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Les nanoparticules sont désormais présentes dans tout, y compris chez les humains

Les nanotechnologies, y compris les nanocapteurs, sont désormais présentes dans la poussière, l'air, l'eau de pluie, les plantes, le sol, les aliments, les vitamines, les suppléments, les soins de santé, les médicaments, les cosmétiques, les vêtements et à l'intérieur du corps humain. Les nanoparticules pénètrent dans l’organisme par inhalation, absorption par la peau, ingestion et procédures médicales ou dentaires.​​​​

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Voies d'entrée des nanoparticules dans le corps.png

Les nanoparticules de dioxyde de titane (TiO2 NP) sont les nanomatériaux les plus couramment produits et ingérés. Ils sont utilisés dans les additifs alimentaires, les cosmétiques, les produits de soins personnels et bien d’autres choses au niveau commercial. Les NP TiO2 s’accumulent par voie orale ou par inhalation. Nous sommes saturés de particules semi-conductrices :

"L'oxyde de titane (TiO2) est un matériau aux applications étendues en raison de ses propriétés optiques et électroniques. Il est utilisé comme ingrédient dans les lotions de protection solaire et les produits alimentaires, comme pigment dans les peintures et comme semi-conducteurs dans la dégradation photocatalytique des composés organiques."

Etude de la bande interdite de nanoparticules de dioxyde de titane synthétisées par la méthode Sol-Gel et un traitement hydrothermal

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La nanotechnologie dans la poussière

Les poussières intelligentes créent des réseaux contenant des capteurs, des logiciels informatiques, des capacités de communication sans fil et disposent de leur propre alimentation électrique autonome.

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Nanotechnologie dans l'air

Aerosol
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De nombreuses nanoparticules utilisées dans les aérosols et pulvérisées dans l’air ont un double objectif, ce qui signifie qu’elles sont capables de remplir plus d’une fonction – voire même de servir plus d’un objectif. Ce document sur les aérosols de modification du rayonnement solaire traite des « applications potentielles dans les technologies biologiques, électroniques et quantiques ».

Aérogel de silice dopé au diamant pour la géo-ingénierie solaire

« Avis d'expert : les technologies basées sur les aérosols peuvent être utilisées pour concevoir des nanoparticules dotées de la fonctionnalité souhaitée. »

Fabrication de nanoparticules à base d'aérosols et leurs applications dans les domaines biomédicaux

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"Dans l'atmosphère, les nanoparticules jouent un rôle fondamental dans les processus chimiques et physiques."

- Institut de recherche sur les aérosols atmosphériques de météorologie et de climatologie, Institut de technologie de Karlsruhe

Il existe une longue liste de nanomatériaux utilisés dans la modification du temps et la géo-ingénierie. Certains sont capables d’affecter l’atmosphère tout en construisant des nanoréseaux à l’intérieur du corps humain. Cependant, tous les nanomatériaux ne s’auto-assemblent pas une fois à l’intérieur du corps.

Des nanomatériaux appelés nanotubes de carbone apparaissent dans les poumons des enfants :

Des nanotubes de carbone anthropiques découverts dans les voies respiratoires d'enfants parisiens

Que sont les nanotubes de carbone ?

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CIA Director John Brennan speaking on geoengineering and Statospheric Aerosol Injection (SAI), a form of Solar Radiation Mamagement (SRM). 

​Solar Radiation Management (SRM):

This is also known as solar engineering and involves reflecting sunlight back into space to cool the planet.

Inhaling nanoparticles as a result of Solar Radiation Modification (SRM) using stratospheric aerosol injections is discussed in the document below:

 

“Using available evidence, we describe the potential direct occupational and public health impacts of exposures to aerosols likely to be used for SRM, including environmental sulfates, black carbon, metallic aluminum, and aluminum oxide aerosols. We speculate on possible health impacts of exposure to one promising SRM material, barium titanate, using knowledge of similar nanomaterials.

Human exposures to materials used for SRM could occur during the manufacture, transportation, deployment and post-deployment of these materials. In this paper, unless otherwise stated, inhalation is the primary route of exposure considered.

Population exposures:

Due to atmospheric circulation and gravitational deposition, large-scale population exposures to atmospherically-injected SRM materials will almost certainly occur after their deployment. Population exposures could also occur through ingestion of food and water contaminated with deposited particles, as well as transdermally. Unlike occupational exposures, there has been virtually no research done to estimate ground-level personal exposures to SRM materials…

In contrast to occupational exposures, population exposures to SRM materials will be continuous and prolonged over months to years, but will likely be orders of magnitude lower than those experienced occupationally. Thus the health effects will be primarily chronic in nature. The use of PPE to reduce personal exposures to deposited SRM materials is not feasible on a population scale."

