The Knights of Tomorrow

[formlessform]

The Knights of Tomorrow

 

Valour, bread through integrity and dignity.

 

Electromagnetic Field of the Earth

Nikola Tesla

Tesla Tower

Wireless electricity

 

Neurons

Electricity in the Brain

 

Michael Farraday

Faraday Cage

Nigel Stanford

Farraday Suit

 

Nanotechnology

Nanotech Farraday Suits

 

Jeroth Diggeden

[formlessform]

 

 

Some llama questions and answers...

 

Electricity in the Brain:

 

1. **Neuronal Action Potentials**:

- Typically around +30 to -70 millivolts (mV).

- Resting membrane potential is usually between -60 and -80 mV.

- Depolarization during an action potential can reach up to +40 mV.

 

2. **Local Field Potentials**:

- Range from a few microvolts (\(\mu\)V) to hundreds of \(\mu\)V.

- Represent the summed electrical activity of neurons within a small

area, including synaptic potentials and other local currents.

 

3. **Event-Related Potentials (ERPs)**:

- Generally range from 0.5 to 100 \(\mu\)V.

- These are measured using EEG and reflect the brain's response to

specific sensory, cognitive, or motor events.

 

4. **EEG Signals**:

- Typically range from about 10 \(\mu\)V to several hundred \(\mu\)V.

- Reflect large-scale synchronized activity of neurons, often

categorized into different frequency bands (delta, theta, alpha, beta,

gamma).

 

 

Combating EMF Fields:

 

### How a Faraday Cage Works:

 

1. **Conductive Material**:

- A Faraday cage is typically made of a continuous covering of

conductive material such as metal mesh or solid sheets.

 

2. **Redistribution of Charges**:

- When an external EMF impinges on the Faraday cage, it induces charges

in the conductive material. These free electrons within the conductor move

in response to the electric field.

 

3. **Shielding Effect**:

- The movement of charges results in the redistribution of electrical

charge across the surface of the conductor. This rearrangement creates an

opposing electromagnetic field that cancels out the external field inside

the enclosure.

 

4. **Internal Field Cancellation**:

- Inside a perfectly constructed Faraday cage, the net electric field

is zero because the induced fields from the conductive material negate any

external electric fields.

 

5. **Frequency Considerations**:

- The effectiveness of a Faraday cage can depend on the frequency of

the EMF being blocked. For high-frequency signals (like radio waves),

smaller holes or gaps in the mesh are more effective at blocking the

signal.

- At lower frequencies, larger openings may still be effective due to

longer wavelengths, but this depends on specific design parameters.

 

- **Limitations**: While effective at blocking electric fields, a Faraday

cage might not block magnetic fields as efficiently unless the material

itself is ferromagnetic or designed specifically to counteract magnetic

fields.

 

Ferromagnetics:

 

 

 

>>> What is ferromagentic?

Ferromagnetism is a fundamental property of certain materials that makes

them strongly attracted to magnetic fields and capable of becoming

permanently magnetized. This phenomenon arises from the alignment of

magnetic moments in the material.

 

### Key Characteristics of Ferromagnetic Materials:

 

1. **Atomic Structure**:

- In ferromagnetic materials, individual atoms have magnetic moments

due to the spin and orbital motion of electrons.

- These magnetic moments tend to align parallel to each other within

small regions called domains or Weiss domains.

 

2. **Domain Alignment**:

- Within a domain, all the magnetic moments are aligned in the same

direction.

- In an unmagnetized ferromagnetic material, these domains are randomly

oriented, resulting in no net magnetization at the macroscopic level.

 

3. **Magnetization Process**:

- When exposed to an external magnetic field, the domains tend to align

themselves with the field.

- This results in a strong net magnetic moment for the entire piece of

material and can lead to permanent magnetization even after the external

field is removed.

 

4. **Common Materials**:

- Iron, cobalt, nickel, and some alloys are classic examples of

ferromagnetic materials.

- These materials exhibit high permeability and significant magnetic

strength.

 

5. **Curie Temperature**:

- Each ferromagnetic material has a specific temperature called the

Curie temperature, above which it loses its ferromagnetic properties and

becomes paramagnetic.

- At this point, thermal agitation overcomes the alignment of the

magnetic moments within domains.

 

6. **Applications**:

- Ferromagnetic materials are widely used in various applications such

as transformers, electric motors, magnetic storage media (e.g., hard

drives), and permanent magnets.

 

Ferromagnetism is distinguished from other forms of magnetism like

paramagnetism and diamagnetism by its ability to retain a persistent

magnetic moment even after an external field is removed.

 

 

 

Can you use ferromagnetics in nanotech?

