Separations Overview TDRL Seminar

Similar documents
Lowering The Total Cost Of Operation

Trident. Package Water Treatment System

CONTRAFAST. High-Rate Thickening Clarifier

Leopold Desalination Pretreatment Systems

AquaABF Automatic Backwash Filter. Your Water & Wastewater Specialists

Understanding Pretreatment. WesTech Engineering, Inc. Salt Lake City, Utah, USA

ACTIFLO Process For Drinking Water Treatment WATER TECHNOLOGIES

Waste Water Treatment Equipment

W O C H H O L Z R E G I O N A L W A T E R R E C L A M A T I O N F A C I L I T Y O V E R V I E W

Comparing the Leopold Clari-DAF System to Upflow Contact Clarification

Lake County WTP Improvements and Capacity Increase. OTCO 9 th Annual Water and Wastewater Workshop. Nick Pizzi Aqua Serv

Case Study: Parkson DynaSand D2 Filtration and Compliance Jessy Matthew John, The Probst Group

Iron/Manganese Package Plant Pre-Engineered Ground Water Treatment. Village of Bolivar, NY

for CSO Treatment December 2002, the city of Toledo, Ohio, signed a consent decree with the U.S. Environmental

6.5 Filtration General

Physical water/wastewater treatment processes

Agenda. Pretreatment Background Typical Contaminants Practical Examples Methods of Treatment and References

Fuzzy Filter: The Right Path for Graton Community Services District

We Know Water. Hydrotech Discfilter Pure Performance WATER TECHNOLOGIES

INFILCO BIOLOGICAL FIXED FILM MBBR IFAS PROVEN

City of Enderby Water Treatment Plant

Ready, Set, and Go: Deer Valley WTP East Basins Performance Testing, Start-Up, and Commissioning Toby Teegerstrom Brian Watson

Greater Kegalle Water Treatment Plant Kegalle, Sri Lanka

J.K. ENGINEERING LTD. CONSULTING * RESEARCH * DEVELOPMENT

ACTIFLO Process. For Wet Weather and Wastewater Treatment WATER TECHNOLOGIES

AS-H Iso-Disc Cloth Media Filter

Government Center Water Treatment Plant Kamphaeng Phet Province, Thailand

THE BOSSIER CITY WATER TREATMENT PLANT (Background and Current Process Layout )

HYDRO-CLEAR FILTERS: COUNT ON THEM 24/7/365 REACTION TANKS

Dissolved Air Flotation For Municipal Clarification and Thickening. WesTech

Providing Infrastructure Redundancy at the Rocky River WWTP. Timothy McCann AECOM Keith Bovard Rocky River WWTP

Water Treatment and Conveyance System Salem Gammoh, Jordan Ministry of Water and Irrigation

Environmental Improvements Associated with Springfield WWTP EHRT. Using the Compressed Media Filter Technology

TiPSS TECHNOLOGY. Corrugated Plate Interceptor WATER TECHNOLOGIES

ACTIFLO Process. For Wet Weather and Wastewater Treatment WATER TECHNOLOGIES

Green River Filtration Facility Plant Overview

Attachment N o F Control & Monitoring

CE 370. Filtration. Overview of the Process Location in the Treatment Plant

POREX Tubular Membrane Filter Modules For Metal Contaminated Wastewater Treatment & Reclamation

Cover. Pressure Filters

Cover. Pressure Filters

DAFF AIR DISPERSION REVAMP. Wes Wilkie. Goulburn Valley Water

Introduction document of KHN package water treatment. plant (flocculation sedimentation and filtration)

FAYOUM CITY SEWAGE TREATMENT PLANT, DEVELOPMENT STAGES, CASE STUDY

Low-Head Filters High-Efficiency Polishing Filtration for Water and Wastewater Treatment

HUBER Dissolved Air Flotation Plant HDF

WASTE WATER TREATMENT SYSTEM

THE COMAG SYSTEM FOR ENHANCED PRIMARY AND TERTIARY TREATMENT

Aerofloat specialises in the treatment of greywater and industrial wastewater from a range of industries.