Assessing the direct occupational and public health impacts of solar radiation management with stratospheric aerosols

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Congressionally Mandated Research Plan and an Initial Research Governance Framework Related To Solar Radiation Modification

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Nanoparticles Sulfur dioxide (SiO2) and Silicon dioxide (SiO2) as precursors in aircraft aerosol us in Solar Radiation Management (SRM):

Nano dans l'air.jpeg

Nanoparticles in cloud brightening:

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This Scientific American article linked below about the same project reads, “The experiment is spraying microscopic salt particles into the air…” Note their misleading use of the word ‘microscopic’. 

Researcher Pete Ramón points out:

“Microscale can never be nanoscale in terms of measurement. When non-scientific authors use micro- to describe nano- they're wrong, but when scientists in the field use micro- to describe nano-, it's intentionally misleading/confusing the reader. That said, nanomaterials can be coagulated/agglomerated/grown to create micro-sized materials. Also, creating nanomaterials from micro can also be done via techniques such as ablation and sonication.”

Geoengineering Test Quietly Launches Salt Crystals into Atmosphere (2024)

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This article linked below reads, “Developing a new cloud-aerosol research instrument for use in small-scale field studies. This new research instrument generates controlled volumes and sizes of tiny, sub-micrometer seawater particles in sufficient numbers to increase the local brightness of low clouds in a marine environment"

Researcher Pete Ramón points out their use of the word “sub-micrometer” means by definition that it is nanoscale. If it’s in the nanoscale, we are talking about nanoparticles. Specifically, nanoparticles being released into the sky.

Marine Cloud Brightening Program

 

Salt particles ranging in size from 30-100 nanometers are the most effective for spraying. 

“Factors determining the most efficient spray distribution for marine cloud brightening”

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Nanoparticles in cloud seeding:

 

Water molecules in the atmosphere are too small to combine on their own to form cloud droplets. To form condensation, they need something larger to condense on (preferably flatter surface and at least one micrometer in size). That’s where cloud condensation nuclei (CCN) come in, otherwise known as cloud seeds.

 

Cloud seeds, or cloud condensation nuclei (CCN), are created by new particle formation (NPF), which are created by even smaller particles forming together.

 

“Nucleation” sums up this process, where extremely small aerosol particles form larger particles in the sky. 

 

The scale of nucleation in the atmosphere ranges in the pico-/nano- scale of measurement. NPF may sometimes begin as tiny as picoparticles, build into nanoparticles, then cluster into bigger microparticles.

 

Atmospheric nanoparticles are referred to as Aitken nuclei by The American Meteorological Society (named after John Aitken).

 

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​"Releasing charge into natural droplet systems such as fog and clouds offers a route to influence their properties. To facilitate charge release across a wide range of altitudes and meteorological circumstances—such as developing clouds—a charge emitter has been developed for integration with the conventional cloud-seeding flares carried by crewed cloud-seeding aircraft. This allows charge emitters to be used alongside, or instead of, conventional particle releasing flares.”

Aerosol for geo
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"(a) Beechcraft King Air C90 aircraft modified for cloud seeding missions, showing a flare rack under the wing that carries up to 24 conventional seeding flares. (b) Installation of a flare emitter in the lowered flare rack."

Providing charge emission for cloud seeding aircraft (2024)

Weather Modification Incorporated:

Plasmoniques dans les aérosols :

Qu'est-ce que la plasmonique ?

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Traces de navires :

Les nanoparticules des navires sont rejetées dans l’air sous la forme de « traces de navires », des traînées de nuages provenant des émissions des navires qui peuvent atteindre plusieurs kilomètres de large et plusieurs centaines de kilomètres de long.

traces de navire.jpeg

« « Traces de navires » au-dessus du nord de l'océan Pacifique. Ces motifs se produisent lorsque de fines particules provenant des gaz d’échappement des navires flottent dans une couche humide de l’atmosphère. Les particules sèment de nouveaux nuages ou attirent l’eau des particules nuageuses existantes. Image prise par le spectroradiomètre imageur à résolution moyenne (MODIS) à bord du satellite Aqua de la NASA le 3 juillet 2010. » Devis et crédit image

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Fuel additives:

Nanoparticles in the form of multi-walled carbon nanotubes (MWCNT), single-walled carbon nanotubes (SWCNT), graphene nanoplatelets (GNP), and metal oxides such as cerium oxide (CeO2) are used in fuel additives for internal combustion engines in planes, buses and ships. This is another example of dual purpose technology. The nanoparticles in fuel combustion release nanoparticles in the exhaust.

