Who is Organica Water? Interior of an Organica biological reactor - - PowerPoint PPT Presentation

Who is Organica Water?

Organica Water is a provider of cost and space efficient solutions for biological wastewater treatment Organica Water has +18 years of history and 100 references operating

• r under construction up to

80,000 m3/d Organica Water provides facility design and specialty equipment supply, enabling local companies to deliver projects Organica Water pioneers the future standard “operating system” for municipal wastewater treatment plants (WWTPs) in the 21st century

Interior of an Organica biological reactor area SouthPest WWTP – 80.000 m3/day

Who is Organica Water? An unique combination of…

ARCHITECTURE NATURE PROCESS ENGINEERING A new way of thinking in wastewater technology

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2 1 22 29 7 4 8

28 81

Organica Princeton Office, USA

Plans in Design & Build

1 17 6 5 5 17

0-2 years 2-4 years 4-6 years 6-8 years 8+ years

Years in Operation

1 19 1 1 1 2 1 1 1

Organica Jakarta Office, Indonesia

Organica Shanghai Office, China Organica New Delhi Office, India Organica Budapest Office, Europe

Organica Offices Plants in Operation

2 1 2 1 2

A Proven Solution: 109 Plants Operating or Under Construction Treating >836,000 m3/d

Environment and Climate change (2nd place, Verulam)(2018) The Institute of Municipal Engineering of Southern Africa (IMESA) and the Consulting Engineers of South Africa (CESA) Paulson Prize for Sustainable Cities-Honorable Mention by Paulson Prize for Sustainable Cities Water Reuse Gardens - Best Innovation (2018) by the Technical Committee of ALADYR Conference China Water Industry Starlight Award 2017” (2017 水业星光奖 By China Water Association Best Performer in Global Expansion (2017) IDinvest International Award Best Practices Award for Global Biological Wastewater Treatment (2017) by Frost and Sullivan Global Water Intelligence Industrial Water Project of the Year (2016) Nominee, MM2100 WWTP Cleantech Connect Most Innovative Company (2016) by GP Bullhound, selected from over 150 companies by esteemed panel of judges from across the Cleantech Sector Lux Research Top Ten Global Innovative Company (2015) Profiled 1200 companies across 20 sectors/selected 10 most innovative Best Overall Innovation Winner (2013) by CIWEM West Midlands Institute of Water, Innovations Showcase Global CleanTech “Company of the Year” - Europe & Israel (2013) by CleanTech Group Global CleanTech TOP 100 (2013, 2014, 2015 and 2016) by CleanTech Group Global Water Intelligence Wastewater Project of the Year (2013) Honorable Mention, South Pest WWTP WEX Innovation Award (2013) Water and Energy Exchange Innovation Award recognizing significant achievement in the field of Water and Wastewater Management European Business Awards for the Environment nomination (2010) by the Hungarian Jury for the EU Environmental Awards The "Environment Award" (2004 and 2008) by the Association of Environmental Manufacturers and Service Providers Frost & Sullivan Innovation Prize (2005) for the ORGANICA Technology wastewater treatment solution Company of the Year (2004) by the Hungarian Venture Capital and Private Equity Association Innovation Award (2004) by the Hungarian Innovation Foundation

History Of Awards & Recognition Demonstrates Organica’s Unique Solution

Strong Global & Local Network of Partners:

Organica cooperates with a global and local network of partners for the design, delivery, financing, and

• peration of wastewater

infrastructure throughout the world.

Strong Partner Network Globally (sampling of partners)

Treatment 9%

Sewer Networking 91%

Wastewater Management Costs

Treatment Sewer Networking

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If we can save 10% on network costs, treatment is ”free”

Sources: UN, GWI, World Bank

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Sewer Network Costs Greatly Outweigh Treatment Costs

Organica Wastewater Technology: Main Components of the Technology

Natural Plants Odor Control Media Root Zone Patented Biofiber Media Fine Bubble Aeration

Architecture Process Design Mechanical

Engineering

Civil

Engineering

Odor control Electrical Design Control &

Instrumentation

EFFICIENT PROCESS

utilizing diverse biology

INTEGRATION OF DISCIPLINES

including Architecture

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Organica Solution – The most advanced Fixed-Film Biofilm Process The Core of the Solution: Organica Biomodule and Food Chain Reactor (FCR) process

Plants on the supporting mesh Fine bubble aeration Walkway and plant supporting rack

Root zone (1.5m) as fixed film carrier Artificial supporting media as fixed film carrier

Organica BIOMODULE

Organica Solution – The most advanced Fixed-Film Biofilm Process The Core of the Solution: Organica Biomodule and Food Chain Reactor (FCR) process

Organica BIOMODULE Organica Food Chain Reactor (FCR)

Plant Roots and Organica Engineered Media creates a much better habitat for biomass growth

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Organica FCR (Food Chain Reactor) More biomass → Smaller Reactors → Less footprint → Lower Total CAPEX

❑ Attached biomass in Organica Biomodule is equivalent to 8 – 10 kg/m3 of biomass (in AS the concentration is 3 to 4 kg/m3). ❑ A higher concentration and more specialized biomass allows treating the same wastewater flow in less reactor volume. ❑ FCR reactors are typically 30% - 40% smaller than conventional activated sludge reactors for the same capacity.

