S.B.G - CIG Bio-Grown Batteries

 

S.B.G - CIG Bio-Grown Batteries 

SAFE GUARDS & A FUTURE

With safe guards to void fire & explosions then perpetual Energy Generators we have a full scalable working Stationary & Motion system that cna be metered if required 

Imagine a grown & break down cycle in perpetual battery effort for sustainable renewable Energy storage 

The 2050 Climate Zero Emissions Goals will be forwarded to 2030-2035 in 90-95% of all countries wih equal or better technological equivalence 

ARTIFICIAL INTELLIGENCE + BATTERIES 

Fungi + grown condictives & integration

AI is being used to accelerate the development of both biobatteries and alternative battery technologies, including lithium-ion battery alternatives. AI can rapidly screen materials, predict their properties, and optimize battery designs, significantly reducing the time and cost of research. 

Biobatteries:

• AI's Role:

AI is being used to discover new materials for biobatteries, predict their performance, and optimize designs for increased efficiency and longevity. 

• Microbial Biobatteries:

These batteries use electroactive microorganisms to generate electricity. AI can help identify the most efficient microorganisms, optimize their growth conditions, and design more effective biobattery architectures. 

• Enzymatic Biobatteries:

These batteries use enzymes to break down organic matter and generate electricity. AI can help identify and engineer enzymes with improved catalytic activity and stability. 

• Examples:

• Self-charging biobattery: Scientists in China have developed a biobattery using electroactive microorganisms that achieves high efficiency and self-charging capabilities. 

• Plug-and-play biobatteries: Binghamton University researchers have created biobatteries that can be easily connected for increased power output and can last for weeks. 

• Biodegradable biobattery: Researchers have developed a zinc-based biobattery using a biodegradable electrolyte made from crab shells. 

Alternative Battery Technologies:

• AI-driven Material Discovery:

Researchers at NJIT are using generative AI to identify new materials for multivalent-ion batteries, which could replace lithium-ion batteries. 

• Lithium-ion Battery Alternatives:

AI is helping to find cheaper, safer, and more sustainable alternatives to lithium-ion batteries by exploring elements like magnesium, calcium, aluminum, and zinc. 

• Examples:

• Porous transition metal oxide structures: AI has identified five new porous transition metal oxide structures with potential for next-generation batteries. 

• Novel battery materials: Microsoft and PNNL used AI to discover 500,000 stable materials that could be used in various applications, including batteries. 

• AI-powered Labs:

Google DeepMind used graph neural networks to predict the existence of hundreds of thousands of stable materials. Researchers are also developing AI-operated labs to autonomously produce new materials. 

WIRELESS MOTION ENERGY TRANSFER 

One safe contains agaisnt wireless jammer & a hypnotists watch makers dream

Aresearch team from Chiba University has developed a machine learning-based method to design Wireless Power Transfer systems that keep their output stable regardless of load changes. This property is also known as load-independent operation.

Wireless power transfer systems exist in smartphones, electric toothbrushes, and IoT sensors. They use electromagnetic fields to send electrical energy wirelessly, without using physical connectors; they have also been around since the days of Nikola Tesla.

The importance of load independence

Traditional WPT systems need inductors and capacitors to have precise component values in a bid to achieve stable operation. These values are usually driven from complex analytical equations based on idealized conditions.

Factors such as parasitic capacitance, manufacturing tolerances, and environmental conditions can negatively impact these calculations in real-world scenarios. This leads to unstable output voltage and loss of zero voltage switching (ZVS), regarded as a critical efficiency factor.
Load-independent operation can keep the ZVS and output voltage stable even when the load changes.

A novel solution using machine learning

Professor Hiroo Sekiya, leading the research team at Chiba University, has proposed a machine-learning-based design method for designing a WPT system with load-independent (LI) operation.
This approach describes the WPT circuit using differential equations that capture how voltages and currents evolve within the system. It takes into account real-world component characteristics for this purpose.
These equations are solved numerically, step by step, until the system reaches steady-state conditions. An evaluation function then scores the system’s performance on key metrics: output voltage stability, efficiency, and total harmonic distortion.