Astrasand Continuous Backwash Filter. Water Technologies

FILTRATION INDUSTRY -An Overview

13. High Rate Filtration Process

General Approaches and Recent Developments in Handling Wet Weather Flows in WWTPs. Julian Sandino PhD, PE, BCEE, IWA Fellow

Drinking Water Production Using Moving Bed Filtration

Purpose of this course. Optimization of Water Treatment Plant Operations

Optimization of High Rate DAF Process for Removal of Algae in Water Treatment Plant

DAF TECHNOLOGY IN TERTIARY TREATMENT FOR MUNICIPAL SEWAGE

Treatment Technologies

Evaluation of Conventional Activated Sludge Compared to Membrane Bioreactors

Approaches to Filter Condition Assessment and Optimization

Class Environmental Assessment for Burloak Water Purification Plant Phase 2 Expansion Public Information Centre No.1

Water Treatment. Water Treatment. Water Treatment. Water Treatment. CIVL 1101 Introduction to Filtration 1/15

Elsham Water Treatment Works (WTW) is located approximately 10km east of Scunthorpe in North Lincolnshire

Construction of Rapid Sand Filters i) Media

Dipti Shah, Town of Gilbert Tuesday, January 25, 2011

Dissolved Oxygen (DO):

DISCUSSION PAPER. 1 Objective. 2 Design Flows and Loads. Capital Regional District Core Area Wastewater Management Program

Description: D05_100_OVW_015_PlantOverview.htm Plant Overview Durham Plant Overview Last Update: October 30, 2013 Purpose:

THIS POLICY DOES NOT HAVE THE FORCE OF LAW

PCI AFRICA RANGE OF PRE-ENGINEERED WATER TREATMENT PLANTS

Putting the Misconceptions to Rest:

BEING GOOD STEWARDS: IMPROVING EFFLUENT QUALITY ON A BARRIER ISLAND. 1.0 Executive Summary

PILE CLOTH MEDIA FILTRATION

Disk Filters for Tertiary Filtration in Municipal and Industrial Applications. By Rich Stummer Daman Superior LLC

Aquaray Ultraviolet Disinfection Systems. Including the New 3X HO model. Drinking water disinfection Wastewater disinfection Industrial applications

Utility Partner Data Report

TABLE OF CONTENTS. SECTION 1 INTRODUCTION 1.1 Background Purpose and Scope

Inlet Process air and wash cycle scour air. Air grid Floor Nozzle

WATER AND WASTEWATER FACILITY CLASSIFICATION APPLICATION FORM

Facilities Plan. Technical Memorandum No. TM-CSO-10 Wet Weather Treatment Facilities

ADVENT INTEGRAL SYSTEM

HYDAF DISSOLVED AIR FLOTATION SYSTEMS INDUSTRIAL HD RANGE. Water l Science l Technology

Zero Liquid Discharge Project Extends Potable Water Supplies

SYSTEMATIC APPROACH TO WATER TREATMENT PLANT PROCESS OPTIMIZATION

Rawal Lake Water Treatment Plant Rawalpindi, Pakistan

DISSOLVED AIR FLOTATION (DAF)

WWETCO FlexFilter and Bio-FlexFilter

ISAM INTEGRATED SURGE ANOXIC MIX

Degremont Water Clarification Technologies

In Florida, the requirements for both highlevel

Renovation of the Filters at the Soldier Canyon Filter Plant in Fort Collins, Colorado

NEW CLOTH MEDIA FILTER SYSTEM REPLACES 4 MGD TRAVELING BRIDGE FILTERS WITH 12 MGD CAPACITY IN EXISTING TANKAGE

Pump Tank and Pretreatment Inspection & Troubleshooting. Sara Heger University of Minnesota

HIGH PERFORMANCE SLUDGE DEWATERING FOR DRINKING WATER PLANTS WITH THE BUCHER HYDRAULIC FILTER PRESS

DEVELOPMENT OF THE. Ken Mikkelson, Ph.D. Ed Lang Lloyd Johnson, P.E. Aqua Aerobic Systems, Inc.

