1. MALAYSIAN
TECHNICAL CO-OPERATION PROGRAMME (MTCP)
Malaysia
through the Malaysia Technical Co-operation Program (MTCP) shares its
development experiences and expertise with other developing countries. The MTCP
was first formulated based on the belief that the development of a country
depends on the quality of its human resources. The program forms part of the
commitment of the Malaysian Government towards the promotion of technical
cooperation among developing countries, strengthening of regional and
sub-regional cooperation, as well as nurturing collective self-reliance among
developing countries.
I was nominated by the Papua New Guinea Science and Technology Secretariat and
endorsed by the Department of Foreign Affairs to attend the MTCP training ‘Renewable & Green Energy as
Alternatives: TNB’s Experience towards Greener Malaysia’ in Kuala Lumpur from
the 08th- 17th June, 2015.
2. OBJECTIVES OF THE TRAINING
The
objectives of the training are as follows;
§ Capacity
Acquisition:
Acquire the skills, insight and knowledge to facilitate and develop policies
that are needed in the energy sector in Papua New Guinea
§
Improve Competency: Competently review and monitor
research and development (R&D) programs in green energy technology to
deliver their potential
§
Renewable Energy Experiences from
Malaysia:
experience and insight from Malaysia that we can learn from.
§
Research & Development
Programs: Gain
technical information about R&D programs in Renewable Energy in Malaysia
§
Post Graduate Training: Gain information on Post
Graduate programs offered in Renewable Energy
§
Collaboration and Partnership: Work in collaboration with
Malaysia to enhance and develop Renewable Energy Technologies.
3. GREEN ENERGY IN
PAPUA NEW GUINEA
Eighty
(80) percent of Papua New Guineans in the rural areas still rely on traditional
biomass, such as firewood, for cooking and heating, with diesel generators
providing a popular alternative. But the high price of fuel means that
generators are used sparingly, often for no more than a few hours each day.
Green
Energy or renewable energy will be critical to sustainable development, clean
energy, health, and wealth creation in Papua New Guinea, and the wider Pacific
Islands, as we confront high fossil fuel costs and the impacts of climate
change. The
denial of choices to improve human development through energy is known to
negatively impact infant mortality, life expectancy and income generation,
among many others.
Papua New Guinea has an enormous
potential for renewable energy to transform remote rural lives with clean and
sustainable electricity with many fast-flowing rivers, eight hours of sunlight
daily and two-thirds of PNG forested and richly endowed with natural resources, but exploitation has been hampered by
rugged terrain, land tenure issues, and the high cost of developing
infrastructure.
The
Government has initiated Rural Electrification Programs and supplied solar
panels to some rural areas, but there is still technical, financial and
logistical challenges.
My
report identifies research and development lessons that the government and all
stakeholders can adopt to expand the sustainable development of green or
renewable energy and paves the way for future policies and legislations on
renewable energy to be written.
4. NATIONAL
ELECTRIFICATION ROLL-OUT PLAN
The Energy Division (ED) of the Department of Petroleum and Energy
(DPE) is responsible for preparing energy policies, planning initiatives, data
collection and analysis as well as advising the government on energy sector
issues.
The Department of Petroleum and
Energy (DPE) is currently developing a National Electrification Rollout Plan
(NEROP) and its main objective is to electrify seventy (70) percent of the
households in PNG by 2030 through Green or Renewable Energy Technology
However, there is no law, policy or regulation on Renewable Energy
in Papua New Guinea.
5. LEARNING POINTS
FROM MALAYSIAN EXPERIENCES
As
a commitment towards the growth of renewable energy in Malaysia, the Ministry
of Energy, Green Technology and Water presented before the Parliament the
Renewable Energy (RE) Bill in December 2010. Once the Bill was passed in
Parliament, the new Act enabled the implementation of the Feed-in Tariff (FiT) in Malaysia, starting from
the middle of 2011. Through this Renewable Energy Act, the total renewable energy
capacity in the country was expected to increase significantly from 61.2 MW to
at least 985 MW by 2015, and 2,080 MW by 2020.
