23]. To deal with the unreliable molecular channels, several error control schemes have been investigated, including feedback-based rate control [24][25][26], automatic repeat request [27,28], and forward error correction [29][30][31][32][33][34]. ...

Reference:

Polar Coding with Chemical Reaction Networks for Molecular Communications

... This subsection is for completeness and covers miscellaneous codes that have been surveyed in [65]: parity check erasure [228] (which is a parity check code) and fair weak flip [229] (which is a binary non-linear code), including also the single parity check [227] (which is a parity check code), the EGLDPC [133], and minimum energy channel codes [204]. ...

Reference:

Coding in Diffusion-Based Molecular Nanonetworks: A Comprehensive Survey