Public Utilities Department City of Bossier City, Louisiana

The Use of Walnut Shell Filtration with Enhanced Synthetic Media for the Reduction and/or Elimination of Upstream Produced Water Treatment Equipment

Overcoming Challenges to Achieve Optimization at the Crown Water Treatment Plant. Barbara Martin AWWA Mark Petrie Cleveland Water

CEE 371 Water and Wastewater Systems

Water Treatment Plant Phase 1 Upgrades CMAR Selection Pre-Submittal Meeting

Transcription:

Separations Overview TDRL Seminar Presented by: Infilco Degremont

North American Footprint 5 companies 471 employees ANDERSON DUNDAS, ON 60 EMPLOYEES DEGREMONT LTD MONTREAL, QC 27 EMPLOYEES WPT SALT LAKE CITY, UT 132 EMPLOYEES OZONIA NA NEW JERSEY 71 EMPLOYEES INFILCO DEGREMONT RICHMOND, VA 181 EMPLOYEES 2

Over 114 Years of Providing Solutions Wide Range of Treatment Solutions - Headworks - Disinfection - Biosolids - Biological - Separations - Reuse Clarification Technologies: Filtration Technologies: SuperPulsator sludge blanket DensaDeg high-rate solids contact AquaDAF dissolved air flotation Greenleaf cluster filters ABW automatic backwash

IDI Clarifier History Process Type Surface Loading Rate No. of Installations Year Developed Accelator Solids Contact 0.75-2.5 gpm/ft 2 ~1780 1940 s Pulsator Sludge Blanket 1.0-1.25 gpm/ft 2 ~84 1955 PulsaPak Sludge Blanket 1.5 gpm/ft 2 ~27 1970 s SuperPulsator Sludge Blanket 2.0-4.0 gpm/ft 2 ~195 1982 DensaDeg AquaDAF High-Rate Solids Contact High-Rate DAF 8.0 12.0 gpm/ft 2 ~225 1985 8.0 16.0 gpm/ft 2 20 2000

AquaDAF

AquaDAF Advantages Proven technology for 30+ years Optimization of conventional equipment to increase efficiency High rates: 30 to 40 m/h Perfect process to efficiently remove low density particles Perfect process for membrane pretreatment - NO POLYMER

AQUADAF APPLICATIONS Clarification (low turbidity/tss) High TOC, color waters Low density solids Algae removal Cold waters; Thermal variation Membrane filtration pretreatment Desalination pretreatment Tertiary Phosphorous Removal (w/ filters)

DAF Process Overview High-Rate Dissolved Air Flotation Internal System Primary Flocculation 3-5 min. @ 80-100 G Raw Water Inlet & Distribution - Following in-line mixing Air-Water Dispersion Zone Accumulated Sludge Layer Auto Effluent Weir Effluent Channel Flotation Zone Secondary Flocculation 3-5 min. @ 30-60 G

DAF Process Overview High-Rate Dissolved Air Flotation Operating Principles Recycle Stream: Recycle flow: 8-10% of throughput Operating Pressure: 5-6 bar Unpacked Saturator Vessel Injection: Proprietary nozzles Micro-Bubble Production: Air Blanket: Milky appearance Solids adhere to bubbles and float to surface Continuous production of air blanket

DAF Process Overview Sludge Removal Options Hydraulic: Flood DAF basin with automatic effluent weir Sludge wash line around periphery of DAF basin Simple, less mechanical approach Water loss: 0.75 to 1.5% Solids concentration: < 0.3 to 0.5% Mechanical Scraper: Mechanical scraper mechanism Mechanical, thickening approach Water loss: < 0.5% Solids concentration: 2-4%

Recent AquaDAF Successes SSJID, CA Pretreatment to membranes (6300 m3/h) Haworth, NJ Algae Removal of Lake water: (33,000 m3/h) Hudson, MA - Tertiary phosphorous removal. Less than 0.1 mg/l DAF goal

Haworth, NJ (32,700 m3/h)

DensaDeg Clarifier

History & Applications Product developed in the early 1980 s by Degremont ~250 installations First installation: 1984 Diversified Applications Clarification Softening Organics Removal Filter/Membrane Backwash Recovery WATER - 19% Primary Clarification Tertiary Phosphorus Removal High Rate CSO/SSO INDUSTRIAL - 46% WASTEWATER - 35% Clarification Softening/Silica Removal Metal Precipitation Fluoride Removal FGD Wastewater

DENSADEG ADVANTAGES Flocculation + Clarification + Thickening in one unit 2 4% Solids Production No problems with large variations in influent conditions High Rates: 20 24 m/h (clarification) 24 36 m/h (softening) 70 100 m/h (CSO) Unit capacity: 160 4000 m3/h

