Environmental Technologies Industries
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Market Plans |
Thailand Environmental Export Market Plan |
Part 2 |
Project Title | Period | Budget (US$) | Partners | Project Description & Status |
BMA Phase I Wastewater Treatment & Collection System | Nov. 1, 1993–Dec. 31, 1997 (50 months) | -Turnkey: est. $142 mil. (6.383 bil. baht) -Supervision: est. $4.4 mil. (200 mill. baht) | -Turnkey: NOSS Consortium -Supervision: Dorsch Consult & Associates | -Capacity of 350,000 cubic meters/day -Covers: Pomprab Satroopai, Sampanthavong, Patumwan, and Rajathevi -About 85 percent completed |
BMA Phase II Wastewater Treatment & Collection System | July 24, 1995– July 23, 1999 (48 months) | -Turnkey: est. $101 mil. (4.552 bil. baht) -Supervision: est. $3.4 mil. (155 mil. baht) | -Turnkey: Samsung & Lotte -Supervision: Metcalf & Eddy Inter. Co., Ltd. and TEC | -Capacity of 200,000 cubic meters/day -Covers: Bangrak, Yannawa, Sathorn, and Bang Khorlaem -About 65 percent completed |
BMA Phase III Wastewater Treatment & Collection System | Sept. 19, 1996–Sept. 18, 2000 (48 months) | -Turnkey: est. $107 mil. (4.8 bil. baht) -Supervision: est. $4.8 mil. (214 mil. baht) | -Turnkey: Premier, Pate Engin.; Lockwood Andrews and Newnam, Inc.; St. Environ. Service, Inc.; BRH-Garver -Supervision: CH2M Hill Inter. Co., Ltd. and Epsilon Co. | -Capacity: first area-157,000 cubic meters/day, -Covers: Nong Khaem, Ratburana, and Phasicharoen; -About 30 percent completed |
BMA Phase IV Wastewater Treatment & Collection System | 1997–2001 (48 months) | -Turnkey: est. $89 mil. (4.025 bil. baht) -Supervision: est. $2.7 mil. (120 mil. baht) | To be announced in 1998 | -Capacity: 150,000 cubic meters/day -Covers: Dusit, Phayathai, Huay Khwang, and Jatujak -PQ closed since the middle of 1996 -The preparation of tender document for the bidding of construction is expected to be announced by February 1997. |
Case Study 1: Wastewater: Bangkok Metropolitan Authority (BMA) Phase III Wastewater Collection and Treatment System The BMA Phase III Wastewater Collection and Treatment Project is a turnkey project aiming to upgrade Bangkok’s wastewater treatment facilities serving 12 million residents. It is worth more than US$200 million, with US$8 million going toward construction supervision. The project secured 60 percent of its financing through the central government and the remaining 40 percent through BMA. The environmental goal of the BMA Phase III Project is to treat 60 percent of the domestic wastewater currently discharged into the Chao Phraya River from the Nong Khaem, Phasi Charoen, and Ratburana areas. The case illustrates the careful coordination required in securing partners for a competitive consortium and in maintaining outreach to the Thai procurement agencies. Premier Enterprise Public Co., Ltd., a well-established Thai contractor, had unsuccessfully bid on the first two phases of Bangkok’s wastewater treatment and collection systems. Premier joined with BHR Garver of Texas and Thames Water (UK) to bid on BMA I, but was unsuccessful due to difficulties encountered in coordinating the bid with Thames. Premier-BHR Garver then bid on BMA II with Wales Water but experienced many of the same difficulties. |
Case Study 2: Wastewater Opportunities (NASDA) JWI, Inc. of Holland, Michigan, sponsored by the Michigan Jobs Commission, used a NASDA Environmental Technology Fund grant to demonstrate its wastewater treatment equipment in Thailand in July-August 1994. The equipment included filter presses and dryers for municipal and industrial applications. More than 40 potential sales agents and distributors, consulting engineers, and government officials attended the meetings. As a result of the demonstration, JWI had sold about US$200,000 worth of equipment in Thailand as of the end of 1996. |
Industrial Estate | Type of System | Capacity (m3/d) | Capital Cost (Million baht) | Year |
Bangchan | Activated Sludge | 4,000 | 135.00 | 1996 |
Ladkrabang | Activated Sludge | 20,000 | 103.76 | 1979 |
Bangplee | Activated Sludge | 3,000 | 64.54 | 1986 |
Bangpoo | Aerated Lagoon/Rotating Biological Contactor | 22,000 | 13.98 | 1980 |
Northern Region | Aerated Lagoon | 5,600 | 25.50 | 1986 |
Map Ta Put | Activated Sludge | 4,000 | 30.94 | 1989 |
