Relevant bibliographies by topics / Energy planning in developing countries

Contents

  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters
  5. Conference papers
  6. Reports

Academic literature on the topic 'Energy planning in developing countries'

Author: Grafiati
Published: 4 June 2021
Last updated: 1 February 2022

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Journal articles on the topic "Energy planning in developing countries"

1

Foell, Wesley K. "Energy planning in developing countries." Energy Policy 13, no. 4 (August 1985): 350–54. http://dx.doi.org/10.1016/0301-4215(85)90030-8.

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Kilmartin, Ronald F. "Hydropower Planning in Developing Countries." Journal of Energy Engineering 114, no. 1 (April 1988): 1–25. http://dx.doi.org/10.1061/(asce)0733-9402(1988)114:1(1).

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3

Reuter, A., and A. Voss. "6.2. Tools for energy planning in developing countries." Energy 15, no. 7-8 (July 1990): 705–14. http://dx.doi.org/10.1016/0360-5442(90)90016-u.

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4

MEIER, PETER. "Energy Planning in Developing Countries: The Role of Microcomputers." Natural Resources Forum 9, no. 1 (February 1985): 41–52. http://dx.doi.org/10.1111/j.1477-8947.1985.tb01039.x.

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Edelman, D. J. "Energy policy, planning and the environment in developing countries." Environmental Engineering and Policy 2, no. 2 (June 1999): 77–84. http://dx.doi.org/10.1007/bf03500901.

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6

Luukkanen, J. J., and U. Lehtinen. "Energy Models as Tools for Policy Planning in Developing Countries." IFAC Proceedings Volumes 18, no. 9 (August 1985): 345–47. http://dx.doi.org/10.1016/s1474-6670(17)60312-4.

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Lee, N. C., V. M. S. Leal, and L. C. Dias. "Identification of objectives for national energy planning in developing countries." Energy Strategy Reviews 21 (August 2018): 218–32. http://dx.doi.org/10.1016/j.esr.2018.05.004.

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8

de Oliveira, Adilson, and Jacques Girod. "Energy diagnosis: Toward a policy-oriented approach for energy planning in developing countries." World Development 18, no. 4 (April 1990): 529–38. http://dx.doi.org/10.1016/0305-750x(90)90069-a.

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Groot, Loek, and Thijs Oostveen. "Welfare effects of energy subsidy reform in developing countries." Review of Development Economics 23, no. 4 (September 16, 2019): 1926–44. http://dx.doi.org/10.1111/rode.12619.

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Mainali, Brijesh, Shonali Pachauri, Narasimha D. Rao, and Semida Silveira. "Assessing rural energy sustainability in developing countries." Energy for Sustainable Development 19 (April 2014): 15–28. http://dx.doi.org/10.1016/j.esd.2014.01.008.

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Dissertations / Theses on the topic "Energy planning in developing countries"

1

Heaps, Charles Gilbert. "A decision support system for energy planning in developing countries." Thesis, Imperial College London, 1990. http://hdl.handle.net/10044/1/46335.

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D'Souza, Beulah Anchita. "An alternative planning process for improving energy efficiency programs in developing countries." Thesis, Massachusetts Institute of Technology, 1994. http://hdl.handle.net/1721.1/65692.

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3

Siu, Yim Ling. "Energy-economic planning and assessment in developing countries : the design and exploration of an energy modelling approach." Thesis, University of Leeds, 1989. http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.329482.

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Korkovelos, Alexandros. "Energy modelling to support sub-national sustainable planning in developing countries : The case of Kakamega County in Kenya." Thesis, KTH, Energisystemanalys, 2015. http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-172511.

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Kenya is at the forefront of a socioeconomic transformation, aiming to turn into an industrialized middle income country by 2030. Kenya Vision 2030 has identified energy as a key foundation and one of the infrastructural “enablers” upon which the economic, social and political pillars of this long-term development strategy will be built. Predicting the future of energy systems however, involves risks due to various uncertainties. Therefore, systematic energy planning at national and sub-national/County level is highly recommended through the adoption of more realistic assumptions on the future evolution and profile of demand and robust pre-feasibility of prospective projects including the integration of renewable energy sources, which the country is endowed with. This thesis provides a comprehensive analysis of the energy sector for Kakamega County in Western Kenya. The current energy demand level was estimated for six selected sectors of the County namely Residential, Industrial, Transportation, Commercial, Public and Agricultural. Additionally, the renewable energy resources potential was assessed at local level using GIS and other available data. LEAP software was used in order to model and project the energy demand and supply based on three 15-year scenarios till 2030, developed to support the economic, social and environmental sustainability of the County. This study intended to create a framework aiming to facilitate sub-national energy planning in developing countries and it is expected that the findings will be complementary to already existing energy planning models but also the base for future research towards energy poverty elimination.
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Soumonni, Ogundiran. "Electricity planning in West Africa: which way forward? An adaptive management perspective on energy policy." Diss., Georgia Institute of Technology, 2013. http://hdl.handle.net/1853/49049.

