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How our products create impact

Mechanism of Impact:

Floating Wetlands are artificial platforms that support plants with roots extending into the water. The roots, along with bio media, provide a large surface area for bacterial growth. These bacteria play a crucial role in breaking down pollutants and balancing nutrient levels in the water.

 

Key Components & Functions:

  • Special Plants: These plants are specifically chosen for their ability to absorb and process pollutants.
  • Plant Roots & Bio Media: The roots of the plants, along with additional bio media, create a suitable environment for beneficial bacterial colonies to thrive. These bacteria aid in nutrient absorption and pollutant breakdown.

 

Impact on Water Quality:

  • Removes Heavy Metals: The roots and bacteria within the floating wetlands absorb heavy metals such as lead, arsenic, and mercury, thereby reducing toxic elements in the water.
  • Consumes Excess Nutrients: Floating wetlands help remove excess nutrients like phosphorus and nitrogen from the water. Excessive levels of these nutrients often lead to algal blooms, which deplete oxygen and harm aquatic life.
  • Provides Habitat for Biodiversity: The floating wetlands create a microhabitat that supports a diverse range of organisms, including fish, insects, and microorganisms. This increases biodiversity, contributing to a balanced and resilient ecosystem.

Mechanism of Impact:

Aerators work by pumping oxygen into the water. Oxygen acts as a fuel source for aerobic bacteria, which need it to break down organic matter and reduce pollutants.

Key Components & Functions:

  • Oxygen Supply: Aerators introduce dissolved oxygen into the water, crucial for aerobic microbial processes.
  • Enhanced Bacterial Growth: The increased oxygen supports bacterial colonies that break down organic pollutants and
    help maintain water quality.

Impact on Water Quality:

  • Increases Dissolved Oxygen Levels: By raising oxygen levels, aerators support aquatic life and ecological processes. Higher oxygen levels prevent fish kills, support plant life, and encourage biodiversity.
  • Decreases BOD (Biological Oxygen Demand) & COD (Chemical Oxygen Demand): Aeration reduces BOD and COD by
    enabling aerobic bacteria to break down organic matter efficiently. This reduction is essential for maintaining a balanced ecosystem and healthy water quality.
  • Removes Harmful Gases: Aeration helps disperse and reduce harmful gases like methane, ammonia, and hydrogen sulfide, which can harm aquatic life and lead to foul odors. levels.

Mechanism of Impact:

Beneficial Microbial Cultures consist of various bacterial strains that are introduced into the water to accelerate the breakdown of pollutants. These microbes feed on excess nutrients, helping to balance the ecosystem and reduce
contaminants.

 

Key Components & Functions:

  • Diverse Bacterial Cultures: A carefully curated mix of beneficial bacteria targets specific pollutants and nutrients in the water, making them more effective at restoring balance.

 

Impact on Water Quality:

  • Converts Ammonia and Nitrates into Nitrogen Gas: Beneficial microbes play a crucial role in the nitrogen cycle by converting harmful ammonia and nitrates into harmless nitrogen gas, which is then released into the atmosphere. This process reduces nutrient overload in the water.
  • Breaks Down Organic Pollutants and Sludge: Microbial cultures are effective at digesting organic waste and  sludge,reducing the build-up of pollutants on the waterbed and improving overall water clarity.
  • Outcompetes Algae for Nutrients: By consuming nutrients like phosphorus and nitrogen, beneficial bacteria limit the resources available for algae, thus preventing excessive algal blooms and maintaining balanced nutrient levels.

Mechanism of Impact:

Floating Wetlands are artificial platforms that support plants with roots extending into the water. The roots, along with bio media, provide a large surface area for bacterial growth. These bacteria play a crucial role in breaking down pollutants and balancing nutrient levels in the water.

 

Key Components & Functions:

  • Special Plants: These plants are specifically chosen for their ability to absorb and process pollutants.
  • Plant Roots & Bio Media: The roots of the plants, along with additional bio media, create a suitable environment for beneficial bacterial colonies to thrive. These bacteria aid in nutrient absorption and pollutant breakdown.

 

Impact on Water Quality:

  • Removes Heavy Metals: The roots and bacteria within the floating wetlands absorb heavy metals such as lead, arsenic, and mercury, thereby reducing toxic elements in the water.
  • Consumes Excess Nutrients: Floating wetlands help remove excess nutrients like phosphorus and nitrogen from the water. Excessive levels of these nutrients often lead to algal blooms, which deplete oxygen and harm aquatic life.
  • Provides Habitat for Biodiversity: The floating wetlands create a microhabitat that supports a diverse range of organisms, including fish, insects, and microorganisms. This increases biodiversity, contributing to a balanced and resilient ecosystem.

Mechanism of Impact:

Aerators work by pumping oxygen into the water. Oxygen acts as a fuel source for aerobic bacteria, which need it to
break down organic matter and reduce pollutants.

 

Key Components & Functions:

  • Oxygen Supply: Aerators introduce dissolved oxygen into the water, crucial for aerobic microbial processes.
  • Enhanced Bacterial Growth: The increased oxygen supports bacterial colonies that break down organic pollutants and
    help maintain water quality.

 

Impact on Water Quality:

  • Increases Dissolved Oxygen Levels: By raising oxygen levels, aerators support aquatic life and ecological processes. Higher oxygen levels prevent fish kills, support plant life, and encourage biodiversity.
  • Decreases BOD (Biological Oxygen Demand) & COD (Chemical Oxygen Demand): Aeration reduces BOD and COD by
    enabling aerobic bacteria to break down organic matter efficiently. This reduction is essential for maintaining a balanced ecosystem and healthy water quality.
  • Removes Harmful Gases: Aeration helps disperse and reduce harmful gases like methane, ammonia, and hydrogen sulfide, which can harm aquatic life and lead to foul odors. levels.

Mechanism of Impact:

Beneficial Microbial Cultures consist of various bacterial strains that are introduced into the water to accelerate the breakdown of pollutants. These microbes feed on excess nutrients, helping to balance the ecosystem and reduce
contaminants.

Key Components & Functions:

  • Diverse Bacterial Cultures: A carefully curated mix of beneficial bacteria targets specific pollutants and nutrients in the water, making them more effective at restoring balance.

Impact on Water Quality:

  • Converts Ammonia and Nitrates into Nitrogen Gas: Beneficial microbes play a crucial role in the nitrogen cycle by converting harmful ammonia and nitrates into harmless nitrogen gas, which is then released into the atmosphere. This process reduces nutrient overload in the water.
  • Breaks Down Organic Pollutants and Sludge: Microbial cultures are effective at digesting organic waste and  sludge,reducing the build-up of pollutants on the waterbed and improving overall water clarity.
  • Outcompetes Algae for Nutrients: By consuming nutrients like phosphorus and nitrogen, beneficial bacteria limit the resources available for algae, thus preventing excessive algal blooms and maintaining balanced nutrient levels.

Overall Impact of Clean Water’s Products on Waterbodies

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