Mixing Hyperdense-Nanobubble with coolant for metalworking and other cutting processes lowers cutting resistance and greatly improves cooling efficiency.

Coolant wettability is greatly improved.

Cutting efficiency (time efficiency, etc.) improves by 20-30%, contributing to higher productivity (improvement rate depends on conditions).

The surface roughness (finish) of the workpiece after cutting becomes higher quality.

Tool wear is reduced, resulting in longer tool life and long-term cost savings.

The strong odor generated by coolant can be significantly reduced due to the effect of preventing deterioration caused by bacterial growth in the coolant.

Since bubbles have negative electric potential, they can adsorb rare earths and other metals with positive electric potential, and the possibility of efficient extraction with nano-sized bubbles has been known to science.
If this property can be applied, rare metals such as gold and tungsten can be extracted far more efficiently than before.

By using ozone gas in the bubbles, it greatly enhance the negative potential, resulting in extremely high efficiency.

While other vendors' nanobubble products are limited in scalability and cannot process large volumes of water at high speed, Nano-Inset is easily scalable, making it a good match for the mining industry, and once commercialized, it can be supplied almost exclusively to the mining industry worldwide.

This eliminates the need for various chemicals currently used extensively in the mining industry, such as flocculants, and allows for cleaner wastewater.

Expected benefits (examples):

• Crop immunity is enhanced and growth rate is improved.
• Activated aerobic bacteria in the soil improve the plant growth environment.
• Increased resistance to disease and insect damage, better rooting, thicker leaves, more fruit, higher yields, etc.
• Increased sweetness and flavor
  (resulting in higher prices)
• Significant reduction in pesticides and fertilizers

Making the water source of paddy fields an aerobic environment will not only greatly reduce methane gas production, but will also make a significant contribution to the protection of biodiversity.
Economic benefits such as increased yields can also be expected.
It can also be implemented over a wide area with minimal capital investment by making water sources such as irrigation water diversion dams into an aerobic environment.
Demonstration tests are currently being conducted in various parts of Japan.

In one aquatic environment, a highly enclosed, oxygen-depleted water mass with a low concentration of dissolved oxygen had spread extensively.

Pollution on the seabed was causing red and blue tides, as well as foul odors from decay.
To address this, a three-month observation experiment was conducted using a nanobubble generator that utilized air.

The number of benthic organisms was measured and compared at the location where the nanobubble device was operated and at two other sites.
As a result, the number of benthic organisms increased significantly at the location where the device was operated, and a large number of fish were also observed.
Additionally, environmental improvements were seen, such as the disappearance of sludge that had accumulated to a depth of over 50 cm, revealing a sandy bottom, and the presence of seaweed.

Aquaculture is one of the fields that can benefit the most from Nano-Inset technology.
Because the water is constantly kept clean, its introduction converts the system to RAS (Recirculating Aquaculture System). Since eels prefer warm water, it is constantly heated with an oil heater, but the RAS conversion leads to a significant improvement in energy efficiency.

In past cases, the following improvements were confirmed:

• Stocking density : 5x increase
• Fuel costs : 80% reduction
• Electricity consumption : 25% reduction
• Rearing failure rate : 17% → 8%
• Sludge generation : 75% reduction

This makes organic production possible.
There are cases where such significant improvements have been achieved in eel farming, which is considered particularly difficult among various types of aquaculture due to how easily the water becomes dirty.

In recent years, global warming countermeasures have become an urgent issue in industries and lifestyles around the world.
Against this backdrop, energy conversion through offshore wind power generation is attracting strong attention.
However, offshore wind power generation has the problems of interfering with fishing rights and impacting marine life.

By using part of the electricity generated by offshore wind turbines to pump ultra-dense nanobubble oxygenated water created by the oxygen generator into the ocean, we will be able to increase the biomass of the ocean and solve the problem of interference with fishing rights.
In addition, by feeding the byproduct gas (nitrogen) generated by the oxygen generator into the gearbox of the power generation equipment, we can prevent erosion and breakdown of the equipment due to salt in the air, greatly extending the life of the equipment and significantly reducing life cycle costs.