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Africa’s quest for economic development will require the increased availability and use of its abundant energy resources. Nevertheless, most of its rural population remains without access to modern energy services and urban residents typically only enjoy an intermittent supply of electricity. The dominant approach to energy planning in West Africa is top-down and centralized, emphasizing electricity generation from large dams or fossil-fueled plants and subsequent grid extension to reach more customers. However, an alternative and complementary paradigm is that of decentralized or Distributed Generation (DG), which stresses small-scale, on-site generation of power and offers a bottom-up approach to energy development. The goal of this dissertation project is to assess the various options for regional electrification and integration through a holistic analysis of the set of existing technologies and policies for deploying them. The main organ of the Economic Community of West African States (ECOWAS) for regional electricity planning is the West African Power Pool (WAPP) and its primary policy document, the “Master Plan”, addresses regional power supply shortage through centralized planning. Both the WAPP policy documents and the majority of the country-level planning documents are considered to be based on a traditional, empiricist, policy analysis that appears to provide value-neutral solutions and generalizations. In contrast, the analysis provided in this project situates itself within the post-positivistic, deliberative and more contextual approach to policy analysis in order to compare the centralized approach to generation with a distributed approach, which is currently marginal in the region. It uses the Adaptive Management (AM) framework for this analysis, particularly because of the way it deals with ecological resilience in the face of widespread uncertainty. The main policy issue that this project seeks to address is the need for an integrated energy-environment planning process, which is currently lacking in West Africa, so as to achieve long term sustainability. Adaptive management offers policy makers a holistic lens with which to view energy policy, but there are very few examples of institutions that have attempted to implement it in practice anywhere in the world. These instances, however, represent a valuable historical reference point for future policy research and management efforts that seek to explore this approach. In alignment with that objective, this dissertation first provides an overview of the concept of adaptive management in general, and its application to energy problems in particular. Secondly, the research project undertakes a policy analysis of the ECOWAS strategy for electrification, based on a stakeholder analysis, a review of life cycle assessments of existing energy technologies, the expected outcomes of the electricity sector, and a set of traditional criteria for evaluating public policies. In order to further examine the question of electricity access, it carries out a quantitative analysis of the electricity demand and supply in the region. It uses a modeling approach that is based on the logic of AM to determine whether or not the energy requirements for broad based electrification can be met through distributed renewable power, which is currently a negligible component of the generation resource portfolio in West Africa. The dissertation proceeds to carry out a retrospective analysis of three cases in the U.S. where elements of AM have already been applied to energy planning in order to investigate some of the critical determinants for its successful implementation to date. This assessment then informs a prospective analysis of three West African cases that have ideal characteristics for experimentation with AM to determine to what extent similar concepts have been used, or may be employed in the future. The AM framework also calls for the consideration of local values, which should be open to revision in the face of real situations. To this end, the prospective analysis includes three additional place-sensitive criteria, so as to ensure that the framework remains viable in a different socio-political context. The AM analyses are then extended to include a discussion of learning and innovation in clean energy technologies, drawing from the Chinese, Danish and South African experiences. The results suggest that a strong and consistent political will that is in alignment with an explicit social policy is needed to initiate and implement broad-based electrification plans, but that stakeholder participation is critical to their success. In addition, the adoption of multiple instruments and the selection of a diverse range of energy resources were found to be more effective than an overreliance on a single dominant scheme so as to allow room for policy learning. Furthermore, the results confirm that a holistic approach to managing ecosystems associated with electric power production is a fruitful way to integrate ecological considerations with social and economic factors throughout the development of a project. This type of systemic methodology should also include the building of technological capability and the development of innovation capacity in order to address the unique socio-economic context and the rapidly-changing climatic conditions in West Africa. Finally, the articulation of a planning philosophy that engages the values and sensibilities of the people in a particular place, and that is rooted in them, was found to be a critical factor for increasing the level of public participation in management activities in order to achieve more equitable and democratic outcomes.
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Bakhiet, Arig G. "Investigation of Agricultural Residues Gasification for Electricity Production in Sudan as an Example for Biomass Energy Utlization under Arid Climate Conditions in Developing Countries." Doctoral thesis, Saechsische Landesbibliothek- Staats- und Universitaetsbibliothek Dresden, 2008. http://nbn-resolving.de/urn:nbn:de:bsz:14-ds-1211207352814-40782.