Dynamic Separation & Clarification Turbine Draft Tube Rapid Mix Reactor Reactor Turbine Drive Clarifier / Thickener Launder Assembly Recirculation Cone Lifting Assembly Coagulant Settling Tube Assembly Settling Tube Support Polymer Flow Splitter Sludge Recycle Pump Sludge Recirculation Sludge Blowdown

Unit Design Considerations REACTOR RETENTION: ~8-10 min LOADING RATE: 20-24 m/h (clarification) 24-36 m/h (softening) 72-108 m/h (CSO) CAPACITY per UNIT: 160 to 4000 m3/h (concrete) 25 to 4000 m3/h (steel) RAPID MIX RETENTION: 2 to 3 min (clarification) SLUDGE RECYCLE: 3% to 6% CLARIFIER RETENTION: ~ 25-30 min SLUDGE BLOWDOWN: 2% to 4% (clarification) 5% to 20% (softening)

Densadeg Performance Toledo, OH Largest HRC for CSO (36,500 m3/h), design velocity >100 m/h Wadi Ma in, Jordan Backwash waste recovery system followed by UV, 700 m3/h

SuperPulsator Sludge Blanket Clarifier

SuperPulsator Process Sludge Blanket Clarifier Complete System Collection Channel Vent Valve Vacuum Pump Vacuum Chamber Blowdown Pipes Collection Laterals Concentrator Settling Plates Distribution Channel Distribution Laterals

SuperPulsator Applications Pulsed Sludge Blanket Technology Clarification only - New or Retrofit Typical Loading rates of 5-10 m/h Low to high Turbidity (5-1000+ NTU) Low to very high Color (1-100+ PCU) Organic carbon removed with PAC Membrane Pretreatment w/ no polymer - low rates

SuperPulsator Operating Principles Pulsed Sludge Blanket Technology Pulsed flow through the basin - created by vacuum pump Constant upflow velocity over entire surface area Combined flocculation/clarification in one basin Internal sludge concentration and automatic sludge removal No submerged moving parts and corrosion resistant internals

SuperPulsator Process Sludge Blanket Clarifier The Pulse Vent Valve Open Vacuum Pump Vent Valve Closed Vacuum Pump Vacuum Chamber Vacuum Chamber Sludge Blanket Expansion Sludge Blanket Contraction Periodic sludge discharge 0.2 to 0.5% solids Venting: 8 to 12 seconds Pulling a Vacuum: 40 to 50 seconds

SuperPulsator Process Sludge Blanket 7 feet of a clarification zone 10 feet of a filtering sludge blanket

SuperPulsator Process Overview Myrtle Beach, SC

Singapore, Chestnut WTP Plant Flow: 17,000 m3/h Influent Turbidity: 5-10 NTU Effluent Turbidity < 0.7 NTU Coagulant: 30 ppm Alum Polymer: 0.4 ppm

Process Highlights Advantages SuperPulsator ADVANTAGES Proven Technology hundreds of operating installations No submerged moving parts Sludge Blanket = 10 of Buffering Capacity High Rate Process with Detention Time Extremely Low Energy Required Membrane pretreatment without polymer (reduced loading rates) Low capital cost - $

Pulsapak Package Treatment Plant

Pulsapak Design Considerations Clarification or Clarification & Filtration Little to no civil construction 8 Sizes between 30 160 m3/h Typical Loading rates of 1.5 gpm/ft2 (3.6 m/h) Low to high Turbidity (5-1000+ NTU) Low to very high Color (1-100+ PCU)

Pulsapak Package Treatment Plant Clarified Water Filter Inlet Washwater Outlet Trough Air Line Clarified Water Collection Laterals Vacuum Chamber Vacuum Pump Vacuum Vent Coagulated Water Inlet Settling Tubes Sludge Blanket Raw Water Inlet Waste Piping Filter-to Waste Line Backwash Line Filter Drain Stilling Plates Sludge Blowdown Distribution Laterals Sand Underdrain Effluent Header Anthracite

Pulsapak P-100 (160 m3/h) (Lake Murray, SC)

Pulsapak P-18 (50 m3/h) (Canada)

The ABW Filter

The ABW Filter An American Invention, Introduced Circa 1928, by The Hardinge Co. of York, PA Acquired and marketed by Environmental Elements Corp, of Baltimore, MD until 1987 Acquired and now marketed by Infilco Degremont, Inc. of Richmond, VA In excess of 2,000 units are currently in operation in the United States and Canada. Units are also in operation in: UK / Switzerland / Japan / Korea

ABW Filter Advantages Low head loss across filter 300mm No pipe gallery No need for filter redundancy No large backwash pumps No backwash tank needed Minimal energy consumption

Typical Applications Tertiary Treatment Reuse Potable Water Industrial Process and Waste

Filter Design Application Wastewater Design Rate 5 m/h nominal 10 m/h peak flow Typical Media Configuration 275mm coarse media Wastewater Reuse Potable Water 5 m/h nominal 10 m/h peak flow 6-7 m/h 275mm coarse media or 400mm dual media (if stringent guarantees are required) 275mm fine media or deeper media.

