G-NANO technology
G-NANO: The Future of Wastewater Treatment
Wastewater treatment removes pollutants to make water safe for discharge or reuse. Traditional methods often fall short of today’s demands. GI AQUA TECH leads with G-NANO, a nanotechnology-based solution that overcomes these challenges—delivering efficient, next-gen treatment now used in real-world applications.
G-NANO technology
G-NANO: The Future of Wastewater Treatment
Wastewater treatment removes pollutants to make water safe for discharge or reuse. Traditional methods often fall short of today’s demands. GI AQUA TECH leads with G-NANO, a nanotechnology-based solution that overcomes these challenges—delivering efficient, next-gen treatment now used in real-world applications.
G-NANO technology
G-NANO: The Future of Wastewater Treatment
Wastewater treatment removes pollutants to make water safe for discharge or reuse. Traditional methods often fall short of today’s demands. GI AQUA TECH leads with G-NANO, a nanotechnology-based solution that overcomes these challenges—delivering efficient, next-gen treatment now used in real-world applications.
01
pH Buffering & Optimization
The G.NANO system begins by stabilizing the pH level of wastewater, creating an optimal environment for chemical reactions to occur. This ensures that all subsequent treatment processes operate efficiently and effectively, regardless of fluctuations in influent quality.
01
pH Buffering & Optimization
The G.NANO system begins by stabilizing the pH level of wastewater, creating an optimal environment for chemical reactions to occur. This ensures that all subsequent treatment processes operate efficiently and effectively, regardless of fluctuations in influent quality.
01
pH Buffering & Optimization
The G.NANO system begins by stabilizing the pH level of wastewater, creating an optimal environment for chemical reactions to occur. This ensures that all subsequent treatment processes operate efficiently and effectively, regardless of fluctuations in influent quality.
02
Organic Compounds Oxidation
Through advanced oxidation, organic contaminants are broken down into simpler, non-toxic molecules. This step significantly reduces harmful biological load and improves overall water quality before further processing.
02
Organic Compounds Oxidation
Through advanced oxidation, organic contaminants are broken down into simpler, non-toxic molecules. This step significantly reduces harmful biological load and improves overall water quality before further processing.
02
Organic Compounds Oxidation
Through advanced oxidation, organic contaminants are broken down into simpler, non-toxic molecules. This step significantly reduces harmful biological load and improves overall water quality before further processing.
03
Positive Charge Cloud
A field of positively charged ions is introduced, attracting negatively charged particles such as pathogens, oils, and suspended solids. This enhances pollutant capture and prepares the mixture for easier aggregation.
03
Positive Charge Cloud
A field of positively charged ions is introduced, attracting negatively charged particles such as pathogens, oils, and suspended solids. This enhances pollutant capture and prepares the mixture for easier aggregation.
03
Positive Charge Cloud
A field of positively charged ions is introduced, attracting negatively charged particles such as pathogens, oils, and suspended solids. This enhances pollutant capture and prepares the mixture for easier aggregation.
04
Double Layer Formation
This process involves the formation of a structured interface around particles, allowing better control over their behavior in water. It creates a stable environment that facilitates precise removal of micro-contaminants.
04
Double Layer Formation
This process involves the formation of a structured interface around particles, allowing better control over their behavior in water. It creates a stable environment that facilitates precise removal of micro-contaminants.
04
Double Layer Formation
This process involves the formation of a structured interface around particles, allowing better control over their behavior in water. It creates a stable environment that facilitates precise removal of micro-contaminants.
05
Increase in Particle Size
By combining smaller particles into larger clusters, the system makes it easier to separate waste from water. This step is essential for improving the efficiency of downstream filtration and sedimentation.
05
Increase in Particle Size
By combining smaller particles into larger clusters, the system makes it easier to separate waste from water. This step is essential for improving the efficiency of downstream filtration and sedimentation.
05
Increase in Particle Size
By combining smaller particles into larger clusters, the system makes it easier to separate waste from water. This step is essential for improving the efficiency of downstream filtration and sedimentation.
06
Flocculation
In this phase, chemical agents help bind particles together into larger flocs. These flocs are more easily filtered or settled out, enabling the effective removal of even the most persistent pollutants.
06
Flocculation
In this phase, chemical agents help bind particles together into larger flocs. These flocs are more easily filtered or settled out, enabling the effective removal of even the most persistent pollutants.
06
Flocculation
In this phase, chemical agents help bind particles together into larger flocs. These flocs are more easily filtered or settled out, enabling the effective removal of even the most persistent pollutants.
07
Sludge Formation
The accumulated flocs form a concentrated sludge, separating solids from clean water. This sludge is stable and can be handled safely for reuse or disposal, reducing environmental risks.
07
Sludge Formation
The accumulated flocs form a concentrated sludge, separating solids from clean water. This sludge is stable and can be handled safely for reuse or disposal, reducing environmental risks.
07
Sludge Formation
The accumulated flocs form a concentrated sludge, separating solids from clean water. This sludge is stable and can be handled safely for reuse or disposal, reducing environmental risks.
08
Compact Sludge
The final result is a minimized volume of dense sludge with reduced water content. This compact form simplifies storage, transport, and potential reuse, aligning with GI Aqua Tech’s zero-waste commitment.
08
Compact Sludge
The final result is a minimized volume of dense sludge with reduced water content. This compact form simplifies storage, transport, and potential reuse, aligning with GI Aqua Tech’s zero-waste commitment.
08
Compact Sludge
The final result is a minimized volume of dense sludge with reduced water content. This compact form simplifies storage, transport, and potential reuse, aligning with GI Aqua Tech’s zero-waste commitment.
Nanoscale materials provide significant advantages in wastewater treatment, thanks to their unique properties, including high surface area, enhanced reactivity, and superior adsorption capabilities.
These characteristics allow the materials used in this technology to effectively remove pollutants from diverse types of wastewaters, ranging from industrial to municipal sources.
Key highlights of G-NANO technology:
– The raw materials used in G-NANO technology are globally abundant, ensuring scalability without reliance on rare or limited resources.
– It produces high-quality treated wastewater along with non-hazardous sludge, promoting both environmental safety and resource reuse.
VALUE PROPOSITION
G.NANO Feature VS Traditional Biological Systems
VALUE PROPOSITION
G.NANO Feature VS Traditional Biological Systems
VALUE PROPOSITION
G.NANO Feature VS Traditional Biological Systems
Mechanical System
The G-NANO mechanical system uses nanoscale materials to improve pollutant removal through efficient mixing and distribution. Integrated sensors enable real-time monitoring and adjustments, while reengineered internal components boost overall performance within a standard equipment frame.
Mechanical System
The G-NANO mechanical system uses nanoscale materials to improve pollutant removal through efficient mixing and distribution. Integrated sensors enable real-time monitoring and adjustments, while reengineered internal components boost overall performance within a standard equipment frame.
Mechanical System
The G-NANO mechanical system uses nanoscale materials to improve pollutant removal through efficient mixing and distribution. Integrated sensors enable real-time monitoring and adjustments, while reengineered internal components boost overall performance within a standard equipment frame.