The True Challenges & Risks of Biogas and its Utilization Options in Thailand

Similar documents
Chriwa Group page 2-7 Working fields page 8-10 Excursion Germany page South Africa page Waste-to-Energy. page Summary.

farmatic Anlagenbau company presentation Powerful biogas plants focus in the wastewater, waste treatment and energy generation

Biogas upgrading, compression and utilization as an alternative to CHP

Biothane Anaerobic Technology Memthane 2.0

Production from Organic Residues. Biogas

Biothane Anaerobic Technology Memthane 2.0 WATER TECHNOLOGIES

Biobed Advanced EGSB & Biothane Advanced UASB. Wastewater as a Resource WATER TECHNOLOGIES

Organica is a registered trademark of the Keter Group Energy Division.

Presented by: USA Biogas

Developments in Anaerobic treatment of F&B wastewaters

Sustainable small-scale biogas production from agrofood waste for energy self-sufficiency

How EPA s Waste Reduction Model (WARM) Quantifies the Greenhouse Gas Impacts of Organics Management

Case study of commercial grass silage digestion for power production & Digestion of solid agro-wastes

Global food processor Remo-Frit turns wastewater and solid residues into biogas and green electricity

ABE 482 Environmental Engineering in Biosystems. September 22 Lecture 8

Waste-to-Energy Potentials in Grenada

Sustainable small-scale biogas production from agrofood waste for energy self-sufficiency. Live-Webinar, 12th November 2014

Sustainable Energy Recovery from Organic Waste

Why consider AD? Definitions: What can be digested? 8/8/2016

BIOGAS FROM POULTRY FARMS A DRIVE TOWARDS THAILAND RENEWABLE ENERGY TARGET

Waste Management for Food & Agriculture Industry Cleaner Production for Food industries

OUR BUSINESS CONSIDER THE COMPLETE PICTURE BIOGAS PROCESS OVERVIEW CLEAN RENEWABLE ENERGY FROM WASTE

Jenbacher gas engines

PlanET Biogas Global GmbH

Renewable Energy Systems

7624 Riverview Road Cleveland, Ohio

THE ITALIAN BIOMETHANE

List of references. ComBigaS

Potential of farm scale biogas to grid in Ireland

Scaling up the Renewable Natural Gas Business 2017 BIO World Congress on Industrial Biotechnology Brian Foody

Biogas Upgrading Plants.

What is Bioenergy? William Robinson B9 Solutions Limited

Sustainable Biogas Market Central and Eastern Europe

International Business Development for Biogas

RENEWABLE NATURAL GAS

Kompogas Dry Anaerobic Digestion Energy from Organic Waste

Anaerobic Digestion. Waste to Energy Workshop for Farm, Food Processing, & Wood Industries. Presented To:

Sustainable Family Farming through Innovation

Indian Institute of Science Sulfur Extraction Technology ISET (Process)

Zandam Farm Biogas CHP Plant

Sustainable Energy with Reciprocating Engines

New anaerobic technologies More biogas at lower costs

ANAEROBIC DIGESTION A TOOL FOR RECYCLING ORGANICS

International Development in Biogas Utilization

6. Good Practice Example: Biogas in Germany

Training on Biogas and Biomethane Production

Efforts for use of methane gas in wastewater treatment of Japan

Anaerobic Degradation of Organics

Biogas recovery from anaerobic digestion process of mixed fruit -vegetable wastes

Driven by pure energy. Understanding the Important Factors of Anaerobic Digestion ABC Workshop - May 27,

Jactone Arogo Ogejo and John Ignosh ; Virginia Tech Stephanie Lansing and Gary Felton, University of Maryland

Manure Management Program

A tognum Group Brand COMBINED HEAT AND POWER FROM BIOGAS

The construction of the plant [120]: 1. March Fundamental construction of the main fermenter and the post fermenter

A Biogas Decision Support System Tool

Natural Energy Solutions

Biogas Upgrading - An Introduction. Arthur Wellinger Nova Energie Ltd. Leader Task 37