Laem Chabang | Activated Sludge | 20,500 | 257.53 | 1991 |
Bangpakong | Aerated Lagoon | 11,300 | 94.85 | 1992 |
Hi-Tech | Activated Sludge | 16,800 | 143.19 | 1992 |
Bangpain | Activated Sludge | 6,000 | 157.53 | 1994 |
Gateway City | Activated Sludge | 37,229 | 190.00 | 1994 |
Bangpoo (Phase A) | Activated Sludge | 3,600 | 108.30 | 1994 |
Samut Sakhon | Activated Sludge Chemical Treatment | 22,000 2,000 | 218.08 | 1991 |
Chonburi (Bowin) | Activated Sludge | 6,400 | 130.82 | 1992 |
Saraburi (Kang Koi) | Activated Sludge | 8,000 | 75.00 | - |
Nong Khac | Activated Sludge | 12,000 | 88.00 | - |
Eastern | Activated Sludge | 12,000 | 75.00 | 1994 |
Wellgrow | Aerated Lagoon | 7,200 | 79.76 | 1994 |
Saharattananakohn | Activated Sludge | 8,000 | 80.00 | 1995 |
Gemopolis | Activated Sludge | 2,000 | 20.00 | 1992 |
Songkhla (Chalung) | Activated Sludge | 3,000 | 61.23 | - |
Pichit | Aerated Lagoon | 9,200 | 31.70 | - |
Case Study 3: Air Pollution: Ambient Air Quality Testing When the Pollution Control Department (PCD) announced four pollution-control zones in Thailand and the intention to set up a National Ambient Air Quality Monitoring Program, Radian Corporation was invited to talk to several relevant government departments and encouraged to bid for the project. This project led to two bids for 32 air quality monitoring stations. Phase One, for eight stations, was completed in 1995. Radian Corporation, in conjunction with two Thai companies, Petro Instruments and Air Resources, won the bid for $2.4 million. Of this amount, Radian earned $0.3 million, another $1.3 million went to the purchase of U.S. equipment, and the rest to the Thai consultants. The Kenan Institute Asia through the U.S.-Thailand Development Partnership program enhanced this deal with $51,000 to provide training to PCD officials. This enabled the parties to realize the full potential of the deal and, at the same time, demonstrated the commitment of Radian and the U.S. suppliers to technology transfer. PCD was thus encouraged to value U.S. goods and services and U.S. companies for serious consideration when they awarded the bid on Phase Two for the remaining 22 stations (at a cost of $7 million). Of Phase Two, at least $4.5 million was for the purchase of U.S. supplies. Radian has since won the Phase Two work. With a firm base established, Radian has been able to secure additional air pollution projects and is now looking to expand its business to other areas of Thailand’s environmental sector. The Air Quality Monitoring stations will show air quality deterioration in spots, leading to emission controls. These controls will hopefully translate into future sales of stack scrubbers for industrial emission, auto emission testing equipment, and auto emission clean-up equipment, among other equipment. Getting the Pollution Control Department to become familiar with and accept U.S. air quality monitoring equipment and supplies will give an edge to U.S. product sales in this field. |
Region | Solid Waste Estimation (tons/day) | Collection Efficiency (percent) | Disposal (percent landfill) |
Bangkok Metropolitan | 8,000 | 93 | 77 |
Municipality & Pataya | 6,300 | 80 | 13 |
Sanitary District | 4,200 | 15 | None for landfill |
Others | 16,500 | 15 | None for landfill |
Total | 35,000 | - | - |
Industrial Estate | GIZ Incinerator (No/Cap; Kg/h) | Landfill | EPZ Incinerator (No/Cap; Kg/h) | Truck Landfill (rai) | No/Cu.m. | Capital Cost (Million Baht) |
Bang Chan | M | - | - | - | - | - |
Bang Poo | M | - | 1/250 | - | 1/12 | 13.95 |
Lat Krabang | 1/500 | - | 2/250 | - | 1/8 | 1.25 |
Bang Plee | M | - | - | - | - | 4.12 |
Map Ta Phut | - | 9 | - | - | 1/4 | 9.26 |
Laem Chabang | - | 30 | 1/10 (T/D) | - | 2/12 | 21.32 |
Northern Region | - | - | 1/250 | - | 1/1 | 1.25 |
Samusakhon | 2/500 | - | - | - | - | 9.80 |
Bo win | 2/500 | 10 | 2/500 | - | - | 20.21 |
Well Grow | 4/750 | - | - | - | - | 20.00 |
Bangpakong | 1/250,1/500 | - | - | - | - | 7.00 |
Gateway | 1/5 (T/D) | - | - | - | - | 20.00 |
Eastern | 1/500 | - | 2/250 | - | 3/7.5 | 9.00 |
Bangpain | 2/500 | - | 1/500 | 0 | 3/12 | 15.00 |
Hi-Tech | 1/500, 3/500 | - | 1/500, 3/500 | - | - | 20.00 |
Saharatananakhon | N/A | - | - | - | - | - |
Nong Kae | 4/500 | - | 1/500 | - | 4/12 | 16.90 |