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This study examines the possibility of electricity production through gasification of agricultural residues in Sudan. The study begins in Chapter 1, by providing general contextual analysis of the energy situation (production and consumption patterns) in Sudan with specific focus on electricity. It proceeded to study the potential of Petroleum, Biomass and other renewable sources for electricity production. Dramatic increase in electricity production was found to be essential especially through decentralised power plants as the current electricity production services cover ~ 13 % of the population of Sudan. Biomass potential in Sudan justifies the use of agricultural residues as energy source; its potential was estimated by ~ 350000 TJ/a. Further, the urban centres of arid regions in western Sudan were identified as the target group for this study. In chapter 2, specific investigations for selected study area through field work using statistical tools such as questionnaires, interviews and field observation show that income is highly correlated to electricity consumption. The flat rate system did not result in higher consumption thus the assumption that this consumption will not drastically change in the next 10 years could be accepted. As orientation value for BGPP, 8000 tons of GN.S are available annually, the average electricity consumption is ~ 4 kWh/day/family while acceptable price could be 40 SDD/kWh (0.15 €). In chapter 3, literature review was carried to spot out the comparative merits of the gasification technology and the most optimum gasifying and electricity production system. As a result downdraft gasifier and ICE were suggested as suitable systems. In chapter 4, fuel properties and fuel properties of agricultural residues were studied, different samples were tested and the results were presented. The main conclusions derived were: fuel properties of agricultural residues are modifiable properties, so utlization planning is possible as for any other energy resource. In Sudan, Baggase, Groundnuts shells and Roselle stalks could be considered as possible fuels. The experimental work done in chapter 5 showed that GN.S could be gasified in down draft gasifiers, which are less costly and simpler to operate than circulating systems. Acceptable values of gas thermal properties (c.v.~ 4 MJ/Nm3, 30 % of burnable gases) at fairly continuing processes were obtained. In chapter 6, a concept for biomass power plant was drafted, the main components are: downdraft, air based gasifier connected to ICE, multi-stage gas cleaning system (cyclones, washer and filters) mechanical ash removal and semi closed water cycle. Main operation measures are: electricity is the sole product; working time is 150 day/year between mid Novembermid Mars. Environmental hazards of waste management e.g. flue gas emission and waste water management are the limiting factors. In the last part of chapter 6 an economic analysis was carried out. At a value of 3000 €/kW for the initial system and fuel price of 100000 €/year for ~6 GWh then a price of 0.23 €/kWh and a return period of 24 years could be obtained. The study concludes in chapter 7 that biomass gasification under the local conditions has its comparative merits however a high institutional support is needed at the beginning
Diese Studie untersucht die Möglichkeit der Elektrizitätsproduktion durch Vergasung von landwirtschaftlichen Abfällen im Sudan. Die Untersuchung beginnt im Kapitel 1 mit der Bereitstellung einer allgemeinen zusammenhängenden Analyse der Energiesituation (Produktions- und Verbrauchsmuster) im Sudan mit dem besonderen Fokus auf Elektrizität, gefolgt von einer Studie des Potentials von Petroleum, Biomasse und anderer erneuerbarer Quellen für die Produktion von Elektrizität. Eine starke Zunahme bei der Elektrizitätsproduktion wurde als nötig bewertet, da dezentrale Kraftwerke, als die gegenwärtigen Elektrizitätsproduktionsbetriebe, nur die Versorgung von 13 % der Bevölkerung im Sudan abdecken. Das geschätzte Potential der landwirtschaftlichen Abfälle liegt bei ca. 350.000 TJ/Jahre damit kommen sie als Energiequelle in Frage. Weiterhin wurden urbane Zentren der ariden Regionen in Westsudan als Zielgruppe für die Untersuchung ausgewählt. In Kapitel 2 werden detaillierte Untersuchungen für das ausgewählte Studiengebiet durch Feldstudien unter Verwendung von statistischen Werkzeugen, wie Fragebögen, Interviews und Felduntersuchungen dargestellt. Das Ergebnis zeigt, dass das Einkommen im höchsten Maße mit dem Elektrizitätsverbrauch korreliert ist. Das Flat rate System hatte keinen höheren Verbrauch zur Folge, folglich kann die Annahme akzeptiert werden, dass sich der Verbrauch in den nächsten 10 Jahren nicht drastisch ändern wird. Als Orientierungswert für Biomasse Kraftwerk: 8.000 t/Jahr Erdnussschalen sind verfügbar. Der durchschnittliche Elektrizitätsverbrauch beträgt ca. 4 kWh/Tag/Familie betrachtet für 10.000 Familien. Im Kapitel 3 wird eine Literaturrecherche für die Vergasungstechnologie durchgeführt, zum Vergleich ihrer Vorteile und zur Auswahl des optimalen Vergasungs- und Gasumwandlungssystems. Als Ergebnis wurden der Festbett-Gleichstrom-Vergaser und gas Motor als passende Systeme vorgeschlagen. In Kapitel 4 werden Brennstoff Eigenschaften von landwirtschaftlichen Abfällen untersucht, verschiedene Proben getestet und die Ergebnisse präsentiert. Die Hauptschlussfolgerung daraus ist: Brennstoff Eigenschaften von landwirtschaftlichen Abfällen sind veränderbare Eigenschaften, welche eine bessere Planung erlauben und somit ihre Verwendung favorisieren. Im Sudan können Bagasse, Erdnussschalen und Rosellenstiele als optimaler Brennstoff gelten. Die experimentelle Arbeit in Kapitel 5 zeigt, dass Erdnussschalen im 75 kW Festbett-Gleichstrom-Systemen vergast werden können, welche weniger kostenintensiv und einfach zu bedienen sind als zirkulierende Systeme. Akzeptable Werte der Gaseigenschaften (c.v. ca. 4 MJ/Nm³, 35 % von brennbaren Gasen) wurden in kontinuierlichen Prozessen erreicht. In Kapitel 6 wurde ein Konzept für Biomassekraftwerke entworfen. Deren Hauptkomponenten sind: Festbett-Gleichstrom-Vergaser in Verbindung mit ICE, mehrstufige Gasreinigungssysteme (Zyklone, Wäscher und Filter), mechanische Aschensysteme und ein teilweise geschlossener Wasserkreislauf. Hauptbetriebsmaßnahmen sind: Elektrizität als das einzige Produkt, die Arbeitszeit beträgt 150 Tage pro Jahr zwischen November und April. Umweltrisiken des Abfallmanagements z.B. Rauchgas und Abwassermanagement sind die limitierenden Faktoren. Im letzten Teil von Kapitel 6 wurde eine ökonomische Analyse durchgeführt. Ein Wert von 3000 €/kW für das Anfangssystem und ein Kraftstoffpreis von 100.000 €/Jahr für 6 GWh dann ein Preis von 0,23 €/kWh und eine Amortisationszeit von 24 Jahren können angenommen werden. Die Studie schlussfolgert, dass die Vergasung unter den Bedingungen des Studiengebietes ihre Vorteile hat, jedoch ist institutionelle Unterstützung am Anfang nötig
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7

Bakhiet, Arig G. "Investigation of Agricultural Residues Gasification for Electricity Production in Sudan as an Example for Biomass Energy Utlization under Arid Climate Conditions in Developing Countries." Doctoral thesis, Technische Universität Dresden, 2007. https://tud.qucosa.de/id/qucosa%3A23713.

