DocumentCode
28058
Title
Externally Controllable Molecular Communication
Author
Nakano, T. ; Kobayashi, S. ; Suda, T. ; Okaie, Yutaka ; Hiraoka, Yu ; Haraguchi, Tokuko
Author_Institution
Grad. Sch. of Frontier Biosci., Osaka Univ., Suita, Japan
Volume
32
Issue
12
fYear
2014
fDate
Dec. 2014
Firstpage
2417
Lastpage
2431
Abstract
In molecular communication, a group of biological nanomachines communicates through exchanging molecules and collectively performs application dependent tasks. An open research issue in molecular communication is to establish interfaces to interconnect the molecular communication environment (e.g., inside the human body) and its external environment (e.g., outside the human body). Such interfaces allow conventional devices in the external environment to control the location and timing of molecular communication processes in the molecular communication environment and expand the capability of molecular communication. In this paper, we first describe an architecture of externally controllable molecular communication and introduce two types of interfaces for biological nanomachines; bio-nanomachine to bio-nanomachine interfaces (BNIs) for bio-nanomachines to interact with other biological nanomachines in the molecular communication environment, and inmessaging and outmessaging interfaces (IMIs and OMIs) for bio-nanomachines to interact with devices in the external environment. We then describe a proof-of- concept design and wet laboratory implementation of the IMI and OMI, using biological cells. We further demonstrate, through mathematical modeling and numerical experiments, how an architecture of externally controllable molecular communication with BNIs and IMIs/OMIs may apply to pattern formation, a promising nanomedical application of molecular communication.
Keywords
cellular biophysics; molecular biophysics; nanomedicine; nanostructured materials; pattern formation; biological cells; biological nanomachines; bionanomachine interfaces; exchanging molecules; externally controllable molecular communication; human body; in-messaging interfaces; mathematical modeling; nanomedical application; out-messaging interfaces; pattern formation; proof-of-concept design; wet laboratory implementation; Biological cells; Biological system modeling; Molecular communication; Nanobioscience; Subspace constraints; Molecular communication; bio-nanomachine; external control; interface design; pattern formation;
fLanguage
English
Journal_Title
Selected Areas in Communications, IEEE Journal on
Publisher
ieee
ISSN
0733-8716
Type
jour
DOI
10.1109/JSAC.2014.2367667
Filename
6948243
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