Cement emits a large amount of CO2 due to the calcination of limestone.

By encapsulating CO2 (an industrial byproduct) in the water used to make concrete (ready-mixed concrete) from cement, large amounts of CO2 can be permanently stored.
It is much cheaper to operate than underground CO2 storage technologies such as CCU (Carbon dioxide Capture and Storage).

If introduced in a precast plant or other facility, large amounts of CO2 can be stored.
Because of the effect of pushing oxygen out of the water, it has the effect of preventing corrosion of reinforcing bars.
By inhibiting corrosion, the strength of structures can be maintained for a long time.
The system has been introduced on a trial basis by several general contractors.

Scalability and Selectivity

• Although we can provide showerhead models for individual customers, the highly scalable Nano-Inset can also be used to turn all the water in a bathroom or an entire building into Hyperdense-Nanobubble CO2 water at a low cost (see photo at right).

Skin and Beauty Effects

• Hyperdense nanobubble CO2 are effective in cleaning out dead skin cells and other dirt from inside the pores of the skin.
• It is also highly effective in improving the quality of skin and hair.
• It is also popular among people with sensitive skin, such as those with atopic dermatitis.
• If used daily, it can also be expected to improve blood circulation and hair growth (currently being tested).

Warm bath effect

• CO2 gas improves blood circulation by dilating blood vessels, resulting in a highly effective warm bath.
• Many people have commented that they feel warm to the core and that the water does not cool them down after bathing.
• In Japan, CO2 baths are covered by insurance.

Odor disappears

• Hyperdense-Nanobubble CO2 purge oxygen in the water, so bacteria that cause odors cannot grow because of the loss of oxygen.
• This creates a cleaner environment.

Easier cleaning

• The less bacteria grows, the easier it is to clean the bathhouse.
• In addition, dirt itself is less likely to adhere.

Normal cells cannot grow without an adequate supply of oxygen and nutrients from capillaries.
Cancer cells, however, divide and express a factor called HIF-1 even in hypoxia, which puts them into a so-called hibernation state, and they grow rapidly after blood vessels grow and supply them with oxygen.
When HIF-1 is enhanced, sensitivity to radiotherapy and anticancer drugs is reduced.
The application of Hyperdense-Nanobubble oxygenated water orally, intravenously, or by injection suppresses the expression of HIF-1 by aerobizing the area around cancer cells, and at the same time increases the sensitivity to radiation and anticancer drugs, thereby enhancing the efficacy of standard treatment.
r advantage is that the possibility of side effects has not been recognized at all so far.

We have a technology that uses CO2 nanobubble water to quickly and efficiently put fish into a live coma and awaken them after prolonged transportation.
Using this method, fish can be transported in large quantities while still alive, and can be delivered much cheaper than with conventional methods.
Although other companies have equipment that uses similar principles, Nano-Inset allows for much more efficient operation because of its much smaller size and the much higher dissolved carbon dioxide gas rate used.
In addition, the use of Hyperdense-Nanobubble O3 water in the slurry ice used to preserve fresh fish makes it possible to keep the fish fresh longer by sterilizing the water while refrigerating it.

Nitrogen or CO2 is made into nanobubbles by Nano-Inset and added to water, which purge out dissolved oxygen in the water and suffocates all bacteria.
Since it does not rely on chlorine or other chemicals, it can also contribute to food safety.
By using the system shown in the figure on the right, it is possible to improve the sanitary conditions of water in all facilities such as factories, restaurants, and hotels.
Since the water does not contain oxygen, it is also effective in reducing the growth of bacteria and controlling facility odors.
Ozone can also be used to achieve complete sterilization.
Sterilization reduces the risk of food poisoning and extends shelf life and consumption.

Energy Saving for Ships

• Frictional resistance accounts for 70-80% of the resistance that large vessels receive from the water, far exceeding wave-making resistance.
• The bearing effect of nanobubbles greatly reduces frictional resistance. By spraying them at the bottom of a ship, frictional resistance is greatly reduced, and fuel consumption can be reduced by 10-20%.

Ballast water management

• By injecting nanobubbles into ballast water with exhaust gas from ship engines, bacteria and other organisms can be killed without fail.