List of references. ComBigaS. Jan Complete biogas solution. ComBigaS

KBK REFERENCE LIST-MAJOR PROJECTS ONLY

Piggery Digester Systems

Small Scale Digester Case Study: Peters/USEMCO Anaerobic Digester

Biogas Production from Vegetable Waste by using Dog and Cattle Manure

Biogas Asia Pacific 2014

New Ways to Energy. Energy Production of Renewable Resources and Bio-Waste in Biogas Plants. Hese Biogas GmbH Hese Biogas GmbH

Technology Description (TD) for. Biogas Upgrading Technologies

Biogas Upgrading & Bottling Experience in Warna Sugar Mills

switching on the biogas resource

Application of the AGF (Anoxic Gas Flotation) Process

Workshop Industrial application of SOFC systems: the DEMOSOFC project

A. Typically, sewage treatment involves three stages, called (a) primary, (b) secondary and (c) tertiary treatment:

BIOGAS PLANTS EFFICIENT TECHNOLOGY FOR CLEAN ENERGY INVENTIVE BY NATURE

Biogas Opportunities: From Fuel to Flame

แผนพ ฒนาพล งงานทดแทนและพล งงานทางเล อก พ.ศ Alternative Energy Development Plan: AEDP2015

Nutrient Recovery: A Focus on Ammonia

Anaerobic Digestion Post-consumer Food Scraps. NEWMOA Webinar Tom Kraemer and Greg McCarron October 8, 2015

Canadian Biogas Metrics Study: Quantifying the Economic, Environmental and Social Benefits of Biogas Energy in Canada

Overview of Biogas Technology

IGNITER (CHANGING LIVES THROUGH BIOGAS)

Wastewater Sludge Recycling/Reuse in Japan

Triveni Group CORPORATE PRESENTATION

CA Dairy Anaerobic Digester Case study: Fiscalini Farms

From residue to raw material

Country Report Norway

Preliminary Assessment of the Opportunity for Methane Recovery from Wastewater at the Frigosinú SA Slaughterhouse, Monteria, Cordoba, Colombia

Sustainable Mobility and Transportation Fuels

A Simple and Energy Efficient Approach to Cleaning Biogas

BioCycle Renewable Energy From Organics Recycling

Theoretical Investigation: Biogas As An Alternate Fuel For IC Engines

Kompogas dry anaerobic digestion Energy from organic waste

POTENTIAL of Co-DIGESTION

Smart, Sustainable Gas Treatment Solutions. Biogas to RNG

ECONOMICAL AND EFFECTIVE BIOGAS PROCESS TO PURIFY ALTERNATIVE FUELS FOR POWER GENERATION. James Smith, Ph.D., P. Eng. Carmine Fontana, P. Eng.

FACT SHEET 8: BIOMASS

Biogas Cuts Climate Pollution

Country Resource Assessments: Support for Livestock and Agro-Industrial Waste Program Development

Renewable Energy Options. National Grid s Connect21. Agenda. yet, a very local New York business. An International Energy Company.

CASTILLA-LA MANCHA BIO-ECONOMY REGION PROJECT

What type of Digester Configurations should be employed to produce Biomethane from Grass Silage?

Community Based Bioenergy Systems - Technologies for Energy from Agricultural Biomass Sources

Transcription:

The True Challenges & Risks of Biogas and its Utilization Options in Thailand 1

Technologies Biogas Production Plants Landfill Gas Recovery Biogas Engine Generators Biogas Purification Biomass Fired Heat and Power Plants Municipal Solid Waste Treatment Plants Waste Heat Recovery Systems 2

Typical Applications for Biogas in Thailand Farm Waste Agri-Industrial Waste (Starch, Palm Oil, Sugar,.) Landfill Gas Ethanol WW from Molasses and cassava Napier Grass (NEW and Special) Seafood Industry Tropical Fruit Processing Slaughterhouse Waste OFMSW General Food and Beverage Industry 3

