SABIC Wastewater Conservation & Reuse

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What Can Industry do to Conserve Water? Save Water For Future Generations SAUDI ARABIAN WATER ENVIRONMENT ASSOCIATION WORKSHOP December 5 & 6, 2006 AlKhobar, Saudi Arabia SABIC Wastewater Conservation & Reuse Dr. Ahmed AlHazmi, Corporate Manager Abdulrasheed Jaffar, Section Head Corporate Environment & Industrial Hygiene Department, SABIC

Outline Environmental Regulations Introduction & Background SABIC Programs for Water Conservation Objectives for Wastewater Recovery Feasibility Study & Case Study Treatment Schemes Economics Other Water Conservation Initiatives Conclusion 1

Environmental Regulations The Presidency of Meteorology and Environment (PME) is the Regulatory Authority in the Kingdom. Royal Commission for Jubail and Yanbu has Authority from PME to manage the environment of J & Y. 2

WASTEWATER PRETREATMENT STANDARDS AT THE POINT OF DISCHARGE TO THE CENTRAL TREATMENT FACILITIES PARAMETER UNITS JUBAIL Maximum Limits YANBU Maximum 24h Average Temperature C 60 50 Total Dissolved Solids 2000 2000 Total Suspended Solids 2000 500 Ammonia, Total as N 120 80 BOD 800 COD 1500 Oil and Grease 120 100 ph 5 11 5 9 Phosphorus, Total P 50 2 Sulfate 800 150 Sulfide 6 10 Total Organic Carbon (TOC) Mg/l 800 400 3

INTRODUCTION Saudi Basic Industries Corporation (SABIC) was established in 1976 to add value to Saudi Arabia's natural hydrocarbon resources. Vision : To be a leading global manufacturer and marketer of hydrocarbon and metal products. Mission : To provide distinctive, highquality industrial products and services to customers, meeting the expectations of shareholders through optimum utilization of available human and natural resources, together with the use of the state of the art technology maintaining safe and environmentally sound practices. 4

Introduction (Cont ) SABIC has 18 worldscale manufacturing Affiliates in Saudi Arabia. SABIC also has the largest R&T complex in the Middle East. As of today, SABIC is one of the world s 10 largest petrochemicals manufacturers and among the world s market leaders in the production of Polyethylene, Polypropylene, Glycols, Methanol, MTBE and Fertilizers as well as the fourth largest Polyolefins producer. It is also the largest steel manufacturing company in the Middle East and North Africa. It operates globally and is committed to providing outstanding quality and customer care. 5

Introduction (Cont ) SABIC is an environmentally conscious organization from the inception. SABIC is committed to conduct its business in an environmentally friendly manner and with highest regard for the protection of the air, water and land resources by complying with applicable laws and regulations, and applying practical means to prevent pollution, reduce waste, minimize risk of operations, conserve resources and providing safe and health environment for its employees and the community. It continually seeks new ways to enhance the environmental performance of its operations and to protect the air, water and soil surrounding its plants. All the SABIC affiliates located in KSA are ISO 14001 certified. 6

BACKGROUND SABIC industries consume large quantities of potable water for their processes and generate a significant quantity of wastewater. The water data for the Affiliates located in Jubail is as below : Potable Water : 96000 m3/d Wastewater Generated : 44500 m3/d Currently, the wastewater generated from the industries is pretreated and discharged to a central Wastewater Treatment facility. The treated wastewater is currently used for landscaping purposes. The wastewater discharged from the industries fully comply with the Regulatory Wastewater Pretreatment Standards At The Point of Discharge to the Central Treatment Facilities. 7

Background (Cont ) In KSA, the majority of the potable water is supplied from the desalination of the sea water. The water consumption rate is increasing rapidly in the area due to the rapid growth in the industrial development. Accordingly, the wastewater generated has also increased resulting into additional load on the treatment plants. Water is a very precious commodity in our Environment and all efforts should be made to conserve it. Therefore, there is a need to recycle wastewater streams in an industry which consumes large quantity of water. 8

SABIC Programs For Water Conservation Realizing the importance of potable waster and the need to conserve the resources, SABIC implemented various programs to conserve the water. One of the programs implemented was a feasibility study to evaluate the potential for recycling the waste water being generated from its industries. Water Conservation through SHE Award Program 9

Objectives for Wastewater Recovery Conserving for water production in desalination plants at Al Jubail Availability of future water resources for expansions and new plants Saving of process water costs 10

Feasibility Study The wastewater streams have been sampled from all the industries and analyzed for various physical and chemical parameters at our R&T Laboratory. We hired a consultant to evaluate the data and determine the potential for recycling the wastewater streams. The study concluded that the wastewater streams can be treated and recycled. The study recommended various treatment technologies specific to the wastewater stream and suggested that the recycling of some of the wastewater is economically feasible. 11

100 79 100 3000 SITE11 100 0.4 0.92 0 0 0 8.7 150 2306 SITE10 4 15 6.87.3 250 50 SITE9 40 0 0 0 0 9.2 42 1400 SITE8 1.4 0 0 4.1 7.58 240 1400 SITE7 24 12 1 0.2 0 0.05 0.7 6.5 200 636 SITE6 0.09 48 2 8 30 84 SITE5 <10 3040 33 0.78 0.88 0.4 0.9 6.57.5 60 550 SITE4 15 0.8 0.18 15 0.9 3.3 811 150 1000 SITE3 0.07 44 31 0.2 0.1 3 8.66 100 100 SITE2 4.7 Nil Nil 5 7.76 5 523.3 SITE1 NH4 O&G Mn ppm Ca ppm Mg ppm Zn ppm Cu ppm Fe ppm ph TOC ppm TDS ppm Parameters Affiliate Wastewater Characterization