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This study examines the possibility of electricity production through gasification of agricultural residues in Sudan. The study begins in Chapter 1, by providing general contextual analysis of the energy situation (production and consumption patterns) in Sudan with specific focus on electricity. It proceeded to study the potential of Petroleum, Biomass and other renewable sources for electricity production. Dramatic increase in electricity production was found to be essential especially through decentralised power plants as the current electricity production services cover ~ 13 % of the population of Sudan. Biomass potential in Sudan justifies the use of agricultural residues as energy source; its potential was estimated by ~ 350000 TJ/a. Further, the urban centres of arid regions in western Sudan were identified as the target group for this study. In chapter 2, specific investigations for selected study area through field work using statistical tools such as questionnaires, interviews and field observation show that income is highly correlated to electricity consumption. The flat rate system did not result in higher consumption thus the assumption that this consumption will not drastically change in the next 10 years could be accepted. As orientation value for BGPP, 8000 tons of GN.S are available annually, the average electricity consumption is ~ 4 kWh/day/family while acceptable price could be 40 SDD/kWh (0.15 €). In chapter 3, literature review was carried to spot out the comparative merits of the gasification technology and the most optimum gasifying and electricity production system. As a result downdraft gasifier and ICE were suggested as suitable systems. In chapter 4, fuel properties and fuel properties of agricultural residues were studied, different samples were tested and the results were presented. The main conclusions derived were: fuel properties of agricultural residues are modifiable properties, so utlization planning is possible as for any other energy resource. In Sudan, Baggase, Groundnuts shells and Roselle stalks could be considered as possible fuels. The experimental work done in chapter 5 showed that GN.S could be gasified in down draft gasifiers, which are less costly and simpler to operate than circulating systems. Acceptable values of gas thermal properties (c.v.~ 4 MJ/Nm3, 30 % of burnable gases) at fairly continuing processes were obtained. In chapter 6, a concept for biomass power plant was drafted, the main components are: downdraft, air based gasifier connected to ICE, multi-stage gas cleaning system (cyclones, washer and filters) mechanical ash removal and semi closed water cycle. Main operation measures are: electricity is the sole product; working time is 150 day/year between mid Novembermid Mars. Environmental hazards of waste management e.g. flue gas emission and waste water management are the limiting factors. In the last part of chapter 6 an economic analysis was carried out. At a value of 3000 €/kW for the initial system and fuel price of 100000 €/year for ~6 GWh then a price of 0.23 €/kWh and a return period of 24 years could be obtained. The study concludes in chapter 7 that biomass gasification under the local conditions has its comparative merits however a high institutional support is needed at the beginning.
Diese Studie untersucht die Möglichkeit der Elektrizitätsproduktion durch Vergasung von landwirtschaftlichen Abfällen im Sudan. Die Untersuchung beginnt im Kapitel 1 mit der Bereitstellung einer allgemeinen zusammenhängenden Analyse der Energiesituation (Produktions- und Verbrauchsmuster) im Sudan mit dem besonderen Fokus auf Elektrizität, gefolgt von einer Studie des Potentials von Petroleum, Biomasse und anderer erneuerbarer Quellen für die Produktion von Elektrizität. Eine starke Zunahme bei der Elektrizitätsproduktion wurde als nötig bewertet, da dezentrale Kraftwerke, als die gegenwärtigen Elektrizitätsproduktionsbetriebe, nur die Versorgung von 13 % der Bevölkerung im Sudan abdecken. Das geschätzte Potential der landwirtschaftlichen Abfälle liegt bei ca. 350.000 TJ/Jahre damit kommen sie als Energiequelle in Frage. Weiterhin wurden urbane Zentren der ariden Regionen in Westsudan als Zielgruppe für die Untersuchung ausgewählt. In Kapitel 2 werden detaillierte Untersuchungen für das ausgewählte Studiengebiet durch Feldstudien unter Verwendung von statistischen Werkzeugen, wie Fragebögen, Interviews und Felduntersuchungen dargestellt. Das Ergebnis zeigt, dass das Einkommen im höchsten Maße mit dem Elektrizitätsverbrauch korreliert ist. Das Flat rate System hatte keinen höheren Verbrauch zur Folge, folglich kann die Annahme akzeptiert werden, dass sich der Verbrauch in den nächsten 10 Jahren nicht drastisch ändern wird. Als Orientierungswert für Biomasse Kraftwerk: 8.000 t/Jahr Erdnussschalen sind verfügbar. Der durchschnittliche Elektrizitätsverbrauch beträgt ca. 4 kWh/Tag/Familie betrachtet für 10.000 Familien. Im Kapitel 3 wird eine Literaturrecherche für die Vergasungstechnologie durchgeführt, zum Vergleich ihrer Vorteile und zur Auswahl des optimalen Vergasungs- und Gasumwandlungssystems. Als Ergebnis wurden der Festbett-Gleichstrom-Vergaser und gas Motor als passende Systeme vorgeschlagen. In Kapitel 4 werden Brennstoff Eigenschaften von landwirtschaftlichen Abfällen untersucht, verschiedene Proben getestet und die Ergebnisse präsentiert. Die Hauptschlussfolgerung daraus ist: Brennstoff Eigenschaften von landwirtschaftlichen Abfällen sind veränderbare Eigenschaften, welche eine bessere Planung erlauben und somit ihre Verwendung favorisieren. Im Sudan können Bagasse, Erdnussschalen und Rosellenstiele als optimaler Brennstoff gelten. Die experimentelle Arbeit in Kapitel 5 zeigt, dass Erdnussschalen im 75 kW Festbett-Gleichstrom-Systemen vergast werden können, welche weniger kostenintensiv und einfach zu bedienen sind als zirkulierende Systeme. Akzeptable Werte der Gaseigenschaften (c.v. ca. 4 MJ/Nm³, 35 % von brennbaren Gasen) wurden in kontinuierlichen Prozessen erreicht. In Kapitel 6 wurde ein Konzept für Biomassekraftwerke entworfen. Deren Hauptkomponenten sind: Festbett-Gleichstrom-Vergaser in Verbindung mit ICE, mehrstufige Gasreinigungssysteme (Zyklone, Wäscher und Filter), mechanische Aschensysteme und ein teilweise geschlossener Wasserkreislauf. Hauptbetriebsmaßnahmen sind: Elektrizität als das einzige Produkt, die Arbeitszeit beträgt 150 Tage pro Jahr zwischen November und April. Umweltrisiken des Abfallmanagements z.B. Rauchgas und Abwassermanagement sind die limitierenden Faktoren. Im letzten Teil von Kapitel 6 wurde eine ökonomische Analyse durchgeführt. Ein Wert von 3000 €/kW für das Anfangssystem und ein Kraftstoffpreis von 100.000 €/Jahr für 6 GWh dann ein Preis von 0,23 €/kWh und eine Amortisationszeit von 24 Jahren können angenommen werden. Die Studie schlussfolgert, dass die Vergasung unter den Bedingungen des Studiengebietes ihre Vorteile hat, jedoch ist institutionelle Unterstützung am Anfang nötig.
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Urban, Frauke. "Sustainable energy for developing countries modelling transitions to renewable and clean energy in rapidly developing countries /." [S.l. : [Groningen : s.n.] ; University of Groningen] [Host], 2009. http://irs.ub.rug.nl/ppn/.

