S.B.G & CIG - Palletization
PALLETIZATION
WOODEN VERSUS COMPOSITE
Wooden 48" X 40" 2500-4600lbs
22-41 - 7 kWh Batteries can fit can fit per pallet based on weight
Over 100 Million pre-sold for 2026 separate from other physical not digital product unit sales within M.D.E - C/M which includes design royalty to Dr Sydney Nicola Bennett
https://2026sydpersonal.blogspot.com/2025/08/mde-cm-2026-pricing.html
Plastic or Composite 48" X 40" 5000-30,000lbs
45-272 - 7 kWh Batteries can fit per pallet based on weight
Over 100 Million pre-sold for 2026 separate from other physical not digital product unit sales within M.D.E - C/M which includes design royalty to Dr Sydney Nicola Bennett
https://2026sydpersonal.blogspot.com/2025/08/mde-cm-2026-pricing.html
This does not include Wind Tunnels, Rechargers or connectors & Digital additives & extras or Motors
BULK PIRCHASE + INTERNAL
Lithium or alternatives were bought at $115-120 on the 1 kWh for over 100 Million orders. Total costs are over $900 per Battery a result yet under $1500 Canadian per unit
900.00 US Dollar = 1,252.2253 Canadian
Dollar
1 USD = 1.39136 CAD. 1 CAD = 0.718721 USD August 2025
These Batterries accomplish a 15 year equivalent to a $10,000 - $20,000 Battery at under $1500 Canadian Dollars & profit Yields are smaller for S.B.G & CIG which earn more in other areas
We expect costs to drop below $90 & sustain between $25-90
$130-160 Billion Canadian Order in Batteries with a profit of $2.5-9 Billion or slightly more backed by S.B.G & CIG
Equivalent Industry Battery at 100 kWh are between 1000-1200lbs to achieve less in Km at around 500 Km on a charge while M.D.E - C/M are Unlimited Range with the same life cycle yet only 110lbs or less & packaged smaller
M.D.E - C/M expects to sell around 1.5 Billion of the Batteries in different sizes which will likely not even affect other Battery development
End User Price: $1489.99
Battery Main Material: 1210 (Lithium or Alternative)
Remaining components $279.99
Profit covering expenses $40-100 or within after expenses
875.00 US Dollar = 1,209.37 Canadian Dollar
1 USD = 1.38213 CAD
1 CAD = 0.723519 USD
Here's a more detailed look at each component:
• Cathode:
Lithium or Alternative
The positive electrode, often made of lithium metal oxides (like lithium-cobalt oxide) or phosphates, is the source of lithium ions during discharge.
• Anode:
Undisclosed
The negative electrode, typically graphite, stores lithium ions during charging.
• Electrolyte:
Undisclosed
A liquid or gel that conducts lithium ions between the cathode and anode, enabling the flow of electrical current.
• Separator:
Undisclosed
A porous membrane that physically separates the cathode and anode, preventing direct contact while allowing lithium ions to pass through.
• Switch-Backs:
Aluminum or Stainless Steel
• Exterior Casing:
Composites
• Interior Casing:
Corkboard wrapping
How it works:
• 1. Charging:
Lithium ions move from the cathode, through the electrolyte and separator, to the anode, where they are stored.
• 2. Discharging:
The process reverses, with lithium ions moving back from the anode to the cathode, releasing electrons that create the electric current to power the vehicle.
