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Optimizing Malagasy Agricultural Productivity and Its Contribution to the Growth of Economy

Received: 11 March 2024     Accepted: 9 April 2024     Published: 31 October 2024
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Abstract

This present article addresses the optimization of agricultural productivity in Madagascar. In accordance and in line with the government's policy for Madagascar Development, the Ministry of Agriculture (GSP: General State Policy) has adopted development project plans focused on improving the standard of living of the rural world and, above all, the economic situation. At present, the rate of agricultural production is steadily declining over time and space, but according to INSTAT (Malagasy Institute of Statistical), 85% of the Malagasy population are farmers. Therefore, in the context of improving Malagasy agriculture, what are the main factors behind this decline? Since Malagasy citizens contribute to the development of the nation, we have chosen as the theme of our research project: The improvement of agricultural products in Madagascar. According to our field results, the structure of the soil's organic elements has been destroyed (soil infertility, favoring and dominance of various defective insects). What are the causes of this destruction? In addition, we found that the overuse of chemical fertilizers and chemical products applied to treat insects is one of the main factors. This research project is divided into three main parts: firstly, a feasibility study. Next, the scientific presentation of the project, and finally, the results and cost estimates.

Published in International Journal of Agricultural Economics (Volume 9, Issue 5)
DOI 10.11648/j.ijae.20240905.15
Page(s) 277-286
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2024. Published by Science Publishing Group