Kaeng Khoi | 4/500 | - | 2/300 | - | 4/12 | 20.00 |
Gemopolis | - | - | - | - | N/A | - |
Padaeng | N/A | - | N/A | - | N/A | - |
Pollution Control Department | $US Millions |
BMR Privatization of Solid Waste Management | 300 |
Eastern Seaboard Privatization of Solid Waste Management | 120 |
Bankok Metropolitan Administration | |
3 BOO solid waste disposal facilities to landfill, recycle, compost, and incinerate 2,000 tons per day | N/A |
Nonthaburi: Solid waste BOO project of 500 tons per day | 20-30 |
Hat Yai: Lower South Medical Waste *Incinerator with capacity of five tons per day | .8 |
Equipment | Major Customer |
Dump trucks, compactors, street cleaning trucks | BMA and larger provincial municipalities |
Tankers for transporting used lube oil and restaurant grease | BMA |
Design and systems for sorting and recycling | BMA and larger provincial municipalities |
Landfill liners | Larger landfill operators |
Leachate monitoring equipment, other laboratory testing equipment | Larger landfill operators |
Groundwater modeling | PCD |
Leachate treatment | Larger landfill operators, PCD |
Hazard and risk assessment | PCD |
Old dump site investigation and remediation | PCD |
Incineration systems | BMA, larger provincial municipalities |
Methane-to-electricity generating systems | BMA, landfill operators |
Landfill system monitoring and control software | PCD |
Case Study 4: Solid Waste Management, Air Pollution Reduction, and Energy Eficiency: Kampaengsaen (Energy- Landfill Gas to Electricity) The Energy and Environmental Engineering Center (EEEC) of Kasetsart University and the 79 Group are establishing a pilot electricity-generating plant sourced by landfill gas at the Kampaengsaen landfill. Since landfill gas-to-electricity technology is not currently being applied in Thailand, the participants are using this as a demonstration project. The system will tap an unused source of energy, improve the environmental conditions in Kampaengsaen, and reduce the emission of methane (a greenhouse gas) from the landfill into the atmosphere. As the first landfill gas-generating electricity plant in Thailand, it will also pave the way for the development of such facilities at other landfills throughout Thailand. The 79 Group, which owns the landfill, and nearby Kasetsart University, which needs additional electricity supplies, agreed to cooperate on the venture. The project has attracted funding from the Thai Royal Family through the Chai Pattana Foundation, Thailand’s National Energy Policy Office ($1.04 million), and the Kenan Institute Asia through the U.S.-Thailand Development Partnership program. After a successful demonstration phase, it is expected that the private sector will invest in a full-scale facility at the 3-ton per day Kampaengsaen landfill, Thailand’s largest. The project is proceeding in the following phases: (1) prefeasibility study; (2) a business development mission to the United States; (3) preliminary field testing; (4) field testing and design stage for the gas collection system and a 650 kW electricity facility; (5) building and start-up phase of the gas collection system and 650 kW facility (ongoing); (6) operating the 650 kW facility; and (7) expansion of the 650 kW facility into a full-scale 2–5 MW facility. Kasetsart University brings considerable environmental and engineering capability to the partnership. The University, however, had no personnel directly experienced with the design and operation of a landfill gas-to-electricity project and therefore required U.S. technical assistance. A U.S. engineering consultant was identified and brought to work on the field testing and design stage of the project that was partially funded by the U.S.-Thailand Development Partnership. Partnership personnel also assisted on a financial feasibility projection, identified U.S. equipment suppliers (including the supply of US$500,000 worth of electricity generating equipment), and provided training. The facility should be operational in 1998. |
Waste Type | 1986 | 1991 | 1996 | 2001 |
Oils | 106,372 | 188,254 | 332,779 | 589,503 |
Liquid Organic Residues | 187 | 311 | 522 | 876 |
Organic Sludges & Solids | 3,737 | 6,674 | 11,951 | 21,533 |
Inorganic Sludges & Solids | 11,655 | 19,163 | 31,858 | 53,696 |
Heavy Metal Sludges & Solids | 302,316 | 536,322 | 946,565 | 1,658,192 |