Typical Concrete ABW

Typical Package ABW

Typical Filter Layout Unfiltered Water Slide Gate (Optional) Influent Channel Effluent Weir Influent Channel Influent Weir Effluent Channel Effluent Channel Filtered Water

The ABW Filter Influent Ports Washwater Trough Influent Channel Control Panel Effluent Channel Compartmentalized Filter Bed Washwater Hood Backwash Assembly

Backwash Mode Backwash Direction Entrapped Solids A B C D E Backwashing Underdrain

ABW Filter Performance Results

Back River WWTP Baltimore MD Peak Flow: 80,000 m3/h

Greenleaf Filter Gravity Cluster Filter

Greenleaf Filter Overview Gravity Cluster Filter The Greenleaf Filter Control represents a unique concept for the control of multiple granular media filters. It eliminates bulky piping and valves through the ingenious application of siphons. Low Maintenance Requires Small Footprint Low Energy Requirement Common Wall Construction Excellent Filtered Effluent Simple and Effective

Greenleaf Filter Overview Gravity Cluster Filter Traditional filter requires significant amounts of: land, large piping and large, line sized valves. A Greenleaf type filter has a footprint that is 33% smaller than a conventional filter and gallery.

Greenleaf Filter Overview Gravity Cluster Filter Design Considerations Cluster-type filter 4 cells grouped around central core Customary design - Filter/backwash rate, media depth, etc. are practiced Essentially 4 conventional filters

Greenleaf Filter Overview Normal Filter Operation Vacuum Tank 3 - Way Valve (Actuates Inlet Siphon Valve) Pretreated Water Flume Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Filter Cell Forebay Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Line Isolation Valve

Greenleaf Filter Overview Maximum Headloss in One Filter Cell Vacuum Tank 3 - Way Valve (Actuates Inlet Siphon Valve) Pretreated Water Flume Filter Cell Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Backwash Siphon Forebay Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Common Filtered Water Chamber Drain Cell Isolation Line Backwash Waste Section Filter to Waste Line Isolation Valve

Greenleaf Filter Overview Filter Cell Drain Vacuum Tank 3 - Way Valve (Actuates Inlet Siphon Valve) Pretreated Water Flume Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Filter Cell Forebay Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Line Isolation Valve

Greenleaf Filter Overview Backwash Initiation Vacuum Tank BW Solenoid Valve (actuated) Pretreated Water Flume Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Filter Cell Forebay Backwash Siphon Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Line Isolation Valve

Greenleaf Filter Overview Backwash Vacuum Tank BW Solenoid Valve Pretreated Water Flume Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Filter Cell Forebay Backwash Siphon Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Line Isolation Valve

Greenleaf Filter Overview Filter-to-Waste Vacuum Tank Pretreated Water Flume Filter Cell Low High Inlet Weir Chamber Inlet Siphon - ACTUATED Top of Basin Effluent Control Weir Forebay Wash Trough Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Valve OPEN Isolation Valve CLOSED

Greenleaf Filter Overview Return to Service Vacuum Tank Pretreated Water Flume Low High Inlet Weir Chamber Inlet Siphon Valve Top of Basin Filter Cell Forebay Wash Trough Effluent Control Weir Filtered Water to Storage or Service Underdrain Drain Common Filtered Water Chamber Cell Isolation Line Filter to Waste Line Isolation Valve

Greenleaf Filter Advantages Greenleaf siphons for flow split and backwash removal ELIMINATE large inlet & backwash valves (8 per filter) All siphon solenoids accessible from operating platform Small foot print due to compact arrangement - 33% less space than conventional filter - no large pipe gallery Prefabricated components => Simple Installation Impossible to shock or surge filter Small clearwell - Self Backwashing Unlimited media/underdrain configurations

Questions?