Then, a genetic algorithm adjusts circuit parameters to improve the score. This algorithm is a type of machine learning inspired by natural selection. The optimization cycle repeats until the system meets the LI operation requirements.

Putting the method to test

The researchers applied their design approach to a class-EF WPT system, which combines a class-EF inverter with a class-D rectifier. In a conventional setup, the class-EF inverter can maintain ZVS only at its rated operating point. Changing the load typically causes ZVS to fail and efficiency to drop.

The machine-learning designed LI system restricted voltage fluctuations to under 5 percent across different load variations. This figure is significantly low compared to the 18 percent fluctuation achieved in traditional systems.

It also managed ZVS and high efficiency successfully under different load conditions. delivering 23 watts of power with 86.7 percent efficiency at 6.78 MHz. The system’s performance improved even at light loads, thanks to accurate modeling of diode parasitic capacitance.

A detailed power-loss analysis revealed that the transmission coil’s losses remained nearly constant across different loads — a sign that the system kept output current steady, a key factor in efficiency.

A larger scope

Looking ahead, the researchers are positive that the implications of their work could easily extend beyond WPT.
“We are confident that the results of this research are a significant step toward a fully wireless society,” said Prof. Sekiya, describing his broad vision regarding WPT.
“Moreover, due to LI operation, the WPT system can be constructed simply, thereby reducing the cost and size. Our goal is to make WPT commonplace within the next 5 to 10 years,” he continued.

The research demonstrates how AI can help automate and optimize hardware design by combining accurate physical modeling with evolutionary algorithms.

https://interestingengineering.com/innovation/japan-wireless-power-transfer

POPLAR LIKE COTTON FABRIC TEXTILES

Cotton & Poplar Yields of S.B.G & CIG are known & expanding for different purpose 

A team of Swedish researchers is proposing poplar as an alternative to cotton. Their research aims at replacing cotton fibre for textiles with fibre for textiles from fast-growing poplars. Today, worldwide there are 34.5 million hectares of arable land fit for food crops currently devoted to cotton cultivation.

By substituting cotton fibres with poplar fibres, the researchers aim at reducing the demand for cotton fibres for textiles, and consequently reducing the need for cotton plantations.  

The primary benefit would be freeing-up millions of hectares of land currently devoted to cotton cultivation, that could be used for food crops, since poplar can be planted in marginal lands which are not apt for food crops.

The researchers are also studying a new extraction method for producing bio-oils that can be used to produce fuel from poplar wood: the entire tree would become useful.
Another advantage of this solution would be its contribution to the fight against climate change by increasing the dynamics of atmospheric carbon storage, allowed by the growth of poplars, as the researchers noted in the journal Joule.

Producing a ton of cotton requires 2,955 m3 of water. Growing cotton requires the use of large quantities of fertilisers and other treatment products which, when disposed of in the soil, cause eutrophication downstream.

Organically grown cotton, which uses less or no chemicals, is a solution, but it currently accounts for only 1% of global cotton production and, with lower yields, requires more land to produce.

This is partly the reason why there is a growing demand for more durable fibres such as viscose and lyocell, which are produced from wood cellulose. Poplars, which are fast-growing trees, are an interesting source of cellulose in several respects.

The aim of the research was to determine whether poplar fibres can substitute cotton for textile purposes while saving resources and optimising the use of arable land.

The method and the results

They began by analysing the available uncultivated ‘marginal’ land in Northern Europe that is suitable for poplar cultivation, focusing on countries within the Baltic Sea region, which includes parts of Sweden, Poland, Germany, Lithuania, Latvia, Estonia, Russia. and Denmark.

“Marginal” lands are those that are not designated as forest land and may be inaccessible or low-yielding due to their sandy soils and therefore not suitable for agriculture.

In these countries, they identified 4.6 million hectares of available marginal land, just under 3% of the total land area, where poplars could be grown without competing with agriculture.

