Tuesday, January 17, 2017

Reliable and affordable methods for measurement of greenhouse gas emissions from agriculture now available


The closed chamber method is a widely used technique to quantify greenhouse gas emissions in agricultural ecosystems. (Photo: IRRI)

As countries shift from mitigation commitments to action in the 2016 climate change negotiations and beyond, many countries are unable to plan for emissions reductions in agriculture due to a lack of data.

Earlier this year, researchers found that data used to calculate emission factors and populate models do not accurately represent conditions on small farms in tropical developing countries because they largely come from research in temperate, developed countries.
The complex, smallholder agricultural systems in tropical, developing countries do not fit the same emissions profiles as temperate agricultural systems, which are often mono-cultural,” said Meryl Richards, a researcher from the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the University of Vermont Gund Institute for Ecological Economics who co-edited the book.
"As countries begin implementing their climate change commitments, some are finding that they do not have reliable information about the mitigation potential of particular agricultural practices under local conditions. Getting that information often requires field measurement, which can be very expensive. This book is intended as a guide to conducting measurement in a way that provides the most information at the least cost.”  
119 developing countries committed to mitigation in agriculture in the Paris Agreement but few countries shared details about how they will carry the pledges out. Agriculture (not including land use change) contributes an average of 35% of emissions in developing countries and 12% in developed countries.
“With the exception of a few crops and systems in tropical countries, there are few measured data for emissions from smallholder farms in developing countries,” Richards, said. “This book brings together the latest science in field measurements of agricultural greenhouse gas sources and sinks. Countries can use the methods and the data they produce to support improved emission factors for country inventories and to assess the mitigation impacts of practice changes and projects.”
  • Design a measurement program;
  • Quantify stocks, stock changes and fluxes of the major GHG sources and sinks including: land use and land cover change, greenhouse gas emissions from soils, methane emissions due to enteric fermentation in ruminants, biomass carbon, and soil carbon stocks; and
  • Use field measurements to estimate mitigation potential at larger scales, and assess trade-offs between climate change and development objectives.
Recognizing that cost of research has often been an impediment for some countries, authors provide guidance on how to choose from available methods, given users’ objectives, resources, and capacities.
Authors expect that national agricultural research centers, compilers of national greenhouse gas inventories, policy makers, agricultural development practitioners, universities and the private sector will find the guidelines useful to fulfill reporting requirements to the United Nations Framework Convention on Climate Change and to identify and implement low emissions development practices that will fulfill mitigation targets outlined in the Paris Agreement. “As soon as the measurement data is collected, countries will be ready to use it,” Richards added.

(Repost from CCAFS site)

Resources

We will be publishing user guides and videos to accompany some of the chapters. Please see the video below summarizing the Quantifying Greenhouse Gas Emissions from Managed and Natural Soils chapter or see the presentation here.

Further reading

Friday, June 3, 2016

Gender issues in implementing a water saving technique in Colombia

    Photo: CIAT

The adoption of the alternate wetting and drying (AWD) technology, developed by the International Rice Research Institute (IRRI), is currently being undertaken in Colombia by the International Center for Tropical Agriculture (CIAT), in collaboration with the National Rice Federation in Colombia (FEDEARROZ). This research initiative is significant given the diminishing water resource and the drought episodes being experienced in some parts of the globe as a result of climate change. 
In implementing AWD, a socioeconomic study with gender perspective is being conducted in five regions of Colombia -Tolima, Norte de Santander, Córdoba, Cesar and Casanare- to identify potential barriers to technology adoption among rice producers. In some Latin American countries, studies show that women are not typically recognized as rice producers, hence, their participation in the production system and access to relevant resources are limited. Read more

Wednesday, May 18, 2016

Annual emissions reductions from agriculture must reach 1 GtCO2e per year by 2030 to stay within 2°C warming limit

In the wake of the Paris Agreement, there is increased recognition of the need for mitigation in agriculture.
But how much mitigation from agriculture is needed to limit climate change? Photo: IRRI

Current agricultural interventions will only deliver 21-40% of target, indicating need for transformative technical and policy options.