Biogas Production Technology How it works Biogas Treated Wastewater Wastewater Inlet 4

Biomethanation Reactors (1) Technical solutions do exist for all organic substrates to produce Biogas. Many reactor types are available, mesophilic or thermophilic. High tech and high performance solutions. Low tech and low performance solutions. 5

Biomethanation Reactors Various pre- and post- treatments are available and must be carefully engineered and selected. 6

Different Reactors (1) Medium/High Loading Rate: beet sugar, starch, brewery, soft drinks. Juices, fruit & veg. processing, potato & corn processing, slaughterhouse, rendering, cheese processing. Low/Medium Loading Rate fermentation (alcohol, baker s yeast, citric acid), fish and meat processing, slaughterhouse, rendering, dairy industry. High Loading Rate - Tower

Different Reactors (2) High FOG: Fermentation Fish & Meat, Slaughterhouses, Rendering, Cheese Processing. Oil & Toxicity Proof: Petrochemical Applications, Sludge & Slurries: Molasses distilleries Sludges, pulps Alternative Reactor: Covered lagoon, Molasses distilleries, Pulp & Paper Industry, and many more applications where space is 8 available

Biogas Utilization Material for reactor tanks: new options for Thailand round bolted steel tanks, pre coated inside/outside 9

Biogas Utilization Inground or covered lagoon reactors are very common here in Thailand. Where space does not matter, where feedstocks are unstable and undefined! or even for post treatment, probably a realistic solution. 10

Biogas Production 11

Examples of Biogas Projects in Thailand 100% bunker oil replacement + 2.6 MW electricity generation 100% bunker oil replacement. 12

Selected References 13

14

15

16

Biogas Utilization The biogas can be utilized in many ways depending on the thermal or electricity energy requirements of your factory such as fuel replacement for boiler, electricity generation etc. Thanks to Thailand s adder system you are motivated to sell to the grid. You might also want to produce CBG (compressed biogas) for use as vehicle fuel 17

Biogas Production and Methane Gas Estimation The estimation of the biogas production rate and methane gas content is the first step in the biogas utilization plan. The major factors are biodegradable COD load and flow rate of the wastewater. These factors are related to the raw material, the capacity of the plant, and the production process. 18

Wastewater Treatment Concerns (2) How do I design the size of the plant, considering unstable feedstock supply patterns? Do I go for maximum and invest in a plant which is then for certain periods too big and underutilized? Or do I go for small and bypass the substrate/water for too long periods? 19

Wastewater Treatment Concerns (3) How do I get my wastewater or solids to the reactor? What space do I need? Did I consider also biogas treatment for its intended purpose, i.e. power generation / boiler? Do I need scrubbing (H2S..), drying? How far do I have to transport the gas? 20

Investment and Financial Concern (1) How do I optimize my revenue from the biogas plant? Do I give preference to the power generators? The remaining gas to the boiler? Do I sell my power to the grid? Do I replace other fossil fuels such as bunker oil? Where is the break-even? 21

Investment and Financial Concern (2) Have I explored all financial initiatives available to support the implementation of the project? Is my project generating carbon credits? Is it worth to follow all the CDM procedures? Shall I invest myself or look for BOO/BOT partners? 22

Possibilities of Biogas Utilization Oil/ coal replacement Biogas Electricity generation Compressed Biogas

Consideration about the Biogas Still: Biogas you do not buy thru a pipeline or from a tank or storage on call like other fuels but is the result of a biological process, which may bear unpredictable issues. The dependence to biogas must be well considered in terms of down stream processes, not only from smooth process flow but also commercial considerations must be applied! and above all: SAFETY! 24

Oil/ coal replacement Boilers Dual fuel burner systems 25

Electricity Generation CHP Plant Biogas blower Biogas drier Biogas scrubber 26

Biogas Cleaning (1) Only methane in the biogas is a source of energy. Some other compositions are not utilized for the energy production such as carbon dioxide, oxygen, hydrogen sulfide gas, small particle (dust), and moisture. Biogas cleaning may be required. Hydrogen sulfide gas (H2S) or moisture can damage the biogas utilizing equipment. 27