 

Yes, ferromagnetic materials can be utilized in various applications

within the field of nanotechnology. The unique properties of these

materials at the nanoscale offer numerous opportunities for innovation and

technological advancements. Here are some ways in which ferromagnetic

materials are used in nanotechnology:

 

1. **Magnetic Nanoparticles**:

- Ferromagnetic nanoparticles, such as iron oxide (Fe₃O₄) or cobalt

ferrite (CoFe₂O₄), have applications in data storage, biomedicine (e.g.,

targeted drug delivery and magnetic resonance imaging (MRI)), and

environmental remediation.

- Their small size allows for precise control over their physical and

chemical properties.

 

2. **Spintronics**:

- Spintronics is an area of nanotechnology that exploits the intrinsic

spin of electrons, along with their fundamental charge, in devices.

Ferromagnetic materials are key components in creating magnetic tunnel

junctions (MTJs) and other spintronic devices.

- These applications can lead to advancements in memory storage

technologies, such as MRAM (magnetoresistive random-access memory), which

offers non-volatility, high speed, and durability.

 

3. **Magnetic Hyperthermia**:

- In biomedical applications, ferromagnetic nanoparticles can be used

for magnetic hyperthermia therapy. When subjected to an alternating

magnetic field, these particles generate heat that can be used to target

and kill cancer cells selectively.

 

4. **Magnetoresistive Sensors**:

- Nanoscale magnetoresistive sensors employ ferromagnetic materials to

detect changes in magnetic fields with high sensitivity.

- Such sensors are critical in various applications including read

heads for hard disk drives, automotive sensors, and industrial automation.

 

5. **Nanoscale Magnetic Recording**:

- Ferromagnetic materials are used in the development of

next-generation data storage solutions such as heat-assisted magnetic

recording (HAMR) and bit-patterned media.

- These technologies aim to increase storage densities significantly

beyond current limits by leveraging nanoscale magnetic features.

 

6. **Nanomotors**:

- Magnetic nanoparticles can be propelled using external magnetic

fields, enabling the development of micro- and nanoscale motors for

various applications, including drug delivery systems within the body.

 

7. **Quantum Computing**:

- Some approaches to quantum computing involve the use of ferromagnetic

materials as qubits or components in spin-based quantum computing

architectures.

 

Incorporating ferromagnetic materials into nanotechnology presents

challenges such as controlling their size and shape at the nanoscale,

preventing agglomeration, and ensuring stability. However, ongoing

research is addressing these issues to harness the full potential of

ferromagnetic materials in nanotech applications.

 

 

Disruptor Suits:

 

What problems could be cause by containing this field within the confines of a skin tight suit

 

Since the biofield is generated by the interactions between cells, tissues, and organs,

restricting it within a skin-tight suit could potentially disrupt various physiological

processes. Here are some hypothetical concerns:

 

1. **Cellular communication:** The biofield is thought to facilitate cellular communication,

allowing cells to exchange information and coordinate their activities. Confining this field

might impair cell-to-cell communication, leading to issues like:

* Reduced immune response: Cellular interactions are crucial for immune function. Disrupted

biofields could compromise the immune system's ability to respond effectively.

* Impaired wound healing: Cells need to communicate and coordinate to facilitate wound heal

healing. Restricted biofields might slow down or hinder this process.

2. **Energy expenditure:** The biofield is believed to play a role in energy metabolism,

influencing processes like ATP production and ion pumping. Restricting the field could lead

to:

* Energy imbalance: Disrupted energy exchange between cells and tissues might cause metabolic

imbalances, affecting overall physiological function.

3. **Neurological connections:** The brain's electromagnetic signature is influenced by the

biofield. Confining this field could impact:

* Neurotransmitter regulation: Disrupted biofields might affect neurotransmitter release and

reception, influencing mood, cognition, and motor function.

* Synaptic plasticity: Restricted biofields could impede the formation and reorganization of

synapses, affecting learning and memory processes.

4. **Hormonal modulation:** The biofield is thought to influence hormonal balance and

secretion. Restricting this field might:

* Disrupt hormone regulation: Confining the biofield could affect the normal functioning of

endocrine systems, leading to imbalances in hormone levels and function.

5. **Electromagnetic resonance:** The body's EMF can resonate with external electromagnetic

fields (EMFs), influencing various physiological processes. Restricted biofields might:

* Interfere with EMF interactions: Confining the biofield could disrupt the normal interact

interaction between internal and external EMFs, potentially affecting overall health and

well-being.

 

Please note that these hypothetical concerns are speculative, as there is currently limited

research on the effects of restricting the biofield within a skin-tight suit. The potential

risks and consequences would depend on various factors, including the type and duration of

confinement, individual physiological responses, and environmental conditions.

 

In summary, while containing the biofield within a skin-tight suit might seem like an

interesting concept for futuristic applications or scientific experiments, it's essential to

consider the potential risks and limitations before exploring such ideas further.