Differentiation Summary. Revolutionizing Water Clean-Up Opportunities



Similar documents
Economic and technical assessment of desalination technologies

The Grand Miramare Hotel Santa Margherita (Portofino) Italy March 19 22, Inspiring Innovation and Excellence

FILMTEC Membranes Strategies for Using FILMTEC Elements to Lower Your Total Cost of Seawater Desalination

Wastewater Reuse. Typical treated wastewater is:

ECOAZUR BLUEWATER WATER PURIFICATION PLANTS

Water Treatment and Reverse Osmosis Systems

Water Equipment Technologies. Advanced Membrane Technologies for Solving Worldwide Water Problems

Membrane Filtration Technology: Meeting Today s Water Treatment Challenges

Pall Aria Integrated MF/RO Systems for Cost-Effective Treatment of Sea and Brackish Waters

Mine Water Treatment Solutions for Discharge and Re-Use

Regulatory Options for Membrane Treatment and Residuals Management

COOLING TECHNOLOGY INSTITUTE

CENTRAL ARIZONA SALINITY STUDY ---- Phase I. Technical Appendix O. Municipal TDS Research

Dissolved Mineral Radioactivity in Drinking Water

Basics of Reverse Osmosis

GUIDELINES FOR LEACHATE CONTROL

SOLAR WATER PURIFICATION WITH THE HELP OF CSP TECHNOLOGY

Subject: Technical Letter 22 April 1977 Removal of Water Supply Contaminants -- Copper and Zinc

Water Purification Solutions

By: Curt Roth Vice President, Engineering EconoPure Water Systems, LLC. Point of Use/Point of Entry Treatment with LFNano. An EconoPure White Paper

Drinking water for Gaza Elaboration concept 2

Nine Industrial Scale V SEPs. Feed Tank V SEP. Feed Pumps (Three) Concentrate. Tank. V SEP Treatment System

2.500 Desalination and Water Purification

PRINCIPLES AND PRACTICES OF REVERSE OSMOSIS

Feasibility Study of Brackish Water Desalination in the Egyptian Deserts and Rural Regions Using PV Systems

Economic Siting Factors for Seawater Desalination Projects along the Texas Gulf-Coast

Tampa Bay Seawater Desalination Plant

Case Study: Optimizing Scale Inhibition Costs in Reverse Osmosis Desalination Plants

Total Water & Wastewater Management for Shale Gas Production. Treatment and Operation Solutions

GE Power & Water Water & Process Technologies. Water Treatment Solutions for Unconventional Gas

Measuring the Benefit of a State of the Art Water Treatment Facility to the Monongahela Basin

INTERSTAGE ENERGY RECOVERY TURBINE APPLICATION MARCO ISLAND, FLORIDA

PHOENIX ENERGY of NEVADA, LLC (PENV) (PENV)

Cost Savings Gained through Rotary Impingement Tank Cleaning

SPE Distinguished Lecturer Program

Nitrate and Nitrite Removal from Municipal Drinking Water Supplies with Electrodialysis Reversal

TREATMENT OF PHOSPHATE FERTILIZER PLANT WASTE WATER IN FLORIDA FOR DISCHARGE AND RE USE PURPOSES

Lenntech. Dow Water Solutions. FILMTEC Membranes. Product Information Catalog

HUBER Vacuum Rotation Membrane VRM Bioreactor

Complete. Water Solutions. for Rural India

DESIGN AND SETUP OF A HYBRID SOLAR SEAWATER DESALINATION SYSTEM: THE AQUASOL PROJECT

Reverse Osmosis Membranes for Wastewater Reclamation By Craig R. Bartels, PhD Hydranautics, 401 Jones Road, Oceanside California, USA 92054

DOW Ultrafiltration. Case History. High Turbidity and Temperature Fluctuation No Obstacle for DOW Ultrafiltration

ION EXCHANGE FOR DUMMIES. An introduction

Troubleshooting Your RO

Water Info. What is Reverse Osmosis?