They then modelled how much biomass poplars could produce in this area. The clones investigated were SnowTiger and OP24. They also explored the potential of a more efficient extractive method called “reduced catalytic cracking” to convert wood pulp into fibres and yarns.

Through this process, oil can also be extracted as a by-product of the 50% of the wood that normally remains after processing the cellulose to obtain fibre. This oil can be used to produce biofuel.

Using the growth data of the two varieties investigated, the team calculated that, on the area of marginal lands in the Baltic Sea countries, these trees could generate 2.4 tonnes per hectare of fibrous pulp each year.
Although the researchers focused their analysis on the Baltic countries, they estimated that across Europe there are 43 million hectares of marginal land that could be filled with poplar plantations. This could free up large tracts of land used for growing cotton that could be converted into arable land for production of food.

https://propopulus.eu/en/poplar-an-alternative-to-cotton/

A REFINED FINAL PRODUCT UNIT 

Materials of the Virsus of the Powassan ot just Hockey Skates. Instead. Hold the bug drop for invasive species 

Cotton + Poplar & reinforced treated renewables as plastic hard & softer compound alternatives with a zero emissions - zero cycle or close to standard 

We can even take from snowboard boot & binding modern & integrate a breathable liner with hold & heal hold plus a light weight shell then a foam density pad under for fatigue in ice skating or ice hockey then alternatives for exo-materials 

Sustainable grow a boot gently down the warehouse & good to go 

Hockey Skate Booties on Blade. Like Surf or Snow

Hockey skate boots are typically made of a combination of materials including thermo-moldable composites, plastics, and high-density foams for support and protection. The quarter package, which provides the main structure of the boot, is often made of thermo-moldable materials that can be heat-molded to the shape of the foot. The tongue can be made of felt or a more rigid composite material for protection and support. The blade is usually made of steel, with various coatings and treatments for durability and edge retention. 

1. Quarter Package:

• Thermo-moldable Composites:

These materials, often found in higher-end skates, allow for a custom fit by being heated and molded to the skater's foot shape. 

• High-Density Plastics:

These plastics provide structure and support to the skate, protecting the foot from impacts and providing a stable platform for skating. 

• X-Rib Pattern:

A design feature found in some Bauer skates, this pattern, often made of composite material, helps to reinforce the heel and ankle area for a secure fit. 

2. Tongue:

• Felt: Provides padding and comfort, often used on the inside of the tongue.

• Rigid Composites: Used on the exterior of the tongue for added protection against impacts and lace bite. 

3. Liner:

• Microfiber: A synthetic material that wicks away moisture and provides comfort.

• Clarino Leather: A synthetic leather alternative that is durable and water-resistant.

• Other materials: Skate liners can also be made from various other materials designed for comfort, moisture management, and durability. 

4. Footbed:

• Materials: The footbed provides a platform for the foot, protects against rivet heads, and helps to position the foot in a neutral stance. 

5. Tendon Guard:

• Rigid Materials: Protect the Achilles tendon from slashes and cuts. 

6. Blade:

• Steel:

Most commonly made of stainless steel, with some skates using titanium coatings or other alloys for enhanced performance. 

• Blade Holder:

Typically made of plastic or other durable materials, attaching the blade to the boot. 

7. Other Materials:

• Nylon: A durable material used in some skate constructions.

• Cements, stitching threads, and other synthetic materials: Used in the manufacturing process. 

FALLEN LEAVES + REPURPOSED TRIMMINGS

Fallen leaves can be repurposed in various ways, offering benefits for your garden and yard. They can be composted, used as mulch, or even crafted into art projects. Shredded leaves decompose faster and can be added to compost or used as a protective layer in gardens. They can also be used to insulate plants or create leaf mold, a soil amendment rich in nutrients. 

Here's a more detailed look at some repurposing options:

Composting: Leaves are a great source of carbon for compost piles. They break down slower than other materials like grass clippings, but still contribute valuable nutrients to the soil. 

Mulching: Shredded leaves can be used as mulch in flower beds, vegetable gardens, and around trees and shrubs. This helps retain moisture, moderate soil temperature, prevent weed growth, and add nutrients to the soil. 