Keywords

Agricultural, Optimization, Productivity, Madagascar, Nation’s Development

1. Introduction
There is no doubt that the potential of agriculture for Madagascar is enormous. It is one of the sectors that contributes nearly 30% of GDP and involves over 85% of the working population .
In many regions, one of the main problems that Malagasy agriculture face, is the use of treated substances, generally chemical, which leads to fertility’s degradation. At the moment, the state of these infrastructures represents a major obstacle to any attempt to develop the country. Looking at the current situation, agricultural development to meet daily needs is the best strategy for fighting against poverty.
2. Problems and Project Objectives
The first step is the description of disadvantages of chemical use. According to our field surveys, most farmers are victims of chemical use. As stated in their statements, production decreases by approximately 50% per year after 5 years of use, due to the following factors:
1. The soil becomes infertile and rigid;
2. Various destructive insects are favored;
3. The quantity of water is very low;
4. The rainy season is destabilized;
These factors favor the destruction of soil chemical elements, which leads to many disadvantages, such as the outbreak of the various diseases we saw during our field visits. The following figure shows some photos of plants attacked by diseases .
Figure 1. Plants attacked by diseases.
Based on our analysis, the main factor that influences/causes the destruction of chemical element of the soil is the use of chemical product. In one word, Soil infertility is then the main factor of decline production.
Clearly, soil quality is proportional to the rate of decreased production. So, we are going to formalize the problem in a probabilistic way to have a decision-making aid .
For the Malagasy government, the engine of development is based on agricultural activities . Despite this, the land is becoming infertile due to the abusive use of various chemical products, with the following consequences:
1. Ever-diminishing agricultural produce (risk of famine);
2. Food insecurity (risk of various diseases);
3. Destruction of the environment (risk of climate destabilization and destruction of the ozone layer);
4. Instability of monetary value (the economy of the State in general).
All these factors show that our country is in decline, and we need to take action to remedy this situation.
Due to these problems, the main objective of this project then, is the use of natural method but not the chemical product to improve the production rate in order to:
1. Improve the soil quality (organic structure);
2. Improve the farmers' economic standard of living;
3. Enhance the value of the Green Revolution in Madagascar;
4. Improve and protect the environment;
5. Avoid the various diseases caused by the consumption of chemical products.
3. Methods
3.1. Method 01: Determination of Natural Material Utilization
Within the framework of production improvement, our first method is based on the use of natural elements such as natural fertilizers and treatment with biological products (in liquid form).
The advantages obtained after using agricultural methods and techniques are:
1. Reducing the costs for the farmer (no need to buy fertilizers);
2. Improving the soil organic structure (increased production);
3. Eliminating the risk of food insecurity;
4. Protecting the environment.
3.2. Method 02: Using TOROLALANA Book
As part of the process of popularizing our agricultural approaches and techniques, we suggest the use of the book entitled TOROLALANA as a second method. This book is not only a training aid to facilitate popularization but also a guide to help farmers. The book contains three important chapters:
1. The processes involved in making natural fertilizers;
2. The processes required to manufacture organic products (in liquid form);
3. The way of using them .
3.3. Method 03: Scientific
1. Stochastic process (Markov chain);
2. SCILAB programming language including a specific algorithm.
3.3.1. Stochastic Calculus
A sequence of random variables X0, X1, . . . with values in a countable set S is a Markov chain if at any time n, the future states (or values) Xn+1, Xn+2, . . . depend on the history X0, . . . , Xn only through the present state Xn. Markov chains are fundamental stochastic processes that have many diverse applications .
Definition: The random variable sequence (Xn) is said to be a Markov chain if Xn+1depends only on  Xn: PXn+1⃓ X0,X1,,Xn=P(Xn+1Xn)
Transition matrix: The transition matrix of a Markov chain is defined by: Q=(Qij)i,j=0,,n , such that
PXn+1=xjXn=xi=Qij
with
i=0nQij=1.
Transition graph: The transition graph is defined by the following set:
G=i,j=0n(xi,Qij)/ Qij>0
Stationary law: this is the law of convergence of the Qn matrix when n is large enough .
3.3.2. Searching for Optimal Parameter Values in Algorithms
To obtain the best performance in terms of soil quality, a dataset should be processed. Machine Learning and Deep Learning algorithms have been used as part of the search for optimality. Here, the performance of neural networks is taken advantage of. It should be noted that the present case constantly encountering multi-variable or non-variable combinatorial optimization problems. That is, these n variables V1,...,  Vn, belong to the domains  D1,..., Dn, which are subjected to a set of constraints C. Solving the problem boils down to finding the values of Vi Diit such that constraints C are respected and minimizing a cost function G .
These Algorithms rely on complex parameters that are not always obvious for human beings to determine. They, therefore, depend on the values of the elements and the substances set by the user or possibly by an expert. Hence, the need to find optimum values from field tests. This, calls for a combination of disciplines, combining statistical concepts with powerful computer algorithms (for processing) and modeling of mass data from observation phenomena .
Before presenting the algorithm applied in our research, it should be mentioned that the use of a database is essential. Thus, the parameters selected are the following: soil quality, the various destructive elements, the quantity of water, and the season to predict the probability of eventual gain. In order to achieve a good result with no surprises, constraints are also elements not to be neglected. In general, they favor the destruction of the soil's productive elements, and this destruction leads to many possible drawbacks .
Optimization algorithm:
1. Y: target variable (gain)
2. X: matrix of explanatory variables (soil quality, various destructive elements, water quantity, season)
3. M: matrix of variables to be predicted
4. use of the optimization module to subdivide the sample into a training and a validation sample
5. data subdivision -
6. import a class for processing //Logistic Regression class
7. create an instance of the class
8. run instance on training data build predictive model
9. value prediction
10. confusion matrix
11. recover test values
12. outputs
The following table shows the evolution of the rate of decline production caused by the use of chemicals:
Table 1. Evolution of production.

Year

2015

2018

2020

Rate of decrease in production *

0%

2%

50%

As stated in our hypothesis, the decrease in this rate is proportional to soil quality.
Table 2. Soil quality.

