top of page
Recycling von Karton

INTEGRATED WASTE
MANAGEMENT
& RECYCLING

Waste Less, Recycle More, Sustain the Future.

Arbeiter in einer Recycling-Fabrik

Integrated Waste Management
& Recycling

Integrated Waste Management (IWM)refers to a comprehensive approach to managing waste that incorporates various strategies and practices to minimize waste generation, promote recycling and recovery, and ensure safe disposal. It aims to handle waste in an environmentally and economically sustainable manner by combining multiple methods and technologies.

Key Components of Integrated Waste Management

Key Components of Integrated Waste Management

01

Waste Prevention

Strategies to reduce the amount of waste generated at the source, such as encouraging sustainable production and consumption practices.

02

Recycling and Recovery

Processes that allow materials to be reused or repurposed, reducing the need for new raw materials and minimizing landfill use.

03

Composting

Organic waste is biologically decomposed into compost, which can be used to enrich soil.

04

Energy Recovery

Converting waste materials into energy through processes like incineration or anaerobic digestion.

05

Safe Disposal

Proper management of residual waste that cannot be recycled or recovered, ensuring it is disposed of in a manner that protects human health and the environment.

06

Public Engagement

Involving communities in waste management practices through education, incentives, and participation in recycling programs.

By integrating these components, IWM aims to create a more sustainable waste management system that balances environmental protection, economic efficiency, and social responsibility.

Solutions

Landfill Waste Management Facilities
(incl. safe waste disposal)

PLANNING

CONSTRUCTION

  • Site Selection by choosing a location based on environmental and regulatory factors.

  • Feasibility Studies for assessing environmental and geological risks.

  • Permits for securing necessary legal approvals.

  • Waste Forecasting for estimating the types and volume of waste.

  • Design for creating the layout with protective barriers, drainage, and collection systems.

  •  Site Preparation for excavation, grading, and liner installation.

  •  Leachate and Gas Systems by installing systems to manage liquid waste and capture gases.

  • Capping and Lining by applying layers to prevent contamination.

  • Stormwater Control by managing surface water and preventing erosion.

  • Access Roads by building infrastructure for waste deliveries

​

Once built, the facility undergoes testing before starting operations, ensuring safe
and efficient waste management.

Mechanical Treatment Plant (MBA)

A mechanical-biological treatment plant (MBA) is a facility for waste treatment that utilizes both mechanical and biological processes to recover organic waste and reduce residual waste.
Here are the main components and processes of an MBA:

1

Sorting:

Waste is separated into different fractions (e.g., metals, plastics, organic materials). This is often done through screening, air separation, or manual sorting.

​

  • Size Reduction: Waste is shredded to facilitate further processing.

2

Biological Treatment

​

  • Composting:
    Organic waste is decomposed under controlled conditions to produce compost.

​

  • Anaerobic Digestion: Organic materials are broken down anaerobically (without oxygen), producing biogas that can be used for energy generation.

3

Residual Waste Treatment

  • After mechanical-biological treatment, residual materials often remain, which can either be landfilled or subjected to further treatment (e.g., thermal recovery).

    BENEFITS of an MBA

     

  • Resource Conservation: Recycling materials and recovering energy from organic waste reduce environmental impact.

​

  • Waste Reduction:
    The volume of waste sent to landfills is decreased.

​

  • Energy Production:
    Biogas can be utilized as a renewable energy source.

 

The production of substitute fuels from waste is applicable in various industries.
Here are some of the key sectors that benefit from this process:

01

Energy Sector

Substitute fuels are used in thermal power plants and cement kilns to replace fossil fuels, reducing COâ‚‚ emissions.

​

03

Paper and Pulp Industry
Substitute fuels as part of its energy supply, reducing dependence on fossil fuels.

​

05

Chemical Industry
Chemical processes can be optimized using substitute fuels, improving energy balance.

07

Construction Industry
In specific applications, substitute fuels can be used as an energy source for construction machinery or in the construction process itself.

02

Cement Industry

Utilize substitute fuels for energy generation in their kilns, lowering production costs and minimizing environmental impact.

​

04

Metals Industry 
Processing, substitute fuels are often used as an additive to the primary fuel supply, particularly in steel production (green steel)

06

Waste Management
Companies operating waste treatment facilities produce substitute fuels and supply them to various industries for utilization.

BENEFITS

  • Cost Reduction: Utilizing substitute fuels can lower energy costs for companies.

​

  • ​Environmental Protection: The use of
    substitute fuels helps reduce waste and decrease COâ‚‚ emissions.

​

  • Sustainability: Companies can improve their environmental footprint and promote sustainable practices.

Integrated Waste Management Kota du Group

Design of Innovative Logistic Concepts

Innovative logistics concepts in waste management leverage technology and software solutions to optimize the collection, transportation, processing, and disposal of waste. These concepts aim to improve efficiency, reduce costs, enhance service delivery, and promote sustainability.

  • Utilization of IoT sensors in waste bins to monitor fill levels and optimize collection routes.

  • Centralized software platform that aggregates data from sensors, enabling dynamic routing and scheduling for waste collection vehicles based on real-time demand

  • Route Optimization Algorithms to calculate the most efficient routes for waste collection and transportation

  • Logistics management system that integrates traffic data, vehicle capacity, and waste type to minimize fuel consumption and reduce operational costs

  • Usage of Mobile Applications for Drivers that offer real-time information on routes, customer notifications, and incident reporting

  • Data Analytics and Reporting allows to analyze waste generation trends, collection efficiency, and operational performance

  • Customer Engagement Platform for residents and industries to manage their waste services, report issues, and provide feedback

  • Manage the inventory of waste processing facilities and recycling centers more effectively.

  • Integration of Recycling Programs by tracking the types and quantities of materials collected

  • Sustainability Reporting for measuring the carbon footprint

BENEFITS

  •  Efficiency: Streamlined operations lead to reduced costs and improved service delivery.

​

  • Sustainability: Enhanced tracking and reporting support environmentally responsible practices.

​

  • Customer Satisfaction: Improved communication and service responsiveness increase user satisfaction.

​

  • Data-Driven Decisions: Analytics provide actionable insights for continuous improvement.

Working With the Best Partners

Welle Logo
Trienekens Logo
Uniwastec Logo
bottom of page