The Paris Agreement, signed in 2016 by 177 countries and counting, indicates a global commitment to limiting climate change to 2°C. In parallel to the Paris Agreement, countries submitted 162 climate change adaptation and mitigation plans to the United Nations. Three-quarters of plans included intentions to reduce emissions in the agriculture sector.

Translating national plans to global impacts on climate change is not possible without clear and measurable targets for emissions reductions. In response to this gap, the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS), with 21 partners, put forward a preliminary target for agriculture, published in the journal Global Change Biology in May 2016. Read full story

Paris Climate Agreement Cannot Be Met Without Emissions Reduction Target for Agriculture

A farmer in India uses a GreenSeeker to gauge the health of his crops. By doing this, he can judge the optimum amount of fertilizer for crops and reduce GHG emissions from overuse of fertilizers while maximizing productivity.  
Photo: P. Vishwanathan (CCAFS)

Researchers propose a 1 gigatonne carbon dioxide equivalent per year reduction target for farming by 2030 and find current interventions could only achieve 21-40% of this goal.


BURLINGTON, VERMONT (17th May 2016) – Scientists have calculated, for the first time, the extent to which agricultural emissions must reduce to meet the new climate agreement to limit warming to 2°C in 2100.

Scientists from the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS), the University of Vermont, and partner institutions estimate that the agriculture sector must reduce non-CO2 emissions by 1 gigatonne CO2e per year in 2030. Yet in-depth analysis also revealed a major gap between the existing mitigation options for the agriculture sector and the reductions needed: current interventions would only deliver between 21-40% of mitigation required. Read full story

Thursday, April 28, 2016

International exhibit features IRRI’s mitigation technology



April 22, New York, USA - The United Nations Environment Program (UNEP) has organized an exhibit that showcases climate change mitigation stories around the globe through compelling photo essays. The exhibit runs from 22 April to 12 May 2016 at the UN Headquarters in New York. Part of the exhibit focuses on rice and climate change, which acknowledges the work of the International Rice Research Institute (IRRI) in reducing greenhouse gas (GHG) emissions from rice farming systems through the alternate wetting and drying (AWD) technology.

The exhibit has formerly been shown in Paris during the COP21 climate change negotiations in December 2015.

With the theme “We have the power: We are the change,” the exhibit, which opened on the celebration of Earth Day on 22 April, was intended to coincide with the momentous Paris Charter Agreement, on which 174 States and the European Union have signed. This signifies each country’s commitment to keep the global temperatures increase within this century well below 20C.

AWD is a simple and inexpensive technology
with multiple, significant benefits.
Photo: Jericho Montellano/IRRI
Doing this within the coming decades would mean reducing GHG emissions from various industries and sectors. As the global GHG emission from agriculture now reaches 10–12%, rice-producing countries need to effect measures to reduce emissions from rice cultivation, particularly the potent methane gas (CH4).

The IRRI-developed AWD technology has been proven to effectively address multiple challenges due to climate change, such as diminishing water resources and GHG emissions in rice production.

Applying AWD, rice paddies in irrigated systems need not be continuously flooded, which is the practice in the conventional system. This intermittent series of flooding and re-flooding of rice paddies results in water savings of up to 30%, thus, providing more income to rice farmers by reducing irrigation costs. This technology also reduces methane emission from rice farming by up to 50%, which helps hold down the increasing global temperature.

Through the IRRI project on methane mitigation in rice paddies, AWD is now being tested and evaluated for its technical suitability and socioeconomic benefits in countries such as Vietnam, Bangladesh, Thailand, and the Philippines. Activities to determine the ways and potentials for outscaling (massive technology adoption) and upscaling (mainstreaming to national development plans) are being conducted in Vietnam and Bangladesh. A project funded by the Agriculture Initiative of the Climate and Clean Air Coalition (CCAC) being hosted by UNEP, with support from the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS), identifies opportunities for policy support and tests new scale-out models.

As the old adage goes, “a picture paints a thousand words.” Through this exhibit, it is hoped that the photos on display would be able to meaningfully communicate that we have the power to help mitigate climate change and global warming. With good science, committed efforts, and solid action on the ground, we can achieve the change that we aspire for.