The
Renewable Energy Act, will catalyst Malaysia’s aspiration to become a leader in
green technology, and meet their target of 40% carbon emissions intensity
reduction by 2020. Renewable Energy is also a key component in the Economic
Transformation Program (ETP), in realizing its vision for Malaysia to become
a high income nation.
5.1 Renewable Energy Act 2011, Policy and Action Plan
The
Ministry of Energy, Green Technology and Water is responsible for formulating
policies and strategies, as well as undertaking planning for the supply of
electricity in the country. The development of the electricity supply industry
is guided by the National Energy Policy (1979), the Four Fuel Diversification
Policy (1981), and the Fifth Fuel Policy (2001). On 2nd April 2010, the Cabinet
approved the National Renewable Energy Policy and Action Plan that is the
cornerstone for a more aggressive deployment of RE in Malaysia.
5.2 The Concept of Feed-in Tariff (FiT)
The
Feed-in tariff
(FiT) system/mechanism obliges Distribution Licensees to buy RE from feed-in
approval holders (FIAHs) and sets the rate to be paid for such RE (FiT Rate).
For a specific duration, Distribution Licensees would pay for each unit of RE
supplied to their respective electricity grids.
 |
Basic concept of the FiT for PV
household
|
By
guaranteeing access to the grid and setting a favorable price per unit of RE,
the FiT mechanism would ensure that RE becomes a viable and sound long-term
investment for companies, industries, and also for individuals.
5.3 Renewable Energy Fund: Funding for Feed-in Tariff (FiT)
The
FiT in Malaysia is financed by a RE Fund which is derived by passing the FiT
cost to final electricity consumers. The customers who consume less than 300 kWh
per month will be exempted from contributing to this RE fund. Therefore, heavy
consumers of electricity would contribute more to the RE fund. This is
essentially a polluter’s pay concept – the ones who pollute the most, pays the
most to the RE Fund. This form of fund collection has been proven to be an effective tool in overcoming current
economic and financial crises as it does not utilise public funds. The spin-off from this RE Fund mechanism is a
greater acceptance for consumers to adopt energy efficiency measures to reduce their
electricity consumption.
5.3.1 Renewable Energy
Funding Flow for FiT
Financial
Governance of the RE Fund: The management of the RE Fund will be under the
supervision of SEDA Malaysia. The accounts of the RE Fund will be presented to
Parliament on an annual basis, as mandated under the Renewable Energy Act.
5.4 Energy
Efficiency
‘Energy
Efficiency’ could be the immediate solution to higher energy demand, while
renewable energy sources were being considered for long-term energy
sustainability. Energy Efficiency is achieved through application of efficient
technology, such as high efficiency motors, lighting, etc. It involves
investment cost and requires expert in identifying the right technology. Energy
efficiency is mostly applied to industries.
‘Energy
Conservation’ is achieved through efficient use of energy, such as turning off
lights and electrical appliances when not needed, using daylight, etc. It does
not involve cost and requires behavioral change. Energy conservation is applied
to all sectors.
‘Energy
Audit’ is part of the overall energy management process. It is an activity to
identify where, when and how much energy is being used in the business and how
to reduce the cost of energy for the business. Savings can be achieved through
efficient use of electricity, thus reducing its operating expenses. Energy
Audit will identify which areas need to be improved and highlight the most
effective approach and/or technologies for the improvement.
TNB
supports Government’s National Green Technology (GT) Plan in raising Green
Awareness aspects:
o Public Awareness –National Energy
Awareness Campaign
o TNB Staff Awareness –EE practices
in offices, GREENER Portal, awareness training program, green articles in
magazines
5.5 Solar Hybrid
Micro-Grid for Rural Electrification and Conventional Power Systems
Hybrid
solar systems combines the best from grid-tied and off-grid solar systems.
These systems can either be described as off-grid solar with utility backup
power, or grid-tied solar with extra battery storage.