Portable Swimming Pool Reverse Osmosis Systems

Christopher Harto Argonne National Laboratory

Wind Project 1 - Small Telephone Network Marketing

How To Water System

7. TECHNICAL ASPECTS OF DESALINATION PLANT

Reuse of Alternative Water Sources for Cooling Tower Systems Two Case Studies Using Non-Traditional Water Sources

Corrosivity of Water Supplies

Our Environmental Protection Plan RECYCLING CAPABILITIES AND ENVIRONMENTAL ACCOMPLISHMENTS

AXIAL PISTON-PRESSURE EXCHANGER DEVELOPMENT PROGRAM. 1.0 Abstract

Nu G Medical Waste System Technology (Pyrolysis / Thermal Decomposition)

Economic and Technical Analysis of a Reverse-Osmosis Water Desalination Plant using DEEP-3.2 Software

Innovation and Progress in Water Treatment Technology

The Economics of Desalination for Various Uses. Carlos Campos

Well Water Iron Removal Using Quantum DMI-65 Granular Filter Media

MEMCOR membranes for drinking water applications. Water Technologies

Clean, fresh water has become a critical

ROSS Technology Removal of Oil, Solids and Scale Formers

COOLING WATER MANAGEMENT

District Cooling Water Resource Management

Amiad s AMF² pre-treatment technology ensures efficient and reliable nanofiltration of Scottish Highland loch water

RO Reverse Osmosis equipments

Comparison of multiple port and end port connections for pressure vessels

BROADFIELD SECURITY SERVICES WATER FILTRATION AND PURIFICATION SOLUTIONS

Innovative Water Technologies Programs. 5 th Annual Summer Seminar 2015 San Antonio Water Systems July 24, 2015 By Erika Mancha

Evaluation of Alternatives to Domestic Ion Exchange Water Softeners. Mara Wiest Dr. Peter Fox Dr. Lee Wontae, HDR Tim Thomure, HDR

VIPCLEAN Via Goretta 96/A Mappano di Caselle (TO) Tel Fax

U. S. Army Corps of Engineers Ground Water Extraction System Subsurface Performance Checklist

1. Inspection and monitoring... 3

Indiana s Newest Filtration Facility; East Chicago

DESIGN CHALLENGES AND OPERATIONAL EXPERIENCE OF A MEGA MED SEAWATER DESALINATION PLANT IN TIANJIN

Remediation of Water-Based Drilling Fluids and Cleaning of Cuttings

Thermo Scientific Barnstead TII Pure Water Systems. Pure water. Pure research. Total confidence.

Modern Construction Materials Prof. Ravindra Gettu Department of Civil Engineering Indian Institute of Technology, Madras

Environmental issues related to desalination are

A Global Leader in Water Solutions for Industries

OSMOSIS AND DIALYSIS 2003 BY Wendy Weeks-Galindo with modifications by David A. Katz

Desalination and Advance Water Treatment Economics and Financing Corrado Sommariva Corrado Sommariva

Desalination Process Advancement by Hybrid and New Material beyond the seahero R&D Project

GRANULAR ACTIVATED CARBON FOR WATER & WASTEWATER TREATMENT

Stenner Pump Chlorinator Installation & Start Up Guide

Chemical Decontamination and Fluid Handling Services

Information Technology Solutions

Performance Monitoring & Optimization

Development of Advanced Wastewater Treatment and Reclamation System

Remediation of VOC Contaminated Groundwater

In this experiment, we will use three properties to identify a liquid substance: solubility, density and boiling point..