Related articles:

New Climate and Clean Air Coalition agriculture effort tackles climate change, supports rice production

Climate project partners map inroad to adoption of water-saving technology

Friday, July 3, 2015

Climate project partners map inroad to adoption of water-saving technology

Stakeholders of the Paddy Rice Component discuss and visualize paths of influence and support towards AWD outscaling.
HANOI, Vietnam – IRRI’s climate change and policy research is now an insight closer to adoption in Vietnam of a technology that helps cut down water use and methane emissions from rice production.

Farmers and representatives of women’s and farmers’ unions, irrigation service providers, and the Vietnamese government’s research, agriculture, and irrigation arms in Hai Duong Province gathered in Hanoi last week to discuss how the alternate wetting and drying (AWD) technology may be more widely used by farmers in the province and, eventually, elsewhere in Vietnam, a top producer and exporter of rice globally.

Using a tool called NetMap, the 15 participants identified relevant stakeholders, visualized the various types of relationships among them, and rated the magnitude of influence each stakeholder had on the use of AWD in Vietnam, in two paths: farmer adoption, and government policy to this effect. The exercise enabled the participants to identify the most important stakeholders to engage as well as what they will need to increase their support for outscaling of AWD.

Participants were selected from among partners in Hai Duong Province, as AWD is already well in use in An Lam, a village in the province’s Nam Sach District. Actual experiences of farmers who have used AWD, as well as of agricultural research and extension officers and irrigation managers that support these farmers, fed very well into the discussion that took place.

The NetMap workshop was facilitated by Tony Lambino, head of communication at IRRI, and held on 25 June 2015 at the Institute of Policy and Strategy for Agriculture and Rural Development (IPSARD). It was organized by Tran Dai Nghia and Lien Huong Do, both of IPSARD, and Vu Duong Quynh of the Institute for Agricultural Environment.

The workshop was a joint activity of the Paddy Rice Component of the Climate and Clean Air Coalition (CCAC), represented by Bjoern Ole Sander, IRRI climate scientist; and the Policy Information and Response Platform on Climate Change and Rice in the ASEAN and its member countries (PIRCCA), both led by IRRI.

Thursday, June 25, 2015

Philippines: Conservation agriculture in South Asia highlighted at climate-smart agriculture workshop


The turbo happy seeder is a planter capable of directly drilling in the field while retaining surface residue and without any soil disturbance, thus,
following the principles of conservation agriculture. Photo from Parvinder Singh, CIMMYT. 

Experts have become concerned about the long-term sustainability of conventional tillage crop production systems. In the past decades, a variety of economic, environmental, and social problems have been plaguing these practices, including labor shortages, diminishing water and energy resources, deteriorating soil health, decreasing farm profitability, and other issues related to climate change.

Conservation agriculture (CA), on the other hand, can potentially address the challenges to the future of agriculture and food security. CA is a set of soil management practices that includes minimal soil disturbance, soil residue management, and crop diversification. These practices were presented during the regional workshop on climate-smart agriculture technologies in Asia on 2-4 June in Muntinlupa City.

Increased soil tillage or ploughing results in poor soil health or soil degradation. To keep soil disturbance to a minimum, zero-tillage technologies such as the laser leveller, turbo happy seeder, and zero-till relay planters, were developed and tested in selected sites in the Indo-Gangetic Plains in northern India.

Research on the energy dynamics of wheat production under different tillage techniques demonstrate that zero-tillage technologies have the highest energy-use efficiency and the lowest consumption of water and fuel. There is also evidence that zero- tillage technologies produce lower emission of greenhouse gases.

“To ensure that these zero-till technologies are farmer-friendly and will be disseminated easily, we tested these technologies through on-farm trials at the Bourlaug Institute for South Asia,” says Parvinder Singh, a research scientist from the International Maize and Wheat Improvement Center. “They were also tested in farmer-participatory trials in selected climate-smart villages.”

The farm machinery needed for zero-tillage need not be costly, according to Dr. Singh who leads the research on climate-smart agricultural technologies such as zero-tillage with residue retention, relay planting, water- and nutrient-smart practices. Dr. Singh’s team worked with local manufacturers in developing affordable machines that will be readily available for market distribution once they have been tested. 

Philippines: Climate conference centers on “smart agriculture”

Workshop participants learned about various CSA technologies that are being practiced in Asia.

