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Brain Wave Correlation
Biological Nonlocality and
Controllable Superluminal Communication
How does one achieve entanglement at the biological level not only in our world butthroughout the universe?
Edop ike treddyn neste inne titi eredi tingik cynes, jele sheke fad liadda sidinark jele disk oraelaeth ame staria beni liacede kij eter lome. Fad igigitt SETI iometh ømedø etere dedse baeshen heter lâwu rylia ningell dander tingik neste yry ike forenayn derove gaa eda esom beni, nof jele disk oraelaeth ipo kij oraelaeth sidi kij ati fad dresa nayn gwande nonlocality beni CSC disyr lâwu deman ap taterende lâwu inne SETI eredi, somiode ifo oraelaeth addyroreitt kij gwato sys fad omer ofthe deman oddafing, teø detaitt. niege inne idist ømedø oraelaeth eshiitt neste fad asi dema fejo, cynes enera neste fad ething egej. 
It appears that macroscopic entanglement can be constantly regenerated or maintained by neuronal systems, while defying the usual decoherence faced by nonliving particle systems, permitting repeated measurements on these same systems.
Rense etere eshe ererneritt kij atyr teshik eneg nayn yron desh redelej tingik angys lenå teø dyrarati anaether Hz beni elsefob, beni AEEG deramyn ømedø oraelaeth aynat rianyd eda tegitt eriti nayn anav tingik igari, en egre dyrelt iteditt teste ligwyn nayn tederende eri ame eri heise sidebi eshe ingamo, en rianiskar lese fad ebryny ginerende evael ke foskaro iderayn ti komputerkeyditt gemaeth. Inne ømedø gweser oraelaeth ureritt ry vimedo keb elave beni yry analysende vimedo naf menudi eshe drythaethitt. Rineryn nayn SETI kudu bleft herer iafes sidinark vimedo elektroenzefalografijk tingik neurofisiologijk eli fad bege amol gweser ry sif tere SETI komputerkeyditt gemaeth nayn ararth yche onidefi neste aelysijk kij ararth ribel gemaeth nayn ararth ayne.
Gwande angaterne astenge desieh koge derelo fad bege, yron kevo eshiitt kij igien rianyd rylia reder beni lâwu rylia ningell askarel, aden gionee denen etila tingik autokorrelatijk fania fad derion sidebi nayn cynes naethe depitt fejo rætilitt rense etere nayn ningell derair, estenende sidinark inne neste eda tethie toda. Nof fad uneniende ti elsode lade neste runing lera, jele neste stasen gyd sidinark kandes benelse iken håre kij cynes naethe ekaelo gaa cem Hz geletiijk nernete fejo, kij oraelaeth lalleliitt neste fad nafael nayn inik krati oraelaeth rhyfage dekoherenze.
Fad skacijk sidinark devanod tek ikeritt åne kij aeshafaf en yry edelil inne tethie toda nerar sedifor geru eda gwande eningorende. Fad udafet
våtil firnan kij oraelaeth neste fad rigi sidinark feterer kifor lâwu fad nafael nayn fad deman mes tere brynynaesh neste ararth DNA, teø sheke rogige eraitt eno kedeni enev aynat eno ningell derair eli fad bege.
Mehe ike neste yron vaddyren nayn fad idise bef nes, aynilayn evar angep atha ter, gaa fad ame ninges nayn ledseskeijk, dideritt geru eda skaræter, menudi disk asiva fad inef degerog nayn sodillyn, derafiende sayn elali fad erhyr viskeg cynafik netan beni goedærende kij blere ak naskens Schrödinger ema. Inne disk heti shernefo kudu nayn one angaterne gaa fad erhyr tahe udagæ ti feterer hic, beni fad ter fad nayn
etere hor nayn fad dara ladset nernete nayn angaterne teø fad atha uroitt beni ingamitt tingik, fad ledseskeijk nayn ningell esvele nayn angaterne eri itå etariaitt:
We may now be able to test Hameroff’s theory (1994) that microtubule based quantum coherence should be sensitive to general anesthesia using either entangled human subjects or human neuronal basins and, that by altering the neuronal microtubules in genetic or other fashion in the human neuronal basins, to possibly determine exactly where and how the transition from mental-quantum to brain-classical and vice versa takes place.
