https://www.zerohedge.com/covid-19/covid-ivermectin-and-mass-formation-psychosis-dr-robert-malone-gives-blistering-interview
Later I will go into a bit of suspiciousness I have in regards to the Dissent on Covid-19.
Questions arise in regards to biotechnology and no one from the big gun vaccination objectors goes beyond spike protein. Yet other less celebrated scientists have discussed graphene nanotubes self assembling. And quite seriously Chinese and US work through men like Harvard’s Lieber begs many questions.
Like 9/11 a limited hangout may be involved.
http://cml.harvard.edu/assets/Scalable-ultrasmall-three-dimensional-nanowire-transistor-probes-for-intracellular-recording.pdf
Nanotechnology Weaponized to Deliver Viruses
Change one word (drug to [Corona]virus) in this paper and this delivery system becomes a bioweapon.
Gangi, Mirzaei, Dalirandeh. (Jul. 05, 2017). Molecular origin of drug release by water boiling inside carbon nanotubes from reactive molecular dynamics simulation and DFT perspectives. Sci Rep 7, 4669.
[link to www.nature.com (secure)]
viruses and other weaponized pathogens via 5G (boil the water in the nanotube with 5G milliwave-lengths and it will release its toxic payload,
Exciting Times: Early paper about Dr Charles Liebers new exciting technology that helped pave the way for the JAB
IMAGINE BEING ABLE to signal an immune cell to generate antibodies that would fight bacteria or even cancer. That fictional possibility is now a step closer to reality with the development of a bio-compatible transistor the size of a virus. Hyman professor of chemistry Charles Lieber and his colleagues used nanowires to create a transistor so small that it can be used to enter and probe cells without disrupting the intracellular machinery. These nanoscale semiconductor switches could even be used to enable two-way communication with individual cells.
[link to www.harvardmagazine.com (secure)]
One of the many projects he has been focused on for nearly 20 years.
Electrical detection of single viruses.
Abstract
We report direct, real-time electrical detection of single virus particles with high selectivity by using nanowire field effect transistors. Measurements made with nanowire arrays modified with antibodies for influenza A showed discrete conductance changes characteristic of binding and unbinding in the presence of influenza A but not paramyxovirus or adenovirus. Simultaneous electrical and optical measurements using fluorescently labeled influenza A were used to demonstrate conclusively that the conductance changes correspond to binding/unbinding of single viruses at the surface of nanowire devices. pH-dependent studies further show that the detection mechanism is caused by a field effect, and that the nanowire devices can be used to determine rapidly isoelectric points and variations in receptor-virus binding kinetics for different conditions. Lastly, studies of nanowire devices modified with antibodies specific for either influenza or adenovirus show that multiple viruses can be selectively detected in parallel. The possibility of large-scale integration of these nanowire devices suggests potential for simultaneous detection of a large number of distinct viral threats at the single virus level.
[link to www.pnas.org (secure)]