GLS Sampler Selection Guide

Managing the Island s Water Resources Planning for the future

Water Recycles poster

Electrodeionization (EDI)

Resource efficiency in the UK whisky sector

Technology Focus. Saving Energy, Water, and Money with Efficient Water Treatment Technologies. Introduction. Reverse Osmosis

Chapter 1 Introduction

Some Criteria for Choosing a Steam Boiler for a Microbrewery

Transcription:

Differentiation Summary Revolutionizing Water Clean-Up Opportunities NanoClear is a water clean-up process that affordably and efficiently converts salt, brackish or waste water into pure, usable water. NanoClear s selectively permeable Dais membrane allows only high dielectric constant molecules, like water, to pass from one side to the other. This allows NanoClear to purify virtually any water-based substance. The NanoClear process brings the benefits of clean, affordable water to a world with limited and diminishing fresh water supplies. NanoClear adopts the best attributes of reverse osmosis (RO), the leading method of water cleanup today, while addressing key issues that have beset RO. Common problems with RO include membrane fouling, high costs (capital and operating expenses), effluent disposal, and removal of toxic elements. With Dais revolutionary membrane, NanoClear seemingly faces none of these issues. In the United States, a new and strong market driver for NanoClear comes from the recent Environmental Protection Agency s ruling, requiring US municipalities to lower discharge from run-off and waste water plants to parts per billion. Dais NanoClear is one of the few products to effectively, affordably and reliably clean to the EPA s new parts per billion standards, as confirmed by independent testing on water samples obtained from industrial processes: By-product water in Inner Mongolia, China and leachate water (contaminated runoff ) from a US area landfill. These tests were conducted under the protocols established by the World Health Organization and US EPA Clean Water Act. Low CAPEX and OPEX, parts per billion clean water and clear advantages over other processes, NanoClear is revolutionizing water clean up to meet the long term needs of the world s growing population. NanoClear Offers Clear Advantages Dais combines the best elements of RO and of distillation to successfully address each technology s respective weaknesses. A summary of NanoClear s advantages versus reverse osmosis is summarized in the following table: Version 5.0 F August 2010

NanoClear v. Reverse Osmosis Water Treatment NanoClear Reverse Osmosis Process 3 Distinct Low Pressure Membrane Processes * Multi-Staged Vapor Compression * Multi-stage * Parallel Stage Direct Impingement [1] Single High Pressure Membrane Process * Solar Pond [2] By Process (Independent of plant size) RO (Dependant on Plant Size) Electrical Usage * Vapor Comp 3.0-4.0 kwh/m 3 * 2.5 to 3 kwh/m 3 @>10 4 m 3 per day * Direct Impingement.1 to.3 kwh/m 3 Membrane Characteristics * Solar Pond:.1 to.3 kwh/m 3 Simple 20 um particle pre-filtration * No regeneration required * * No fouling or scaling * * No chemicals required * * Extremely long lifetime - unknown limit Water Quality Independent Complex Multi-Stage Prefiltration/treatment Regeneration timing dependant on water quality Lifetime dependant on water quality - 2 yrs Chemicals required to protect membrane Water Quality Dependant Capture Percentage * Vapor Compression >85% * 45-65% * Direct Impingement = ~75% * Solar Pond >95% Low Pressure Plastic Piping High Pressure Stainless Steel Plant Construction * Vapor Comp - Serially Staged Trains * Serially staged trains * Cost * Direct Impingement - Parallel Multi- Pass * Batch Processing $.25 to $.33 (projected) M 3, desalination * $.50 to $1 (actual) M 3 desalination Notes: [1] Can be powered by ocean thermo cline or geothermal strata temperature differences [2] Vapor Capture closed heat cycle