Case Study Treatment and Basic Engg. Evaluation Based on the positive signs from the feasibility study, SABIC conducted a pilot study and Basic Engineering Evaluation on one of the Affiliate wastewater for treatment and reuse to reduce the freshwater intake and costs for potable water. The Affiliate currently generates about 10,080 m 3 per day of wastewater from plastics, olefins, and utilities operations. The facility wastewater regularly meets the discharge standards. Due to the different origin and nature of Plastics wastewater from Olefins wastewater, treatment and recycling is separated in two phases. 12

Phase I Collection, treatment, and recycling of PVC and PS Wastewater Collection, Treatment and recycling of Regeneration Wastewater of the existing demineralization units Treatment and discharge of VCM Wastewater Phase II Collection, treatment, and recycling of Olefins wastewater 13

Scope Of The Basic Engineering Study Sampling of all the 12 wastewater streams Laboratory analysis of samples in consultants laboratory Laboratory tests for biological treatment with original wastewater of: Combined wastewater PVC wastewater VCM Wastewater Based on the results of the laboratory tests finalize complete treatment system for both phases Determine investment and operation cost Determine the economics of the wastewater recovery plant based on the potential savings. 14

PhaseI Influent Wastewater Characterization Parameter Unit Design Worst Case Wastewater Flow m3/d 5760 TOC 113 165 SS 326 502 TDS 105 130 NH4N 7 PO4P 0.1 0.5 Temp O C 45 ph units 10.2 12.2 15

PhaseI Treated Water Characteristics Parameter Units Design Worst Case TOC <3 SS <1 TDS 125 <150 16

PhaseI Finalized PVC Wastewater Treatment Scheme Neutralization, Primary Clarifier, and Equalization. About 93% of SS and 60% of TOC removed LINPOR Aeration Tank Clarifier Disinfection Dual Media Filter Sludge Treatment (Stabilization, Thickener and Dewatering) Final treated water with TOC less than 3 ppm, SS less than 1ppm and TDS about 125 ppm 17

PhaseI Demineralization Wastewater Treatment Scheme Design Flow of Demineralization Plant Wastewater 1650 m 3 /d with TDS of 5000 Neutralization 2 step Reverse Osmosis About 66% of feed flow is recovered with TDS below 10 ppm and added to treated PVC water. 18

PhaseII Influent Wastewater Characterization Parameter Unit Design Worst Case Wastewater Flow m3/d 5470 TOC 101 272 SS 60 120 TDS 300 500 NH4N 28 PO4P 0.4 Oil & Grease 100 300 Temp O C 65 ph units 10.2 12.2 19

PhaseI I Treated Water Characteristics Parameter Units Design TOC <1 SS <.1 TDS 50 20

PhaseII Finalized Olefins Wastewater Treatment Scheme Pretreatment in existing facilities (CPI, sludge pond, etc.) Dissolved air flotation Equalization LINPOR Aeration Tank Clarifier Disinfection Dual Media Filter Activated Carbon filter Reverse Osmosis Sludge Treatment (Stabilization, Thickener, and Dewatering) Final treated water with TOC less than 1 ppm, SS less than 0.1ppm and TDS about 50 ppm 21

Phase (1) Economical Calculations Recovered PVC WW 4,800 x 365 d = 1,752,000 m 3 /a Recovered Regeneration WW 1092 x 365 d = 398,580 m 3 /a Recycled Water Flow = 2,150,580 m 3 /a Capital Saving 2,150,580 x 6 SR/m 3 = 12,903,480 SR/a Capital of selling low grade PVC 715 t/a x 187.5 SR/t = 134,000 SR/a con t 22

Economical Calculations cont d Payback Period: 38,000,000 SR/ (12,903,480 + 134,000 2,816,120) SR/a = 3.72 a The payback period for the Wastewater Recovery Plant amounts to: 3.7 years 27.2% per year Saved costs after the payback period 10.3 M SR/a 23

Phase (2) Payback Period (based on actual flow) Waste Water Flow 4,560 X 365 d = 1,664,400 m³/a In R.O. as Saline Losses (15%) 684 X 365 = 249,660 m³/a Recycled Water Flow 1,414,740 m³/y Capital Saving 1,414,740 X 6 SR/ m³ = 8,488,440 SR/a Payback Period 33,000,000 SR / (8,488,440 2,348,632) SR/a = 5.37 a The Payback period for the second phase of the Wastewater Recovery Plan amounts to: approx 5.4 years 8.6%/ year ave. water costs after the payback period 6.1 M water 24

Other Programs to Conserve Water Resources SABIC has established an annual Safety, Health, and Environment (SHE) Award Program. In this program, all the SABIC Affiliates participate and top three (3) Affiliates with best SHE performance will receive the award from the CEO of SABIC. The SHE Award criteria have various requirements related to the performance of Safety, Health, and Environment. One of the requirements is to conserve water. 25

Natural Resources Conservation. To be calculated by the formula: Water Conserved = (A B) X 100/A where: A= Potable Water consumption per ton of product in the previous year B= Potable Water consumption per ton of product in the current year The Affiliate claiming the credits for Water Conservation shall substantiate the claim with the programs implemented to conserve water such as cost involved, treatment system installed, process modifications, performance monitoring of the treatment system, reduction in fresh water supply, etc. Natural Resources Conservation (Reduction in water consumption per Ton of product) > 7 % (8 points) 4 7% (5 points) 2 4% (3 points) < 2 %... (0 points) 26

CONCLUSIONS The Criteria included in the SHE AWARD program helped to achieve about 5% reduction in water consumption. Recycling program is feasible. The payback period for the PhaseI is encouraging. Awaiting Management approval to proceed with the project. 27

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