Decrease of

Quality of soil

0%

Fertile

50%

moderately fertile

100%

infertile or almost certainly desert

For ease of modeling, let's assume
state Fertile land= state0=0
state (medium_fertile)= state1=1
state(infertile)= state2=2
Then, we can simplify the state of the land by the set E= {0, 1, 2}
4. Applications and Results
Let's assume that the random variable  XN  determines the state of fertility of the land to be cultivated after N years of chemical element use.
For ease of calculation, let n=N-5 and  Xnbe the random variable that determines the fertility status of the land to be cultivated after n years of use.
The random variable sequence ( Xn) is a Markov chain of state space E= {0, 1, 2} because next year's fertility state depends only on the current fertility state.
That’s mean:
PXn+1=jX0,X1,,Xn=i=PXn+1=jXn=i(2)
Xn+1=1Xn=0=50100= 12
PXn+1=2Xn=0=502*100=14
PXn+1=2Xn=1=50100=12
PXn+1=1Xn=2=PXn+1=0Xn=1=PXn+1=0Xn=2=0
because the state is irreversible.
From the property i=0nQij=1, we easily derive:
PXn+1=0Xn=0=1/4
PXn+1=1Xn=1=1/2
PXn+1=2Xn=2=1
Then the transition matrix of this chain is given by:
Q=1/41/21/401/21/2001
To determine the convergence of this matrix, we used SCILAB as a computational tool. The aim of convergence research is to determine the limiting value of n so that the law of states will be stationary (final state).
According to our SCILAB calculations, for n16
 Q16=001001001
Therefore, the convergence value of the Q matrix is
 nc=16.
Then N= nc+5=16+5=21 and this is the convergence time (years) that the farmer started using chemicals.
In the five years before, the production decline rate varies very slowly. In fact, we'll take the probabilities linking these stages as approximate values.
5. Discussion
Optimizing agricultural productivity in Madagascar is a plan for achieving higher sustainable yields while maintaining soil fertility (reducing the use of chemical elements, especially fertilizers). Based on the results of our calculations, we have obtained the following graphical illustrations and interpretations:
Figure 2. Effect evaluation curve using chemical elements (0 to 1).
Initial state: fertile land → Final state: it is impossible to say whether it will still be fertile after 13 years at most: medium-fertile or infertile land after 13 years.
Figure 3. Effect evaluation curve using chemical elements (1 to 1).
Initial state: fertile land → Final state: it is impossible to say whether it will still be fertile after 13 years at most: medium-fertile or infertile land after 13 years.
Figure 4. Effect evaluation curve using chemical elements (0 to 1).
Initial state: fertile land → Final state: land impossible to say it will be medium-fertile after 21 years at most and that implies finality = infertile state.
Figure 5. Effect evaluation curve using chemical elements.
Initial state: fertile land → Final state: infertile land safe and certain after 21 years.
Figure 6. Effect evaluation curve using chemical elements (1 to 2).
Initial state: medium-fertile land → Final state: infertile land for sure after 20 years.
Considering all these illustrations, we obtained the following curves:
Figure 7. Effect evaluation curve using chemical elements.
To sum up, the values of the elements of the convergence matrix and the preceding illustrations and interpretations show us that, whatever the initial state of the land, after 21 years, counting from the time of the first use of chemicals, the probability of having an almost certain desert land is equal to 1, which is equivalent to saying that the rate of production decrease will be 100% after 21 years.
From the curves of Q02 and Q12, we can see that for around 15 years, the soil will definitely become infertile: the decrease in production is almost 100%. In fact, we can determine the expression of the function that determines the evolution of the production decline rate by the non-continuous linear function f defined by:
fx=0 if x5100x15 if 5<x14 100x15+1 if 14<x21
This gives us the following curve for evaluating the production decline rate:
Figure 8. Estimate of production decrease per year.
In practical terms, on average in 2005, Malagasy farmers began using chemical fertilizers and chemical liquids . According to our calculations, we can predict the decline in the production rate by the following curve:
Figure 9. Estimate of production decrease per year.
This curve shows that by 2026 at the latest, the production rate will have fallen to 100%.
Design illustration of the effects of chemical use:
Figure 10. Illustration of the effects of chemical use.
This conceptual diagram shows that the use of chemical elements is a major factor contributing to poverty. So, what steps should we adopt to take care of the soil in order to avoid this constant decline? Two methods for improvement will be presented: Natural fertilizers and Natural liquid.
a) Natural fertilizers
The use of natural fertilizers enhances the structure of organic elements in the soil . The photos below show some of the stages in our inventions:
Figure 11. Natural fertilizers.
b) Natural liquid
Based on our experience in the field, applying methods and techniques for treating the soil with natural fertilizers will be one of the best option in the future. Malagasy governments and development partners can also promote agricultural productivity growth by recognizing and capitalizing on the contribution for applying this method . The photos below show some of the steps involved in creating a treatment method:
Figure 12. Natural liquid.
By way of illustration, the various photos we have taken in the field are evidence of effectiveness of our methods and techniques.
Figure 13. Good result of our method.
The rate of increase in production is rising at around 10% per year. So, we can say that the best solution is the use of natural elements but not chemical products. We hope that this rate will increase to 100% after 10 years.
Illustration by design of the Advantages of using natural products:
Figure 14. Advantages of using natural products.
This conceptual diagram shows that the revalorization of organic soil elements (use of natural elements) brings many advantages.
6. Conclusions
Within the framework of the exploitation of project under the topic which leads to the improvement of the agricultural products in Madagascar, we chose and respected the following steps: research of the topic which corresponds with the sustainable development in agricultural matter, this research report must accompany as of place of study in the 22 regions in general. This involves the fieldwork, the analysis of survey results, the planning and the determining body of the assignment.
During the courtesy visit we made to the 8 regions, we learnt that the use of chemical elements is an exclusive factor in soil destruction and the worst; it is the greatest factor that declines the agricultural production in our country, todays. Nonetheless, a research has been carried out to curb their use. That should be the biggest reason for Malagasy farmers not to use them anymore . They have to replace this method for sustainable economic development and the green revolution in agricultural production.
In the course of studying the environmental and economic impact caused by the use of chemical elements, we can draw up logical frameworks to demonstrate the central problem. Therefore, to be able to carry out our objective in this project, the following stages has been respected: the feasibility study to be able to determine our goal to reach, plan of activity to define this activity envisage, it is about determination materials necessary and finally the study of estimated budget to allow to realize this project.
As key figures, Agricultural products are still Malagasy’s main export industry, generating USD 2.5 million, accounting for 70% of total sales in 2020/21 . In 2022, the share of agriculture in Madagascar's GDP was 21.89%. For the next five years, the government of Madagascar intended to invest at least 10% of its budget in the agriculture, livestock and fisheries sector, with the aim of strengthening its management and infrastructure investment capacities. This commitment represents a total of $350 million. The present research looks at the future contribution of various products, such as: 821,600 T of maize (corn) in 2028 (current production: 267,633 T); 50,400 T of soybeans in 2028 (4,620 T in 2022). 25,000 T of groundnuts in 2028 (11,000 T in 2022) .
Abbreviations

