About Us

Our
Basic Principle

It is to minimize the environmental pollution that is increasing day by day and the damage this pollution causes to ecology. It is to leave a more liveable world for future generations by contributing to the economy and energy efficiency.

High
Technology

We have developed with our 50 years of experience and high technology.

All Kinds of
Nonrcycled Waste

With our Environmental Energy System, it transforms all kinds of waste into energy.

It is a system that is self-sufficient only with waste, cleans nature, and provides energy with a clean emission.

High
Efficiency
Low
Maintenance Cost
50 Years
Experience
Suitable for
All Kinds of Waste
Low
Emission

Reference

1
HATAY
BFB Bubbling Fluidized Bed Boiler
16 MWe | Biomass/Agricultural Waste & Wood
2
ADANA
Forward Step Grate Boiler
12 MWe | Biomass/Cotton Agricultural Waste
3
ADANA
Forward Step Grate Boiler
9,3 MWe | Biomass/Cotton Agricultural Waste
4
SAKARYA
BFB Bubbling Fluidized Bed Boiler
16 MWe | Biomass/Chick Pellet & Wood
5
KIRKLARELI
BFB Bubbling Fluidized Bed Boiler
12 MWe | Biomass / Agricultural Waste & Wood
6
MERSIN
CFB Circulating Fluidized Bed Boiler
8 MWe | Mixed Coal
7
KONYA
CFB Circulating Type Fludized Bed Boiler
37 MWe | Steam Turbine * Coal
8
MANISA
CFB Circulating Type Fludized Bed Boiler
65 t/h | Coal
9
DENIZLI
CFB Circulating Type Fludized Bed Boiler
5,5 MWe | Steam Turbine * Coal
10
KAHRAMANMARAS
CFB Circulating Type Fludized Bed Boiler
25 MWe | Steam Turbine * Coal
11
KUTAHYA
CFB Circulating Type Fludized Bed Boiler
4,5 MWe | Steam Turbine * Coal
12
KARABUK
Pulverized Coal Boiler
100 t/h | Pulvarized Coal
13
KONYA
Industrial Type Water Tube Boiler
75 t/h | Fuel-Oil / Natural Gas
14
MANISA
Package Type Water Tube Boiler
65 t/h | Fuel-Oil / Motorin
15
ISKENDERUN
Waste Heat Recovery Boiler
30 t/h | Waste Heat
16
YENISEHIR
Waste Heat Recovery Boiler
6 MWe | Steam Turbine * Waste Heat
17
CATALAGZI
Package Type Water Tube Boiler
68 t/h | Natural Gas
18
AKSARAY
Industrial Type Water Tube Boiler
2x50 t/h | Fuel-Oil / Motorin
19
AKSARAY
Industrial Type Water Type Tube Boiler
50 t/h | Fuel-Oil / Motorin
20
KUTAHYA
Package Type Water Tube Boiler
45t/h | Natural Gas
21
ESKISEHIR
Package Type Water Tube Boiler
2x40 t/h | Natural Gas
22
ORHANELI
Package Type Water Tube Boiler
50 t/h | Fuel-Oil / Motorin
23
MERSIN
Package Type Water Tube Boiler
25 t/h | Fuel-Oil / Motorin
24
IZMIT
Waste Heat Recovery
14 t/h | Waste Heat
25
ADANA
Package Type Water Tube Boiler
16 t/h | Fuel-Oil / Motorin
26
ADANA
Package Type Water Tube Boiler
30 t/h | Fuel-Oil / Motorin
27
KUTAHYA
Spreder Rotary Grate Boiler
30 t/h | Natural Gas
28
ISKENDERUN
Package Type Water Tube Boiler
2 Numeral 18 t/h | Fuel-Oil / Motorin
29
ISKENDERUN
Package Type Water Tube Boiler
3 Numeral 15 t/h | Fuel-Oil / Motorin
30
CERKEZKOY
Package Type Water Tube Boiler
15 t/h | Fuel-Oil / Motorin
31
ADANA
Package Type Water Tube Boiler
15 t/h | Fuel-Oil / Motorin
32
ISKENDERUN
Package Type Water Tube Boiler
25 t/h | Fuel-Oil / Motorin
33
ADANA
Package Type Water Tube Boiler
15 t/h | Fuel-Oil / Motorin
34
ISTANBUL
Water Tube Industrial Type Power Plant Boiler
2 numeral t/h | Fuel-Oil / Motorin
35
MUGLA
Pulvarized Coal Boiler Rehabilitation
500 t/h | Pulvarized Coal
36
BOSNIA AND HERZEGOVINA
CFB Circulating Type Fludized Bed Boiler
130 t/h | Steam Turbine * Coal
37
JORDON - IRAQ
Waste Heat Recovery Boiler
2x50 t/h | Waste Heat

Our Team

Marcus M. ARAZ
MBA, PhD(c) | Senior Partner
Dr.Coskun ER
PhD | Senior Partner
Cihan HUMBARACIBASI
BA | Senior Partner

Our Incineration System

As A Global Turn-key Project Specialist
1
AD-2000 /HPO

Certification of Manufacturers or Pressure Vessels and Pressure Parts

2
TRD 201

Certification Of Manufactures of steam Boilers and Accessories

3
EN ISO 3834

Quality requirements for welding

Project, Design, Manufacturing
1
2D and 3D Construction Design
2
Thermal Engineering Calculations
3
Circulation Calculations
4
CFD Calculation
5
Piping Design and Analysis
6
Strength Calculations
7
Measurement Calculations
8
Power Plant Simulation
9
Power plant Automation Control System Design
10
Expert Assessment and Reporting