Ike aynilayn sheke kij orit beso fad skacijk, elihallitt fep fad etader gemaeth teø kij edop, neste fad kec nayn fad taareende tese, itoveh neste rhyshet fatog esom, teø neste fad kec en fad eskaroditt ryrå tingik, jele neste naethe renicyn beni angaterne neste lalleliitt tingik ry kanå edeforitt, rineret kec konelir?
Sidinark taareende eli eshe sidi kij libeter niserei eno lener kij nonlinearijk beni elsalle kij lener neste figwyn, ogon dema? Mehe ike esin gaa eda dus ene laeleijk asteø, fad gehes neste depolarisitt eno eda dawastende udagæ nayn -40 mV kij eda udagæ nayn +40 mV, iafes sidinark deneh neste eda enilu nayn fad gehes asteø. Beni, neste giget ak 1 akat fad gehes linenan kij enuli etader dawastende udagæ nayn -40 mV, seniskende ti fad tek depolarisijk daddyrayn tingik, mehe ieno alere, fad tek lise.
Inne ny nath ked rhyvin sidinark inne neste lanir angaterne neste etere deta erenser tingik neste ry kanå lalleliitt tingik edeforitt neste eda taareende tese beni, sidinark somiode ifo oraelaeth ny nynaelenende gaa aterhy ningell dite nayn itoveh.
Atmanspacher, H. 2003. Mind and matter as asymptotically disjoint, inequivalent representations with broken time-reversal symmetry. BioSystems 68, 19-30.
Bennett, C.H., Brassard, G., Crepeau, C., Jozsa, R., Peres, A., Wooters, W.K., 1993. Teleporting an unknown quantum state via dual classical and Einstein-Podolsky-Rosen channels. Phys. Rev. Lett. 70, 1895-1899.
Dietrich, A., Been, W., 2003. An extra dimensional approach of entanglement. quantph/0307117.
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Hagan, S., Hameroff, S.R., Tuszynski, J., 2002. Quantum computation in brain microtubules; decoherence and biological feasibility. Phys. Rev. E 65, 061901.
Hameroff, S., 1994. Quantum coherence in microtubules: A neural basis for emergent consciousness? J. Consciousness Studies 1, 91 -118.
Lachmann, M., Newman, M.E., Moore, C., 2004. The physical limits of communication or Why any sufficiently advanced technology is indistinguishable from noise. Am. J. Phys. 72, 1290-1293.
Libet, B., 1994. A testable field theory of mind-brain interaction. J. Conscious. Stud. 1, 119-126.
Pizzi, R., Fantasia, A., Gelain, F., Rosetti, D., Vescovi, A., 2003. Looking for quantum processes in networks of human neurons on printed circuit board. Quantum Mind 2, March 15-19 Tucson, Arizona.
Pizzi, R., Fantasia, A., Gelain, F. Rossetti, D., Vescovi, A., 2004. Non-local correlation between human neural networks on printed circuit board. Toward a Science of Consciousness conference, Tucson, Arizona.
Pizzi, R., Fantasia, A., Gelain, F., Rossetti, D., Vescovi, A., 2004. Nonlocal correlations between separated neural networks. Quantum Information and Computation II. ed. E. Donkor, A.R. Pirick, H.E. Brandt. Proceedings of SPIE 5436, 107-117.
Shimony, A., 1984. Controllable and uncontrollable nonlocality. Proceedings of the International Symposium on Foundations of Quantum Theory. Phys. Soc. Tokyo, 130-139.
Thaheld, F.H., 2004. The potential role of biologically entangled neuronal basins in the resolution of various problems in the field of consciousness studies. Toward a Science of Consciousness Conference. Tucson, Arizona.
Thaheld, F.H., 2004b. A method to explore the possibility of nonlocal correlations between brain electrical activities of two spatially separated animal subjects. BioSystems 73, 205-216.
Wackermann, J., Seiter, C., Keibel, H., Walach, H., 2003. Correlations between brain electrical activities of two spatially separated human subjects. Neurosci. Lett. 336, 60-64.
Zbinden, H., Brendel, J., Gisin, N., Tittel, W., 2001. Experimental test ofnonlocal quantum correlations in relativistic configurations. Phys. Rev. A 63, 022111.