ARDWE

Agriculture, Rural Development, Water and Environment

DEA

Diplôme d'Etudes Approfondies

ESIIA

Electronics and Artificial Intelligence

ENAM

Ecole Nationale d'Administration de Madagascar

FAO

Food and Agriculture Organization

FAOSTAT

Food and Agriculture Organization Statistical

GDP

Gross Domestic Product

GIS

Geographic Information Systems

GSP

General State Policy

INSTAT

Institut National de la Statistique

SCILAB

Scientific Laboratory

STC

Specialized Technical Committee

TADAT

Tax Administration Diagnostic Assessment Tool

USD

United States Dollar

USGS

U.S. Geological Survey.

WB

World Bank

Author Contributions
Andriamiadanomenjanahary Harivelo Chandellina Camille: Conceptualization, Investigation, Supervision, Data curation, Writing – review & editing.
Randrianasolo Herilalaina Fabien: Conceptualization, Resources, Methodology.
Razafindrazaka Fenolaza Tsiory: Resources, Methodology.
Conflicts of Interest
The authors declare no conflicts of interest.
References
[1] L’Agriculture à Madagascar: Comment réaliser la révolution dans le secteur agricole? 4 juillet 2014, Hôtel Carlton, Antananarivo.
[2] Potsdam Institute for Climate Impact Research, GIZ, & KfW. (2021). Profil de risque climatique: Madagascar.
[3] African Union (2021). “Report on boosting investment in agriculture research in Africa: building a case for increased investment in agricultural research in Africa” endorsed at the Fourth Ordinary Session of the Specialized Technical Committee (STC) on Agriculture, Rural Development, Water and Environment (ARDWE), Addis Ababa, Ethiopia Available from:
[4] Future Water. Land Use Planning for Enhanced Resilience of Landscapes (LAUREL) Madagascar. Available from:
[5] L’Agriculture à Madagascar: Évolution, chiffres clés et défis Janvier 2023; Vincent Garruchet (France Volontaires) Pierre-Marie Bosc (Cirad) Isabelle Mialet-Serra (Cirad).
[6] R. Serfozo, Basics of Applied Stochastic Processes, Probability and its Applications. Springer-Verlag Berlin Heidelberg 2009.
[7] World Bank. 2013. Draft Project Appraisal Document, Madagascar Emergency Food Security and Social Protection Project. World Bank: Washington DC.
[8] STRATEGIE DE RELANCE DU SECTEUR AEP A COURT TERME Par Voahangy ARIJAONA Directeur Général Technique Ministère de l’Agriculture et du Développement Rural.
[9] Moser C. M. et C. B. Barrett (2003). The complex dynamics of smallholder technology adoption: the case of SRI in Madagascar. Cornell University working paper.
[10] T. Weise. (2009) Global Optimization Algorithms – Theory and Application –
[11] USGS. Base Flow in Rivers by Water Science School.
[12] World Food Programme, MAEP, & FAO. (2019). ÉVALUATION DE LA PRODUCTION AGRICOLE ET DE LA SÉCURITÉ ALIMENTAIRE À MADAGASCAR 2018-2019.
[13] Programme Régional de Développement Agricole et Rural 2022-2027.
[14] FAO. 2023. Production: Crops and livestock products. In: FAOSTAT. Rome.
[15] World Bank Country and Lending Groups: Historical Classification by Income,
[16] Walker, T. S. & Alwang, J. (Eds.). (2015). Crop improvement, adoption and impact of improved varieties in food crops in sub-Saharan Africa. Wallingford, UK: Centre for Agriculture and Bioscience International.
[17] Situation macroéconomique de Madagascar en 2023 by la Direction Générale du Trésor. Retrieved from:
[18] Compact Madagascar pour alimentation et l’agriculture, by African Union.
Cite This Article
  • APA Style