Solvents | 19,783 | 36,163 | 58,532 | 124,306 |
Acid Wastes | 18,505 | 31,432 | 53,793 | 46,105 |
Alkaline Wastes | 5,769 | 9,839 | 16,846 | 29,109 |
Off Spec Products | 12 | 25 | 52 | 107 |
PCB | * | * | * | * |
Aqueous Organic Residues | 116 | 242 | 499 | 1,037 |
Photo Wastes | 8,820 | 16,348 | 30,398 | 57,809 |
Muncipal Wastes | 7,231 | 11,787 | 19,090 | 31,093 |
Infectious Wastes | 45,674 | 76,078 | 123,219 | 200,699 |
Total | 530,177 | 932,638 | 1,626,104 | 2,813,975 |
Type of Waste | Tons per Year |
Industrial Waste | 1,100,000 |
Commercial and Services | 126,150 |
Medical Waste | 122,400 |
Marine and Shipping | 121,950 |
Household | 18,900 |
Agriculture | 10,800 |
Case Study 5: Rayong Hazardous Waste Treatment Center (GENCO) The cabinet approved the Rayong Hazardous Waste Treatment Center in 1994 as a joint venture between GCN Holding Co., Ltd. and the Ministry of Industry (holding 25 percent ). The planned investment of $100 million was to be for a model hazardous waste treatment plant, with a combination of waste analysis treatment, fuel-blending landfill, and incineration. Waste Management International obtained a subcontract to install and manage the landfill for 25 years. The project was planned to have hazardous waste treatment capability for 1,000 tons a year. The project grew out of a feasibility study funded by the U.S. Agency for International Development for such a facility to be situated in the fast-growing Eastern Seaboard industrial area. The feasibility study led to discussions of a joint project involving the Ministry of Industry, the finance company GCN Holdings Co., Ltd., and Waste Management International. During those discussions, the question of site safety was an important factor. Eventually, the project was approved with Waste Management in the role of designer, builder, and operator. To assist in addressing site safety issues, the U.S.-Thailand Development Partnership supported extensive site safety testing that was carried out by a U.S. engineering firm engaged by Waste Management. The testing showed that the site is geologically stable with a thick layer of granite underlying it. Despite extensive government involvement, considerable care in choosing a treatment and landfill site with a natural rock–based impermeability, and exhaustive site testing, the local people feared the landfill in Pluakdaeng would contaminate the nearby Nong Pla Lai water reservoir located below the landfill. This fear led to strong local resistance and demonstrations that blocked a major bridge linking Bangkok and the Eastern Seaboard. Following two days of protest and continued road blockage, causing substantial economic losses for business in the region, the Ministry of Industry agreed to review the whole process. The result of the review was a change in the design and relocation of the facility to the Map Ta Phut industrial estate in Rayong. A small landfill area was included, but the company is still searching for a much larger site for the longer-term needs of the facility. This experience offers a clear example of “not in my backyard” syndrome. At the time of site selection and testing, local village leaders were taken to Hong Kong and Indonesia to show what facilities for hazardous waste look like and the safety issues involved. Yet, when the protest erupted, the government hesitated to come out strongly to justify its actions and was subsequently forced to accede to public pressure as protests escalated. Construction of the facility in the new location was completed and operations began in 1997. Phase II, chemical and physical treatment, and Phase III, incineration, are currently in the bidding process. Although the project appears to be back on track, other potential entrants wonder whether GENCO will ultimately succeed or if the project will encounter more costly delays and changes. Much will depend on the Ministry of Industry’s willingness and ability to enforce its regulations. |