Hybrid
solar systems are less expensive than off-grid solar systems. The introduction of hybrid
solar systems has opened up for many interesting innovations.
 |
Micro-Grid R&D
Program at TNB Research
|
 |
TNB Research Smart
Grid Technology: Project Vision
|
 |
Solar Hybrid system
Flow Diagram. Credit: TNBES
5.6 Biodiesel for
Power Generation (Waste Cooking Oil Biodiesel Program)
Biodiesel
is one such renewable energy source due to availability and compatibility to
substitute diesel without engine modification. Biodiesel produced from
vegetable oils and animal fats through chemical process known as
“Transesterification” and meets fuel specification standard. It is chemically a
composition of monoalkylester of fatty acids also known as fatty acid methyl
ester (FAME).
Utilization
of biodiesel in diesel engine is well established and has shown promising
results in terms of performance and emission. Besides transport sector,
biodiesel have been considered a promising alternative fuel for reciprocating
diesel engine application in power generating sector. Additionally, biodiesel
can also be considered as an alternative fuel for gas
turbine
application in power generation industry. Unfortunately, properties of
biodiesel such as viscosity, surface tension and density impeding the fuel for
gas turbine application according to gas turbine fuel specification standard. Therefore,
further improvement is needed on biodiesel properties to meet gas turbine fuel
standard.
|
The
Universiti Tenaga Nasional (Uniten) biodiesel research project focus, converting
waste cooking oil (WCO) into biodiesel has been established since 2002. Uniten
successfully developed of a small scale processor with rapid processing scheme
that is capable of producing biodiesel that meets international fuel standards
from multi feedstock. Rigorous testing has been conducted on stationary diesel
engines and the results of the performance and emission tests were very
encouraging. Research works have achieved recognitions locally and
internationally.
 |
Uniten Biodiesel Research
Program Framework (2002-2020)
|
Advance
research has successfully developed microwave assisted post treatment scheme to
produce improved biodiesel or called “Second Generation Biodiesel (SGB)”. The
properties of SGB such as viscosity, density and surface tension are in
compliance with gas turbine fuel specification standard. Preliminary assessment
on SGB atomization, combustion and emission has shown comparable performance
with baseline fuel (Distillate diesel). Thus, SGB has potential to replace distillate
diesel (DD) for gas turbine application as sustainable energy source in the
industry. However, insufficient amount of fuel (SGB) and detail and
comprehensive field trial on gas turbine is essential to gain confidence from
users prior to commercialization.
Development
of large scale production module is vital to produce sufficient amount of SGB
and comprehensive fuel property analysis and field trial prior to
commercialization. Outcome of this research definitely will benefits the nation
in pursue of sustainable energy supply for power generation and reduce country
dependence on fossil fuel.
5.7 Biogas from
Sewage Treatment Plant (STP) - Uniten’s Experience
Renewable
Energy can be harnessed from waste water resources – mainly Industrial (POME,
Brewery run-off, etc.) and Domestic waste (Sewage, grey water, etc.).
Harnessing biogas (CH4) from waste water treatment is a good source of
renewable energy for electricity generation.
Malaysia,
with a population of over 28 million generates 16,000 tons of domestic waste
daily. At present, the per capita generation of solid waste in Malaysia varies
from 0.45 to 1.44kg/day depending on the economic status of an area.
Research
& Development and STP Plant Process Optimization can increase the biogas
potential. A typical schematic of modern mechanized STP Process Flow in
Malaysia is shown in the diagram below:
 |
STP Process Flow in
Malaysia and scope for research & development
|
5.8 Biogas: From
Palm Oil Mill Effluent
The
biogas plant is an effective and efficient way to treat POME, food and organic
wastes, solid wastes and animal wastes in an environmental-friendly manner.
Besides reducing waste and greenhouse gas emissions, biogas generated could be
used to produce green energy in the form of electricity to be used internally
or uploaded to the power grid, offering an alternative and sustainable energy
source
 |
Biogas Flow &
Storage Process
5.9 Biogas:
Conventional Landfill Gas
The
energy source is from the biogas naturally produced by the solid waste
anaerobic degradation at landfills. The main content of the landfill gas (LFG)
is methane, which can be used for power generation, transport and as cooking
gas. Harvesting energy from landfills is befitting as there are more than 261
landfill sites in Malaysia and 150 sites are still operating, contributing to
the immense potential of LFG formation.