Attached biomass in Organica Biomodule

Organica Solution – The most advanced Fixed-Film Biofilm Process Organica FCR (Food Chain Reactor) arrangement

❑ The biological process takes place in a series of cascade reactors, with standard pretreatment at the beginning, and phase separation (via Organica Disc Filters or Secondary Clarifiers) and final polishing at the end (if required). ❑ As water flows through from one reactor zone to the next, different ecologies will grow and adapt to the conditions in each stage. This configuration allows the “food chain effect” to develop, as higher level organisms become predators for the simpler organisms. ❑ The result is enhanced removal efficiency and resiliency, while utilizing less energy and producing less sludge.

Organica FCR (Food Chain Reactor) More biomass → Smaller Reactors → Less footprint → Lower Total CAPEX

PHASE SEPARATION

11.550 m2 36.000 m2

Reactor Volume and Clarifiers: 21.300 m3 vs. 66.500 m3 Organica Food Chain Reactor Conventional Activated Sludge

Organica FCR (Food Chain Reactor) OPEX savings due to extremely efficient aeration in the reactor

0% 20% 40% 60% 80% 100% 120% 140% Relative energy consumption in Organica FCR relative to other technologies

Organica FCR: attached biofilm No biomass in suspension (MLSS) in the reactor Suspended solids concentration in the Organica FCR reactor → 200 – 300 mg/l therefore: Oxygen transfer efficiency (alpha- factor) in Organica FCR reactors is extremely high (0,90 – 0,95)

Up to 30% OPEX savings Up to 60% footprint savings Botanical garden look-and-feel Odorless installations

The largest industrial park in Indonesia needed to double WWTP treatment capacity while preserving land value. The new Organica plant was designed with 2x EXISTING CAPACITY WHILE OCCUPYING 50% OF THE LAND. The solution allows the developer to sell the land adjacent to the Organica plant including the plot occupied by the old CAS plant.

Organica Reduces Footprint while Preserving Land Value

Example: MM2100 Organica WWTP. Bekasi, Jakarta (Indonesia) – Capacity: 45.000 m3/day

New Organica Plant - 45 MLD Old CAS Plant - 22MLD Honda Factory

Organica Reduces Footprint while Preserving Land Value

Example: MM2100 Organica WWTP. Bekasi, Yakarta (Indonesia) – Capacity: 45.000 m3/day

Flexibility: Organica retrofits existing plants for Increased Capacity and Quality

Example: South Pest Organica WWTP. Budapest (Hungary) – Capacity: 80.000 m3/day

BEFORE – Concrete Activated Sludge Reactors AFTER – UPGRADED TO ORGANICA FCR

Flexibility: Organica retrofits existing plants for Increased Capacity and Quality

Example: South Pest Organica WWTP. Budapest (Hungary) – Capacity: 80.000 m3/day

Flexibility: Organica retrofits existing plants for Increased Capacity and Quality

Example: South Pest Organica WWTP. Budapest (Hungary) – Capacity: 80.000 m3/day

Aesthetics: Organica WWTP – Botanical Gardens “Look-and-Feel”

Example: Wusong WWTP. Shanghai (China) – Capacity: 40.000 m3/day

Inside the Clarification area

Aesthetics: Organica WWTP – Botanical Gardens “Look-and-Feel”

Example: Wusong WWTP. Shanghai (China) – Capacity: 40.000 m3/day

Inside the FCR Reactor area

Environmental Impact: Organica WWTP are odorless. Residential areas closer than 50 mt

Example: Hainan Island WWTP. Hainan (China) – Capacity: 7.000 m3/day

Organica plant design (top picture) and under construction (right picture) in a trafic circle. Residential buildings around the future traffic circle are buing built in the background.

Environmental Impact: Organica WWTP are odorless. Residential areas closer than 50m

Example: Hainan Island WWTP. Hainan (China) – Capacity: 7.000 m3/day

Organica real and operating plant!

