Viral infections surging in Israel

RodISHI

Platinum Member
Nov 29, 2008
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Vaccine hesitant people already knew that vaccines weaken the immune system. Simple observation and common sense should let most know that. The big CV jab though does even worse.


The COVID-19 vaccine made by Pfizer and BioNTech appears to put young men at elevated risk of developing a heart muscle inflammation called myocarditis, researchers in Israel say. In a report submitted today to the Israeli Ministry of Health, they conclude that between one in 3000 and one in 6000 men ages 16 to 24 who received the vaccine developed the rare condition. But most cases were mild and resolved within a few weeks, which is typical for myocarditis. “I can’t imagine it’s going to be anything that would cause medical people to say we shouldn’t vaccinate kids,” says Douglas Diekema, a pediatrician and bioethicist at Seattle Children’s Hospital.

Israeli health officials first flagged the issue in April, when they reported more than 60 cases, mostly in young men who had received their second dose of vaccine a few days earlier...cont @ link




“We usually see it disappearing in the summer, but if we consider the numbers now, it looks like winter in previous years,” said Brosh. “During the winter 2020-2021, we did not see one individual case of RSV.”

V vs Non V Israel 2021.PNG
 
As I understand it, the mRNA vaccines are defective because the fake corona spike protein they stuck on the fake virus, keeps coming off.
And when it does, then the immune system attacks where ever it ends up.
When it ends up in the heart, then the result is myocarditis.
 
Rigby5 Thank you for calling it what it is...

It has not a damn thing to do with protecting the masses but it does have to do with controlling them. Every major companies shots have been found to have 90% graphene oxide.

So here goes the end game in the next few weeks that the asshats pushing this shit think they are going to get (they won't but they are going to give it their best shot).

Interfacing Graphene-Based Materials With Neural Cells - PubMed

Abstract
The scientific community has witnessed an exponential increase in the applications of graphene and graphene-based materials in a wide range of fields, from engineering to electronics to biotechnologies and biomedical applications. For what concerns neuroscience, the interest raised by these materials is two-fold. On one side, nanosheets made of graphene or graphene derivatives (graphene oxide, or its reduced form) can be used as carriers for drug delivery. Here, an important aspect is to evaluate their toxicity, which strongly depends on flake composition, chemical functionalization and dimensions. On the other side, graphene can be exploited as a substrate for tissue engineering. In this case, conductivity is probably the most relevant amongst the various properties of the different graphene materials, as it may allow to instruct and interrogate neural networks, as well as to drive neural growth and differentiation, which holds a great potential in regenerative medicine. In this review, we try to give a comprehensive view of the accomplishments and new challenges of the field, as well as which in our view are the most exciting directions to take in the immediate future. These include the need to engineer multifunctional nanoparticles (NPs) able to cross the blood-brain-barrier to reach neural cells, and to achieve on-demand delivery of specific drugs. We describe the state-of-the-art in the use of graphene materials to engineer three-dimensional scaffolds to drive neuronal growth and regeneration in vivo, and the possibility of using graphene as a component of hybrid composites/multi-layer organic electronics devices. Last but not least, we address the need of an accurate theoretical modeling of the interface between graphene and biological material, by modeling the interaction of graphene with proteins and cell membranes at the nanoscale, and describing the physical mechanism(s) of charge transfer by which the various graphene materials can influence the excitability and physiology of neural cells.... more at the link
 
Accelerating bioelectric functional development of neural stem cells by graphene coupling: Implications for neural interfacing with conductive materials - PubMed
h̶t̶t̶p̶s̶:̶/̶/̶w̶w̶w̶w̶e̶f̶o̶r̶u̶m̶.̶o̶r̶g̶/̶a̶g̶e̶n̶d̶a̶/̶2̶0̶1̶7̶/̶0̶9̶/̶r̶e̶s̶e̶a̶r̶c̶h̶e̶r̶s̶-̶h̶a̶v̶e̶-̶m̶a̶n̶a̶g̶e̶d̶-̶t̶o̶-̶c̶o̶n̶n̶e̶c̶t̶-̶a̶-̶h̶u̶m̶a̶n̶-̶b̶r̶a̶i̶n̶-̶t̶o̶-̶t̶h̶e̶-̶i̶n̶t̶e̶r̶n̶e̶t̶/̶
The project works by taking brainwave EEG signals gathered by an Emotiv EEG device connected to the user’s head. The signals are then transmitted to a low cost Raspberry Pi computer, which live streams the data to an application programming interface and displays the data on an open website where anyone can view the activity. Adam Pantanowitz, a lecturer in the Wits School of Electrical and Information Engineering and the project’s supervisor, said:

Brainternet is a new frontier in brain-computer interface systems. There is a lack of easily understood data about how a human brain works and processes information. Brainternet seeks to simplify a person’s understanding of their own brain and the brains of others. It does this through continuous monitoring of brain activity as well as enabling some interactivity.

Intellectual muscle

Pantanowitz said this is just the beginning of the possibilities of the project. He adds that the team is now aiming to allow for a more interactive experience between the user and their brain. Some of this functionality has already been built into the site, but it is very narrow — limited to stimulus such as arm movement. “Brainternet can be further improved to classify recordings through a smart phone app that will provide data for a machine-learning algorithm. In future, there could be information transferred in both directions – inputs and outputs to the brain,” Pantanowitz said.

