Graphene-based sensor learns to feel like a human


Sensor beats humans in fabric touch test

Researchers in South Korea have combined an electric sensor with a machine-learning algorithm to create a device that can feel and distinguish different surface textures. The device could find use in virtual reality, robotics and medical prosthetics.

See full article:
https://www.chemistryworld.com/news/graphene-based-sensor-learns-to-feel-like-a-human/3009019.article

Rice University shows graphene nanotube self assembly called

Teslaphoresis:

2min 55sec
https://graphene.tube/2020/11/24/nanotubes-assemble-rice-introduces-teslaphoresis/

MIT

MIT RESEARCHERS CREATE AN AEROSOL SPRAY LOADED WITH NANOBOTS

WE COULD BE WITNESSING THE BIRTH OF A NEW FIELD IN ROBOTICS.
AEROSOLS FOR GOOD. You may have sworn off aerosol sprays in the ’90s when everyone was talking about the hole in the ozone layer, but a team of researchers from MIT has found a use for aerosols that could be good for both the environment and our health. This spray contains nanobots, tiny sensors with the potential to do everything, from detecting dangerous leaks in pipelines, to diagnosing health issues. They published their research in Nature Nanotechnology on Monday.

NANO-SCALE SENSORS. Each sensor in the aerosol spray contains two parts. The first is a colloid, an extremely tiny insoluble particle or molecule. Colloids are so small, in fact, they can remain suspended in a liquid or the air indefinitely — the force of particles colliding around them is stronger than the force of gravity attempting to pull them down.


The second part of the sensor is a complex circuit containing a chemical detector built from a two-dimensional material, such as graphene. When this detector encounters a certain chemical in its environment, its ability to conduct electricity improves. The circuit also contains a photodiode, a device that can convert ambient light into electric current. This provides all the electricity needed to power the circuit’s data collection and memory...

see rest here:
https://futurism.com/the-byte/nanobots-aerosol-mit

There are many types of nanobots and nano biosensors they can inject into humans to accomplish many different goals such as:

1.  Monitoring the function of organs
2.  Sending that data to a smartphone for AI blockchain ledger tracking and recording
3.  Making a platform or scaffolding for receiving microwave signals outside the body and give directions to the nanobots
4.  Remote drug delivery
5.  In essence making the human body into it's own pharmacy which can create any drug necessary internally
6.  Switches----that operate to kill certain cells or to enact certain biological processes including the killing of cancer cells (kill switch?) and an on/off switch for fertility or even enact transsex operations on male or female organs
7.  Assembly for performing internal operations on organs

and on and on...

Hydrogel allows the body to accept the nanotech, rather than reject and scar, and make it fuse to the internal organs.  It is the umbrella or "Mother" of biosensors and other internal nanotech.

Graphene is just one of the substances that can be fused into the body with the use of hydrogel and has favorable electrical properties.

Here are some of the examples of bio nanotech being used today:



https://www.azonano.com/article.aspx?ArticleID=5761

An Overview of Nanobots and the Most Recent Developments

Download PDF Copy
Sarah Moore
By Sarah MooreJun 16 2021
Nanotechnology has exploded in recent years, with research growing and the establishment of new and exciting applications that exploit the unique properties of nanoparticles, particularly in medicine, electronics, and materials science.



Nanobots are currently disrupting the biomedicine sector, with developments in cancer diagnosis and drug delivery. Image Credit: Corona Borealis Studio/Shutterstock.com

Nanoparticles, measuring just 1-100 nanometers, are unique to their bulk material counterpart, with their small scale gifting them properties that can be leveraged into new applications, making technologies possible that previously had been out of reach.

Nanotechnology continues to gain traction, with estimations that it will reach a global net worth of over $8.6 billion by 2025.

While many nanotechnology projects are still in the research and development phase, significant advancements are being made continuously as scientists discover more about how nanoparticles can be used in different scientific fields.

Here, we discuss the latest developments in the segment of nanobots. These tiny, nano-sized robots are currently disrupting the field of biomedicine, with particular advancements occurring in applications such as cancer diagnosis and drug delivery.

Xenobots
Recent research has helped to establish xenobots, tiny robots that are less than 1 mm in length and constructed of 500-1000 living cells. They have been created in a variety of basic shapes, including some with legs. Studies have shown they can effectively move linearly or circularly, join with other xenobots to act collectively, move tiny objects, and live for around 10 days.