5.10 Biomass:
Combustion of Empty Fruit Bunch (EFB)
EFB
are the main source of biomass that could be utilized by the power plants as
this is more readily available in the market. Many plantations use a small
amount for their own internal use, but a large portion is put aside, either
biodegrading into compost, or at times burnt to avoid space loss by storage.
Therefore, there is a substantial amount of EFB left unused.
5.11 Mini and Micro
Hydro Power Plants
'Mini-hydro
power plants’ refers to plants with a capacity
below 10 MW. ‘Micro-hydro
power plants’ refers to power systems with a power rating of 100kW or less. A
100kW system will produce 100 standard units of electricity in one hour. Micro
hydro systems differ from large hydro power since the flows of water required
are much smaller.
Mini
and Micro Hydro Power Plants have been popular in Malaysia for a number of
years enabling rural communities to enjoy the benefits of electrification in
areas with hydro power potential but without a grid network.
6. RESEARCH AND
SPECIALISED POST-GRADUATE PROGRAMS IN MALAYSIA
Malaysia has kept pace
with the demands of scientific and technological world. It offers first class
post graduate programs at an affordable cost and prepares professionals to
succeed in a competitive global market.
6.1 Universiti Tenaga
Nasional (Uniten)
Universiti Tenaga
Nasional is a private university owned by the public-listed Tenaga Nasional
Berhad (TNB), one of the largest power utilities in Southeast Asia. Uniten’s
College of Graduate Studies is Malaysia’s premier graduate college in
engineering, information technology and business. Uniten’s wealth of
experience, resources, facilities, PhD and masters programs are designed to prepare its graduates to become
knowledgeable and competent professionals in Green Technology.
6.2 Centre for
Renewable Energy (CRE)
The Centre for Renewable
Energy (CRE) was established in August 2008 as a centre for research and development
in renewable energy and formally institutionalized as a Research Centre of
Excellence (CoE) in Uniten on 21 March 2012.
The core of CRE's function
is on research and development programs mainly in renewable energy such as
bio-diesel, co-combustion, studies micro-hydro, photochemical cells, hybrid
energy harvesting system, fuel additives for diesel engines, catalyst for
biodiesel reactor, enzymatic reaction for bio-fuels, biogas from waste
materials, bio-hydrogen for fuel cell and automotive application, and solid
bio-fuel briquette from oil palm mill solid wastes.
CRE
have over 30 completed projects and 9 on-going projects. CRE has made
collaborations with various international organizations such as University of
Leeds (UK), Cardiff University (UK), Aachen University of Applied Science
(Germany), McGill University (Canada), The Energy and Resources Institute
(India), University of South Wales (UK) and Indiana University-Purdue
University Indianapolis (USA). CRE is also the host for the Malaysian branch of
the Energy institute (UK).
Some
of the research projects carried out by CRE:
1.
Langkawi
Waste Cooking Oil Biodiesel Technical Feasibility Study
2.
Conversion
of Waste Cooking Oil to Biodiesel for Diesel Engine Application
3.
Solid
Bio-fuel Briquette from Palm Oil Milling Solid Wastes
4.
Raw
material characterization to recycle waste cooking oil into biodiesel for gas
turbine application.
5.
Sustainable
Alternative Solid Biofuel from biomass for Carbon Reduction in Coal-fired Power
Plant
6.
Harnessing
Renewable Energy Potential from STP Biogas and Treated Wastewater to Generate
Electricity
7.
Green
Fuel: The study on its potential in generating electrical power based on
geothermal and algae parameters
8.
Life
cycle assessment study on energy balance & environmental impact of
recycling waste cooking oil into biodiesel
9.
Development
of pilot-scaled biodiesel processing plant
10. Development of pilot
commercial biodiesel processing plant
11. Design and Development
of a Microwave Assisted Post Treatment Scheme to Produce Biodiesel Fuel for Gas
Turbine
12. Study on Rate of
Systhesis and Structure Composition of Lipid in Selected Microalgae
13. Enhancement of Lipase
Enzyme Activity through Three Phase Partitioning and Microwave Mediated Immobilization
on Nanoparticles of Hydrophobically Modified Chitosan for Biodiesel
Production from Palm Oil.