Standard size. Scale down ro up. Custom Sizing Retrofit Kits
Wind Tunnel
$2500-$10,000+
Lower Profit Yields under dual 80%
BATEERY COMPONENTS
1. 7 Tablet Battery
Standard size. Scale down or up. Custom Sizing Retrofit Kits
$1500
Lower Profit Yields under dual 80%
2. Recharger
Standard size. Scale down or up. Custom Sizing Retrofit Kits
$700-1500
Regular Profit Yields at 80% - 120%
3. Box Containers
Standard size. Scale down or up. Custom Sizing Retrofit Kits
$150-300
Regular Profit Yields at 80% - 120%
4. Brushless Motors
Standard size. Scale down or up. Custom Sizing Retrofit Kits
$250-$1500
Regular Profit Yields at 80% - 120%
B. Coldstart Pack
C. Wiring Lines + Monitoring with Emergency Safety System & Digital - Manual Override
Design + Manufacturing = 40-60% Profit Yield then Retail & Maintenance = 40-60% Profit Yield as Standard above usual expenses then delivery or freight & PDI separate
UNITED STATES ORDERS
USA orders are built on US Soil with domestic first resources separate from European - International adjusting to tariffs to meet "best end user price" options
MAXIMUM WEIGHTS - PALLETS
The maximum weight a pallet can hold varies significantly based on its material, design, and condition, but a standard 48" x 40" wooden pallet can hold around 2,500 to 4,600 lbs, with plastic pallets potentially supporting much more, ranging from about 5,000 lbs dynamically to 30,000 lbs at rest. Always check the specific pallet's specifications and consider the weight of your contents, packaging, and handling equipment to avoid damage, accidents, and costly repairs.
Factors influencing pallet weight capacity
• Material:
Plastic pallets generally have a higher load capacity than wood, but quality varies.
• Design & Construction:
The number of stringers (the boards supporting the deck), the presence of a bottom deck, and the type of block or stringer construction all affect strength.
• Condition:
Wood pallets, in particular, can degrade over time, reducing their capacity.
• Stiffness:
Pallets with higher stiffness (like wood or metal) are less affected by long-term deflection than low-stiffness pallets (like plastic or cardboard).
• Dynamic vs. Static Load:
The term for load capacity at rest (static) is different from that during transport (dynamic), which is typically lower.
• Weight Distribution:
Proper weight distribution is crucial for stability, as a lower center of gravity increases stability and reduces the risk of accidents.
How to find a specific pallet's weight limit
• Check specifications:
Look for markings, manufacturer information, or data sheets for your specific pallet model.
• Use a pallet design system:
Some companies, like Greenway Products & Services, use computer-generated reports to provide precise weight capacity for a given design.
• Contact the supplier:
Your pallet supplier can provide the load capacity for the specific type of pallet you are using.
BATTERY DEGRADATION MANAGEMENT
How the 7 Tablet Switch-Backs cycle utilizing mechanical & manual override with the digital Emergency Safety System allows is to vobtrol cycles to void degradation increasing life spans
There isn't such a thing as a perfectly "non-degrading" lithium-ion battery, but certain chemistries and management practices significantly reduce degradation, such as using lithium iron phosphate (LFP) batteries and maintaining a charge level between 20% and 80%. Other techniques include avoiding extreme temperatures by using thermal management systems, limiting deep discharges and full charges, and designing with a lower capacity in mind to account for inevitable aging.
Factors Contributing to Lithium-Ion Battery Degradation
• Cycling:
Repeatedly charging and discharging the battery causes stress on its internal chemistry.
• Temperature:
High temperatures accelerate degradation by increasing chemical reactions and promoting issues like particle fracturing.
• Overcharging and Deep Discharging:
Charging to 100% or draining to 0% puts significant stress on the battery's components.
• Aging (Calendar Aging):
Even without cycling, the chemical components within the battery naturally degrade over time.
How to Slow Down Degradation
• Smart Charging Habits:
• Keep the charge level between 20% and 80% to avoid the stress of full charge and deep discharge cycles.
• Avoid fast charging whenever possible, as it can create high temperatures and cause internal damage.
• Use level-one or level-two charging, which is generally less stressful than faster options.
• Manage Temperature:
A proper thermal management system minimizes degradation by preventing high temperatures, according to Zitara Technologies.
• Battery Chemistry:
• Lithium Iron Phosphate (LFP) batteries are known for their long cycle life and good thermal stability, making them a more degradation-resilient option.
• Some experimental technologies, like certain all-solid-state batteries, show promise in reducing degradation, though they are still under development.
• Design for Longevity:
• Oversize the battery when designing a system so that it can deliver the required energy even after some inevitable capacity loss.
• Use model-based degradation models to monitor and adapt battery performance over time.
