Silver is the World’s #1 metal for transmitting energy because:
High Energy Density and Power Output
Silver zinc and silver oxide batteries boast impressive energy density, delivering more power in a smaller, lighter package compared to many other battery types.
This high energy-to-weight ratio is crucial for aerospace and space applications where every gram matters. Silver zinc batteries can provide up to 40% more run time than lithium-ion batteries in some configurations.
Stable Voltage and Flat Discharge Curve
These batteries maintain a stable operating voltage throughout their discharge cycle, providing a consistent power output until nearly all capacity is depleted.
This flat discharge curve is essential for applications requiring precise and reliable power delivery, such as spacecraft systems and sensitive electronic equipment.
Exceptional Conductivity
Silver is one of the most conductive metals, allowing for efficient energy transfer within the battery.
The use of silver wire mesh in the battery construction further enhances this conductivity, enabling rapid charge and discharge rates. This property is particularly beneficial for high-drain applications like torpedoes and spacecraft maneuvering systems.
High Current Discharge Capability
Silver zinc batteries can be discharged at extremely high rates, making them ideal for applications requiring sudden bursts of power.
This characteristic is crucial for missile launches, spacecraft thrusters, and other systems that demand rapid energy release.
Reliability and Safety
These batteries have a proven track record of reliability in critical applications, including space missions and military operations.
They are also considered safe, with no recorded instances of causing serious accidents in their long history of use.
Performance in Extreme Conditions
Silver zinc and silver oxide batteries perform well in a wide range of temperatures and harsh environments, making them suitable for space applications and deep-sea operations.
Their rugged nature allows them to withstand the demanding conditions of rocket launches and spacecraft operations.
Long Shelf Life and Cycle Life
Under proper storage conditions, these batteries can maintain their charge for several years.
In rechargeable configurations, silver zinc batteries can provide hundreds of charge/discharge cycles under ideal operating conditions.
Exceptional Corrosion Resistance
Silver's remarkable resistance to corrosion is a key factor in the longevity and reliability of silver zinc and silver oxide batteries. This property significantly enhances their performance and durability, especially in challenging environments.
Chemical Stability
Silver is highly resistant to oxidation and corrosion, even in harsh conditions. This stability ensures that the battery components maintain their integrity over time, preventing degradation that could compromise performance.
Seawater Resistance
The anti-corrosion properties of silver make these batteries particularly suitable for marine applications, including torpedoes and underwater vehicles. Silver's resistance to saltwater corrosion ensures consistent performance in maritime environments.
Aerospace Durability
In aerospace applications, where batteries may be exposed to extreme temperature fluctuations and various atmospheric conditions, silver's corrosion resistance helps maintain battery integrity and performance over extended periods.
Long-Term Reliability
The anti-corrosion properties contribute to the long shelf life and operational lifespan of silver-based batteries. This is crucial for applications like space probes or long-term satellite missions, where battery replacement is not an option.
Minimal Maintenance Requirements
Due to their resistance to corrosion, silver zinc and silver oxide batteries often require less maintenance compared to other battery types, making them ideal for use in remote or inaccessible locations.
This corrosion resistance, combined with silver's other superior properties, further solidifies the position of silver-based batteries as excellent choices for high-performance applications in aerospace, marine environments, and other demanding settings where reliability and longevity are paramount.
I watched this movie when I was a kid and just recently I learned that 20,000 Leagues Under the Sea refers to the distance traveled while under the sea, not the depth.
Makes sense, right, since 20,000 leagues is almost 70,000 miles, and the diameter of the Earth at the equator is not even 8,000 miles, and the maximum depth of any ocean is 6.8 miles.
So, someone being 20,000 leagues under the see would actually have gone through the Earth, and would be about 1/4 of the way to the Moon.
What does this have to do with Silver?
Well all submarines and torpedoes must use silver batteries because once submerged you can’t switch out the batteries like popping them in a flashlight and scan through all the performance characteristics above, we just wrote:
Silver zinc batteries provide up to 40% more run time than lithium-ion batteries
Silver's remarkable resistance to corrosion is a key factor in the longevity and reliability of silver zinc and silver oxide batteries.
Superior in challenging environments (Jules Verne and Disney film makers considered 20,000 leagues under water challenging and we agree - LOL)
Seawater resistance
Really, all of the characteristics listed above
Mars missions are planned by various countries and space agencies in the coming years:
ESCAPADE (NASA): Set to launch in 2024, this mission consists of twin Mars orbiters to study how Mars' atmosphere has been stripped away over time.
MMX (Japan): Japan's Martian Moons eXploration mission is scheduled to launch in 2026 to study Mars' moons and return samples from Phobos to Earth in 2031.
Mars Sample Return (International project): This is an ongoing multi-mission effort to return samples collected by the Perseverance rover to Earth.
China Mars Sample Return: China is planning to launch a series of missions in 2030 to return a sample from Mars.
ExoMars Rosalind Franklin rover (ESA): This European mission, originally planned for an earlier launch, is still in development to search for signs of life on Mars.
Future NASA missions: While not specifically mentioned in the search results, NASA has plans for future Mars missions as part of its long-term exploration strategy.
Potential Indian missions: While not explicitly stated in the search results, India may be considering follow-up missions to its Mars Orbiter Mission.
SpaceX plans: Although not government-sponsored, SpaceX has expressed intentions for Mars missions, though specific timelines are not provided in the search results.
For every 2 lithium batteries count on 10 Silver Batteries
for the same reason we listed Silver as reliable under sea (same true in space)
The 4 main type of Silver batteries (not in any order)
Silver Zinc
Silver Oxide
Silver Aluminum
Silver Magnesium
Silver-Based Battery Technologies: Powering the Future
In the realm of advanced energy storage solutions, silver-based batteries are emerging as powerful contenders. This article explores four innovative silver battery types and their unique performance characteristics.
Silver Zinc Batteries offer high energy density, low self-discharge rates, and excellent performance in extreme temperatures. They boast a specific energy of 130-180 Wh/kg and a power density of 200-250 W/kg.
Silver Oxide Batteries are known for their long shelf life, stable voltage output, and high capacity-to-volume ratio. These batteries typically have a specific energy of 130-150 Wh/kg and can operate effectively in a wide temperature range.
Silver Aluminum Batteries showcase promising potential with their high theoretical energy density, rapid charging capabilities, and cost-effectiveness. While still in development, they aim to achieve specific energies exceeding 300 Wh/kg.
Silver Magnesium Batteries are being researched for their potential to offer high energy density, improved safety, and lower costs compared to lithium-ion batteries. Early prototypes have demonstrated specific energies of up to 250 Wh/kg. Each of these silver-based battery technologies presents unique advantages, paving the way for more efficient and powerful energy storage solutions in various applications.
Thought Experiment for one submarine
How much silver goes into a Silver Battery?
About 2-4g for each Ampere-hour.
Lets do the math for the USS Albacore.
Remember that the Silver Institute and Jeff Christian both say the military doesn’t use that much silver
Perhaps this is because their clients don’t want high silver prices.
They don’t want to pass the cost to the war profiteers obsessed with profit to feed the exorbitant payroll of the military industrial complex (welfare for the wealthy)
Remember our thesis is that silver users want low factory inputs.
And every time we get into the facts we are right and we expose why they had and have to rig it for decades.