C/M Resource Free Motor Experiment

 

C/M Resource Free Motor Experiment

CONDUCTIVE 

Conductive materials for EV Battery Electric Motors. A preferred Brushless effort or equivalent Axial or Radial or Hybrid 

Graphene then Carbon Nanotubes and Galvorn as more sustainable resources free or conductive alternatives

REQUIRED

Safe contained conversion from a Pelton or similar to EV Electric for Motor or storage 

For self-refilling air or water + hydrogen 

Multiple additives like PZ Taps increase Energy Yields! 

COPPER ALTERNATIVES

Copper is a widely used metal, but several alternatives exist for various applications. Aluminum is a popular choice due to its lower cost and high abundance, though it has lower conductivity. Other conductive materials, like stainless steel and nickel, offer unique properties for specific applications. Additionally, newer materials like carbon nanotubes and Galvorn are being explored for their potential in high-performance and environmentally friendly applications. 

Here's a more detailed look at some copper alternatives:

Aluminum:

Aluminum is a common substitute for copper, particularly in power transmission lines and electrical vehicles, due to its lower cost and lower density. While it's less conductive than copper, its lower cost and abundant availability make it a practical choice for many applications. 

Nickel:

Nickel is another metal that can serve as a copper alternative, especially in situations where high-temperature resistance is required, like in heat exchangers and high-power applications. 

Tungsten:

Tungsten, with its high melting point and strength, is used in applications requiring high-temperature and high-strength materials, such as wire in electrical devices. 

Stainless Steel:

Stainless steel offers good conductivity and corrosion resistance, making it a suitable alternative for certain applications, particularly those involving corrosive environments. 

Galvorn:

A new material developed by DexMat, Galvorn, is designed to be a copper alternative with steel-like strength and aluminum's lightness, potentially impacting various industries. 

Carbon Nanotubes:

Researchers at Stanford University and other institutions are exploring carbon nanotubes as potential copper alternatives in nanoelectronics, due to their high conductivity and ability to handle high current density. 

Niobium Phosphide:

Research from Stanford University has shown that niobium phosphide can be a better conductor than copper at very thin film thicknesses, especially for nanoelectronics applications. 

Gold:

While more expensive, gold's high conductivity and resistance to corrosion make it a preferred material for certain applications, such as high-end electronics and PCB manufacturing. 

Cobalt:

Springer notes that cobalt is being considered as a diffusion barrier layer and potential replacement for copper and tungsten in semiconductor interconnects.

Fiber Optics:

Fiber optics are gaining traction as a replacement for copper wires, particularly in telecommunications and high-speed data transmission, due to their high bandwidth and low loss. 

Graphene

Graphene can enhance or even potentially replace copper in applications requiring high electrical conductivity due to its superior electrical and thermal properties. Graphene-copper composites show increased electrical current capacity, improved thermal dissipation, and reduced temperature coefficient of resistance compared to pure copper. 

Elaboration:

Enhanced Electrical Conductivity:

Graphene's exceptional electrical conductivity, often exceeding that of copper, allows for the creation of composite materials with improved current carrying capacity. Studies have shown that graphene-copper composites can increase electrical current by 41% and current carrying capacity by 450% compared to pure copper. 

Improved Thermal Dissipation:

Graphene also exhibits high thermal conductivity, which can be harnessed to enhance the thermal dissipation of copper-based materials. This is particularly important in applications where heat generation is a concern, such as in electric vehicle motors. 

Reduced Temperature Coefficient of Resistance (TCR):

TCR measures how much the resistance of a material changes with temperature. Graphene-copper composites have been shown to have a lower TCR than pure copper, meaning their conductivity is less affected by temperature changes. This is beneficial in applications where temperature fluctuations are common, such as in electric vehicle motors and power distribution systems. 

Applications:

Graphene-copper composites are being explored for use in a variety of applications, including:Electric vehicle motors: The increased efficiency and reduced temperature coefficient of resistance can lead to more efficient and reliable motors. 

Power distribution systems: The enhanced conductivity and thermal dissipation properties can improve the overall efficiency and reliability of power distribution networks. 

High-frequency devices: Graphene's high electron mobility makes it suitable for use in high-frequency applications. 

Flexible electronics: Graphene's flexibility can be used to create flexible and bendable wires and cables for use in wearable electronics and other dynamic environments. 

Challenges:

While graphene offers significant advantages, there are still challenges to overcome for widespread adoption:Cost: The current cost of graphene is still relatively high compared to copper, which can be a barrier to adoption. 

Scalability: Producing large quantities of high-quality graphene at a cost-effective price is still an ongoing challenge. 