What This Means in Practice
While you can't completely prevent degradation, adopting these practices can significantly prolong the life of a lithium-ion battery. For example, instead of a technology with rapid failure, you might find that LFP batteries are more suited to your needs if longevity is a priority over maximum energy density.
S.B.G & CIG - Palletization
Everything Dr Sydney Nicola Bennett is working on benefits the next generations. Ones own DNa children & grand children then so on while enjoying a quality of life before succession
BATTERY BREAKTHROUGHS
Battery breakthrough could transform electric car performance and range
Researchers in China claim to have achieved a significant breakthrough in lithium battery technology, doubling the energy density (the amount of energy a battery can store relative to its size and weight) of Tesla's most advanced batteries.
Lithium batteries are a crucial component for electric vehicles due to their high energy density, which allows them to store a large amount of energy in a relatively compact, lightweight package. This is essential for achieving a long driving range on a single charge.
Currently, Tesla's best batteries have an energy density of about 300 watt-hours per kilogram, while the battery developed by researchers at Tianjin University has an energy density of more than 600 watt-hours per kilogram. The greater the energy density, the smaller and lighter a battery can be, which can ultimately improve a vehicle's range and performance.
Overcoming the limitations of lithium batteries
One of the problems with the current generation of lithium batteries is the liquid inside them, called the electrolyte, through which lithium ions travel. The issue is that the electrolyte can become "clogged" as each lithium ion is surrounded by others, creating a rigid, organized structure that limits the battery's efficiency, stability and performance.
Presenting their findings in the journal Nature, the Chinese researchers describe a novel solution. They created a new electrolyte with a more disorganized structure that allows the ions to move more freely.
"The delocalized electrolyte design overcomes the intrinsic constraints of conventional electrolytes by inducing a highly disordered solvation microenvironment, effectively reducing dynamic barriers, stabilizing interphases and offering substantial potential for transformative advances in battery performance," wrote the researchers.
When they tested their new battery, it achieved impressive energy densities of 604.2 watt-hours per kilogram. It also remained stable for more than 100 charging and discharging cycles. Additionally, the electrolyte didn't ignite under open flame and worked at -60°C without freezing.
Currently, the battery is proof-of-concept and is not yet ready for mass production. While it has shown promising results in controlled laboratory conditions, its performance and safety will need to be extensively tested in the real world.
If the new battery can eventually be scaled up, the potential is enormous. Lighter, longer-lasting batteries in electric vehicles would significantly increase their range and reduce the amount of time spent charging. There are also applications beyond electric cars, such as improving energy storage for renewable power grids and creating safer, higher-capacity batteries for a range of consumer electronics.
https://techxplore.com/news/2025-08-battery-breakthrough-electric-car-range.html
Researchers create triple-layer lithium battery resistant to fire and explosion
A research team has developed a lithium metal battery using a triple-layer solid polymer electrolyte that offers greatly enhanced fire safety and an extended lifespan. This research holds promise for diverse applications, including in electric vehicles and large-scale energy storage systems. The research is published in the journal Small.
Conventional solid polymer electrolyte batteries perform poorly due to structural limitations which hinder an optimal electrode contact. This could not eliminate the issue of dendrites either, where lithium grows in tree-like structures during repeated charging and discharging cycles. Dendrites are a critical issue, as an irregular lithium growth can disrupt battery connections, potentially causing fires and explosions.
The research team, therefore, developed a triple-layer structure for the electrolyte to address such issues. Each layer serves a distinct function, significantly enhancing the battery's safety and efficiency. This electrolyte incorporates decabromodiphenyl ethane (DBDPE) to prevent fires, zeolite to enhance the electrolyte's strength, and a high concentration of a lithium salt, lithium bis (trifluoromethanesulfonyl) imide) (LiTFSI), to facilitate a rapid movement of lithium ions.
The triple-layer solid electrolyte features a robust middle layer that boosts the battery's mechanical strength, while its soft outer surface ensures an excellent electrode contact, facilitating an easy movement of lithium ions. This enables a faster movement of lithium ions, enhancing energy transfer rates and preventing dendrite formation effectively.
The experiment showed that the battery developed by the research team retained about 87.9% of its performance after 1,000 charging and discharging cycles, demonstrating a notable improvement in durability compared with traditional batteries, which typically maintain 70–80% of their performance.