Multiple challenges beset the agriculture sector and extreme changes in the global climate aggravate the situation. Addressing these challenges in “climate-smart” ways to provide food for the ballooning population, which is projected to reach 9 billion by 2050, was the impetus behind the Workshop on Climate-Smart Agriculture (CSA) Technologies.

“There is an unhappy marriage at the moment between agriculture and climate change; increasing temperature causes drastic negative impacts on crops around the globe,” explains Dr. Andy Jarvis, flagship leader of the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS). “Agriculture scientists need to support the drive towards CSA to mainstream productivity, adaptation, and mitigation into the next generation of our technology.”

In a nutshell, the CSA approach supports local and global efforts for sustainably using agricultural systems to achieve food and nutritional security for all people at all time. In this effort, local and national governments and communities should be treated as co-owners and partners in building and implementing CSA knowledge and technologies.

CSA is not just about technologies and practices but about crops, livestock and fish, in the landscape, food system, and support services. It anchors on three overarching pillars of 1) improving agricultural productivity; 2) climate resilience through adaptation to climate variability; and 3) mitigation or the reduction of greenhouse gas emission from agriculture activities.

During the field tour, Dr. Abdel Ismail, principal scientist at IRRI, explains the flood and salt tolerant varieties developed by IRRI.

With support from the United Nations Environment Programme (UNEP), the International Rice Research Institute (IRRI) and CCAFS co-organized the activity held in 2-4 June 2015 in Muntinlupa City. UNEP’s climate change expert Julia Steinfeld said the activity, the third in a series of CSA workshops that UNEP has supported, intended to provide an avenue to facilitate technology transfer, promote institutional and technical knowledge exchange on CSA, and foster regional collaboration.

About 80 participants from 16 countries across Asia shared and discussed CSA technologies during the workshop. There was also a poster session featuring CSA technologies being practiced in participating countries. In addition, the participants visited IRRI’s demonstration sites and laboratories where the Institute developed its CSA technologies over the years. Identify tools, policies, and mechanisms that facilitate and accelerate the upscaling and outscaling of the technologies were discussed during the visit.

The Workshop on Climate-Smart Agriculture Technologies outputs will be used to develop climate financing proposals from the participating countries.

Thursday, May 28, 2015

Asian experience in climate-smart agriculture to be discussed in workshop

Farming communities are threatened by various climatic stresses and will thus benefit from knowledge
of climate-smart agriculture (CSA) practices from and for various landscapes and ecosystems.


To promote climate-smart agriculture (CSA) in Asia and get the global expertise in one place, a regional workshop on CSA technologies and climate change will be held on 2-4 June 2015 in Manila, Philippines.

CSA is an approach that helps guide the transformation and reorientation of agricultural systems so that these can support development and food security more effectively and sustainably under a changing climate. It is an important step in enabling smallholder farmers to adapt to climate change while maintaining or improving productivity and sustainability of their farms.

The workshop is being organized by the International Rice Research Institute (IRRI) jointly with the CGIAR Research Program on Climate Change, Agriculture and Food Security (CCAFS) and the United Nations Environment Program (UNEP). Government representatives from 16 countries in Asia and agriculture and climate change experts are expected to participate.

The workshop aims to (A) present features and costs and benefits of select CSA technologies; (B) identify cases of effective implementation of policies, tools, and mechanisms; (C) identify assistance and services needed to accelerate CSA upscaling and outscaling in participating countries; and (D) draft concept notes for submission to the Climate Technology Center Network (CTCN).

‟The workshop is also an opportunity to gather people who actually work on CSA, or climate change in general, to share their experiences on that aspect and also to raise the awareness of major challenges that we need to look into,” said Valerien Pede, IRRI economist and scientist.

The 3-day workshop includes an introduction to CSA, various climate-related topics, a panel discussion, and a tour of research facilities and demonstration trials at the IRRI headquarters in Los Baños, Laguna.

Participating countries are Bangladesh, Bhutan, Nepal, and Sri Lanka from South Asia; Cambodia, Indonesia, Lao PDR, Malaysia, Myanmar, Philippines, Thailand, and Vietnam from Southeast Asia; and Kazakhstan, Tajikistan, Uzbekistan, and Mongolia from Central and East Asia.