Leaf Mold: Leaving leaves to decompose naturally, either in a pile or a bin, creates leaf mold. This process takes longer but results in a nutrient-rich soil amendment that improves soil structure and water retention. 

Art Projects: Leaves can be used for various artistic endeavors, such as decoupage, wreaths, centerpieces, or even as stuffing for scarecrows or other decorative figures. 

Other Uses:

• Insulating plants:

A layer of leaves can protect tender perennials and root vegetables from harsh winter conditions. 

• Creating habitats:

Leaving some leaves in undisturbed areas can provide shelter for beneficial insects and other wildlife. 

• Soil amendment:

Leaf mold or composted leaves can be added to garden soil to improve its fertility and structure. 

• Treated leafs:

Treated leafs like treated fabric munched in a vat can produce a create composite with fast grown liquid substances that harden which create a solid from a decomposition & permanently preserved 

This is an attractive effort like others for leaf pick up & process Yields as leading is big industry annually from indoor & outdoor efforts

Leaf sand dust bits like rock sand dust bits or synthetic bio sands which are environmentally sustainable & safe for environment & health allow us to work in solid preserved efforts once the leafs are grind down while a fast-grown preservation hardening substance preserves creating substance like a brick or board like plastics

Leafing could become a integral part of our way of manufacturing utilizing grown bio efforts 

Everyone including companies & communities can learn the leafing industry like sewage to hydrogen & air - water zero emissions catalyst effort 

SMELTING AND REFINING 

Smelting and Refining utilizing the S.B.G & CIG Silo-Farmed effort for Zero Emissions or close to then Electrolysis grown effect to increase finished Yeilds we use a hybrid traditional & modern process with electricity 

After mining, copper is produced by one of two process routes, pyrometallurgical (dry) or hydrometallurgical (wet). Smelting is a process of heating and melting ore to extract a metal like copper. Refining refers to any process that increases the grade or purity of the metal.

Copper is primarily made through mining copper-bearing ores and then processing them through pyrometallurgy (smelting) or hydrometallurgy (leaching and solvent extraction). The extracted copper undergoes further refining to achieve the desired purity, often resulting in copper cathodes. 
Here's a more detailed breakdown:

1. Mining:

• Copper is extracted from the earth's crust, typically in the form of copper ores. 

• Open-pit mining is the most common method due to the dispersed nature of copper deposits. 

• The mined ore is then transported to a processing plant. 

2. Processing:

• Pyrometallurgy (Smelting):

• The ore is crushed and then concentrated, often through froth flotation, to separate the copper-bearing minerals. 

• The concentrate is smelted in a furnace to separate the copper from other materials. 

• The resulting molten copper is further refined through processes like converting and fire refining to remove impurities. 

• Hydrometallurgy (Leaching and Solvent Extraction):

• This method is often used for copper oxide ores, which are leached with an acid solution to dissolve the copper. 

• The copper-rich solution is then processed through solvent extraction and electrowinning to recover the copper. 

3. Refining:

• Electrolytic Refining:

This process uses an electric current to further purify the copper, resulting in high-purity copper cathodes (typically 99.99% pure). 

• Fire Refining:

This process involves melting the copper and removing impurities through oxidation. 

4. Further Processing:

• The refined copper can be further processed into various shapes and forms, such as rods, wires, or sheets. 

• Copper is used in a wide range of applications, including electrical wiring, plumbing, and construction. 

WOOD FOR AIR COMPRESSION NO YET

Reinforced barrels & sealing can work 

Wood itself is not used in the construction or operation of an air compressor. Air compressors are typically made of metal (like aluminum or cast iron) for their strength and durability, or plastic for some components. Wood is used in some woodworking applications where compressed air is needed, such as powering tools like nail guns or sprayers, or for conveying wood chips. 

Here's a more detailed breakdown:

Air Compressor Construction:

• Metals:

Air compressors rely on durable materials like aluminum and cast iron for their housings, tanks, and critical internal components.