Scientists believe that these xenobots could be developed in numerous ways that could positively impact human, animal, and environmental health, although their status as "programmable living robots” made from living, organic tissue raises ethical concerns.

While there is some uncertainty about the future of xenobots due to ethics, scientists working in this field are excited about their potential applications in cleaning up microplastics from the ocean, scavenging toxins and radioactive materials from dangerous places, the more efficient and effective targeted delivery of drugs, and the repair of cells and tissues.

Cancer Diagnosis
Related Stories
Vistec Secures An Order for An Electron Beam Lithography System From SUNAC
Researcher Uses Swimming Sperm Energy Production Idea to Power Tiny Robots, Nanobots
Turning an Organic Superconductor into an Insulator
Early diagnosis is a key strategy in the fight against cancer. However, due to the nature of cancer, current diagnostic techniques have their limitations. For example, recent years have seen the development of techniques that measure various biomarkers as a method of early diagnosis, although these techniques are limited due to the new concentrations of such biomarkers in body fluids.

Nanotechnology offers a route to highly sensitive and specific early diagnostics for cancer. Scientists have worked on developing nanobots that can precisely measure key cancer biomarkers at low concentration levels, enabling the early detection of multiple types of cancer and overcoming the limitations of currently available methods.

Studies have shown how the efficacy of biosensors can be enhanced with the addition of nanoparticles. These tiny molecules help to provide specific targeting and improve the sensitivity of the sensors via their increased surface-to-volume ratio.

Precision Medicine
Scientists are exploring the efficacy of DNA robots at destroying cancer cells. Scientists have successfully programmed strands of DNA to move through the blood to deliver blood-clotting drugs to the site of the tumor, cutting off their blood supply and preventing growth.

Many recent studies have highlighted the potential future use of nanobots in drug delivery. The current results are promising, suggesting that nanobots could soon be used in humans to deliver drugs with increased levels of efficacy and accuracy. This more efficient delivery may also help to reduce the harmful side effects associated with current therapeutics.

A team of researchers recently carried out in vitro experiments with nanobots, visualizing their movements with a combination of optical microscopy and Positron Emission Tomography (PET).

Related: The Applications of Nanorobotics in the Biomedical Industry
After learning how the nanoparticles were capable of migrating, the team tested the nanobots in a murine model, injecting the nanobots intravenously to mice. They coated the nanobots with urease, an enzyme that catalyzes the hydrolysis of urea, and found that the nanobots swam instantly to the bladder, resulting in induced fluid flows. The data was evidence of the collective movements of nanobots that resemble those found in nature.

The researchers described the collective movement of nanobots and “Nanobot swarms” and indicated that they could be particularly useful in viscous media, helping to deliver drugs with greater levels of precision.

It is theorized that nanobots could be used to deliver drugs to the eye, gastrointestinal tract, and joints. Scientists foresee that nanobots could be developed so that they are tailored to deliver drugs to specific parts of the body by adapting the nanobot to the fuel that exists in the environment where they are intended to deliver the therapeutics, (e.g. in the case of urease to direct them to the liver).

Creating a ‘Global Superbrain’
A final interesting development in nanobot research is using nanotechnology to establish a ‘global superbrain’ where human thought, theoretically, could be transferred to an artificial interface, establishing a human ‘brain-cloud interface’.

Scientists theorize that nanobots may be used in the future to wirelessly transmit information stored in the brain to a cloud-based supercomputer network, allowing real-time data extraction and brain-state monitoring. However, before this application of nanotechnology can become a reality, it must go under a significant phase of research and design as well as overcome the ethical and moral implications of the technology.

References and Further Reading
Observed in vivo the collective movement of nanorobots. EurekAlert!. Available at: https://www.eurekalert.org/pub_releases/2021-03/ef-oiv031521.php

Nanobots/Nanorobots Market Worth 8,685.7 Million By 2025 at 11.73% CAGR. Global Newswire. Available at: https://www.globenewswire.com/news-release/2021/02/23/2180785/0/en/Nanobots-Nanorobots-Market-Worth-8-685-7-Million-By-2025-at-11-73-CAGR-Investment-in-R-D-of-Nanorobotics-to-Influence-Growth-of-Global-Market-Says-Market-Research-Future-MRFR.html

Zhang, Y., Li, M., Gao, X., Chen, Y. and Liu, T., 2019. Nanotechnology in cancer diagnosis: progress, challenges and opportunities. Journal of Hematology & Oncology, 12(1). https://jhoonline.biomedcentral.com/articles/10.1186/s13045-019-0833-3

Disclaimer: The views expressed here are those of the author expressed in their private capacity and do not necessarily represent the views of AZoM.com Limited T/A AZoNetwork the owner and operator of this website. This disclaimer forms part of the Terms and conditions of use of this website.