14. Study of Bio-ethanol
Injection for Performance Optimization and Control of Emissions in Diesel
Engine
15. Hybrid Dry Fermentation
Anaerobic Digestion (hDFAD) Biogas Plant
16. Fundamentals
of Microwave Assisted Carbon Monoxide Production from Bamboo Charcoal
Using Metal Oxides for Subsequent Production of Hydrogen for Fuel Cell
17. Development of a New
System to Produce Second Generation Biodiesel for Power Generator Application
18. Conversion of Waste
Glycerol from Biodiesel to Bioethanol by Tandem Process of Intensified
Fermentation and Enzymatic Conversion
19. Sustainable Alternative
Solid Bio-Fuel from Biomass for Carbon Reduction in Coal-Fired Power Plant
Project
20. Combustion of Coal and
Biomass in a Cyclone Combustor
21. Study on Rate of
Synthesis and Structure Composition of Lipid in Selected Microalgae
7. WAY FORWARD FOR
GREEN ENERGY IN PAPUA NEW GUINEA
The
options available with green technology provides a combination
solution and way forward for Papua New Guinea. It is my hope that this report
has explored the renewable energy alternatives from the Malaysian and
Indonesian experiences. More work has to be done to promote the utilisation of
renewable energy, engage in discussions with key government agencies, and build
pilot green energy projects in the districts.
7.1 White Paper on
Renewable Energy
Papua
New Guinea must develop policies and strategies on Renewable Energy to ensure a
holistic approach towards a sustainable renewable energy and socioeconomic
development in consultation with the Department of Petroleum & Energy,
Department of Environment & Conservation, Office of Climate Change &
Development, etc.
7.2 Green
Technology Research and Development Centre
The term "technology"
refers to the application of knowledge for practical purposes. The field of
"green technology" encompasses a continuously evolving group of
methods and materials, from techniques for generating energy to non-toxic
cleaning products.
Green technology involves;
o
Green Energy
Perhaps the most urgent issue for green technology, this includes the
development of alternative fuels, new means of generating energy and energy
efficiency.
o
Green building
Green building encompasses everything from the choice of building materials to
where a building is located.
o
Green chemistry
The invention, design and application of chemical products and processes to
reduce or to eliminate the use and generation of hazardous substances.
o
Green nanotechnology
Nanotechnology involves the manipulation of materials at the scale of the
nanometer, one billionth of a meter. Some scientists believe that mastery of
this subject is forthcoming that will transform the way that everything in the
world is manufactured. "Green nanotechnology" is the application of
green chemistry and green engineering principles to this field.
The goals
that inform developments in this rapidly growing field include sustainability,
source reduction, innovation and viability.
It
is essential to establish a Green Technology R&D Centre at PNG University
of Technology (Unitech) to focus on research and development programs mainly in
renewable energy field such as biomass, solar energy, wind energy, hydro,
enabling technologies and alternative energy. Benchmarking with Malaysia’s
experience to find development gaps and seek assistance where needed.
7.3 Post Graduate
Scholarship Grants
Papua
New Guinea graduates can draw on the specialized research centres and
institutes set up within Uniten for advanced research and post graduate studies
in Renewable Energy. As a research based university, Uniten’s facilities and
laboratories are fully equipped and plans on further expansion of cutting-edge
research facilities. A scholarship program should constitute part of PNG
Science and Technology Secretariats submission for the developmental budget to
sponsor at least five (5) Papua New Guineans to do post graduate studies to
Uniten (i.e. 3 at Masters level and 2 at PhD level) in Renewable Energy through
research which would cost less than K15,000/annum/student.
7.4 FiT Model
In
the medium to long term, PNG Power Limited will have to do feasible studies for
the FiT model and implementation if applicable to Papua New Guinea grid setting.
7.5 Landfill Biogas
The
efficacious use of sanitary landfills as a method of choice for waste disposal
is well known throughout the world. Also crucial is the need to sustain our
natural resources and conserve the environment are compelling factors for Papua
New Guinea to take a holistic approach to solid waste management and disposal
solutions to harness waste-to-energy through sanitary landfills.
This
will need further discussions with NCDC and the provincial town authorities.