Full program

(Written by Rezza Mae Tolinero, IRRI and CCAFS SEA intern)



Friday, May 1, 2015

Bangladesh plans for 'alternate wetting and drying' outscaling

Workshop participants draw national strategy for AWD outscaling in Bangladesh

A national work plan to out-scale a water-saving technology called “alternate wetting and drying” (AWD) was developed at a workshop held in Dhaka, Bangladesh from 20-21 April 2015.

Led by IRRI scientists Björn Ole Sander and Michael Sheinkman, together with Professor Saidur Rahman of the Bangladesh Agricultural University (BAU), the workshop was organized by the International Rice Research Institute (IRRI). IRRI leads the initiative, with funding from the United Nations Environment Programme, under the auspices of the CGIAR Program on Climate Change, Agriculture, and Food Security (CCAFS), of which IRRI is a member-Center.   

Several national public sector and international organizations shared their experiences and evaluations of AWD. AWD is a technology that will help farmers adapt to water scarcity, as well as reduce the carbon footprint of the country’s rice sector.

The CCAC Paddy Rice Component coordinates project activities in Vietnam and Bangladesh. Another CGIAR center, the International Center for Tropical Agriculture (CIAT) coordinates research activities in Colombia.  This component conducts AWD suitability assessments in target countries, as well as develop information kiosks with relevant and easily-understandable information on rice production and mitigation options.


For more information visit:
http://ccafs.cgiar.org/reducing-methane-emissions-paddy-rice

Friday, February 13, 2015

Climate Smart Villages

Source: AsiaLife Magazine

When it comes to climate change, Vietnam is one of the most vulnerable countries in the world. Sarah Piccini discovers how Delta farmers are working to safeguard their crops and prevent further damage to the environment. Photo by Vinh Dao.


Sunday, February 1, 2015

ICTs for scaling dissemination of research results to increase technology adoption and farmers’ income

Information delivery through ICT is faster, cheaper and scalable.

“Information and Communication Technologies (ICTs) make a big difference in accelerating impact of research and improving extension services,” stated knowledge exchange and ICT expert Paolo Ficarelli at the Asia Rice Science Week of the Global Rice Science Partnership (GRISP) at the International Rice Research Institute (IRRI) headquarters from 26-30 January.

Wednesday, January 21, 2015

Philippines: IRRI expert presents farmer-friendly technologies to help reduce carbon footprint of rice production

IRRI has been doing research on rice straw management to reduce greenhouse gas emission.

Bjoern Ole Sander, a candidate for scientist to support IRRI's climate change research, presented several options to reduce the carbon footprint of rice in a special seminar on January 14 at the International Rice Research Institute (IRRI) Headquarters.

Thursday, November 27, 2014

Philippines: IRRI and CCAFS discuss better collaboration of climate change-related research activities

CCAFS Program Director Bruce Campbell discusses program updates and plan.

CGIAR Program on Climate Change, Agriculture and Food Security (CCAFS) Director Bruce Campbell and scientists with the International Rice Research Institute (IRRI) discussed the proper integration and alignment of climate change-related research at IRRI with the overall CCAFS framework during a meeting at IRRI Headquarters on 24 November.

Wednesday, November 5, 2014

New CCAC Agriculture Effort Tackles Climate Change, Supports Rice Production

Leading agricultural research institutes join partners in Bangladesh, Colombia and Vietnam in a groundbreaking effort to reduce climate emissions while supporting rice producers’ efficient production. 

Bangkok, Thailand - A new effort launched here on 31 October 2014 seeks significant reductions in greenhouse gas emissions from rice cultivation—the second largest source of methane generated by agriculture globally—while making production more efficient and resilient to weather-related shocks in three rice-producing countries in Asia and Latin America.

Tuesday, October 7, 2014

Launching of program to reduce methane emission from rice production

Los Baños, Philippines – A consortium of agricultural and environmental scientists will soon be launching a program that aims to reduce methane emissions from rice production in target countries. The International Rice Research Institute (IRRI), International Center forTropical Agriculture (CIAT), and partners will launch a new rice component of the Climate and Clean Air Coalition (CCAC), under the United Nations Environment Programme (UNEP). The launch is scheduled for 31 October 2014 in Bangkok, Thailand.