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Keung, John Kam-Yin. "Public participation in planning in developing countries." Thesis, Cardiff University, 1990. http://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.278529.

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Beukes, Edward Andrew. "Context sensitive road planning for developing countries." Doctoral thesis, University of Cape Town, 2011. http://hdl.handle.net/11427/10075.

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Includes bibliographical references (p. 207-228).
The majority of South African urban poor live on the periphery of cities, travel long distances to work and school, and are dependent on public transport and walking or cycling (Non-Motorised Transport or NMT) for their travel needs. Road planning practice in South Africa continues to be largely automobile-centric. A need was identified to incorporate more contextual information into the transport planning process, to produce a more comprehensive, holistic and multimodal approach to practice. A description of the context, defined in terms of land use, socioeconomic, environmental and transport information, was developed and forms the basis of a method for making recommendations for road infrastructure provision. Data was incorporated using Spatial Multiple Criteria Assessment (SMCA), a Decision Support System and analysed in a GIS.
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Books on the topic "Energy planning in developing countries"

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Peter, Meier. Energy planning in developing countries: An introduction to analytical methods. Boulder: Westview Press, 1986.

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Christensen, John M. Project planning and analysis: Methods for assessment of rural energy projects in developing countries. Roskilde: Riso National Laboratory, 1988.

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Deepak, Bajracharya, and Food and Agriculture Organization of the United Nations., eds. Rural energy planning in China and other developing countries of Asia: Technical papers presented at the Workshop on Rural Energy Planning in the Developing Countries of Asia, Beijing, People's Republic of China, 11-29 April 1983. Rome: Food and Agriculture Organization of the United Nations, 1985.

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Dana, Silk, and United Nations University. Food-Energy Nexus Programme., eds. Food and energy: Strategies for sustainable development. Tokyo, Japan: United Nations University Press, 1990.

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Foreign assistance: Combating HIV/AIDS in developing countries : report to Congressional requesters. Washington, D.C: The Office, 1992.

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Chan, Hoy-Yen, and Kamaruzzaman Sopian, eds. Renewable Energy in Developing Countries. Cham: Springer International Publishing, 2018. http://dx.doi.org/10.1007/978-3-319-89809-4.

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name, No. Geothermal energy resources for developing countries. Lisse: Balkema, 2000.

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1927-, Caplin David A., Mulckhuyse John, and World Bank, eds. Industrial energy rationalization in developing countries. Baltimore: Johns Hopkins University Press, 1986.

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Balassa, Bela A. Indicative planning in developing countries. Washington, DC (1818 H ST., NW, Washington 20433): Development Economics, the World Bank, 1990.

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Girod, J. Diagnosis of energy systems in developing countries. Luxembourg: Commission of the European Communities, 1991.

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Book chapters on the topic "Energy planning in developing countries"

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Gadgil, A. J. "Introducing Energy-Efficient Technologies in Developing Countries." In Integrated Electricity Resource Planning, 513–22. Dordrecht: Springer Netherlands, 1994. http://dx.doi.org/10.1007/978-94-011-1054-9_29.