Future applications for this project could lead to some very exciting breakthroughs in machine learning and
brain-computer interfaces like Elon Musk’s Neural Lace and Bryan Johnson’s Kernel. Data collected from this project could lead to a better understanding of how our minds work and how we can take advantage of that knowledge to augment our brain power.
 

Accelerating bioelectric functional development of neural stem cells by graphene coupling: Implications for neural interfacing with conductive materials - PubMed

Accelerating bioelectric functional development of neural stem cells by graphene coupling: Implications for neural interfacing with conductive materials

Abstract
In order to govern cell-specific behaviors in tissue engineering for neural repair and regeneration, a better understanding of material-cell interactions, especially the bioelectric functions, is extremely important. Graphene has been reported to be a potential candidate for use as a scaffold and neural interfacing material. However, the bioelectric evolvement of cell membranes on these conductive graphene substrates remains largely uninvestigated. In this study, we used a neural stem cell (NSC) model to explore the possible changes in membrane bioelectric properties - including resting membrane potentials and action potentials - and cell behaviors on graphene films under both proliferation and differentiation conditions. We used a combination of single-cell electrophysiological recordings and traditional cell biology techniques. Graphene did not affect the basic membrane electrical parameters (capacitance and input resistance), but resting membrane potentials of cells on graphene substrates were more strongly negative under both proliferation and differentiation conditions. Also, NSCs and their progeny on graphene substrates exhibited increased firing of action potentials during development compared to controls. However, graphene only slightly affected the electric characterizations of mature NSC progeny. The modulation of passive and active bioelectric properties on the graphene substrate was accompanied by enhanced NSC differentiation. Furthermore, spine density, synapse proteins expressions and synaptic activity were all increased in graphene group. Modeling of the electric field on conductive graphene substrates suggests that the electric field produced by the electronegative cell membrane is much higher on graphene substrates than that on control, and this might explain the observed changes of bioelectric development by graphene coupling. Our results indicate that graphene is able to accelerate NSC maturation during development, especially with regard to bioelectric evolvement. Our findings provide a fundamental understanding of the role of conductive materials in tuning the membrane bioelectric properties in a graphene model and pave the way for future studies on the development of methods and materials for manipulating membrane properties in a controllable way for NSC-based therapies.
 
Ti3C2TxMXene film or some other crap if that doesn't work. I wouldn't let a doctor pushing vaccines anywhere near me or my child if they were not already adults.



 
That old serpent.PNG



 
Accelerating bioelectric functional development of neural stem cells by graphene coupling: Implications for neural interfacing with conductive materials
https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6646684/
Accelerating bioelectric functional development of neural stem cells by graphene coupling: Implications for neural interfacing with conductive materials
Abstract
In order to govern cell-specific behaviors in tissue engineering for neural repair and regeneration, a better understanding of material-cell interactions, especially the bioelectric functions, is extremely important. Graphene has been reported to be a potential candidate for use as a scaffold and neural interfacing material. However, the bioelectric evolvement of cell membranes on these conductive graphene substrates remains largely uninvestigated. In this study, we used a neural stem cell (NSC) model to explore the possible changes in membrane bioelectric properties - including resting membrane potentials and action potentials - and cell behaviors on graphene films under both proliferation and differentiation conditions. We used a combination of single-cell electrophysiological recordings and traditional cell biology techniques. Graphene did not affect the basic membrane electrical parameters (capacitance and input resistance), but resting membrane potentials of cells on graphene substrates were more strongly negative under both proliferation and differentiation conditions. Also, NSCs and their progeny on graphene substrates exhibited increased firing of action potentials during development compared to controls. However, graphene only slightly affected the electric characterizations of mature NSC progeny. The modulation of passive and active bioelectric properties on the graphene substrate was accompanied by enhanced NSC differentiation. Furthermore, spine density, synapse proteins expressions and synaptic activity were all increased in graphene group. Modeling of the electric field on conductive graphene substrates suggests that the electric field produced by the electronegative cell membrane is much higher on graphene substrates than that on control, and this might explain the observed changes of bioelectric development by graphene coupling. Our results indicate that graphene is able to accelerate NSC maturation during development, especially with regard to bioelectric evolvement. Our findings provide a fundamental understanding of the role of conductive materials in tuning the membrane bioelectric properties in a graphene model and pave the way for future studies on the development of methods and materials for manipulating membrane properties in a controllable way for NSC-based therapies.
 
Video shows the blood being tainted by the CV-jab compared to non-jabbed blood. Those graphene particles (hollow tubes) pick up EMF and low doses of radiation the more that they are exposed to it.
Very important to share with anyone you know who may be still considering that they will succumb to this open destruction of humanity.



Anyone not of them are merely tools to be used, upgraded with 'their technology' and tossed when no longer useful. Consider their shot a man-made "upgrade" to what they believe is God's flawed creation; while they make a lot of bucks on all that of course.

Moderna mRNA.PNG
Moderna mRNA.PNG
 

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