Cutting-edge Eco-Tech Solutions

ALFIMER™ Technology

ALFIMER™ technology provides adaptable and sustainable solutions for agriculture, waste management, and recycling.

PT. Trans Energi Solusi is a pioneer in the field of innovation in the development and application of core biotechnology solutions for Advanced Landfill Management & Mining and Waste Conversion as well as Optimal Ecosystem Engineering Solutions, to rehabilitate the environment, thereby reducing the carbon footprint and greenhouse gas emissions.

Working with subsidiaries and partners SHA Laboratories International, we have secured a number of landfill sites, to deploy our proprietary and trademarked ALFIMER™ process to recover, process and convert up to 95% of landfill waste.

Recovered waste is converted into Organic Compost (NANO SOIL), Recycled Materials and RDF for the economic benefit of our customers, while playing a role in the “Green Plan For Future Generations”.

Due to the nature of our technology, we can process ALL types of organic waste such as animal waste, bagasse, market waste, palm oil plantations, and all forms of protein, fat and high cellulose fiber that are difficult to decompose naturally.

An additional unique feature of our technology and process is the ability to remove “Non-Essential Heavy Metals” in the materials we process with the most cost-effective processes.

YaniSys™ Technology

YaniSys™ technology utilizes nano and microbiological engineering for environmental ecosystem solutions and renewable energy development.
Technology

YaniSysTM Aggregate Technology on bio-remediation, neutralization and stabilization of waste including downstream impacts such as pollutants, contaminants and leachate waste, apart from reclamation of valuable land space to be used as human resources. The method and space available for daily incoming waste is @ 7,000 tpd, without the need to procure new plots of land for landfill purposes. This “State of the Art” technology, was innovated and designed to be adapted and applied to various types of terrain, contours and geographies, so that it can adapt to be applied in challenging conditions. In addition to its rugged nature, it does not compromise cost-effectiveness, economy, affordability, adaptability and environmental aspects (sanitization ability of pathogens and bacteria, as well as reducing heavy metal contaminants from minerals and bio-organic materials), making it the most basic structure to achieve ZERO landfill requirements in many cities, governments are achieving Environmental Sustainability Goals, reducing Carbon Footprints, fighting Climate Change, Healthier Public Health, and bringing manageable management to scavenging activities. This system also increases the nation’s ability to explore and mine original raw material resources from both daily incoming waste and heritage waste, therefore, creating innovation through the engineering of new materials and minerals, which can be used in the agricultural sector with bio-products. renewable organic. manufacturing, renewable energy and total recycling.

Carbon Fixation System

Our Carbon Fixation System, working in harmony with natural microbes, revitalizes all biological and organic materials, contributing to a greener and healthier Earth.

Bio Remediation of Waste Leachate

Bioremediation of waste leachate involves the use of living organisms or biological processes to remove pollutants and contaminants from leachate water. Leachate is a toxic liquid produced by the decomposition of waste in landfills, and can contain:

1. Organic pollutants (e.g. volatile organic compounds, VOCs)

2. Inorganic pollutants (e.g. heavy metals, ammonia)

3. Microorganisms (e.g. bacteria, viruses)

Bioremediation approaches for leachate include:

1. Aerobic treatment: Uses oxygen-loving microorganisms to break down organic pollutants – YaniSys™️

2. Anaerobic processing: Using microorganisms that thrive in an oxygen-free environment to degrade organic pollutants – Other Technologies Anaerobic Digestion [YaniSys™️ offers Methanogenic Enzymes to increase biogas volume]

3. Phytoremediation: Using plants to absorb and degrade pollutants – YaniSys™️

4. Microbial fuel cells: Using microorganisms to generate electricity while degrading pollutants – YaniSys™️

5. Bioaugmentation: Adding beneficial microorganisms to leachate to enhance biodegradation – YaniSys™️

6. Biostimulation: Adding nutrients or other substances to stimulate native microorganisms to degrade pollutants –

YaniSys™️ Benefits of bioremediation:

1. Effective removal of pollutants

2. Cost effective

3. Environmentally friendly

4. Can be used in situ (on-site) or ex situ (off-site)

5. Can be combined with other remediation techniques

Some examples of bioremediation in leachate include:

1. Using an aerobic reactor to remove VOCs and ammonia

2. Implement anaerobic digestion to produce biogas and reduce pollutants

3. Utilize wetland plants such as cattails or reeds to remove heavy metals

4. Adding microorganisms such as bacteria or fungi to degrade PAHs or PCBs It is important to remember that bioremediation may not always be effective or suitable for all types of pollutants or leachate conditions. Consult with an environmental scientist or bioremediation expert to determine the best approach for your specific situation.