• Internal Parts:

These include motors, pumps, lubrication systems, valves, and pressure gauges, all typically made from metal. 

Woodworking Applications of Air Compressors:

• Powering Tools:

Air compressors are essential in woodworking for powering pneumatic tools like nail guns, drills, sanders, and sprayers used in various stages of furniture and cabinetry manufacturing. 

• Material Handling:

In sawmills, compressed air is used to move and sort logs, and in some cases, to power log-kickers. 

• Dust Collection:

Compressed air is used to pulse dust off filters in dust collection systems, improving their efficiency and longevity. 

• Pneumatic Conveying:

Air compressors can also be used to move wood chips and sawdust within a facility, such as from a sawmill to a dryer or furnace. 

• Finishing:

Compressed air is used in spray guns for applying finishes like paint and lacquer, often providing a smoother, more even coat than traditional methods. 

For air compressor systems, Acrylonitrile Butadiene Styrene (ABS), Polyethylene (PE), and High-Density Polyethylene (HDPE) are suitable plastic materials. These plastics offer benefits like corrosion resistance, lightweight design, and ease of installation. While PVC is sometimes used for air hoses, it's generally not recommended for compressed air piping due to potential brittleness and safety concerns. 

Elaboration:

• ABS, PE, and HDPE:

These plastics are known for their durability and resistance to degradation from oils and lubricants, making them suitable for compressed air applications. 

• Benefits of plastic piping:

Plastic pipes offer advantages like corrosion resistance, smooth interior surfaces for efficient airflow (laminar flow), and ease of installation (no welding required). 

• PVC in compressed air systems:

While PVC is a common plastic, it's generally not recommended for compressed air piping because it can become brittle and prone to bursting under pressure, especially over time. OSHA also has regulations regarding the use of PVC in compressed air systems. 

• Air hoses:

PVC is sometimes used for air hoses, but polyurethane is a more durable and flexible option. 

• Other plastic materials:

Other plastics like PEX are also sometimes used for compressed air systems, but it's important to choose a material suitable for the specific pressure and temperature requirements. 

• Metal pipes:

While metal pipes (like black steel or galvanized steel) are commonly used, plastic alternatives offer advantages in terms of weight, corrosion resistance, and ease of installation. 

PVC pipe is not recommended for compressed air systems due to the risk of explosion and potential for injury. While it may seem like a cheap and easy solution, PVC is not designed to handle the pressure and potential impact of compressed air. When compressed air is stored in PVC pipes, the pipe can swell and burst under pressure, sending shrapnel outwards. 

Here's why PVC is a poor choice for compressed air systems:

• Not designed for high pressure:

PVC is primarily designed for low-pressure applications like water drainage. 

• Compressibility of air:

Unlike liquids, compressed air can store a lot of energy, and when released suddenly from a burst PVC pipe, it can cause significant damage. 

• Material degradation:

PVC deteriorates over time, becoming brittle and more susceptible to leaks and explosions. 

• Safety concerns:

The risk of injury from flying debris in case of a burst is very high. 

• OSHA regulations:

OSHA (Occupational Safety and Health Administration) prohibits the use of PVC for compressed air and gas transportation. 

Alternatives to PVC:

For safe and reliable compressed air systems, consider using materials like:

• Aluminum pipework: Provides structural strength, light weight, and corrosion resistance, according to Atlas Copco. 

• Copper piping: A durable and reliable option, especially for industrial applications. 

• PEX tubing: Flexible and suitable for various compressed air needs. 

• Black iron pipe: Another strong and reliable option. 

When designing a compressed air system, prioritize safety and choose appropriate materials that can withstand the pressures and conditions of compressed air. 

Batteries with no consciousness 

Mould Making Tutotrials 

https://m.youtube.com/watch?v=FQ1A7ZjTsx8

Azempic Alternatives 

https://www.sciencealert.com/scientists-may-have-identified-a-natural-alternative-to-ozempic

Frequency 

https://www.earth.com/news/human-brain-map-shows-how-rhythms-instantly-reconfigure-your-mind-freq-ness/

CIG