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Khan, Imran. "Sustainable Energy Infrastructure Planning Framework: Transition to a Sustainable Electricity Generation System in Bangladesh." In Energy and Environmental Security in Developing Countries, 173–98. Cham: Springer International Publishing, 2021. http://dx.doi.org/10.1007/978-3-030-63654-8_7.

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Terrapon-Pfaff, Julia, Carmen Dienst, and Willington Ortiz. "The Role of Gender Concerns in the Planning of Small-Scale Energy Projects in Developing Countries." In Springer Proceedings in Energy, 285–94. Cham: Springer International Publishing, 2015. http://dx.doi.org/10.1007/978-3-319-15964-5_25.

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Davalos, D., David Jacome Polit, D. Maldonado, and J. Moreira. "Car Space Recycling Algorithm: A Powerful Urban Planning and Decision-Making Tool." In Advanced Studies in Energy Efficiency and Built Environment for Developing Countries, 81–90. Cham: Springer International Publishing, 2019. http://dx.doi.org/10.1007/978-3-030-10856-4_8.

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Mang, Heinz-Peter, Zifu Li, Martina Mantopi Porres Lebofa, Elisabeth-Maria Huba, Dishna Schwarz, Roland Schnell, Nguyen Gia Luong, Christopher Kellner, and Johannes Selke. "Biogas Production developing country biogas production , Developing Countries biogas production developing countries." In Renewable Energy Systems, 218–46. New York, NY: Springer New York, 2013. http://dx.doi.org/10.1007/978-1-4614-5820-3_250.

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Balassa, Bela. "Indicative Planning in Developing Countries." In Policy Choices for the 1990s, 261–74. London: Palgrave Macmillan UK, 1993. http://dx.doi.org/10.1007/978-1-349-13033-7_9.

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Darkazalli, G., and S. Hogan. "Photovoltaics Manufacturing in Developing Countries." In Tenth E.C. Photovoltaic Solar Energy Conference, 1335–36. Dordrecht: Springer Netherlands, 1991. http://dx.doi.org/10.1007/978-94-011-3622-8_331.

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Taylor, Robert W. "Planning Development Through Urbanization in Nigeria." In Regional Science in Developing Countries, 269–83. London: Palgrave Macmillan UK, 1997. http://dx.doi.org/10.1007/978-1-349-25459-0_19.

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Delina, Laurence L. "Study countries." In Accelerating Sustainable Energy Transition(s) in Developing Countries, 21–40. Abingdon, Oxon ; New York, NY : Routledge, 2018.: Routledge, 2017. http://dx.doi.org/10.9774/gleaf.9781315182995_3.

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Amirahmadi, Hooshang. "Urban Planning in the Modern Middle East." In Regional Science in Developing Countries, 257–68. London: Palgrave Macmillan UK, 1997. http://dx.doi.org/10.1007/978-1-349-25459-0_18.

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Conference papers on the topic "Energy planning in developing countries"

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Tigas, K., J. Mantzaris, G. Giannakidis, C. Nakos, N. Sakellaridis, E. Pyrgioti, and A. T. Alexandridis. "Generation expansion planning under wide-scale RES energy penetration." In 2012 International Conference on Renewable Energies for Developing Countries (REDEC). IEEE, 2012. http://dx.doi.org/10.1109/redec.2012.6416711.

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Babatunde, O. M., J. L. Munda, and Y. Hamam. "Operations and planning of integrated renewable energy system: a survey." In 2020 5th International Conference on Renewable Energies for Developing Countries (REDEC). IEEE, 2020. http://dx.doi.org/10.1109/redec49234.2020.9163857.

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Dwaikat, Abdelnaser H., and Sameer A. Abu-Eisheh. "Strategic Planning for Renewable Energy in Developing Countries: Palestine as a Case Study." In 2020 5th International Conference on Renewable Energies for Developing Countries (REDEC). IEEE, 2020. http://dx.doi.org/10.1109/redec49234.2020.9163867.

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Biswas, P., K. Worsley, and P. Waweru. "Innovative energy source expanding access to family planning services in remote and low-resource settings." In 7th International Conference on Appropriate Healthcare Technologies for Developing Countries. Institution of Engineering and Technology, 2012. http://dx.doi.org/10.1049/cp.2012.1460.

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Al-Jaafreh, Mohammad, Geev Mokryani, Abdalfettah asharaa, and Rana Zubo. "Techno-Economic Viability Test of Renewable Energy Supply Options in Developing Countries: Jordan Case Study." In Proceedings of the 1st International Multi-Disciplinary Conference Theme: Sustainable Development and Smart Planning, IMDC-SDSP 2020, Cyperspace, 28-30 June 2020. EAI, 2020. http://dx.doi.org/10.4108/eai.28-6-2020.2298211.

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El-Sherif, Doaa M. "Achieving Sustainable Urban Energy Planning: With Specific Focus on Transportation." In ASME 2015 9th International Conference on Energy Sustainability collocated with the ASME 2015 Power Conference, the ASME 2015 13th International Conference on Fuel Cell Science, Engineering and Technology, and the ASME 2015 Nuclear Forum. American Society of Mechanical Engineers, 2015. http://dx.doi.org/10.1115/es2015-49628.