It is widely known that impacts of climate change negatively affect rice cultivation, such as reduced yield from temperature increases. On the other hand, flooded rice fields exacerbate climate change as they are the second largest agricultural source of methane emissions globally.

Together with national policymakers and nongovernment organizations, this new CCAC rice component aims to disseminate best practices to minimize methane emissions, particularly through the alternate wetting and drying (AWD) approach.

Years of IRRI research show that AWD could reduce methane emissions by 30–50% and present other benefits such as efficient water use, improved rice yields, and reduced production cost. Compared with the common practice of continuous flooding, AWD enables farmers to periodically dry and re-flood their rice fields. The result is a significant reduction in water use as well as a reduced build up of methane gas in rice production.  

The technology makes use of a simple perforated plastic tube that allows farmers to observe water levels below the soil surface to know whether roots still have access to water and, in effect, whether it is the right time for irrigation. Through AWD, farmers can be confident that their rice plants receive sufficient water despite drying of the soil surface. Research and experience also show that there is no significant yield penalty with proper implementation of this practice. In combination with other measures, the improved application of this technique is referred to as AWD+.

The program will focus on Vietnam and Bangladesh, two major rice-producing countries in Asia, and Colombia, the second biggest rice-producing country in Latin America. These countries represent vastly different types of rice production. Vietnam has very intensive rice production in the delta regions, with methane emissions estimated to be above 20% of all national greenhouse gas (GHG) sources. In Bangladesh and Colombia, this percentage is less than 10% and 1%, respectively.

The 18-month program will establish a central information hub as basis for developing a network of demonstration sites to illustrate the benefits of AWD+. Program proponents envision technical and policy guidelines integrated into decision-support tools for implementing climate change mitigation initiatives in rice production.

IRRI and CIAT are members of CGIAR, a consortium of 15 international agricultural research centers dedicated to a food-secure future. Within CGIAR, research work on climate change is coordinated by the Climate Change, Agriculture and Food Security Research Program (CCAFS).


To learn more about this program, contact:

Dr. Reiner Wassmann
Coordinator of Climate Change Research
International Rice Research Institute
Los Baños, Laguna, Philippines
Email: r.wassmann@irri.org


Dr. Bjorn Ole Sander
Climate Change Specialist
International Rice Research Institute
Los Baños, Laguna, Philippines
Email: b.sander@irri.org

Monday, September 15, 2014

'Extreme Events' from Climate Change Could Threaten Global Rice Production, Warns IRRI Scientist



Oryza.com - In an exclusive interview to Oryza, Dr. Reiner Wassman, coordinator of the Climate Change Research at the International Rice Research Institute (IRRI) clearly highlights the importance of the impact of climate change on rice production in various countries and possible means of its mitigation. He also talks about the importance of technology in adapting to climate change phenomenon. Various issues on climate change in his works...

Tuesday, September 9, 2014

IRRI expands tech that cuts farmer’s water expense, greenhouse gas emission

by Melody M. Aguiba
August 19, 2014

The International Rice Research Institute (IRRI) is expanding use of alternate wetting and drying (AWD) technology among Angat farmers to help cut irrigation expense and reduce emission of methane to the environment.

Friday, September 5, 2014

Partners convene to steer climate change activities to next level



The International Rice Research Institute (IRRI) and its partner institutes in the Greenhouse Gas Mitigation in Irrigated Rice Paddies in Southeast Asia (MIRSA-2 Project) and the Paddy Rice Research Group (PRRG) of the Global Research Alliance on Agricultural Greenhouse Gases (GRA) held their annual meetings at IRRI headquarters on August 18-19 and 21, respectively, to discuss their climate change agendas for reducing the emissions of greenhouse gasses that cause climate change.

The MIRSA-2 Project

Launched in 2013, MIRSA-2 is a 5-year research project that aims to develop an improved water management in rice-cropping systems in Southeast Asia using the alternate wetting and drying (AWD) technology. Researches in several Asian countries have shown that AWD can reduce the emission of methane, a greenhouse gas, from irrigated rice paddies by 30% compared with the conventional farming practice. The National Institute for Agro-Environmental Sciences, Japan oversees the overall execution of the MIRSA-2 project, while IRRI provides technical support and synthesis of data.