Case Study 6: Conversion of Hazardous Steel Slag toEnvironmentally Friendly Road Fillers Thailand’s rapid industrialization has encouraged a major expansion in steel production. This expansion, however, has resulted in significant pollution problems caused by the slag left from the production process. At present, Thailand’s steel producers dispose of slag mainly in landfills, which causes air and soil pollution. When landfills are not feasible, as is the case in certain parts of Thailand, slag is disposed of in water, creating more serious pollution problems. Samutprakarn province has recently ordered steel mills not to dispose of slag and other hazardous industrial waste outside of factory premises until a solution to the problem has been found. To address this problem, the Edward C. Levy Company of Dearborn, Michigan and NTS Steel Group Public Co., Ltd. of Bangkok, Thailand, worked out a joint-venture agreement to recycle and reprocess steel slag at Chonburi Industrial Estate on Thailand’s Eastern Seaboard. The joint-venture company, under the name Chonburi Steel Mill Services Ltd. (CSMS), will invest $23.2 million in the operation. CSMS will recycle and reprocess slag and steel mill wastes into slag aggregates, processed scrap steel, and ferrous pucks—commercial products that are environmentally safe and employ environmentally sound production processes. Asphalt pavement produced from slag aggregates will partially replace limestone aggregates as a road construction material, reducing Thailand’s reliance on quarrying, an additional major cause of air pollution. Ferrous pucks, produced from flue dust, will reduce imports of ferrous scrap by an estimated 200,000 metric tons per year. Some of the jobs in the new facility will require significant skills, including lifting, transporting, and tipping molten slag. These skills can be gained only by sustained practice. The U.S.-Thailand Development Partnership approved financial assistance of $45,500 to train the Thai work force in the Levy technology, providing 46 percent of total training costs in partnership with Levy and Chonburi Steel Mill Services, which will invest the remaining 54 percent. The Partnership also assisted the joint venture in the early stages of the process, including the negotiations with the Board of Investment to seek investment privileges. The development of the other facilities has been delayed because of the economic crisis. Levy was one of the first companies to win special tax privileges for environmental activities under new Thai regulations. CSMS is the first of four planned Levy recycling joint ventures in Thailand with different large Thai steel groups in other geographic areas. Levy generally prefers to establish operations on site for its larger customers, to reduce transport cost. |
Dam or reservoirs | Storage volume above 100 million cubic meters |
Irrigation | Irrigated area above 80,000 rai (12,800 hectares) |
Commercial airport | All |
Hotel, or resort facilities adjacent to rivers, coastal areas, lakes, beaches, or close to national parks/historical parks | 80 rooms and above |
Mining, as defined by the Mineral Act | All |
Industrial Estate as defined by the IEAT Act, or similar projects | All |
Commercial port | Capacity of vessels above 500 gross tons |
Thermal power plant | Capacity 10 MW and above |
Industries | |
Petrochemical | For oil refineries and/or natural gas separation units that use more than 100 tons of raw material per day |
Oil refinery | All |
Natural gas separation/processing | All |
Chlor-aklaline industry using sodium chloride as raw material | Capacity of 100 tons or above |
Iron and steel | Capacity of 100 tons a day or more |
Cement industry | All |
Smelting other than iron and steel | Capacity of 50 tons per day or more |
Pulp industry | Capacity of 50 tons per day or more |
All types of projects located in designated watershed areas | All |
Coastal reclamation | All |
Buildings in areas adjacent to rivers, coastal areas, lakes, or beaches or in or near national or historical parks | Having height of more than 23 meters or total floor space of more than 1,000 sq. meters |
Residential/commercial land | 500 plots or more, or land above 100 rai (16 hectares) |
Hospitals, located in a. adjacent to rivers, coastal areas, lakes, beaches b. in areas other than (a) | a. with 30 or more inpatient beds b. with 60 or more inpatient beds |
Producers of pesticide or active ingredient | All |
Chemical fertilizer factory | All |