Outlet Water Quality – Complying with the most demanding limits

Example: He Yuan WWTP. He Yuan City, Hong Kong (China) – Capacity: 30.000 m3/day

Outlet Water Quality – Complying with the most demanding limits

Example: He Yuan WWTP. He Yuan City, Hong Kong (China) – Capacity: 30.000 m3/day

Parameter Limit COD < 20 mg/l BOD < 4 mg/l TSS < 5 mg/l NH4-N < 1 mg/l TN < 10 mg/l TP < 0,2 mg/l

Organica Installation – Community Engagement & Water Reclamation Gardens

Example: Sechelt WWTP. Sechelt (Canada) – Capacity: 4.000 m3/day

Organica Installations – Adapting to Local Environmental Conditions and Climate

Example: DIP WWTP. Dubai Investment Park, Dubai (UAE) – Capacity: 3. 500 m3/day

Organica Fast-track Delivery – Existing plant upgrade in less than 6 months

Example: Anshun WWTP. Anshun, Guizhou (China) – Capacity: 50.000 m3/day

Lead – Feb 2016 Contract – May 2016 Delivery – Aug 2016 Commissioning – Sept 2016

Organica Installations Reliability – In operation since 2001

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Localized Wastewater Treatment - 2 MLD -> Bekasi Fajar, Indonesia

Localized Wastewater Treatment – 6MLD New Gwili Gwandreath

Localized Wastewater Treatment – 6.8 MLD New Gwili Gwandreath

Design Generator:

Engineering automation drives economies of scale.

Over 4,600 facility designs generated. Continuous development that includes Artificial Intelligence to optimize the architectural and civil design (minimize footprint) and Machine Learning for process design. Built on AWS services to gain infrastructure flexibility, speed of design runs, and infinite scalability for improvements. Produces an expanding variety of professional and complete preliminary engineering design outputs with limited human input.

SaaS Licenses Design Generator Engine WWTPDesigns.com

WWTPs with proprietary engine, developed by software and engineering experts, allows Organica to produce infinite designs/optimizations at minimal cost, and drives various forms of recurring revenue via Organica Digital Services.

Organica’s Design Generator automates preliminary engineering of wastewater.

Design Generator Basic:

WWTPDesigns.com is a fr free, web based software for con

• nventional ac

activ tivated sludge plants.

The software configures preliminary wastewater treatment engineering designs specific to locations and water quality needs. Improving infrastructure effects, this tool can populate the following documents:

• Design Basis Document
• Process Scheme
• Technical Description
• Piping & Instrumentation Diagram
• Equipment List
• Instrumentation List
• OPEX Table
• General Arrangement
• Civil Bill of Quantities
• Comparison Document

Design generator.

Design Generator Premium:

Once the user enters data, OCS validates the inputs based on extensive regional databases and process validation algorithms The tool is based on the Organica team’s hundreds of years experience designing WWTPs all over the world The tool improves organizational efficiency by having 24/7 access to designs in just 8 hours, while being able to adjust and re-design and

• ptimize designs whenever it is required

MANILA NORTH 50 MLD

Interface for entering Basic information

Design generator.

Design Generator Premium:

Interface for data entry, including commercial considerations and wastewater characteristics (influent/effluent/temperature/flow)

One, clear user interface in the design generator dashboard.

Design Generator Premium:

The tool keeps track of all of the User’s designs and allows to re-run them any number of times.

Document outputs are fully customized with preliminary engineering designs.

Design Generator Premium:

Once the data is validated it is used for process sizing, simulation (365 days with diurnal flow), and final equipment selection. This ultimately generates key documents such as P&ID, Process Scheme, and Equipment BOQs. After equipment selection the Design Generator generates a detailed 3D CAD model

• f the facility, which is ultimately used to

produce the Civil Design with Layouts and Sections. The simulation tool and process models were built in cooperation with some of the leading experts in the wastewater design and modeling field.

Document output examples: Process Scheme, P&ID, Technical Description.

Design Generator Premium:

Document output examples: Civil & Architectural Documents (3D view).

Design Generator Premium:

Site Plan 3D View Sections

Document output examples: Equipment list and civil BOQ .

Design Generator Premium:

Bill of Quantities Equipment list

Design generator premium licensing.

Software Licensing:

Takes full advantage of the Design Generator Developed over the last 5 years Unique engineering automation software SaaS (Software as a Service) Strategic inroads with long lasting revenue streams Game changer for engineering-centric firms with significant manhour costs

Digital operations & maintenance.