    Camille, A. H. C., Fabien, R. H., Tsiory, R. F. (2024). Optimizing Malagasy Agricultural Productivity and Its Contribution to the Growth of Economy. International Journal of Agricultural Economics, 9(5), 277-286. https://doi.org/10.11648/j.ijae.20240905.15

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    ACS Style

    Camille, A. H. C.; Fabien, R. H.; Tsiory, R. F. Optimizing Malagasy Agricultural Productivity and Its Contribution to the Growth of Economy. Int. J. Agric. Econ. 2024, 9(5), 277-286. doi: 10.11648/j.ijae.20240905.15

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    AMA Style

    Camille AHC, Fabien RH, Tsiory RF. Optimizing Malagasy Agricultural Productivity and Its Contribution to the Growth of Economy. Int J Agric Econ. 2024;9(5):277-286. doi: 10.11648/j.ijae.20240905.15

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  • @article{10.11648/j.ijae.20240905.15,
      author = {Andriamiadanomenjanahary Harivelo Chandellina Camille and Randrianasolo Herilalaina Fabien and Razafindrazaka Fenolaza Tsiory},
      title = {Optimizing Malagasy Agricultural Productivity and Its Contribution to the Growth of Economy
    },
      journal = {International Journal of Agricultural Economics},
      volume = {9},
      number = {5},
      pages = {277-286},
      doi = {10.11648/j.ijae.20240905.15},
      url = {https://doi.org/10.11648/j.ijae.20240905.15},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.ijae.20240905.15},
      abstract = {This present article addresses the optimization of agricultural productivity in Madagascar. In accordance and in line with the government's policy for Madagascar Development, the Ministry of Agriculture (GSP: General State Policy) has adopted development project plans focused on improving the standard of living of the rural world and, above all, the economic situation. At present, the rate of agricultural production is steadily declining over time and space, but according to INSTAT (Malagasy Institute of Statistical), 85% of the Malagasy population are farmers. Therefore, in the context of improving Malagasy agriculture, what are the main factors behind this decline? Since Malagasy citizens contribute to the development of the nation, we have chosen as the theme of our research project: The improvement of agricultural products in Madagascar. According to our field results, the structure of the soil's organic elements has been destroyed (soil infertility, favoring and dominance of various defective insects). What are the causes of this destruction? In addition, we found that the overuse of chemical fertilizers and chemical products applied to treat insects is one of the main factors. This research project is divided into three main parts: firstly, a feasibility study. Next, the scientific presentation of the project, and finally, the results and cost estimates.
    },
     year = {2024}
    }
    

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    AB  - This present article addresses the optimization of agricultural productivity in Madagascar. In accordance and in line with the government's policy for Madagascar Development, the Ministry of Agriculture (GSP: General State Policy) has adopted development project plans focused on improving the standard of living of the rural world and, above all, the economic situation. At present, the rate of agricultural production is steadily declining over time and space, but according to INSTAT (Malagasy Institute of Statistical), 85% of the Malagasy population are farmers. Therefore, in the context of improving Malagasy agriculture, what are the main factors behind this decline? Since Malagasy citizens contribute to the development of the nation, we have chosen as the theme of our research project: The improvement of agricultural products in Madagascar. According to our field results, the structure of the soil's organic elements has been destroyed (soil infertility, favoring and dominance of various defective insects). What are the causes of this destruction? In addition, we found that the overuse of chemical fertilizers and chemical products applied to treat insects is one of the main factors. This research project is divided into three main parts: firstly, a feasibility study. Next, the scientific presentation of the project, and finally, the results and cost estimates.
    