H2S Scrubbers Biogas contains H 2 S, a very corrosive gas which is unwanted at the down stream equipment such as engines, biogas purifiers but also in (SO x ) emmissions. Bioscrubbers are here the optimal solution. 28

Biogas Cleaning (2) Hydrogen Sulfide gas (H 2 S) Corrosive to metal part of the equipment. H 2 S gas production based on the raw materials: Ethanol from molasses: commonly 20-30,000 ppm Cassava Starch: 3,000 ppm The maximum limit of H 2 S: Electricity generator:200 ppm. (or lower) Burner and boiler: 2,000 5,000 ppm. (better none or low, also for emission reasons) 29

Biogas Cleaning Techniques Scrubbing/Sweetening: H 2 S gas and dust removal. Dryer/Demister: H 2 O content removal. 30

BioGasclean Asia Biological H 2 S removal Peter Thygesen, BioGasclean Asia Renewable Energy Asia, Bitec Bangkok, June, 2013

BioGasclean A/S Denmark, Head office BioGasclean Asia Co.,Ltd, Thailand Leaders in biological removal of H 2 S from biogas. Have worked on most known substrates and engines. Have installations in about 30 countries. Have more than 110 installations with an installed generating capacity of over 280 MW

Basic Value-chain on a Biogas plant 1. Biogas Generation: Conversion of COD to Biogas 2. Gas Treatment: H2S removal Drying Pressure adjustment 3. Energy & Power generation Gas Engine Boiler Each step is equally important and need to operate with high reliability to create revenue on the plant

Key points in reliable H 2 S removal Proper knowhow in design and dimensioning Materials in the right quality for high corrosive environment. Integration of the system on the biogas plant Advances Process control Safety considerations Operation and Maintenance After Sales Service

P/V valve Bio scrubber principle Tan k Spray system Air injection Effluent water adding Pre-treatment(MUW) PTU O2 Gas outlet Gas inlet MUW tanks Effluent Storage tank Circulating pump Air Blower High level Low level SO 4 2 - Auto Drain MgSO4, CaSO4 Gutter MgSO4, CaSO4 Effluent Pump

BiogasCleaner FRP tank Thailand Capacity: 700 Nm 3 /h. 3.000 ppm H 2 S => 100 ppm Cassava WWTP

BiogasCleaner 3 FRP tanks Denmark, Design Capacity: 3,600m 3 /h 3,000ppm

PTU in FRP housing

BiogasCleaner built on-site Thailand Design Capacity: 1.670 Nm 3 /h, 30.000 ppm H 2 S => 100 ppm Sugar cane molasses ethanol WWTP

Cost for H 2 S removal Example1: 3,000 ppm H 2 S (Cassava and POME) Treatment cost per 1,000 m 3 = 70 THB Cost per MW electrical produced = 34 THB Example 2: 20,000 ppm H 2 S (Molasses based Ethanol) Treatment cost per 1,000 m 3 = 465 THB Cost per MW electrical produced = 225 THB. Average Selling price for 1 MW in Thailand = 3,100 THB Budget conditions: Plant life 15 years; 8,000 h operation/y, Maintenance & QSR cleaning, 3 MW installation with 1,600 m 3 /h capacity.