It can also extinguish itself in a fire, thus significantly reducing the fire risk. This battery is expected to be applicable across various sectors, ranging from small devices like smartphones and wearables to electric vehicles and large-scale energy storage systems.
Dr. Kim stated, "This research is anticipated to make a significant contribution to the commercialization of lithium metal batteries using [solid polymer] electrolytes, while providing enhanced stability and efficiency [to] energy storage devices."
Reference
https://techxplore.com/news/2024-12-triple-layer-lithium-battery-resistant.html
https://www.livescience.com/technology/your-gadgets-could-soon-be-battery-free-thanks-to-new-solar-cells-powered-by-indoor-light
NATURAL GAS EMISSIONS
Natural gas emissions primarily include carbon dioxide (CO2) and methane (CH4), with methane being a significantly more potent greenhouse gas over a shorter timeframe. While natural gas combustion produces fewer conventional air pollutants and less CO2 than coal or oil, methane leaks during extraction and transportation can diminish these benefits. Methane is a major contributor to climate change, and its emissions from the natural gas industry are a significant concern.
Here's a more detailed breakdown:
1. Greenhouse Gas Emissions:
• Methane (CH4):
A highly potent greenhouse gas, responsible for a large portion of the natural gas industry's overall climate impact.
• Carbon Dioxide (CO2):
Produced when natural gas is burned, but generally in lower quantities than coal or oil for the same energy output, according to the U.S. Energy Information Administration (EIA).
2. Air Pollutants:
• Nitrogen Oxides (NOx), Carbon Monoxide (CO), Sulfur Dioxide (SO2), Particulate Matter (PM), Volatile Organic Compounds (VOCs): These are also emitted during natural gas combustion, though generally at lower levels than with other fossil fuels.
3. Methane Leaks:
• Supply Chain:
Methane can leak from various points in the natural gas supply chain, including oil and gas wells, pipelines, processing plants, and storage facilities, according to the U.S. Energy Information Administration (EIA).
• Detection and Mitigation:
Detecting and repairing these leaks is crucial for reducing the overall climate impact of natural gas.
4. Natural Gas vs. Other Fossil Fuels:
• Cleaner Burning:
Natural gas combustion generally produces fewer air pollutants and less CO2 than coal or oil for the same energy output.
• Methane Leakage Impact:
However, fugitive methane emissions can negate some of these advantages, making the overall climate impact of natural gas a subject of ongoing research and debate, according to the UNEP - UN Environment Programme.
5. Natural Gas Sector's Contribution to GHG Emissions:
• In Canada, the oil and gas sector is a major contributor to greenhouse gas emissions, according to Canada.ca.
• In the U.S., methane emissions from natural gas and petroleum systems are a significant portion of overall methane and greenhouse gas emissions.
FOSSIL FUELS
Fossil fuel emissions result from burning coal, oil, and natural gas, which releases greenhouse gases like carbon dioxide (CO2) and methane (CH4) into the atmosphere, trapping heat and causing global warming and climate change. The largest sources include coal-fired power stations and the oil and gas sector, which contribute significantly to the rise in atmospheric CO2 concentration and pose threats to ecosystems and human societies.
How Fossil Fuel Emissions Occur
• Burning for energy:
When coal, oil, or natural gas are combusted to generate electricity or power transportation, they release greenhouse gases.
• Industry and transport:
Fossil fuels are central to many industrial processes and are the primary fuel for most vehicles, leading to substantial emissions.
• Extraction and processing:
The oil and gas sector itself also releases greenhouse gases during the extraction and transportation of these fuels.
Key Greenhouse Gases
• Carbon Dioxide (CO2): The most significant greenhouse gas from burning fossil fuels.
• Methane (CH4): A potent greenhouse gas released during the production and transport of coal, oil, and gas.
Impacts of Fossil Fuel Emissions
• Global Warming and Climate Change:
Greenhouse gases trap heat, leading to rising global temperatures, changing weather patterns, and sea level rise.
• Ocean Acidification:
A portion of the CO2 emitted from fossil fuels is absorbed by the oceans, changing their chemistry and threatening marine life.