Interface issues: Ensuring a good interface between graphene and copper in the composite is important for achieving optimal performance. 

Graphene

Graphene can be produced through two main methods: top-down synthesis (exfoliation) and bottom-up synthesis (growth). Top-down methods involve peeling off thin layers from graphite, while bottom-up methods involve building graphene sheets atom by atom. 

1. Top-Down Synthesis (Exfoliation):

Mechanical Exfoliation:

This involves using adhesive tape to repeatedly peel off thin layers of graphite until a single-atom-thick graphene sheet is obtained, as demonstrated by Andre Geim and Konstantin Novoselov in 2004. 

Graphite Oxidation and Reduction:

Graphite can be oxidized with strong acids and then reduced to recover graphene. 

Corrosion in Molten Salts:

Graphite rods can be corroded in molten salts, which can produce graphene nanosheets with a high degree of crystallinity. 

2. Bottom-Up Synthesis (Growth):

Chemical Vapor Deposition (CVD):

This method involves heating a substrate (often copper foil) in a chamber filled with carbon-containing gases, allowing graphene to grow on the substrate. 

Epitaxial Growth:

Graphene can also be grown on silicon carbide wafers, where the silicon atoms sublimate and the remaining carbon forms graphene layers. 

Other Methods:

There are also methods using high-temperature carbon sources like soot or even coffee grounds to grow graphene, as shown in a video on YouTube. 

Key Considerations:

Scalability:

Developing efficient and scalable methods for producing graphene in large quantities remains a key challenge. 

Cost:

The cost of graphene can vary depending on the production method and quality. 

Quality:

The quality of graphene can vary depending on the synthesis method, with some methods producing high-quality, single-layer graphene while others may produce multi-layer or defective graphene. 

Examples of Bottom-Up Synthesis:

CVD on Copper:

A copper foil is heated in a methane-rich environment, causing methane to decompose and deposit carbon atoms on the copper, forming a graphene layer. 

Epitaxial Growth on SiC:

Silicon carbide (SiC) wafers are heated under high temperatures, causing silicon to sublimate and leaving behind graphene layers on the surface. 

Flash Graphene:

A recent method involves converting various carbon sources (like coal, coffee grounds, or tire waste) into high-quality graphene through a high-temperature process. 

ABUNDANCE 

Alternatives in abundance are requested then ways around & substitutes with minimal equivalence 

If you start a company or add a section to source & supply your looking at competing with local - regional & domestic then international options in raw material or repurposed supply

If you read through all the R&D rough draft notes of Dr Sydney N Bennett you can gather all supplies + materials required for any or all designs  

Creating an Air-Motor unlike EV Electric  Motor that competes with EV Electric or Hydraulic is a challenge to achieve equivalent horsepower & torque with payload requirements yet is possible to come close yet power - weight + reliability efforts to fit into different designs is of importance

Positive Energy Air Storage

Air in a coil
Air released through Pelton to Axel yet recirculated in a Pump back into the Air Coil
A source to create positive returns to release for use to recharge the air storage battery creating positive Energy

C/M ATV - Moto - Side-By-Side - Snowmobile + some Watercraft 

Loan Calculator + average cost on 90% of all models Canadian Dollars

3,000 - 10,000. 10k ceiling with 100-400 HP
5% interest average $0.00 down

$43 - 142 84 months
$57 - 189 60 months
$90 - 300 36 months

Registration (one time likely $75) - Insurance (average $15-125 or under $200 monthly or less) - Maintenance extra. Energy potentially metered or not. Trail or area access fees extra. Licensing extra 

Additive accessories & upgrades then aftermarket updates cost - price goes upward

Credit options if you can meet stretch loan default variables where credit is not negatively affected then registration, insurance & maintenance + safe use & storage with licencing practices while financing before ownership

Description. Content & details. Reminder in case you forgot the description. Audit problem & solution details in details section 

FIGHT JET REALITY - 2025

Looking at 250,000 - 750,000 at most on cost for a jet. Fight jet.

Maybe 1 million for premium above exterior rare materials. Throw in 40-60% to cover expenses. Under 8 million by a lot

Size. Capacity. Missiles + equipment affixed. Stealth one wing efforts 

Piston-Punch installed then... hypersonic + supersonic variables with no radioactive material for atmosphere - ground or air + water yet those "available" as a background deterrent to negotiate 

The 3 Wise Men. Global Energy

Thomas Edison - Nikola Tesla - Dr Sydney Nicolas Bennett

Endless Energy Achieved. Metered or not.

CIG