8. The metamaterial textile of claim 5, wherein said non-conductive layer is textile. 9. The metamaterial textile of claim 1, wherein said comb shaped metamaterial textile is configured to form a ring-resonator. 10. The metamaterial textile of claim 1, wherein said comb shaped metamaterial textile is configured to form an antenna for transmitting data. 11. The metamaterial textile of claim 1, wherein said comb shaped metamaterial textile is configured to form a power divider for transmitting power to more than one location. 12. The metamaterial textile of claim 1, wherein said radio-surface plasmons wave has little to no signal loss even at low dB transmission. providing a metamaterial textile comprising: a sheet of metamaterial textile cut into a comb shape comprising a long base with a plurality of metamaterial textile teeth extending along and from the base, wherein a gap is present between every two adjacent teeth; providing wireless sensor network via propagation of radio-surface plasmons wave along the comb shaped metamaterial textile; and controlling height of the radio-surface plasmons wave by changing number of the metamaterial textile teeth, and by changing dimensions of the metamaterial textile teeth and dimensions of metamaterial textile gaps. 13. A method for designing a metamaterial textile for providing a wireless sensor network, said method comprising: 14. A method for designing a metamaterial textile for providing a wireless sensor network, said method comprising: providing a metamaterial textile comprising: a sheet of metamaterial textile cut into a comb shape comprising a long base with a plurality of metamaterial textile teeth extending along and from the base, wherein a gap is present between every two adjacent teeth, further wherein said comb shaped metamaterial textile comprises a non-conductive layer attached to the comb shaped metamaterial textile; setting value of width of each of the plurality of metamaterial textile teeth with the addition of width of a gap to: d = 0.2 s ;