 

 

Sulfur as a fuel additive to create aerosol in planes is discussed here. "Options for dispersing gases from planes include the addition of sulfur to the fuel, which would release the aerosol through the exhaust system of the plane, or the attachment of a nozzle to release the sulfur from its own tank within the plane, which would be the better option.”

Benefits, risks, and costs of stratospheric geoengineering

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Covering the earth in aerosol- from particle to plume:
"Stratospheric aerosol injection (SAI) is currently the most feasible climate intervention strategy and is being tested at ever increasing scales. It is critical to understand the global downstream impacts of these locally created interventions. However, in the finest detail, predictions require bridging scales from individual aerosol particles to large volumes of Earth’s atmosphere. Here the application of a novel discretization paradigm, the Eulerian-Lagrangian Point-Mass-Particle (ELPMP) discretization, is investigated as a method to model seeding, transport, and evolution of aerosols from injection-scale to Earth-scale impacts."

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Resources devoted to the exposing of geoengineering:

“This interactive world map on geoengineering, prepared by ETC Group and the Heinrich Boell Foundation, sheds light on the alarming expansion of geoengineering research and experimentation. It builds on an earlier map of Earth Systems Experimentation published in 2012. That original map documented around 300 projects and experiments related to the field of geoengineering. Almost a decade later, more than 1,700 such projects have been identified- including past, ongoing and planned ones. When opening the map, only ongoing and planned projects are displayed, as well as those that have been completed or cancelled in the last five years. These include Carbon Removal and Solar Radiation Management as well as other geoengineering approaches. The map also contains Carbon Capture and Weather Modification projects. There is no complete record of weather and climate control projects so this map is necessarily partial.”

Interactive map of current geoengineering projects around the world 

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Nanotechnology in rainwater

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Nanotechnology in plants

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Nanotechnology in farming (including organic farming)

Nanofarming, precision farming, smart farming, plant nanobionics, and other such trends all incorporate the use of nanotechnology, including “organic” farming:

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Tower gardens:

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Nanotechnology in food

This is one way it enters your body. Nanoparticles can breach the blood-brain barrier.

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Nanotechnology in food packaging:

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“This study shows that a fraction of pharmaceutical/food grade titanium dioxide is absorbed systemically by humans following ingestion…In summary, we show here that a portion of ingested pharmaceutical and food grade TiO2, to which humans are very frequently orally exposed, is directly absorbed, as particles, into the blood stream of healthy volunteers.”
Pharmaceutical/food grade titanium dioxide particles are absorbed into the bloodstream of human volunteers

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Nanotechnology in beverages

“The biodistribution study in major organs indicated that the NPs [nanoparticles] were easily accumulated in the digestive tract, and they were able to cross the blood-brain barrier and dispersed in the brain.”

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Nanotechnology in vitamins and supplements

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Nanotechnology in Nutraceuticals

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Nanotechnology in Nootropics

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Nanotechnology in tobacco

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Nanotechnology in healthcare

Biomedical and healthcare applications relating to the Internet of Bio-Nano-Things (IoBNT) are discussed in the video below, such as floating nanosensors in the bloodstream that eavesdrop on molecular communication and report to devices outside of the body. The connecting of electronic and implantable devices such as brain implants, smart glasses, cardiac pacemakers, gastric stimulators, smart watches, insulin pumps, foot drop implants, and smart shoes with biological devices including artificial organs, engineered immune system cells, engineered gut microbes, and engineered tissue for regenerative medicine are also talked about.
The video also discusses how remotely controllable nanobots operate in the body, using nanotechnology and MEMS to engineer cells into biosensors, communication using Molecular Communication (MC), the making of “biological computers”, engineering the DNA of bacteria to create processors, and injecting memories into living cells by encoding the DNA of bacteria.