Highway or roadways passing through— Wildlife sanctuaries National parks Class 2 watershed areas Mangrove in the national reserve forests Coastal areas 50 meters from maximum sea level | All including road expansion |
National Plan | Period | Demand Growth (MW) | Percent Annual Growth |
7th Plan | 1992–1996 | 4,639 | 10.40 |
8th Plan | 1997–2001 | 6,248 | 8.00 |
9th Plan | 2002–2006 | 8,520 | 7.50 |
10th Plan | 2007–2011 | 11,303 | 7.00 |
Year | Demand (MW) | Increase (MW) |
1996 | 13,312 | 779 |
1997 | 14,377 | 1,065 |
1998 | 15,527 | 1,150 |
1999 | 16,769 | 1,242 |
2000 | 18,111 | 1,342 |
2002 | 21,027 | 2,916 |
2004 | 24,299 | 3,272 |
2006 | 28,080 | 3,781 |
2008 | 32,149 | 4,069 |
Case Study 7: Energy Efficiency: Asian Institute of Technology Chilled Water Storage System Companies are increasingly interested in implementing energy efficient technologies because of the momentum that the government programs (Demand Side Management program and Energy Conservation Promotion Act) are creating and the realization that new technologies can save companies money. Thermal energy storage (TES) is one technology that aims to decrease the peak demand of electricity and reduce the number of power plants that will have to be built. TES systems accumulate cooling energy by using power generated during the off-peak hours (9.30 PM–8 AM), when there is no demand surcharge, to make ice or chilled water. The system then discharges the stored cooling energy the following day for air-conditioning or process cooling. Realizing the opportunity offered by TES in Thailand, Saangsan Consultants (Thai) and Dorgan Associates (U.S.) held a conference on the technology. From this conference two projects were generated: one with a spinning factory and the other at the Asian Institute of Technology (AIT). In 1995, AIT paid about $840,000 for its electricity bills, or an average of $70,000 per month. Out of this amount, about 25 percent is used for the air-conditioning system. Based on the energy audits and analyses, the chilled water storage system or cool thermal energy storage (TES) should save about 42 percent of the energy cost for the air-conditioning system. The capital investment for the system is about $328,000, with a payback period of 3.7 years. A second U.S. firm, CBI Walker, will supply the tanks for the system. Besides energy saving, AIT will receive other benefits such as (1) avoiding purchase of an additional chillier, about 550 tons of refrigerant (TR), for future cooling load growth; (2) more efficient operation of chillers, as they will operate at night at a lower cooling water temperature; (3) education: AIT’s students, who study energy technology, can learn by observing system operation; and (4) use of the chilled water storage tank for fire protection water and as an emergency fire water reservoir. This will be the first chilled water storage system in Thailand using a proven U.S.. technology, i.e., a thermally stratified water storage tank. If this demonstration is successful there will be significant opportunities with industrial and institutional end-users. This project is partly funded by the Kenan Institute Asia’s U.S.-Thailand Development Partnership program and substantial cost sharing from Saangsan Consultants Ltd., Dorgan Associates, Inc., and CBI Walker. As the energy sector continues on the path to privatization, an increasing amount of training will be needed. For the IPPs, training will be required for approximately 100 managers, more than 600 engineers, and operations and maintenance staff. For SPPs, particularly in the areas of energy efficiency and energy management in buildings and facilities, training is needed for an estimated 4,000 managers, engineers, and technicians in the next five years. One institution, the Power Management Institute (PMI), has been established specifically to meet the entire region’s growing demand for energy management skills. PMI is a partnership among Chulalongkorn University; the Thai electric utilities EGAT, MEA, and PEA; and two U.S. energy organizations. PMI operates through a large network of affiliate institutions, both Thai and foreign. Foreign partners, initially U.S.-based, are assisting in the establishment of the institute, participating in training activities, supplying and transferring technology, investing in the institute, and, in the future, may collaborate on research. |