NanoClear membranes separate water from dissolved solids by diffusing water through a solid molecular matrix that has nanometer dimensions and no pores. Once the water is through the structure it undergoes a phase change and is re-condensed against a thermal recovery surface. The membrane does not foul or scale or require regeneration and has not failed in our testing. The NanoClear process, when used in conjunction with a direct impingement plant configuration, has the ability to function using temperature differences contained within the environment, such as those in ocean thermo clines or geothermal strata. Operating onshore or on ocean platforms, NanoClear will efficiently produce clean water at low capture ratios that eliminate toxic salt discharge concentrations. Electrical energy consumption is 1/10 to 1/3 that of reverse osmosis because the process operates at ambient pressure and pumping energy is only used to overcome pipe friction losses. Product Status and Development NanoClear is early in deployment/beta stage with a scalable plant planned to open in 4Q 2010 in the Tampa area. Test results for the materials and flexible design approaches demonstrate that NanoClear offers compelling projected capital and operational cost savings of up to 50 percent over competing technologies while maintaining similar output efficiencies. To address China s growing water demand and diminishing water supply, Dais has partnered with Genertec America, Inc., creating a $200 million, 5-year distribution agreement. Under this distribution agreement, Dais is executing on its $48 million contract for NanoClear units for China s first Zero Discharge Waste Water Treatment Facility in the Inner Mongolia province (see photo on page 5). The first 2,500m 3 (660,000 gallons) unit is scheduled to be deployed in China by the end of 2010. Dais will use its experience in China as a model to expand NanoClear into other Chinese installations and into targeted foreign markets worldwide. A NanoClear prototype unit and the description of the process can be seen by visiting www.daisanalytic.com/nanoclear.htm.

NanoClear s Demonstrated Benefits High Performance o Functions well with small temperature differences (as little as 3 C) from waste heat or environmental gradients to provide potable water created from seawater, brackish water, or contaminated sources o Little/no discharge effluent needing disposal (eco-friendly) o Membrane materials are not damaged by high saline content water Low Cost o Affordable alternative in areas of the world that do not have the funds for traditional massive infrastructure investments o Reduces build and maintenance cost by over 50% Low Energy Consumption o Keeps energy consumption ultra-low (.1kWh - 4 kwh / m³ of water depending upon configuration) o Projected energy costs, depending upon configuration, range from $0.75-$3.00 USD kwh/m 3 of water produced at a delivered cost beginning at approximately $.25/m 3 o Uses waste heat from industrial processes, heat from the ground (geologic), or heat from water taken at different depths (hydrologic), thus lowering energy input costs Simple Process & Simple Maintenance o Low pressure, using C-PVC plastic v. stainless steel o Minimal/no chemical pre- or post-treatment of water o Needs no special treatment to protect the membrane from high saline content feed stream or other contaminants such as organic growth, chlorine, low ph, inorganic scaling or biological fouling o The process appears to maintain its thermal and electrical efficiency across all scales; large and small in all forms of testing o Plant simplicity combined with low power requirements allows decentralized, pointof-use deployment NanoClear s Technology: The Difference is in the Membrane NanoClear s ability to be a strong differentiator in the market comes from the attributes of Dais nano-structured membrane: Moisture transfer rate of 180 grams per square meter per hour @ 350 C (flux) Glass transition temperatures from -500 C to 2600 C (useful range) Ionic conductivity of 0.09-0.12 Siemen/cm @ 25 C (no pretreatment) Self assembling channels or domains Forms a hermetic (solid) membrane with highly tunable selective permeability Our intellectual property methods allow precise control over the chemistry of the resulting polymer, giving Dais the ability to tailor the material s active properties to the application s needs and price point

Executive Summary As worldwide need grows for more clean water, newer technologies and processes will play a larger role in meeting the world s clean water needs. In addition to being a fully scalable water clean-up plant, NanoClear can be deployed as an RO hybrid product augmenting the effectiveness of an existing RO plant. NanoClear uses Dais s commercially available membrane material which is proven effective in this demanding application. NanoClear is cost competitive, has superior operational and scalable benefits, and can revolutionize water treatment to meet the world s growing potable water needs. NanoClear technology is being scaled, and water testing systems are now in the field. Customers can test their effluent water with the Dais NanoClear process. NanoClear holds the promise that no other existing technology can offer: a scalable, low cost, energy efficient process to provide clean water to the citizens of the United States and other nations for decades to come. No other commercial technology, as near as the Company can tell, has the breadth of application, ability to process as many types of brines and effluent, or the ability to purify away very high TDS (total dissolved solids) water as does NanoClear. NanoClear Testing and Water Qualification System