Feniks Waste Management LTD provides thermal waste treatment technologies and has experience designing waste-to-energy plants. Their mission is to contribute to a sustainable environment through advanced technology solutions for waste management. They offer integrated solutions for municipal solid waste treatment including sorting, composting, anaerobic digestion, gasification, and flue gas cleaning.

1. WASTE TO ENERGY

2. About Feniks Waste Management :TD Feniks Waste Management LTD i s in the business of providing thermal treatment technologies for the safe disposal of Waste to Energy. The senior management of Van Feniks waste Management have been closely involved in the design and upgrading of the thermal processes at the Netherlands. World renowned facility specializing in the safe treatment of waste to Energy Plants. Mr. Van Sommeren is an adviser on waste treatment technologies in 15 country’s

3. About CMTS Van Sommeren Intl. The consortium offers proven technologies to the international Waste to Energy communities to replace traditional thermal methods that are posing severe challenges to our living environment

4. Advanced Technology Centre in Europe Netherlands Office Koningstraat 99, 6651 KK Druten, The Netherlands Te. +31 487 514838 Fax. +31 487 515236

5. MISSION STATEMENT Our mission is to become a valued partner to our customers and to make significant contribution to preserving a sustainable environment and striving for a cleaner future, through use of advanced technology solutions and leveraging on our wide engineering experience and global network.

6. COMPANY ACTIVITIES Feniks Waste Management LTD has broad international experience in the design, engineering, procurement and construction of waste-to-alternative fuel plants, hospital waste, hazardous waste, anaerobic treatment facilities, providing all the technical and management skills needed to complete a project successfully.

7. IN-HOUSE TECHNOLOGIES - Medical waste, Hazardous waste and Municipal Solid Waste treatment plants - Material Recovery Facility - Composting Plant - Anaerobic Digestion Plant - Waste to Energy

8. (to produce Biogas from kitchen waste) BIOGAS DIGESTER

9. (to produce soil amendments from MSW organics) TUNNEL COMPOSTING

10. (Recycling MSW) MATERIAL RECOVERY FACILITY

11. GASIFICATION OF MSW

12. Integrated Hospital Waste Incineration Plant

13. Industrial Furnaces and Combustion System

14. Users: Kayaba, Suzuki, Hicom, Altum, Global Autotech, Seagate, Phillips, Matsushita Fabrication of Melting & Holding Furnaces

15. Production of Furnace & Incinerator Parts using CNC Machines

16. Production Facility In Netherlands

17. Production Facility In Netherlands

18. To Its Customer In The Field Of Waste Treatment Technologies Project Management Basic Engineering Detailed Engineering Construction Management Contract Management, cost control and time scheduling Worldwide sourcing of quality equipment and materials Supervision and control of construction and erection Quality inspections in the factory or on site Commissioning and start-up of installations Operator training Delivers Professional Services

19. Equipment Supply Gasifiers and Incinerators Shredders and Pelletizers Waste Handling Conveyors Flue Gas Treatment and Scrubbers Material Handling / Waste Feeding Equipment Drum Screens to separate MSW and Industrial Waste Air Seperation Equipment / Windshifters PLC Hardware and Software Process Control System

20. PLC and SCADA Process Control

21. OUR COMMITMENT Maximise plant availability Achieve better plant performances Compliance with environmental and safety requirements Maximise throughput of the plant Maximise energy output Minimise maintenance costs Minimise consumption of chemicals & utilities Organise or assist with major overhauls or plant upgrades

22. Tools for Product Design & Development : Autocad Inventor Modular Solid Waste Incineration Plant

23. SCADA System Control Topology

24. GLOBAL PRESENCE C ~ Installation Site A ~ Agent

25. Municipal Solid Waste Waste Separation & Material Recovery Facility Landfill Gasification System Anaerobic Digestion Of Wet Organics Power Generation Integrated MSW Treatment

26. Prevention of waste production Design of minimal waste production and design to enable beneficial use Product recycling (re-use) Material recycling Recovery for use as fuel Disposal by incineration (without energy recovery) Disposal to landfill “ Ladder of Lansink” (Principle of EU Policy) most preferred least preferred

27. MATERIAL RECOVERY FACILITY

28. Plastics, Glass, Paper Ferrous (fine and coarse) SRF (textile, paper) and others Inert (coarse) MS Wet Organics Temporary Stockpile Waste Sorting Technology Anaerobic Digestion Gasification Technology Recycling Line Waste Separation & Material Recovery Facility

29. Waste Sorting Technology

30. Unsorted Domestic Waste

31. Domestic Waste Bag Opener

32. Grapple Crane (hopper/bunker)

33. Drum Screen to remove wet organics from unsorted MSW Drum Screen

34. to recover pieces of plastics, cartons, non ferrous metals Hand Picking Station