NCDC and provincial authorities can introduce separate rubbish bins for organic
waste and inorganic waste.
7.6 Energy
Production from Sewage Treatment Plant (STP)
A
modern and efficient sewage system is vital needed by Port Moresby and other
provincial towns. A collaboration with Eda Ranu and Water PNG Limited will be
needed to harness biogas for generating electricity from the sewage treatment
plants (STP).
Extensive
research and development (R&D) must be carried out to realize the true
potential of RE from Sewage Sludge waste. With adequate R&D, the industry
can be energy wise, self-sustaining and produce excess energy and be profitable.
7.7 Waste Cooking
Oil (WCO) Biodiesel
Pacific Adventist University (PAU)
must perform extensive field trial assessment with off-road diesel engine to
gain confidence from industrial diesel users prior to commercialization.
Further research into the economy and efficiency of biodiesel produced from
waste cooking oil. Collaboration with Uniten’s Centre for Renewable Energy must
be forged for technical assistance. The outcome of this research definitely
will benefit the nation in terms of sustainable energy supply for power
generation and reducing the country’s dependence on fossil fuel.
7.8 Crude Palm Oil
(CPO) Biodiesel- Indonesian Experience
Indonesia has been producing biodiesel from crude palm oil (about
5,3 million KL biodiesel or 4,8
million tonn CPO) as raw material is very abundant in Indonesia. PAU can adapt this
technology from Indonesia to produce biodiesel from crude palm oil (CPO)
alongside its waste cooking oil (WCO) research and development project.
7.9
Implementation of Bioenergy Policy (Biogas) -
Indonesian Experience
We
should study the Bioenergy Policy (Biogas) from Indonesia and adopt some of the
programs to our setting. Programs under the Indonesia Bioenergy Policy;
1.
Program on Biofuel
2.
Program on Biogas
3.
Progam on Biomass for Electricity
4.
Program on Clean Stove
5.
Program on (Bio) Hydrogen
6.
Program Energy Self-Sufficient Village
7.
Program on Iconic Island for Renewable Energy
As
part of the MTCP training ‘Renewable
& Green Energy as Alternatives: TNB’s Experience towards Greener Malaysia’ we
visited the following sites;
8.1 Green Energy
Office (Malaysia Green Technology Corporation)
The Malaysia
Green Energy Office (GEO) building is located at Bandar Baru Bangi, Selangor
(around 40 km south of Kuala Lumpur). The building is known for its energy
efficiency and sustainability features, which serves to promote the adoption of
sustainable green buildings in Malaysia. It is currently the headquarters for
the Malaysian Green Technology Corporation (MGTC).
8.2 Uniten
Biodiesel and Gas Turbine Technology Laboratory
UNITEN
has successfully developed a lab scale processor which has the capability to
derive the Malaysian Waste Cooking Oil to biodiesel. The lab scale processor
operates using a single step transesterification process.
The
Uniten Centre for Renewable Energy also has an important role in the UNITEN
Green Campus initiative. CRE has produced biodiesel from the process developed
by the biodiesel research group for Diesel-B5 (Diesel with 5% Biodiesel)
utilisation in the UNITEN transportation fleet. The Biodiesel produced are from
waste cooking oil collected from all restaurants and food-courts within the
UNITEN campus and from UNITEN staff.
8.3 DreamEdge
Prototyping Centre (Electric Car)
DreamEDGE focuses on digital
engineering services with a broad number of new engineering technologies
ranging from Data Exchange Service to CAD Data Designing and Modeling Service,
CAE Analysis and Simulation, Special Training Program and Consultancy, CAD Data
Conversion Service, PLM Solution, and Outsourcing Services, Advanced
Robotics & Engineering Solutions (ARIES) and designing and building
electric vehicles.
8.4 Kumpulan Melaka
Solar Farm, Melaka State (5MW)
Kumpulan Melaka Berhad (KMB) Solar Farm is wholly owned by State
Government of Malacca. The project costed RM46 million and in two (2) projects;
10kW roof-top and 5MW Solar Farm.
