Flyers/Resources to Distribute:
- Sarasota for Vaccination Choice NEW
- Dr. Blaylock & Dr. Mercola Debunk the H1N1 "Pandemic"
- Educate Yourself re: Mass-Vaccination (tri-fold, PDF)
- ** FLORIDA SWINE FLU VACCINE LAWSUIT!
- The Truth about Flu Shots in Pregnancy
- FDA Vaccine Package Inserts: 3 Injectable, 1 Intranasal: PDF's Here
- Swine Flu Arrives in Sarasota: Examining H1N1 'Swine Flu' and the Government's Rush to Vaccinate
- 2009 Florida Statutes: 381.00315 Public health advisories; public health emergencies
- Nuremberg Code: Directives for Human Experimentation
- Adverse Effects of Adjuvants in Vaccines
- Refuse and Resist Mandatory Flu Vaccines
Wednesday, October 21, 2009
Are Populations Being Primed For Nano-Microchips Inside Vaccines?
http://preventdisease.com/news/09/100509_injectable_nano_microchips.shtml
It's almost surreal, like something out of a sci-fi flick, but nano-microchips invisible to the naked eye are a reality that are already being hosted in wide-range of applications. The question is, how long will it take governments and big pharma to immerse nano-microchips inside of vaccines to tag and surveil global populations?
Nanotechnology deals with structures smaller than one micrometer (less than 1/30th the width of a human hair), and involves developing materials or devices within that size. To put the size of a nanometer in perspective, it is 100,000 times smaller than the width of a human hair.
More than ten years ago, simple low-cost techniques improved the design and manufacture of nano-microchips. That unlocked a multitude of methodologies for their manufacture in a wide-range of applications including optical, biological, and electronic devices.
The joint use of nanoelectronics, photolithography, and new biomaterials, have enabled the required manufacturing technology towards nanorobots for common medical applications, such as surgical instrumentation, diagnosis and drug delivery.
Japan's Hitachi says it has developed the world's smallest and thinnest microchip, that can be embedded in paper to track down parcels or prove the authenticity of a document. The integrated circuit (IC) chip is as minute as a speck of dust.
Nanoelectrodes implanted in the brain are increasingly being used to manage neurological disorders. Mohammad Reza Abidian, a post-doctoral researcher at the U-M Department of Biomedical Engineering said that polymers in nanotubes "are biocompatible and have both electronic and ionic conductivity." He further stated "therefore, these materials are good candidates for biomedical applications such as neural interfaces, biosensors and drug delivery systems."
Depending on the objectives of such studies, research could theoretically pave the way for smart recording electrodes that can deliver drugs to positively or negatively affect the immune response.
READ ENTIRE ARTICLE HERE:
It's almost surreal, like something out of a sci-fi flick, but nano-microchips invisible to the naked eye are a reality that are already being hosted in wide-range of applications. The question is, how long will it take governments and big pharma to immerse nano-microchips inside of vaccines to tag and surveil global populations?
Nanotechnology deals with structures smaller than one micrometer (less than 1/30th the width of a human hair), and involves developing materials or devices within that size. To put the size of a nanometer in perspective, it is 100,000 times smaller than the width of a human hair.
More than ten years ago, simple low-cost techniques improved the design and manufacture of nano-microchips. That unlocked a multitude of methodologies for their manufacture in a wide-range of applications including optical, biological, and electronic devices.
The joint use of nanoelectronics, photolithography, and new biomaterials, have enabled the required manufacturing technology towards nanorobots for common medical applications, such as surgical instrumentation, diagnosis and drug delivery.
Japan's Hitachi says it has developed the world's smallest and thinnest microchip, that can be embedded in paper to track down parcels or prove the authenticity of a document. The integrated circuit (IC) chip is as minute as a speck of dust.
Nanoelectrodes implanted in the brain are increasingly being used to manage neurological disorders. Mohammad Reza Abidian, a post-doctoral researcher at the U-M Department of Biomedical Engineering said that polymers in nanotubes "are biocompatible and have both electronic and ionic conductivity." He further stated "therefore, these materials are good candidates for biomedical applications such as neural interfaces, biosensors and drug delivery systems."
Depending on the objectives of such studies, research could theoretically pave the way for smart recording electrodes that can deliver drugs to positively or negatively affect the immune response.
READ ENTIRE ARTICLE HERE:
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