35. Bins for recovered waste that can be recycled Hand Picking Station

36. Magnetic Separator to recover Ferrous material

37. Automatic Air Separation to recover light plastics, paper

38. Final fractions to be shredded to form Solid Recovered Fuel

39. Please click on the pictures to play video Shredder

40. Baled Plastics and Papers For Sale $$$$$

41. TREATMENT OF WET ORGANICS BY ANAEROBIC DIGESTION / BIOGAS PRODUCTION

42. Wet Organics For Anaerobic Digestion

43. Treatment of MSW Wet Organics Onsite Anaerobic Phased Solids Digester & Power Generation System

45. Problems based on Community Environmental Concerns Waste products contaminating ground & runoff water Air quality requirements for NOx, greenhouse gas & related odor and air emissions Landfill volume reduction / diversion requirements Landfill disposal permitting restrictions

46. Anaerobic Digester Technology Natural process offering “Green” solutions Produces no odor in an oxygen deprived environment Produces usable, medium grade, bio - gas fuel Value added conversion of waste feedstock provides: Bio gas fuel used for process heating and electricity Concentrated soil amendment Nutrient enriched water for irrigation

47. Anaerobic Digestion Biological Process Bio Gas Organic Waste Undigested Solids & Water CH 4 + CO 2 Organic Matter M ethanol G enesis Acetogenesis Hydrolysis

48. Digester System Process Feed Stock Into System Agriculture Waste Organic Process Waste Seaweed Municipal Green Waste Gas Motor Electric Power to load Organic Soil Amendment Fluid Circulation Hydrolysis Tank Gasification Tank Methane Gas Fuel Heated Water System Output Nutrient Rich Irrigation Water Hot Water or Steam for Heating

49. Food Waste And Wet Organics from separated MSW Hammer Mill Mixer

50. Anaerobic Digestion Of MSW Wet Organics Reduction of methane emissions (greenhouse gas) to atmosphere Provides nutrient enriched effluent water for local irrigation

51. INCINERATION / SYNGAS PRODUCTION of Solid Recovered Fuel (a.k.a RDF)

52. Gasification Technology

54. Gasification technology with flue gas cleaning Syngas (Alternative Fuel) from MSW

55. A Solid Recovered Fuel (SRF) is the fuel produced from solid waste. By using the highly precise CMTS-VSI waste sorting technology, the perishable wet materials with high contaminants and non-combustible materials are removed from the municipal solid waste. The remaining contents which are all combustible materials with high calorific value are shredded, dried, mixed with additives and pressed to become high quality SRF. The end product is dry and anti-mold and can be stored and transported easily. The average calorific values is about 12,500 – 17,500 kJ/kg (3,000 – 4,200 kcal/kg) and the burning point is around 250 – 270 °C. Solid Recovered Fuel

56. Advantages of Using SRF Eliminating the need to landfill Environmentally friendly energy recovery Quality fuel at a low cost Fuel with consistent quality Reduced pollution in burning Suitable for long term storage Reusable ash residue SRF Fluff – light fuel from waste SRF-pellets: excellent handling properties. Solid Recovered Fuel

57. Pyrolysis Gasification Technology to reduce MSW (SRF) to ash with optional heat recovery for Power Generation

58. SYNGAS, Combustible gases, methane, complex hydrocarbons, hydrogen, and carbon monoxide Optional Heat Recovery For Power Generation Ash to be landfilled Products of Gasification

59. Steam Turbine Power Generation

60. Cleaning of flue gases from gasification process to meet EU Standard Optional : Flue gases containing CO 2 can be feed stock for Algae to produce Bio-diesel

61. Step 1: Flue Gas Cooling Flue Gas Cleaning Method Quencher

62. Step 2: Flue Gas Cleaning to remove dust and acidic gases Scrubber Flue Gas Cleaning Method

63. Step 3 : Dioxin Treatment Dioxin Filter Flue Gas Cleaning Method

64. Flue Gas Emission in accordance to EU Standard prior to discharge to atmosphere Continuous Emission Monitoring System Flue Gas Cleaning Method

65. LANDFILL REMEDIATION

66. In Collaboration With Southern Waste Management LANDFILL MANAGEMENT

67. Recovered Waste Materials Separated from Soil Cover Landfill On Site Waste Recovery

68. Recovered Waste Materials further processed in MRF to recover plastics, metals for sale Landfill Remediation Works

69. Asia Office Texas.U.S.A No.9, Jalan TPP 5/13, San Antonio 47100 Puchong, MALAYSIA Texas Tel. +6 03 - 80623686 Ms Lizette Odfalk Fax.+6 03 - 80623680 E.U. Office Koningstraat 99, 6651 KK Druten, The Netherlands Te. +31 487 514838 Fax. +31 487 515236 For More Information On Integrated MSW Treatment Technologies please visit website: www.cmtsproduct.com e-mail: sales@cmtsproduct.com