Concurrent with the AsiaFlux Workshop 2014, the project highlighted the results and lessons learned from the first season AWD experimental field trials in four MIRSA sites. Additionally, a proposal for a structured MIRSA database system and formulation of guidelines for measurement, reporting and verification of GHG emission reductions with the adoption of AWD in irrigated paddies were discussed. Ultimately, the MIRSA-2 Project aims to create an implementation guideline on techniques to reduce GHG emissions from irrigated paddy rice fields and set up an information infrastructure to share the findings of participating members.

Kazuyuki Inubushi, the designated adviser of the MIRSA project by the Ministry of Agriculture, Forestry and Fisheries, Japan, represented the project donor. Dr. Inubushi met with delegates from the project’s partner research and academic institutions including Hue University of Agriculture and Forestry, Vietnam; Indonesian Agricultural Environment Research Institute (IAERI), Indonesia; Joint Graduate School of Energy and Environment/King Mongkut's University of Technology Thonburi, Thailand; Prachin Buri Rice Research Center, Thailand, and the Philippine Rice Research Institute.


The Global Research Alliance

In the same week GRA held a meeting to discuss the five action plans set by PRRG.

The action plan includes hastening efforts to: 1) standardize measurement techniques; 2) create a database of publications and experts; 3) increase country participation; 4) set-up a pilot multi-country experiment; and 5) build a network for mitigation and adaptation synergies.

Research activity reports were presented by the International Center for Tropical Agriculture, Chiba University, IAERI, and IRRI. IRRI is a collaborative partner in the Alliance’s PPRG which focuses on reducing the GHG emissions of paddy rice cultivation systems while improving efficiency production. Ms. Deborah Knox, GRA secretariat, also presented an overview of the Alliance, while Dr. Kazuyuki Yagi, co-chair of the PRRG, presented an overview of the PRRG.

The 2014 Asia sub-group meeting of the PRRG was attended by representatives from Japan, Philippines, Thailand, Malaysia, Indonesia, New Zealand, and Vietnam as well as representatives from member countries in Latin America.

Launched in 2009, the GRA brings more than 30 member countries from all regions of the world together to find ways to grow more food without growing greenhouse gas emissions.

Thursday, September 4, 2014

Rice fields emit greenhouse gases say agriculturalists

Staff Correspondent

While rice production may get affected due to the impacts of climate change, rice farming itself is a contributor to climate change as a substantial source of greenhouse gases (GHGs), agricultural scientists said yesterday.

They recommended that farmers use new irrigation technologies--Alternate Wetting and Drying (AWD) and Fertiliser Deep Placement (FDP) in rice farming to mitigate GHG emissions.

These observations came at a two-day workshop on "GHG emissions from rice fields: Mitigation options from FDP and AWD", organised by International Fertilizer Development Centre (IFDC) at Bangladesh Agricultural Research Council in the capital. Dr Reiner Wassmann, senior scientist at the International Rice Research Institute (IRRI), presented a keynote paper on “Assessing the suitability of mitigation options in rice production derived from bio-physical considerations and stakeholder perceptions”.

He discussed the benefits of the adoption of AWD, a technology for water-saving with the aim to reduce GHG emissions in rice fields. Around 21 percent of the total GHG emissions in Bangladesh occur in rice fields, he said.

“Various altered crop management strategies have been suggested, ranging from the selection of potentiality low-emitting rice cultivars to proper post-harvest management, but AWD is still the most promising option,” he said.

IFDC is researching methods to mitigate GHG emissions that result from lowland rice farming in Bangladesh.

Rice farms account for 85 percent of Bangladesh's agricultural land and emit carbon dioxide, methane and nitrous oxide greenhouse gases. Moreover, inefficient fertiliser use in rice cultivation increases nitrous oxide and nitric oxide emissions.

Yam Kanta Gaihre, deputy chief of the Accelerating Agriculture Productivity Improvement at IFDC, presented a paper on “Assessing the impacts of urea deep placement (UDP) on GHG emissions and mitigation potential under continuous rice cropping system”.

UDP is a rising popular technology that can drastically cut nitrogen losses up to 35 percent and increases rice yield up to 20 percent, he said.

Agriculture Minister Matia Chowdhury inaugurated the workshop as chief guest.


(Repost from The Daily Star, Bangladesh)