Quality Certificates

Services & Capabilities

Services
High Technology
Services
Support Environmental
Legal Permits
Manufacturing and
Engineering Services
Effective Maintenance
and Operation Services
Capabilities
Electric
Production
Hot
Water
Steam
Production
Disposal
Revenue

Type Of Waste

Home
Waste
Sludge
Water
Agriculture
Waste
Hazardous
Waste

Advantages Of The System

Expertise

  • Legislation and Implementation Criteria (Expertise)
  • Green Financing Support

Our Solution Model

  • Economic and Managerial Gains
  • Environmental and Social Gains

Renewable Energy

  • International Commitments and Sanctions
  • Sustainability
  • In today's dynamic market conditions, businesses are trying to increase their service quality to increase their competitive power, and on the other hand, they are trying to reduce their energy costs.
  • Disposal Technology is the most profitable and sustainable method in this sense, with both waste and carbon footprint and heat and electricity production.

Introduction

The primary source of energy is fossil fuel, which is depleting over time. The burning of these fuels also increases the amount of greenhouse gases that are released into the environment. Across the world, biofuels have been considered as an alternative fuel to produce renewable energy that can replace fossil fuels, either partially or completely. Biofuels are renewable energy sources that produce minimum carbon dioxide and greenhouse gas emissions. They are less toxic, degradable, and have a lower sulfur capacity. Biofuels are generated from several sources such as plants, animal waste, agricultural residue, and industrial discharge.

Though some of these wastes are used as raw materials in animal feed manufacturing or as fertilizers, the majority of it is dumped as garbage in landfills, on land, or in the sea, causing negative environmental effects. The production of bioenergy from waste can be an effective solution to minimize waste, save the environment and can be utilized to generate clean energy.

Bioenergy Production

Disposal of W2E by incineration makes an important contribution to bioenergy production. W2E, due to its high content of organic matter, can be used to produce energy when burned. This enables waste to be utilized, while at the same time contributing to energy production.

Emission Reduction

Disposal of W2E by incineration causes less emissions than other disposal methods. While other waste disposal methods can cause greenhouse gas emissions, which often result from the decomposition of organic waste, incineration can significantly reduce these emissions.

Efficiency in Waste Management

Incineration of W2E can increase efficiency in waste management processes. Incineration reduces the volume of waste and reduces the need for landfills. This, in turn, reduces waste management costs and reduces environmental impact.

Contribution to Recycling

Incineration of W2E can also contribute to recycling processes. The residues of incinerated waste can often be used as fertilizer in wastewater treatment plants or used in agricultural fields for soil remediation purposes.

Disposal By Incineration
Environmental Contributions

Solving the Waste
Management Problem

Waste generated in waste processing plants is often materials that harm the environment and can emit bad odors. Converting these wastes into energy by incineration directly solves the problem of waste management and reduces environmental pollution.

Renewable
Energy Production

The energy obtained by burning waste is obtained from a renewable source. This, in turn, reduces dependence on fossil fuels, helping to reduce greenhouse gas emissions and the effects of global warming.

Low
Carbon Footprint

The energy obtained by burning waste has a lower carbon footprint compared to other energy production methods. This can be considered as an important step in the fight against climate change.

Disposal By Incineration
Financial Contributions

Conversion of waste into energy is an important practice that provides environmental sustainability and economic benefits. This approach offers an effective solution to combat waste management problems and meet energy needs in the waste industry. In the future, the environmental and financial benefits are expected to increase with the further prevalence of such innovative practices.

Cost Savings
in Energy Production

Converting waste into energy is generally more cost-effective compared to traditional fuels used in energy production. This helps businesses increase their profitability by reducing energy costs.

Reduction
in Waste Management Costs

Converting waste into energy by incineration reduces waste management costs. It saves on expenses such as storage, transportation and disposal of waste.

Prevention
of Raw Material Loss

Converting waste into energy prevents raw material loss by ensuring that waste is evaluated. This allows businesses to be more efficient in their production processes and indirectly benefits financially

Project Process

1 Quotation

Components Production and Supply

The equipment and components in the project are supplied and manufactured according to the project and manufacturing drawings.

2 Project

Application and Production Projects

Application-manufacturing drawings are prepared by designing the solution based on the proposal.

3 Production

Components Production and Supply

The equipment and components in the project are supplied and manufactured according to the project and manufacturing drawings.

4 Implementation

On-site Assembly and Commissioning

The equipments produced and supplied are assembled on-site in accordance with the project and commissioned.

Responsibility

Customer
1
Waste Supply
2
Approval of the Quotation
3
Legal Permits
4
Performance Audit
Manufacturer
1
Engineering design and project responsibilities.
2
Responsibilities for production, application and assembly works.
3
Responsibilities for fault, maintenance and repair works.
4
Long-term performance guarantee responsibilities.
5
Calculation and verification of system gains.
6
Responsibilities for production and application works.
7
Responsibilities for performance outputs.
8
Financial and legal responsibilities based on specified in the contract.
Wasteron Renewable Energy

Kensington Hall Gardens,
Beaumont Avenue, London
W14 9LT, United Kingdom

About Us
References
Our Team
Our Incineration System
Quality Certificates
Services And Capabilites
Type Of Waste
Advantages Of The System
Introduction
Disposal By Incineration
Project Process
Responsibility
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