Dig igit ital l Trends

• The water sector is only starting to discover

that data-driven insights can offer. The road ahead is long, but the opportunity huge: Data- driven business intelligence has the potential to radically transform the way water and water infrastructure is understood, managed and used.*

• Digital water-management tools represent a

paradigm shift for the water industry from being reactive to being proactive and

• ptimized. This shift is analogous to the

adoption

• f

customer relationship management (CRM) technology within retail industries such as banking and mobile phones**

• Increased pressure on operators to be more

reliable & efficient

• Stricter compliance with more complex

influent water qualities

• Maintain or reduced OPEX of WWTPs
• Need

to innovate and implement automation with Digital tools (IoT)

• Public private partnerships to achieve goals

while managing risk and increasing capital spend

Industry Drivers

*Deloitte Water Tight 2.0 **McKinsey

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Wastewater Digital Services: Overview

At a global level, around 80% of wastewater produced is discharged into the environment untreated, causing widespread water pollution. 850 billion gallons untreated waste and storm water discharged annually While 2.1 billion people gained access to improved sanitation facilities since 1990, 2.4 billion still do not have access to improved sanitation and nearly 1 billion people worldwide still practice open defecation. Only 26% of urban and 34% of rural sanitation and wastewater services effectively prevent human contact with excreta along the entire sanitation chain and can therefore be considered safely managed.

Possibilities to accelerate change in the in water infrastructure through the use of software, hardware and global expertise. Identification of the local problem is where we start.

Wastewater Digital Services: Overview

Storm Water Mgmt. Smart Billing Leak Detection Utility Planning Real time Water Quality Mgmt. Pressure Mgmt.

Demand Forecasting

Wastewater treatment Drinking water treatment

Digital Service Solutions Urban Infrastructure under increasing demand

River monitoring.

Organica Water Digital Services:

Measure River Health Index

• Determine where pollution discharges from and

how to properly treat it.

• Discover problems in river’s health &

have them addressed quickly to decrease harm to environment and health risks.

• Healthy water provides better quality of life for plants, animals and

people.

• Ensure water quality maintains proper pH levels.

“The River Rehabilitation Program takes into consideration the effects of water quality and quantity to the ecosystem. Under the program, the LLDA has organized River Basin Councils all

• ver the Region.” – LLDA

River monitoring - Laguna Lake Development Authority

Expertise & Collaboration Software & Analytics Hardware & Sensors

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• Increase population connected to sanitation

system

• Treatment plant and network resiliency
• Turn DATA into value

+ Digital saves 10-20% OPEX on average

COST TIME AS DIGITAL SERVICES ARE IMPLEMENTED Chemicals Energy Sludge

Digital Services For Smarter Operations

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Data & Analytics Platform Online & Offline measurement

Ability to visualize and gain insight into the operations. Giving data the opportunity to create returns on investment

Other data Sources Lab data

Features

Trending Alarming Reporting Calculations Analytics Asset health Data management

Services

Expert oversight Operational efficiency Support maintenance

Sensor Data

Hardware & Software

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• Systems for large monitoring applications (rivers, lakes, etc.)
• Interconnection of multiple s::can monitoring systems
• On-line & in-situ
• Automatic data transfer via GPRS/UMTS
• Automatized data handling on FTP server
• Display and evaluation of spectral data
• Visualization and control of data
• GIS-system
• Delta spectrometry

Internet Central Database

River Location 1 River Location 2 River Location 3

Central Monitoring System

Mechanical Equipment Room Sludge Storage Blowers Disc Filters 79

In a typical WWTP the inefficiencies are 15-40% Software thus allows for operational efficiency

Fine Bubble Diffusers Organica Digital Expert Team & Software

DO Sensors

Outsourced dewatering and sludge service Control Room Oxygen

• ptimization

saving energy Greenhouse or Shading Structure

TSS Sensors

Wastewater Digital Services: Digital Services Scope in a Typical WWTP

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1. Process control systems are designed to ensure stable process operation against varying disturbances 2. Main objectives are:

• Maintaining effluent quality
• Minimize energy consumption
• Reduce sludge production
• Minimize chemical consumption

3. Aeration accounts for ~50% of the energy consumption of a plant

• Ammonia-based aeration control could reduce energy consumption of the

aeration with 15-25% compared to DO-based aeration control 80

Expertise – Advanced Process Contol

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Wastewater Plants Imperatives

• 1. Operations &

Maintenance

• 2. Assurance of

Compliance

• 3. Management &

Oversight including budget ➢ Increased reliability of the wastewater infrastructure ➢ Improved, consistent effluent quality, assuring compliance ➢ Optimized infrastructure CAPEX spending ➢ Wastewater expertise to reduce Services OPEX

Digital Services Assist with

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Digitizing Wastewater