References No. Country No. Power MW 1 Thailand 35 110 2 Denmark 10 25 3 Malaysia 8 20 4 U.S.A. 8 20 5 Guatemala 4 6 6 India 6 9 7 Indonesia 6 11 8 Canada 5 18 9 Turkey 3 5 10 to 16 17 to 29 Argentina/China/Mexico/Morocco/Pakistan/ Israel/ South Africa (2 INSTALLATIONS EACH) Australia/Brazil/Colombia/Cambodia/Finland Italy/Lithuania/Netherland/New Zealand Poland/UK/Vietnam/Laos (1 INSTALLATION EACH) 14 27 13 34 TOTAL 112 285

Thank You Asia www.biogasclean.com

Biogas upgrading technology 43

Biogas related to industries Industries Process Basic nutrient for the anaerobic fermentation Methane / CO2 ratio Agriculture sector, breweries,destilleries Mono fermentation Vegetable-based material (corn silage, spent hops, spent grain, etc.) 55% / 45% Cattle farms COfermentation Manure (cow, pig, chicken) with vegetable-based material 55% / 45% Compost-processing industry VFG Vegetable-based material 55% / 45% 70% / 30% Potable water companies, water authorities, STP,\ industrial wastewater treatment Systems Water treatment Semi-solid organic residues from water and solids (sludge) 65% / 35% 44

Biogas Upgrading Pentair Haffmans upgrade installation Biogas 55% CH 4 45% CO 2 Bio-methane Green CO 2 Membrane and CO2 recovery technology In summary 100 % CH4 is turned into bio methane No CO2 is wasted extra source of income 45

Biogas Upgrading Biomethane (Green Gas) Membrane Unit CO 2 Recovery CO 2 46

Wastewater Treatment plant Process Diagram 47

Biogas Upgrading Installation Mass Balance Membrane Unit Biogas 250 Nm 3 /h (55% CH 4 45% CO 2 ) Bio-methane 153 Nm 3 /h 1.3 m Nm 3 /y H 2 S removal Gaseous CO 2 CO 2 Recovery System (50% CH 4 50% CO 2 ) Gaseous CO 2 (10 CH 4 90 % CO 2 ) 175 kg/h CO 2 1,600 tons/y CO 2

Biogas Upgrading Installation 250 m 3 /h Beverwijk Plant Capacity Biogas source 250 Nm 3 per hour Wastewater treatment plant Methane / CO 2 Ratio 55 % CH 4 / 45 % CO 2 Pressure Biomethane produced CO 2 Recovered CO 2 used for Methane Loss Injection into grid 8 bar 1,280,000 Nm 3 / year 1,600 ton / year ph correction of water coming from wastewater treatment plant None According to Dutch Specifications

Biogas Upgrading Installation 450 m 3 /h Well Plant Capacity Biogas source 450 Nm 3 per hour Vegetable-based material (Compost-processing industry) Methane / CO 2 Ratio 55 % CH 4 / 45 % CO 2 Pressure Biomethane produced CO 2 Recovered CO 2 used for Methane Loss Injection into grid 8 bar 2,200,000 Nm 3 / year 2,520 ton / year Greenhouse / Cooling agent / Dry-ice None According to Dutch Specifications

Biogas Upgrading Installation 350 m 3 /h Witteveen Plant Capacity Biogas source 350 Nm 3 per hour Vegetable-based material (corn silage,spent hops, spent grain, etc.) (Mono-Digestion) Methane / CO 2 Ratio 55 % CH 4 / 45 % CO 2 Pressure Biomethane produced CO 2 Recovered Methane Loss Injection into grid 8 bar 1,600,000 Nm 3 / year 2.240 ton / year None According to Dutch Specifications 51

Siloxane Removal Systems

Siloxane Removal Systems

Investment and Financial Concern (4) Investment and Finance. As all biological processes it seems that banks and fund managers have endless questions and doubts and ask for guarantees. Since feedstock for the plants is readily available there should be no doubt that today technologies as offered by us are reliable systems, well proven etc.

Thank You RETECH ENERGY CO., LTD. 2/22 Iyara Tower 6th and 7 th Floor Chan Road, Soi 2 Kwaeng Thungwatdorn, Khet Sathorn Bangkok 10120, Thailand Tel. +66-2-678 8921-2, +66-81-862 6871 Fax. +66-2-678 8920 info@retech-energy.com w w w. r e t e c h - e n e r g y. c o m