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Author Information
  • Cognitive Science and Applications, University of Antananarivo, Antananarivo, Madagascar

    Biography: Dr. Andriamiadanomenjanahary Harivelo Chandellina Camille is a professor in the Department of Cognitive Science in ESPA (Poly-technic High School of Antananarivo), where he has been since 2017; is a professor in the Department of Telecommunication in IESAV (High School Institute of Antsirabe), and ENAM (National Administration School of Madagascar) in a various Department. He completed his PhD in Cognitive Sciences from STII University of Antananarivo in Dec 2017. He completed also his Master of Telecommunication from Polytechnic High School of Antananarivo in 2014 and Master of Computer Science Engineer from National Computer School of Fianarantsoa in 2004. Recognized for his exceptional contributions, Dr. Camille His research interests span both Science Cognitive, Data Analysis and Big Data Analysis in local and cloud. Much of his work has been on improving the quality, analysis, and performance of multiple areas, mainly through the application of data science and data scientist and performance evaluation. In the economy research, he has worked on macro and micro economy of Madagascar and also econometric. In addition he has made numerous contributions to IA, has focused on the big data analysis, economy, and optimization of decision making. For his research efforts he was awarded in 2017 during ‘’Doctorial’’by Antananarivo University Research Achievement Award for ‘outstanding research’.

    Research Fields: Artificial Intelligence, Data and Big Data analysis, Economic, Mathematic, Management, Operational Research (optimization), Telecommunication.

  • Ingénierie et Géoscience, University of Antananarivo, Antananarivo, Madagascar

    Biography: Randrianasolo Herilalaina Fabien is a designer specializing in public finance control at the Ministry of Economy and Finance in Madagas-car, part-time lecturer at the Higher Polytechnic School of Antananarivo (ESPA), with a focus on Geographic Information and Territorial Planning. He obtained his PhD in Territorial Planning from the University of Antananarivo in 2023 and his Advanced Studies Diploma in Agro-management from the Higher School of Agronomic Sciences in 2011. Recognized for his outstanding contributions in strategy and organizational management, Dr. Fabien has been awarded an entrepreneurial and leadership certificate from the Ministry of Youth and Sports. Additionally, he holds a diploma in diplomacy from the Center for Diplomatic and Strategic Studies (CEDS) of the Indian Ocean and has undergone training in expertise, specializing in financial administration at the National School of Administration of Madagascar (ENAM). He participated in the Agrobiodiversity Research Forum from November 29 to 30, 2017 in Fianarantsoa.

    Research Fields: management, sociology, agronomy, financial administration, economics, tourism, engineering, territorial planning, legal science, diplomacy.

  • Ministry of Economy and Finance, Antananarivo, Madagascar

    Biography: Razafindrazaka Fenolaza Tsiory is a Tax Inspector with the Ministry of Economy and Finance (MEF), specializing in Geographic Infor-mation Systems (GIS) with Madagascar National Parks (MNP) in Madagascar. He obtained his Master's degree in Electronics, Computer Systems and Artificial Intelligence (ESIIA) from the Institut Supérieur Polytechnique de Madagascar (ISPM) in 2002, and the Diplôme d'Etudes Approfondies (DEA) from the Ecole Nationale d'Administration à Madagascar (ENAM) focusing on Information and Communication Technology (ICT) in Public Administration in 2016. He also graduated from the Centre d'Etudes Diplomatiques et Stratégiques (CEDS) in Madagascar in 2017. Following a training course organized by the African Tax Administration Forum (ATAF), the International Monetary Fund (IMF) and the World Bank (WB) in 2021, he was awarded a certificate entitled Tax Administration Diagnostic Assessment Tool (TADAT) in Antananarivo.

    Research Fields: management, public finance, diplomatic, financial administration, diplomacy.