In the UHF domain, a passive tag collects power from the RF signal transmitted by the RFID reader and sends data back by modulating the backscattered UHF signal.
Magnetic induction devices work by creating a static magnetic field that is 1.5 to 2 meters, or about six feet, across; data is transmitted by modulating the field at a low frequency (10 to 15 megahertz, compared with 2.4 gigahertz for radio-frequency technologies like Blue-tooth).
These data suggest that by modulating the distribution of intronic and exonic histone modifications, H2BK123ub1 facilitates cross talk between chromatin and pre-mRNA splicing.
Thus, the tag sends data to the reader by modulating the impedance that the tag chip presents to the antenna terminals [2, 3].
These data suggest that mGluR1 contributes to LTP processes by modulating the induction phase.
These data indicate that BDNF confers neuroprotective effects against irradiation by modulating the NFATc4/3 pathway.
By modulating the electric field induced to a human body, it is possible to transfer data wirelessly using the body as a transmission medium.
In conclusion, our data suggest that c-FOS inhibits metastasis in OvCa by modulating the adhesive properties of OvCa cells.
Overall, our data support that MED23 functions as a cofactor with FOXO1 by modulating the expression of its target genes.
In 1996, T. G. Zimmerman and N. Gershenfeld realized that data could be sent using the human body as a transmission medium by modulating the electric field [1].