Dr. Bige Deniz Unluturk- Molecular Communication Platforms at Multiple Scales (video)

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Biomedical Applications of Quantum Dots: Overview, Challenges, and Clinical Potential

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Equipment:

3D bioprinting is used in the making of healthcare equipment (face masks, face shields, rapid detection kits, testing swabs, biosensors, and various ventilator components):

 

Injections:

Covid-19 shots contain self assembling nanotechnology. This is well documented and will be only touched on briefly given the large scope of this subject.

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The Covid shots were created utilizing 3D bioprinting with programmable shape-shifting nanotechnology enabled smart materials. See more here.

Nano in Food
Healthcare

Other routes of injecting nanotech are talked about by Professor Ian Akyıldız. He discusses injecting remotely programable nano machines to help fight disease, complete with gateways and bio cyber interfaces with two way communication.

Science and Society Meetings - XI, Prof. Dr. İlhan Fuat Akyıldız, Georgia University

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Nanobots that self replicate are used in chemotherapy, “vaccines”, gene therapy, and more:

 

Nano pharmacology/Nanomedicine:

The following two lectures describe ways in which nanoparticles enter human cells in relation to pharmacology:

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“Currently more than 50 nanomedicine formulations have been approved for clinical use, as recently reviewed by multiple authors: These marketed nanomedicine formulations are approved for cancer treatment, iron-replacement therapies, anesthetics, fungal treatments, macular degeneration, and for the treatment of genetic rare diseases. Nano/microparticle imaging agents have also been included in the statistics. The majority of approved NP classes are represented by liposomes, iron colloids, protein-based NP, nano-emulsions, nanocrystals and metal oxide nanoparticles. The three new formulations mentioned in the previous section, not only show that the number of formulations approved are steadily increasing, but that new generations of nanomedicine are now reaching the market.”

Delivering the power of nanomedicine to patients today (2020)

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Iron oxide nanoparticles can be introduced into the body through medicine. The following discuss medical applications of iron oxide in relation to pharmacology:

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Iron Oxide and Gold Based Magneto-Plasmonic Nanostructures for Medical Applications: A Review

 

"Plasmonic nanoparticles (NPs) are one of the most promising and studied inorganic nanomaterials for different biomedical applications… Herein, we review recently reported bioconjugated plasmonic NPs using different chemical approaches and loading cargoes (such as drugs, genes, and proteins) for enhancement of transdermal delivery across biological tissues.”

Bioconjugated Plasmonic Nanoparticles for Enhanced Skin Penetration

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The use of gold nanoparticles in therapy for cancer treatment is discussed in this document.

“Targeted hyperthermia with plasmonic nanoparticles”

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Smart pill from MIT monitors and medicates via Bluetooth

3D Printing of a Multi-Layered Polypill Containing Six Drugs Using a Novel Stereolithographic Method

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CDRH Review of Medical Devices Containing Nanoscale Materials

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Towards hospital-on-chip supported by 2D MXenes-based 5th generation intelligent biosensors

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Homeopathy as Nanomedicine, Ayurvedice Nanomedicine, and Allopathic Nanomedicine, Nanoparticle herbs:

Traditional and alternative medicines are now being used in nanoparticle form, and may be included under the category of nano pharmacology. 

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Orthopedic implants:

Traditional orthopedic implants now include nanotechnology. Specifically, implantable sensors- a variation of Internet or Bio-Nano-Things (IoBNT). 4D bioprinting is utilized. 

 

The Homeland Defense & Security Information Analysis Center (HDIAC), which is part of the U.S. Department of Defense’s Information Analysis Center (IAC), talks about implantable nano sensors in the following webinar:

HDIAC Webinar - Bringing the Hospital to the Patient: Advances in Implantable Nano Sensors

 

Dr. Tom Webster, professor of chemical engineering at Northeastern University, talks more about implantable nano sensors in this brief video: 

HDIAC podcast- Nano Sensors

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Nanotechnology in dentistry 

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Dental implants:

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Nanotechnology in cosmetics

Many types of nanomaterials are found in cosmetics in increasing levels. They can absorb into the body from the skin.

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Nanotechnology in clothing and fabrics​

Medicine
Cosmetics
Homeopathy
nano in clothing.gif

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Nanotechnology in Tattoos

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Nanotechnology in Wastewater

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Again, we see IEC is behind this. Click here and here to see IEC’s framework for these systems. 

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Nanotechnology in everything

Nonetechnology exists now in nearly everything now - that’s their goal - to connect EVERYTHING. 

Internet of Everything (IoE) - From Molecules to the Universe by Murat Kuscu

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