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The global population is expected to reach over 9 billion by 2050. The ‘second wave of urbanization’ indicates that developing world cities are growing much faster than their developed world counterparts, and most of these people will live in African and Asian cities where city growth rates are the highest. This, ‘second wave of urbanization’ is a core driver of change in the 21st century and follows the first wave of urbanization that took place in developed countries from 1750, lasted 200 years and resulted in the urbanization of 400 million people. By contrast, the second wave of urbanization is projected to see over 3 billion additional people living in cities in a time-span of just 80 years, bringing unprecedented challenges to city doorsteps. In the current era of development, urban sustainability is threatened by heightened global uncertainty and change. In broad terms, these changes consist of the following global factors: economic change, scarcity of resources, rapid technological and social change, environmental and climate change effects. These drivers of change have broad reach, and threaten multiple sectors — such as food, water, energy, transport and waste — that are critical for urban sustainability. In response, this paper discusses cities’ transition to urban energy sustainability and the role of infrastructures, with focus on transportation planning. The paper highlights the case of Egypt as an example of developing countries. The objectives of the paper are; firstly to identify the different factors affecting Egyptian cities’ transition to sustainability, and secondly to analyze the strategic urban planning process in Egypt which is a bottom-up participatory approach leading to urban sustainability. The paper presents a case study from Egypt, illustrating the preparation of a future urban strategic plan for a small Egyptian city. The case study shows how participatory approach can result in innovative solutions leading to sustainable urban energy planning with focus on transportation.
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Abeinomugisha, Dozith, Irene Batebe, and Benjamin Ariho. "What Will it Take to Commercialize Petroleum Resources in the East Africa Region; The Case of Developing Oil Refinery in Uganda." In SPE/AAPG Africa Energy and Technology Conference. SPE, 2016. http://dx.doi.org/10.2118/afrc-2580334-ms.

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ABSTRACT Energy is one of the key drivers of economic growth and development world over. Overcoming energy poverty is one of world's great challenges. All the countries in the East African Region (EAR) are not producing sufficient energy to meet their current needs. The energy mix in the EAR currently includes hydroelectric power, geothermal energy, solar, biomass and fossil fuels. The region's petroleum products consumption, the entire volume of which is currently imported, is estimated at 180,000 bbl/day and is growing at between 4 – 6% p.a. It is projected that the region will consume about 400,000bbl/day by 2030. The discovery of commercially viable oil and gas deposits in Uganda, Kenya, Tanzania and Democratic Republic of Congo however, marks a great opportunity to turn around the rather bleak state of the energy sector in the region. These resources however remain largely untapped due to lack of the necessary infrastructure such as road networks, upstream facilities, refinery, pipelines, and gas processing facilities, that are necessary to access, store, process and transport these resources. A number of countries in the EAR are planning for the development of such key infrastructure to enable the commercialization of the discovered these resources. The EAR needs to harmonise the planning and development of petroleum infrastructure in order to leverage the power of collaborative action to attract investment and ensure optimal development of this infrastructure. A case in point is Uganda which plans to commercialise its discovered oil and gas resources, estimated at 6.5 billion barrels as of 2016, through the development of an oil refinery, a crude oil export pipeline and power generation. These projects are being developed with joint participation of the East African Community (EAC) Partner States. Uganda estimates to spend over USD 10 billion on oil and gas infrastructure in the next five years. The region needs to provide a conducive investment environment in order to attract financing for these projects. This can be achieved through providing incentives such as attractive taxation regimes, streamlined decision making and security, among others, given the high CAPEX investments. Given that background, this paper will; Assess the current status of the oil and gas infrastructure in the region vis a vis the growing energy needsDiscuss the optimal infrastructure requirements for the successful development of the oil and gas industry in order to meet the region's growing energy needs.Highlight the investment requirements, incentives, challenges and financing options for the planned refinery in Uganda.
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Almeida, Renata A., and Maria de Lourdes Moreira. "An Overview of Brazilian Nuclear Program." In ASME 2014 8th International Conference on Energy Sustainability collocated with the ASME 2014 12th International Conference on Fuel Cell Science, Engineering and Technology. American Society of Mechanical Engineers, 2014. http://dx.doi.org/10.1115/es2014-6416.

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Human dependence on electricity has increased greatly over the years and, as a result, access to energy resources has become a priority in most countries, both developed and developing. With this expansion comes the need for government involvement in the planning and expansion of energy resources, especially when it comes to nuclear energy. This study presents a review of Brazil’s nuclear power program with the Angra 1 and Angra 2 power plants and the construction of the Angra 3 plant. It examines the Plano Nacional de Energia (National Energy Plan – NEP-2030) which aims, among other objectives, to implement a revised nuclear energy program, including the construction of new power plants in locations yet to be determined throughout the country.
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Pinzo´n Coronado, Horacio, Lesme Corredor Marti´nez, Nilma Rosa Barsallo Pacheco, and Armando Luis Lacera Rinco´n. "A Novel Proposed Method for Achieving Cities With Zero Anthropogenic Methane Emissions." In ASME 2011 5th International Conference on Energy Sustainability. ASMEDC, 2011. http://dx.doi.org/10.1115/es2011-54484.