Sarah Moore
Written by

Sarah Moore
After studying Psychology and then Neuroscience, Sarah quickly found her enjoyment for researching and writing research papers; turning to a passion to connect ideas with people through writing.

Dr Andy Kaufman interviews former Pfizer rep Karen Kingston with loads of great info on graphene and hydrogel with docuмented proof it's in the shots.  

She discusses the doc I posted above in this thread on graphene/hydrogel.

Graphene has been used in the flu shots as well.  It's been used for cancer treatments as well.

Really informative!

Goes into the shedding issue from the spike protein (not a virus) as well.

Pfizer:

It's 95% effective.  It's 95% effective.

Question:  95% effective at what???

Answer:  Reducing infection by less than 1 percent for 7 days



and more on how the FDA fudged the testing and knew it would cause horrible adverse events and death.



30min
https://www.bitchute.com/video/zz2Te19jaI8A/

Vigano on Graphene and the Internet of Things (where humans are considered "things"):



https://www.lifesitenews.com/opinion/abp-vigano-the-catholic-church-has-a-duty-to-resist-deadly-covid-jab-agenda-of-the-globalist-elite/#_ftn23


"I would like to point out to you that the components of the gene serums are still concealed as trade secrets, even if there are already multiple studies that have analyzed the content of the vaccines;[21] it is therefore not yet possible to completely evaluate the other critical elements and their long-term impacts, because the experimentation on the world population will end only in 2023/2025, and it is not known what the effects of the newly adopted technology are at the genetic level.[22] The presence of graphene in the doses that have been administered, reported by numerous laboratories that have analyzed its content,[23] suggests that the forced use of so-called vaccines – together with the systematic boycott of existing treatments of proven effectiveness[24] – serves the purpose of contact-tracing all vaccinated human beings throughout the world, who will be or already are connected to the Internet of Things[25] by means of a quantum link of pulsed microwave frequencies of 2.4 GHz or higher from cell towers and satellites.[26] As proof that this information is not the fruit of the fantasies of some conspiracy theorist, you should know that the European Union has chosen two projects dedicated to technological innovation as the winners of a competition: “The Human Brain” and “Graphene.” These two projects will receive one billion euro each in funding over the next ten years.[27]"


Referenced links:

https://www.marianoamici.com/ossido-di-grafene-e-peg-nei-vaccini/

https://www.weforum.org/agenda/2021/10/technology-trends-2021-mckinsey?utm_source=twitter&utm_medium=social_scheduler&utm_term=Technological+Transformation&utm_content=13/10/2021+11:30


[26] Exclusive: Pfizer patent approved for monitoring vaccines around the world – Cf. https://www.databaseitalia.it/esclusivo-brevetto-pfizer-approvato-per-il-monitoraggio-dei-vaccinati-in-tutto-il-mondo-tramite-microonde-e-grafene


[27] EU: The greatest research excellence award for the “Graphene” and “Human Brain” projects – Cfr. https://www.isprambiente.gov.it/it/archivio/notizie-e-novita-normative/notizie-ispra/2013/01/ue-il-piu-grande-premio-di-eccellenza-nella-ricerca-ai-progetti-grafene-e-cervello-umano  | Graphene and Human Brain Project win largest research excellence award in history, as battle for sustained science funding continues. – Cfr. https://ec.europa.eu/commission/presscorner/detail/en/IP_13_54


To learn more on the plan to use the "Internet of Things" to enslave humanity see this thread:

https://www.cathinfo.com/catholic-living-in-the-modern-world/blockchain-slavery/msg780364/#msg780364

Would anyone mind explaining in more technical terms how this is actually supposed to work? Just because a body gets some Carbon molecular structure (graphene) injected doesn't mean that it's magically able to connect to a cell tower over a microwave frequency.

That's a good question, Dankward.

Graphene is what powers biosensors.  Biosensors monitor your internal organs and send the information to your phone.

It would be in your best interest to crawl through this whole thread. You'll find the medical journal evidence within as well as other important info on all the things graphene can do.

Graphene is the new plastic so it will be in virtually EVERYTHING including everyone's body within the next year.

It's a good time to learn about it!