Bioremediation Waste Leachate Inoculation – Foliar Nutrient Production Bioremediation waste leachate inoculation involves adding microorganisms to treated water to enhance the biodegradation process and ensure the water is safe for disposal or reuse. The purpose of inoculation is to:

1. Introduce beneficial microorganisms that can break down residual pollutants

2. Increases the degradation of organic materials

3. Improve overall water quality

Types of microorganisms used for inoculation:

1. Bacteria (e.g. Pseudomonas, Rhodococcus)

2. Fungi (eg white rot fungus, Trichoderma)

3. Yeast (e.g. Saccharomyces)

4. Introduction to the 1st, 2nd & 3rd

Carbon Fixing mechanism – YaniSys™️ Inoculation method:

1. Adding microorganisms directly to leachate

2. Using bioaugmentation products that contain beneficial microorganisms

3. Inoculate the biological reactor or processing system Factors to consider:

1. Type and concentration of microorganisms

2. Water temperature and pH

3. Availability of nutrients

4. The presence of toxic compounds or inhibitors

5. Monitoring and maintenance of the inoculation system

Benefits of inoculation:

1. Increased biodegradation of pollutants

2. Improved water quality

3. Reduce impact on the environment

4. Increased efficiency of the treatment process

5. Cost-effective and sustainable solution.

Remember to consult with experts in the fields of bioremediation and microbiology to determine the most appropriate inoculation strategy for your specific situation. *Palm Oil Mill Waste* Bioremediation of Palm Oil Mill Waste (POME) involves the use of living organisms or biological processes to remove pollutants and contaminants from POME. POME is a toxic liquid waste produced from palm oil processing, containing:

1. High levels of organic pollutants (e.g. fatty acids, oils)

2. Heavy metals (e.g. copper, zinc)

3. Nutrients (e.g. nitrogen, phosphorus)

4. Microorganisms (e.g. bacteria, viruses)

Bioremediation approaches for POME include:

1. Aerobic treatment: Uses oxygen-loving microorganisms to break down organic pollutants – YaniSys™️ Technologies

2. Anaerobic processing: Using microorganisms that thrive in an oxygen-free environment to degrade organic pollutants – Anaerobic Digestion System (YaniSys™️ Technology Methanogenic Enzymes to increase biogas volume)

3. Phytoremediation: Using plants to absorb and degrade pollutants – YaniSys™️ Technologies

4. Microbial fuel cells: Use microorganisms to generate electricity while degrading pollutants – Pyrolysis Systems

5. Bioaugmentation: Adding beneficial microorganisms to POME to enhance biodegradation – YaniSys™️ Technologies

6. Biostimulation: Adding nutrients or other substances to stimulate native microorganisms to degrade pollutants – YaniSys™️ Technologies Benefits of bioremediation:

1. Effective removal of pollutants

2. Cost effective

3. Environmentally friendly

4. Can be used in situ (on-site) or ex situ (off-site)

5. Can be combined with other remediation techniques Some examples of bioremediation of POME include:

1. Using an aerobic reactor to remove fatty acids and oils

2. Implement anaerobic digestion to produce biogas and reduce pollutants

3. Utilize wetland plants such as cattails or reeds to remove heavy metals

4. Adding microorganisms such as bacteria or fungi to degrade organic pollutants It is important to remember that bioremediation may not always be effective or suitable for all types of POME pollutants or conditions. Consult with an environmental scientist or bioremediation expert to determine the best approach for your specific situation.

Material Engineering Solutions

Our material engineering solutions focus on policy 3E (Economical, Efficient & Effective), utilizing nano-based technologies, microbiological engineering, renewable energy, and alternative fuels for various applications.

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