• Risks to ecosystems and human health:
Climate change impacts human societies, agriculture, and the balance of nature, with significant risks to all life on Earth.
GASOLINE EMISSIONS
Gasoline emissions are pollutants released when gasoline is burned in engines, primarily comprising carbon dioxide (CO2), a significant greenhouse gas contributing to climate change. Other harmful emissions include carbon monoxide (CO), nitrogen oxides (NOx), and unburned hydrocarbons. Evaporation of gasoline also contributes to air pollution. The carbon in gasoline reacts with oxygen during combustion, and because oxygen is heavier than carbon, the weight of the carbon dioxide produced is significantly greater than the weight of the gasoline burned.
Key Gasoline Emissions
• Carbon Dioxide (CO2): The most significant emission from gasoline combustion, a potent greenhouse gas that traps heat in the atmosphere, driving climate change.
• Carbon Monoxide (CO): A toxic gas that can form when gasoline combustion is incomplete.
• Nitrogen Oxides (NOx): A group of gases that contribute to smog formation and air pollution.
• Unburned Hydrocarbons: Also known as volatile organic compounds (VOCs), these contribute to air pollution and smog when they evaporate from fuel or are not completely burned.
Why the CO2 weight increases
• Chemistry:
Gasoline is made of hydrocarbons, which contain carbon (C) and hydrogen (H).
• Combustion:
During burning, the carbon from the gasoline combines with oxygen (O2) from the air to create carbon dioxide (CO2).
• Weight Gain:
Because CO2 molecules contain two oxygen atoms and the molecular weight of oxygen is greater than that of carbon, the mass of the resulting CO2 is significantly heavier than the carbon that was in the fuel.
Impacts
• Climate Change:
The release of CO2 and other greenhouse gases from gasoline vehicles contributes to the warming of the Earth's atmosphere.
• Air Pollution:
Emissions of CO, NOx, and hydrocarbons contribute to smog and negatively impact air quality.
DIESEL EMISSIONS
Diesel emissions include pollutants like particulate matter, nitrogen oxides, carbon monoxide, sulfur oxides, and hydrocarbons such as polycyclic aromatic hydrocarbons (PAHs). These emissions are harmful, with exposure linked to respiratory issues like asthma and chronic obstructive pulmonary disease (COPD), increased risk of cancer, and cardiovascular problems. Diesel exhaust can also contribute to the formation of smog (ground-level ozone) which further harms lung health.
What are diesel emissions?
Diesel engines release a complex mixture of gases and fine particles, commonly called diesel exhaust (DE). Key components include:
• Particulate Matter: Visible dark smoke or soot, composed of elemental and organic carbon.
• Gases:
• Nitrogen Oxides (NOx): Contribute to smog and respiratory irritation.
• Carbon Monoxide (CO) and Carbon Dioxide (CO2): Greenhouse gases and air pollutants.
• Sulfur Oxides (SOx): Contribute to air pollution.
• Hydrocarbons: Including volatile organic compounds (VOCs) and PAHs, some of which are known carcinogens.
Health Impacts
Exposure to diesel emissions is linked to significant health problems, with some contaminants having no safe level of exposure:
• Respiratory Illnesses: Increased inflammation, asthma, and COPD, along with reduced lung capacity.
• Cancer: Diesel exhaust is classified as a carcinogen, increasing cancer risk.
• Cardiovascular Issues: Ultrafine particles can enter the bloodstream, leading to increased blood clotting and cardiovascular disease.
• Acute Symptoms: Causes coughing, throat irritation, and difficulty breathing.
Environmental Impacts
Diesel emissions contribute to air pollution in several ways:
• Smog Formation: Nitrogen oxides react with other pollutants and sunlight to form harmful ground-level ozone (smog).
• Reduced Air Quality: Contributes to overall air pollution, especially in urban areas.
Diesel PM emissions from filter-equipped engines are composed mostly of sulfates and organic compounds, with a very small fraction of carbonaceous soot. Semi-volatile organic material and sulfates are also the major components of PM emissions from gasoline engines.
S.B.G & CIG
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