8.5 Amcorp Perting
Mini Hydro Power Plant, Bentong, Pahung State (6.2MW)
Amcorp
Perting Mini Hydro Power Plant is located in the Bukit Tinggi forest reserve at
the Chamang Waterfall at Sungai Perting, Bentong in the state of Pahang,
Malaysia. The 6.2MW power plant utilizes the river flow of Sungai Perting
(Perting River) to generate clean electrical energy which is sold to the
national utility company, Tenaga National Berhad. It won the
ASEAN Energy Awards in2012.
8.6 Bukit Tagar
Santari Landfill (4.4MW), Hulu Selangor
Bukit
Tagar Santari Landfill (BTSL) was constructed under the supervision of the
Ministry of Urban Wellbeing, Housing and Local Government. It has a 4.4MW gas
generators fueled by methane produced by solid waste treated in the landfill
and a state-of-the-art leachate treatment plant as well as environmental
monitoring. The 125 kilowatt solar project is presently experimenting with
different solar panel technologies to determine the most effective technology
to adopt in future expansion.
BTSL
has won the following awards;
o
ASEAN
Federation of Engineering Organizations Award - AFEO Award 2008
o
ASEAN
Energy Award 2012 (Renewable Energy On-Grid Category) From the ASEAN Centre for
Energy
o
DFS
Singapore Environmental Achievement Award (REGIONAL)
o
CDL Outstanding Singapore
Environmental Achievement Award
o
Institution
of Engineers Malaysia - IEM Outstanding Engineering Achievement Award 2008
9.0 CONCLUSION AND
ACKNOWLEDGEMENT
Papua New Guineans can no longer
assume that social challenges such as pollution, dwindling natural resources
and climate change can be set aside for future generations. Through policy,
research, education, incentives and forward-looking relationships with
industry, the government can play a central role in building a green future for
our country, community by community, village by village, district by district
and province by province.
The
options available with green technology provides a combination
solution and it is my hope that this report has explored the renewable energy
alternatives that are available from the Malaysian and Indonesian experiences.
I
would like to acknowledge the following institutions for making this training
possible;
o
Government
and the people of Malaysia through the MCTP
o
TNB,
Uniten and ILSAS Technical Training Institute
o
Wisma
Putra (Department of Foreign Affairs, Malaysia)
o
Malaysian
Green Technology Corporation
o
Sustainable
Energy Development Authority (SEDA)
o
Papua
New Guinea Science and Technology Secretariat
o
Department
of Foreign Affairs, Papua New Guinea
Jordan Dean in Malaysia
10. REFERENCES
Hamid,
H. and Mohd Baki, A. (2005) Sewage
Treatment Trends in Malaysia. The Ingeniur, 3 (March-May 2005),
Ministry
of Energy, Green Technology and Water, Handbook on the Malaysian Feed-In Tariff
For The Promotion Of Renewable Energy, 2nd Publication, March 2011 p.46-53.
Sustainable
Energy Development Authority Malaysia (SEDA) (2012) SEDA PORTAL.[online]
Available at:http://www.seda.gov.my/ [Accessed:1 July 2015].
Power
Point Presentations by the MTCP facilitators;
Centre
for Renewable Energy, Universiti Tenaga Nasional (Uniten), Harnessing Renewable Energy from Sewage Treatment Plant - Uniten’s
Experience, Assoc. Prof. Dr. Saifuddin Normanbhay
Centre
for Renewable Energy, Universiti Tenaga Nasional (Uniten), Experience in Biodiesel for Power Generation, Ir. Dr. Kumaran
Palanisamy
Green
Technology Research Group, Mohd Razwan Bin Rusli, Renewable Energy Micro-Grid in the context of Conventional Power
Systems
Green
Technology Research Group, Mohd Razwan Bin Rusli, Solar Hybrid Micro-Grid Projects for Rural Electrification
Ir.
Hamdan Ali, Energy Efficiency: TNB’s
Initiatives towards Greener Malaysia
Khairadi
Azhan Che Rais, Renewable & Green
Energy as Alternatives –TNB’s Experience towards Greener Malaysia
Shahrina
Abdullah, Biomass: TNB Experience in
Biomass Projects
Shahrina
Abdullah, TNB Experience in
Implementation of Biomass Projects in Malaysia
|
Comments
Post a Comment