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The growth of urban population is increasing quickly worldwide, especially in developing countries. This fact substantially affects the generation of waste, whether liquid, gaseous or solid, which are deposited in places commonly known as landfills. The organic matter in solid residues promotes methane production, which is a high impact greenhouse gas. Researches on uses of biogas from anaerobic fermentation’s processes have been made; nevertheless most have focused on Biogas direct burning or on site generation of electricity, and a few on biofuel production for transportation purposes. Regardless of the development of technologies to use biogas as renewable energy source, there is not wide documentation of projects involving population growth and urban planning with sustainable power generation based on organic residues produced within cities. For the Latin American case the implementation of technologies for biogas utilization is poor and projects that allow the integration of methane production based on population growth with its energy needs would highly promote planning and implementation of policies for sustainable resources exploitation. Their impact in the short, medium and long term would be unprecedented at all levels. The model proposed here serves as analysis tool for developing sustainable energy policies based on urban growth prognostics leading to 100% utilization biogas emissions for both electrical and fuel power generation. In the methodology used is performed an identification and geographic location of the main emissions sources such as landfills and sewage plants. Main solid waste generation sources are identified and an estimation of organic residues amount is made. Based on organic residues and methane production models provided by EPA, it is possible to obtain a long-term estimate of landfill biogas generation according to demographic growth prognostics. The overall power generation provided by a purification and separation plant is obtained from past estimations. Electrical energy and pure methane are produced. Model is validated in Panama City, which authors analyze the implementation of a separation plant whose objective is the adaptation of biogas for automotive purposes covering all their energy demand with electrical energy generated from a percentage of collected biogas. It hopes to have a major impact on the public urban transport fleet of Panama and a future implementation of pipeline that will feed the energy requirements of the city.
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Wan, Gim Soon. "Reliable energy for developing countries." In 2010 IEEE Conference on Innovative Technologies for an Efficient and Reliable Electricity Supply. IEEE, 2010. http://dx.doi.org/10.1109/citres.2010.5619784.

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Reports on the topic "Energy planning in developing countries"

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Machiyama, Kazuyo, Francis Obare, Venkatraman Chandra-Mouli, Doris Chou, Mario Festin, Rajat Khosla, James Kiarie, Lale Say, and Nandita Thatte. Accelerating uptake of voluntary, rights-based family planning in developing countries. Population Council, 2018. http://dx.doi.org/10.31899/rh4.1002.

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Casterline, John, and Steven Sinding. Unmet need for family planning in developing countries and implications for population policy. Population Council, 2000. http://dx.doi.org/10.31899/pgy6.1036.

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Casterline, John, and Steven Sinding. Unmet need for family planning in developing countries and implications for population policy [Arabic]. Population Council, 2000. http://dx.doi.org/10.31899/pgy6.1037.

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Barton, John H. Intellectual Property and Access to Clean Energy Technologies in Developing Countries. Geneva, Switzerland: International Centre for Trade and Sustainable Development, 2007. http://dx.doi.org/10.7215/gp_ip_20071201.

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Aznar, Alexandra, Jeffrey S. Logan, Douglas A. Gagne, and Emily I. Chen. Advancing Energy Efficiency in Developing Countries: Lessons Learned from Low-Income Residential Experiences in Industrialized Countries. Office of Scientific and Technical Information (OSTI), April 2019. http://dx.doi.org/10.2172/1509978.

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Price, L. K., G. J. M. Phylipsen, and E. Worrell. Energy use and carbon dioxide emissions in the steel sector in key developing countries. Office of Scientific and Technical Information (OSTI), April 2001. http://dx.doi.org/10.2172/783473.

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Meyers, S. Improving energy efficiency: Strategies for supporting sustained market evolution in developing and transitioning countries. Office of Scientific and Technical Information (OSTI), February 1998. http://dx.doi.org/10.2172/656842.

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Hicks, Jacqueline. Environmental Challenges of Digital Transformation in Developing Countries. Institute of Development Studies (IDS), July 2021. http://dx.doi.org/10.19088/k4d.2021.107.

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This rapid review synthesises the literature on the environmental risks of four different aspects of digital transformation in developing countries: ICT adoption, digitally-enabled energy efficiency, ride-hailing apps, and big data use. The overall message which runs throughout the diverse literatures and results is that it is not digital technologies that create environmental risks or opportunities, but how they are used. Efficiency gains derived from digital transformation may yet lead developing countries down existing unsustainable development paths if not accompanied by careful, context-dependent policy. For policy-makers seeking to mitigate environmental risks, this means putting the context of digital use at the centre of analysis rather than the technologies themselves. However, the research literature covers more specific aspects of digital transformation. In practice, this report defines digital transformation as: ICT adoption, digitally-enabled energy efficiency, ride-hailing apps, and big data use. These topics were chosen after an initial scoping review of available literature, and because they exemplify a range of the different types of potential digital effects. The literature on the environmental risks of digital transformation is huge and conflicting. This is problematic because it could be easy to cherry pick preferred research results. Several studies noted that there is less research on developing countries than developed countries, but the evidence base is still large. As an evidence review, this report focused on the academic literature, but there is also a large grey literature. Some of the literature has a gender aspect, not covered in this report.
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Sathaye, J., A. Ketoff, L. Schipper, and S. Lele. An end-use approach to development of long-term energy demand scenarios for developing countries. Office of Scientific and Technical Information (OSTI), February 1989. http://dx.doi.org/10.2172/6231288.

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Sathaye, J., and A. Ketoff. CO sub 2 emissions from developing countries: Better understanding the role of energy in the long term. Office of Scientific and Technical Information (OSTI), February 1991. http://dx.doi.org/10.2172/5535478.

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